diff --git a/.github/workflows/python-package.yml b/.github/workflows/python-package.yml
index 9c8d6090..66e4844d 100644
--- a/.github/workflows/python-package.yml
+++ b/.github/workflows/python-package.yml
@@ -15,7 +15,7 @@ jobs:
     runs-on: ubuntu-latest
     strategy:
       matrix:
-        python-version: ['3.8', '3.9', '3.10', '3.11']
+        python-version: ['3.10', '3.11', '3.12']
 
     steps:
     - uses: actions/checkout@v4
@@ -48,5 +48,3 @@ jobs:
       with:
         token: ${{ secrets.CODECOV_TOKEN }} # not required for public repos
         fail_ci_if_error: true # optional (default = false)
-
-
diff --git a/docs/change_history.rst b/docs/change_history.rst
index 5e99ade9..64d24de7 100644
--- a/docs/change_history.rst
+++ b/docs/change_history.rst
@@ -1,6 +1,7 @@
 Change History
 ##############
 
+
 .. _v1.3.8:
 
 V1.3.8 Not Released
@@ -112,7 +113,7 @@ V1.3.0 06-03-2020
 - Removed bias overscan and trimming correction on master bias creation.
 - Bugs Fixed:
 
-  + `--max-targets` was not being used, missed connection in `MainApp`.
+  + `--max-targets` was not being used, missed connection in `RedSpec`.
 
 - Updated keyword values of all reference lamps in the library according to [#292]
 - Refactored `wavelength.WavelengthCalibration` class moving several methods to
diff --git a/docs/conf.py b/docs/conf.py
index 0bbc8496..c5e497d4 100644
--- a/docs/conf.py
+++ b/docs/conf.py
@@ -186,8 +186,6 @@
      'Miscellaneous'),
 ]
 
-
-
 # -- Options for Epub output ----------------------------------------------
 
 # Bibliographic Dublin Core info.
@@ -207,5 +205,3 @@
 
 # A list of files that should not be packed into the epub file.
 epub_exclude_files = ['search.html']
-
-
diff --git a/environment.yml b/environment.yml
index 091a4347..4dc0a12f 100644
--- a/environment.yml
+++ b/environment.yml
@@ -14,5 +14,6 @@ dependencies:
       - pydata-sphinx-theme
       - astroplan
       - mock
+      - setuptools
       - sphinx
       - sphinxcontrib.napoleon
diff --git a/goodman_pipeline/__init__.py b/goodman_pipeline/__init__.py
index b5efb05f..dfd0af4b 100644
--- a/goodman_pipeline/__init__.py
+++ b/goodman_pipeline/__init__.py
@@ -1,3 +1,5 @@
+# flake8: noqa
+
 from __future__ import absolute_import
 
 from .version import __version__
@@ -6,4 +8,4 @@
 from . import images
 from . import core
 
-from .core import setup_logging
\ No newline at end of file
+from .core import setup_logging
diff --git a/goodman_pipeline/core/__init__.py b/goodman_pipeline/core/__init__.py
index 32698dc8..eb09d6dc 100644
--- a/goodman_pipeline/core/__init__.py
+++ b/goodman_pipeline/core/__init__.py
@@ -1,3 +1,5 @@
+# flake8: noqa
+
 from __future__ import (absolute_import, division, print_function,
                         unicode_literals)
 
@@ -13,7 +15,7 @@
 
 # import of functions in core.py
 from .core import (astroscrappy_lacosmic,
-                   add_wcs_keys,
+                   add_linear_wcs_keys,
                    add_linear_wavelength_solution,
                    bin_reference_data,
                    call_cosmic_rejection,
@@ -52,6 +54,7 @@
                    recenter_broad_lines,
                    recenter_lines,
                    record_trace_information,
+                   record_wavelength_solution_evaluation,
                    save_extracted,
                    search_comp_group,
                    setup_logging,
diff --git a/goodman_pipeline/core/core.py b/goodman_pipeline/core/core.py
index c9115669..32f4d8a1 100644
--- a/goodman_pipeline/core/core.py
+++ b/goodman_pipeline/core/core.py
@@ -29,11 +29,13 @@
 from astropy.stats import sigma_clip
 from astropy.time import Time
 from astroscrappy import detect_cosmics
+from ccdproc import CCDData
 from matplotlib import pyplot as plt
 from scipy import signal, interpolate
 from threading import Timer
 
 from . import check_version
+from ..wcs import WCS
 
 __version__ = __import__('goodman_pipeline').__version__
 
@@ -61,7 +63,7 @@ def astroscrappy_lacosmic(ccd, red_path=None, save_mask=False):
     return ccd
 
 
-def add_wcs_keys(ccd):
+def add_linear_wcs_keys(ccd):
     """Adds generic keyword for linear wavelength solution to the header
 
     Linear wavelength solutions require a set of standard fits keywords. Later
@@ -146,7 +148,7 @@ def add_linear_wavelength_solution(ccd, x_axis, reference_lamp, crpix=1):
     astronomical tool. (e.g. IRAF)
 
     Args:
-        ccd (CCDData) Instance of :class:`~astropy.nddata.CCDData`
+        ccd (CCDData): Instance of :class:`~astropy.nddata.CCDData`
         x_axis (ndarray): Linearized x-axis in angstrom
         reference_lamp (str): Name of lamp used to get wavelength solution.
         crpix (int): reference pixel for defining wavelength solution.
@@ -162,6 +164,22 @@ def add_linear_wavelength_solution(ccd, x_axis, reference_lamp, crpix=1):
     new_crpix = crpix
     new_crval = x_axis[new_crpix - crpix]
     new_cdelt = x_axis[new_crpix] - x_axis[new_crpix - crpix]
+    incoming_header_keys = ccd.header.keys()
+    linear_wcs_keys = ['BANDID1',
+                       'WCSDIM',
+                       'CTYPE1',
+                       'CRVAL1',
+                       'CRPIX1',
+                       'CDELT1',
+                       'CD1_1',
+                       'LTM1_1',
+                       'WAT0_001',
+                       'WAT1_001',
+                       'DC-FLAG',
+                       'DCLOG1']
+
+    if not all([key in incoming_header_keys for key in linear_wcs_keys]):
+        ccd = add_linear_wcs_keys(ccd=ccd)
 
     ccd.header.set('BANDID1', 'spectrum - background none, weights none, '
                               'clean no')
@@ -175,7 +193,7 @@ def add_linear_wavelength_solution(ccd, x_axis, reference_lamp, crpix=1):
     ccd.header.set('WAT0_001', 'system=equispec')
     ccd.header.set('WAT1_001', 'wtype=linear label=Wavelength units=angstroms')
     ccd.header.set('DC-FLAG', 0)
-    ccd.header.set('DCLOG1', 'REFSPEC1 = {:s}'.format(reference_lamp))
+    ccd.header.set('DCLOG1', 'REFSPEC1 = {:s}'.format(os.path.basename(reference_lamp)))
 
     return ccd
 
@@ -323,7 +341,7 @@ def call_cosmic_rejection(ccd,
 
             generate_dcr_parameters_file(instrument=_instrument, binning=_binning, path=red_path)
 
-        #out_prefix = prefix + out_prefix #Move line here
+        # out_prefix = prefix + out_prefix #Move line here
 
         full_path = os.path.join(red_path, f"{out_prefix}_{image_name}")
 
@@ -574,6 +592,7 @@ def cross_correlation(reference,
                       compared,
                       slit_size,
                       serial_binning,
+                      selection_bias='none',
                       mode='full',
                       plot=False):
     """Do cross correlation of two 1D spectra
@@ -591,6 +610,8 @@ def cross_correlation(reference,
         compared (array): Array to be matched. A new reference lamp.
         slit_size (float): Slit width in arcseconds
         serial_binning (int): Binning in the spectral axis
+        selection_bias (str): For arrays expected to be similar therefore a relatively small shift is expected select 'center'.
+         'none' (default) or 'center'.
         mode (str): Correlation mode for `signal.correlate`.
         plot (bool): Switch debugging plots on or off.
 
@@ -619,19 +640,35 @@ def cross_correlation(reference,
 
     ccorr = signal.correlate(cyaxis1, cyaxis2, mode=mode)
 
-    max_index = np.argmax(ccorr)
-
     x_ccorr = np.linspace(-int(len(ccorr) / 2.),
                           int(len(ccorr) / 2.),
                           len(ccorr))
+    if selection_bias == 'center':
+        gaussian_model = models.Gaussian1D(amplitude=1, mean=len(ccorr) / 2., stddev=50)
+        gaussian_weights = gaussian_model(range(len(x_ccorr)))
+        gaussian_weighted = gaussian_weights * ccorr
+
+        max_index = np.argmax(gaussian_weighted)
+    elif selection_bias == 'none':
+        max_index = np.argmax(ccorr)
+
+    else:
+        raise NotImplementedError(f"'selection_bias' {selection_bias} is not valid. Options are 'none' and 'center'")
 
     correlation_value = x_ccorr[max_index]
+
+    log.debug(f"Found correlation value of {correlation_value}")
+
     if plot:  # pragma: no cover
         plt.ion()
         plt.title('Cross Correlation')
         plt.xlabel('Lag Value')
         plt.ylabel('Correlation Value')
-        plt.plot(x_ccorr, ccorr)
+        plt.plot(x_ccorr, ccorr, label='Original Cross Correlation')
+        if selection_bias == 'center':
+            plt.plot(x_ccorr, gaussian_weights, label="Centered Gaussian")
+            plt.plot(x_ccorr, gaussian_weighted, label='Gaussian Weighted')
+        plt.legend(loc='best')
         plt.draw()
         plt.pause(2)
         plt.clf()
@@ -742,9 +779,9 @@ def classify_spectroscopic_data(path, search_pattern):
     for i in pifc.index.tolist():
         radeg, decdeg = ra_dec_to_deg(pifc.obsra.iloc[i], pifc.obsdec.iloc[i])
 
-        pifc.iloc[i, pifc.columns.get_loc('radeg')] = '{:.2f}'.format(radeg)
+        pifc.iloc[i, pifc.columns.get_loc('radeg')] = '{:.6f}'.format(radeg)
 
-        pifc.iloc[i, pifc.columns.get_loc('decdeg')] = '{:.2f}'.format(decdeg)
+        pifc.iloc[i, pifc.columns.get_loc('decdeg')] = '{:.6f}'.format(decdeg)
         # now we can compare using degrees
 
     confs = pifc.groupby(['slit',
@@ -973,7 +1010,7 @@ def kill_process(process):  # pragma: no cover
     # wait for dcr to terminate
     # dcr.wait()
 
-    #go back to the original directory. Could be the same.
+    # go back to the original directory. Could be the same.
     os.chdir(cwd)
 
     # If no error stderr is an empty string
@@ -1016,6 +1053,7 @@ def kill_process(process):  # pragma: no cover
             os.unlink(full_path_out)
         return ccd
 
+
 def define_trim_section(sample_image, technique):
     """Get the initial trim section
 
@@ -1047,9 +1085,7 @@ def define_trim_section(sample_image, technique):
     # serial binning - dispersion binning
     # parallel binning - spatial binning
     spatial_length, dispersion_length = ccd.data.shape
-    serial_binning, \
-    parallel_binning = [int(x) for x
-                        in ccd.header['CCDSUM'].split()]
+    serial_binning, parallel_binning = [int(x) for x in ccd.header['CCDSUM'].split()]
 
     # Trim section is valid for Blue and Red Camera Binning 1x1 and
     # Spectroscopic ROI
@@ -1273,20 +1309,20 @@ def extract_fractional_pixel(ccd, target_trace, target_fwhm, extraction_width,
                 background = background_1
                 if background_info_1 is None:
                     background_info_1 = "{:.2f}:{:.2f} column {:d}".format(
-                        low_1, high_1, i+1)
+                        low_1, high_1, i + 1)
             elif background_1 is None and background_2 is not None:
                 background = background_2
                 if background_info_2 is None:
                     background_info_2 = "{:.2f}:{:.2f} column {:d}".format(
-                        low_2, high_2, i+1)
+                        low_2, high_2, i + 1)
             else:
                 background = np.mean([background_1, background_2])
                 if background_info_1 is None:
                     background_info_1 = "{:.2f}:{:.2f} column {:d}".format(
-                        low_1, high_1, i+1)
+                        low_1, high_1, i + 1)
                 if background_info_2 is None:
                     background_info_2 = "{:.2f}:{:.2f} column {:d}".format(
-                        low_2, high_2, i+1)
+                        low_2, high_2, i + 1)
 
             # actual background subtraction
             background_subtracted_column_sum = column_sum - background
@@ -1552,8 +1588,11 @@ def get_lines_in_lamp(ccd, plots=False):
         fig, ax = plt.subplots()
         fig.canvas.manager.set_window_title('Lines Detected')
 
-        mng = plt.get_current_fig_manager()
-        mng.window.showMaximized()
+        try:
+            mng = plt.get_current_fig_manager()
+            mng.window.showMaximized()
+        except AttributeError as error:
+            log.debug(error)
 
         ax.set_title('Lines detected in Lamp\n'
                      '{:s}'.format(lamp_header['OBJECT']))
@@ -2071,7 +2110,7 @@ def interpolate_spectrum(spectrum, interpolation_size):
     """Creates an interpolated version of the input spectrum
 
     This method creates an interpolated version of the input array, it is
-    used mainly for a spectrum but it can also be used with any
+    used mainly for a spectrum, but it can also be used with any
     unidimensional array. The reason for doing interpolation is
     that it allows to find the lines and its respective center more
     precisely.
@@ -2103,7 +2142,7 @@ def is_file_saturated(ccd, threshold):
     """Detects a saturated image
 
     It counts the number of pixels above the saturation_threshold level, then finds
-    which percentage they represents and if it is above the threshold it
+    which percentage they represent and if it is above the threshold it
     will return True. The percentage threshold can be set using the command
     line argument ``--saturation_threshold``.
 
@@ -2483,6 +2522,7 @@ def read_fits(full_path, technique='Unknown'):
     GSP_EXTR: Extraction window at first column
     GSP_BKG1: First background extraction zone
     GSP_BKG2: Second background extraction zone
+    GSP_LINE: Data has been linearized.
     GSP_WRMS: Wavelength solution RMS Error.
     GSP_WPOI: Number of points used to calculate the wavelength solution
     Error.
@@ -2589,6 +2629,11 @@ def read_fits(full_path, technique='Unknown'):
                        value='none',
                        comment='Second background extraction zone')
 
+    if 'GSP_LINE' not in all_keys:
+        ccd.header.set('GSP_LINE',
+                       value='FALSE',
+                       comment='Data has been linearized')
+
     if 'GSP_WRMS' not in all_keys:
         ccd.header.set('GSP_WRMS',
                        value='none',
@@ -2817,6 +2862,26 @@ def record_trace_information(ccd, trace_info):
     return ccd
 
 
+def record_wavelength_solution_evaluation(ccd: CCDData, rms_error: float, n_points: int, n_rejections: int):
+    """Add record of wavalength solution evaluation
+
+    Args:
+        ccd (CCDData): data to be updated.
+        rms_error (float): Root Nean Square Error of the wavelength solution.
+        n_points (int): Number of points used to evaluate the solution.
+        n_rejections (int): Number of points rejected while evaluating the solution.
+
+    Returns:
+        ccd modified
+
+    """
+
+    ccd.header.set('GSP_WRMS', value=rms_error)
+    ccd.header.set('GSP_WPOI', value=n_points)
+    ccd.header.set('GSP_WREJ', value=n_rejections)
+    return ccd
+
+
 def save_extracted(ccd, destination, prefix='e', target_number=1):
     """Save extracted spectrum while adding a prefix.
 
@@ -3745,6 +3810,9 @@ def __init__(self, reference_dir):
             reference_dir (str): full path to the reference data directory
         """
         self.log = logging.getLogger(__name__)
+        if not os.path.isdir(reference_dir):
+            self.log.error(f"Given `reference_dir`: {reference_dir} does not exist.")
+            self.log.debug(f"Current Directory: {os.getcwd()}")
         self.reference_dir = reference_dir
         reference_collection = ccdproc.ImageFileCollection(self.reference_dir)
         self.ref_lamp_collection = reference_collection.summary.to_pandas()
@@ -3764,6 +3832,689 @@ def __init__(self, reference_dir):
             'LAMP_DOM',
             'LAMP_DPE']
 
+        self.lamps_elements = {'LAMP_HGA': ['Hg', 'Ar'],
+                               'LAMP_NE': ['Ne'],
+                               'LAMP_AR': ['Ar'],
+                               'LAMP_FE': ['Fe', 'He'],
+                               'LAMP_CU': ['Cu', 'He']}
+
+        self.line_list_files = {'cu': 'Cu_3000A-10000A_clean.csv',
+                                'he': 'He_3000A-10000A_clean.csv',
+                                'ne': 'Ne_3000A-10000A_clean.csv',
+                                'ar': 'Ar_3000A-10000A_clean.csv',
+                                'hg': 'Hg_3000A-10000A_clean.csv'}
+
+        self.line_list = {'hg': [3125.67,
+                                 3131.70,
+                                 3341.48,
+                                 3650.153,
+                                 3654.84,
+                                 3663.279,
+                                 4046.563,
+                                 4077.831,
+                                 4358.327,
+                                 4916.068,
+                                 5460.750,
+                                 5769.598,
+                                 5790.663],
+                          'cu': [1999.698,
+                                 2035.854,
+                                 2037.127,
+                                 2043.802,
+                                 2135.981,
+                                 2165.09,
+                                 2178.94,
+                                 2179.410,
+                                 2181.72,
+                                 2189.630,
+                                 2192.268,
+                                 2199.58,
+                                 2210.268,
+                                 2214.58,
+                                 2218.108,
+                                 2225.70,
+                                 2227.78,
+                                 2230.08,
+                                 2242.618,
+                                 2244.26,
+                                 2247.002,
+                                 2263.08,
+                                 2293.84,
+                                 2392.63,
+                                 2406.66,
+                                 2441.64,
+                                 2492.15,
+                                 2618.37,
+                                 2689.300,
+                                 2700.962,
+                                 2703.184,
+                                 2713.508,
+                                 2718.778,
+                                 2766.37,
+                                 2769.669,
+                                 2877.100,
+                                 2961.16,
+                                 3036.10,
+                                 3063.41,
+                                 3108.60,
+                                 3194.10,
+                                 3243.16,
+                                 3247.54,
+                                 3273.96,
+                                 3290.54,
+                                 3307.95,
+                                 3337.84,
+                                 3530.38,
+                                 3686.555,
+                                 4062.64,
+                                 4651.12,
+                                 4909.734,
+                                 4931.698,
+                                 4953.724,
+                                 5051.793,
+                                 5105.54,
+                                 5153.24,
+                                 5218.20,
+                                 5292.52,
+                                 5700.24,
+                                 5782.13,
+                                 6000.120,
+                                 6150.384,
+                                 6154.222,
+                                 6216.939,
+                                 6219.844,
+                                 6273.349,
+                                 6301.009,
+                                 6377.840,
+                                 6423.884,
+                                 6448.559,
+                                 6470.168,
+                                 6481.437,
+                                 6624.292,
+                                 6641.396,
+                                 7404.354,
+                                 7652.333,
+                                 7664.648,
+                                 7778.738,
+                                 7805.184,
+                                 7807.659,
+                                 7825.654,
+                                 7902.553,
+                                 7933.13,
+                                 7988.163,
+                                 8092.63,
+                                 8283.160,
+                                 8511.061,
+                                 9861.280,
+                                 9864.137,
+                                 10054.938],
+                          'ne': [5852.488,
+                                 5881.895,
+                                 5944.834,
+                                 5975.534,
+                                 6029.997,
+                                 6074.337,
+                                 6096.163,
+                                 6128.450,
+                                 6143.062,
+                                 6163.594,
+                                 6217.281,
+                                 6266.495,
+                                 6304.789,
+                                 6334.428,
+                                 6382.991,
+                                 6402.246,
+                                 6506.528,
+                                 6532.882,
+                                 6598.953,
+                                 6652.092,
+                                 6678.276,
+                                 6717.043,
+                                 6929.467,
+                                 7024.050,
+                                 7032.413,
+                                 7173.938,
+                                 7245.166,
+                                 7438.898,
+                                 7488.871,
+                                 7535.774,
+                                 7544.044,
+                                 7943.180,
+                                 8082.457,
+                                 8136.406,
+                                 8300.324,
+                                 8377.606,
+                                 8418.426,
+                                 8495.359,
+                                 8591.258,
+                                 8634.647,
+                                 8654.384,
+                                 8853.867,
+                                 8865.756,
+                                 8919.499,
+                                 8988.58,
+                                 9148.68,
+                                 9201.76,
+                                 9300.85,
+                                 9313.98,
+                                 9326.52,
+                                 9354.218,
+                                 9425.38,
+                                 9459.21,
+                                 9486.680,
+                                 9534.167,
+                                 9547.40,
+                                 9665.424],
+                          'he': [3187.745,
+                                 3354.55,
+                                 3613.643,
+                                 3819.6072,
+                                 3888.648,
+                                 3964.7289,
+                                 4009.268,
+                                 4120.815,
+                                 4168.967,
+                                 4437.551,
+                                 4471.479,
+                                 4713.1455,
+                                 4921.931,
+                                 5015.6779,
+                                 5047.738,
+                                 5875.621,
+                                 7281.349,
+                                 10830.337],
+                          'ar': [3093.4019,
+                                 3139.0176,
+                                 3161.3726,
+                                 3169.6685,
+                                 3181.0376,
+                                 3204.3210,
+                                 3243.6887,
+                                 3249.8003,
+                                 3281.7016,
+                                 3307.2283,
+                                 3350.9243,
+                                 3376.4359,
+                                 3388.5309,
+                                 3454.0952,
+                                 3476.7474,
+                                 3478.2324,
+                                 3480.5055,
+                                 3499.4765,
+                                 3509.7785,
+                                 3514.3877,
+                                 3519.9936,
+                                 3521.2601,
+                                 3521.9781,
+                                 3535.3196,
+                                 3548.5144,
+                                 3554.3058,
+                                 3556.9041,
+                                 3559.5081,
+                                 3561.0304,
+                                 3565.0298,
+                                 3567.6564,
+                                 3576.6156,
+                                 3581.6084,
+                                 3582.3546,
+                                 3588.4407,
+                                 3605.8792,
+                                 3606.5218,
+                                 3622.1375,
+                                 3632.6831,
+                                 3637.0310,
+                                 3639.8329,
+                                 3649.8323,
+                                 3650.8896,
+                                 3655.2782,
+                                 3656.0498,
+                                 3659.5289,
+                                 3660.437,
+                                 3669.6024,
+                                 3671.0048,
+                                 3673.2645,
+                                 3678.2701,
+                                 3680.0609,
+                                 3682.5448,
+                                 3690.8951,
+                                 3706.9302,
+                                 3709.9088,
+                                 3714.7337,
+                                 3717.1713,
+                                 3718.2065,
+                                 3720.4265,
+                                 3724.5165,
+                                 3729.3087,
+                                 3737.889,
+                                 3746.4476,
+                                 3750.4799,
+                                 3753.5177,
+                                 3754.0498,
+                                 3763.5053,
+                                 3765.27,
+                                 3766.1186,
+                                 3770.52,
+                                 3780.8398,
+                                 3786.3824,
+                                 3796.5934,
+                                 3799.382,
+                                 3803.1724,
+                                 3808.5748,
+                                 3809.4561,
+                                 3819.0159,
+                                 3825.6729,
+                                 3826.8072,
+                                 3834.6787,
+                                 3841.5187,
+                                 3844.7311,
+                                 3845.4055,
+                                 3850.5813,
+                                 3856.1382,
+                                 3861.747,
+                                 3868.5284,
+                                 3872.1371,
+                                 3875.2645,
+                                 3880.3332,
+                                 3891.4017,
+                                 3891.9792,
+                                 3894.66,
+                                 3895.2502,
+                                 3900.6266,
+                                 3911.576,
+                                 3914.7675,
+                                 3925.7188,
+                                 3926.0456,
+                                 3928.6233,
+                                 3931.2359,
+                                 3932.5466,
+                                 3944.2717,
+                                 3946.0971,
+                                 3947.5046,
+                                 3948.9789,
+                                 3952.7291,
+                                 3958.38,
+                                 3968.3594,
+                                 3974.4766,
+                                 3974.759,
+                                 3979.3559,
+                                 3979.7155,
+                                 3988.1576,
+                                 3992.0535,
+                                 3994.7918,
+                                 3999.252,
+                                 4001.1379,
+                                 4005.3628,
+                                 4011.2093,
+                                 4013.8566,
+                                 4019.8429,
+                                 4022.629,
+                                 4031.3783,
+                                 4033.8093,
+                                 4035.46,
+                                 4038.8043,
+                                 4042.8937,
+                                 4044.4179,
+                                 4045.6773,
+                                 4045.9654,
+                                 4047.4815,
+                                 4052.9208,
+                                 4054.5258,
+                                 4062.641,
+                                 4063.238,
+                                 4070.7835,
+                                 4072.0047,
+                                 4072.3849,
+                                 4076.6284,
+                                 4076.9432,
+                                 4079.5738,
+                                 4082.3872,
+                                 4099.4563,
+                                 4103.9121,
+                                 4112.8153,
+                                 4116.3753,
+                                 4128.64,
+                                 4129.6823,
+                                 4131.7235,
+                                 4144.2435,
+                                 4156.086,
+                                 4158.5905,
+                                 4164.1795,
+                                 4168.9682,
+                                 4178.3658,
+                                 4179.2973,
+                                 4181.8836,
+                                 4189.6511,
+                                 4190.7129,
+                                 4191.0294,
+                                 4198.317,
+                                 4199.8891,
+                                 4200.6745,
+                                 4201.5549,
+                                 4201.9715,
+                                 4203.4109,
+                                 4217.4308,
+                                 4218.6649,
+                                 4222.6373,
+                                 4226.6089,
+                                 4226.9876,
+                                 4228.158,
+                                 4229.8696,
+                                 4237.2198,
+                                 4248.956,
+                                 4251.1846,
+                                 4255.6034,
+                                 4259.3619,
+                                 4266.2864,
+                                 4266.5271,
+                                 4272.1689,
+                                 4277.5282,
+                                 4282.8976,
+                                 4297.9645,
+                                 4300.1008,
+                                 4300.6495,
+                                 4309.2392,
+                                 4331.1995,
+                                 4332.0297,
+                                 4333.5612,
+                                 4335.3379,
+                                 4337.0708,
+                                 4338.2314,
+                                 4345.168,
+                                 4345.8966,
+                                 4348.064,
+                                 4352.2049,
+                                 4362.0662,
+                                 4363.7945,
+                                 4367.8316,
+                                 4370.7532,
+                                 4371.329,
+                                 4372.49,
+                                 4374.8579,
+                                 4375.9542,
+                                 4379.6668,
+                                 4382.928,
+                                 4383.7535,
+                                 4385.0566,
+                                 4386.9656,
+                                 4397.7971,
+                                 4400.0968,
+                                 4400.9863,
+                                 4401.755,
+                                 4404.9022,
+                                 4406.4704,
+                                 4420.9124,
+                                 4423.9944,
+                                 4426.0011,
+                                 4430.189,
+                                 4430.9963,
+                                 4433.838,
+                                 4438.1175,
+                                 4439.4614,
+                                 4439.8793,
+                                 4440.1216,
+                                 4445.8483,
+                                 4448.4597,
+                                 4448.8792,
+                                 4449.5206,
+                                 4460.5574,
+                                 4474.7594,
+                                 4480.35,
+                                 4481.8107,
+                                 4490.9816,
+                                 4498.5384,
+                                 4502.9268,
+                                 4507.8339,
+                                 4509.374,
+                                 4510.7332,
+                                 4522.323,
+                                 4530.5523,
+                                 4530.785,
+                                 4535.4903,
+                                 4537.6426,
+                                 4543.8692,
+                                 4545.0519,
+                                 4547.7589,
+                                 4561.0128,
+                                 4563.7429,
+                                 4564.4054,
+                                 4579.3495,
+                                 4589.8978,
+                                 4596.0967,
+                                 4598.7627,
+                                 4609.5673,
+                                 4628.4409,
+                                 4637.2328,
+                                 4651.124,
+                                 4657.9012,
+                                 4682.2759,
+                                 4702.3161,
+                                 4721.5910,
+                                 4726.8683,
+                                 4732.0532,
+                                 4735.9058,
+                                 4764.8646,
+                                 4806.0205,
+                                 4847.8095,
+                                 4865.9105,
+                                 4876.2611,
+                                 4879.8635,
+                                 4882.2432,
+                                 4888.2612,
+                                 4889.0422,
+                                 4904.7516,
+                                 4914.3146,
+                                 4933.2091,
+                                 4942.9214,
+                                 4965.0795,
+                                 4972.1597,
+                                 5009.3344,
+                                 5017.1628,
+                                 5062.0371,
+                                 5090.4951,
+                                 5118.2023,
+                                 5125.7654,
+                                 5141.7827,
+                                 5145.3083,
+                                 5151.3907,
+                                 5162.2846,
+                                 5165.7728,
+                                 5176.2292,
+                                 5187.7462,
+                                 5216.8139,
+                                 5218.2020,
+                                 5221.2710,
+                                 5254.4648,
+                                 5421.3517,
+                                 5439.9891,
+                                 5442.2427,
+                                 5443.6893,
+                                 5451.6520,
+                                 5457.4157,
+                                 5467.1608,
+                                 5473.4516,
+                                 5490.1194,
+                                 5495.8738,
+                                 5498.1841,
+                                 5506.1128,
+                                 5524.9570,
+                                 5558.7020,
+                                 5572.5413,
+                                 5577.6845,
+                                 5581.8714,
+                                 5588.7200,
+                                 5597.4756,
+                                 5601.1216,
+                                 5606.7330,
+                                 5641.3751,
+                                 5648.6863,
+                                 5650.7043,
+                                 5659.1272,
+                                 5681.9001,
+                                 5691.6612,
+                                 5700.8730,
+                                 5738.3869,
+                                 5739.5196,
+                                 5772.1143,
+                                 5774.0087,
+                                 5783.5360,
+                                 5802.0798,
+                                 5834.2633,
+                                 5860.3103,
+                                 5882.6242,
+                                 5888.5841,
+                                 5912.0853,
+                                 5916.5992,
+                                 5927.1258,
+                                 5928.8130,
+                                 5942.6686,
+                                 5949.2583,
+                                 5971.6008,
+                                 5998.9987,
+                                 6005.7242,
+                                 6013.6777,
+                                 6025.1500,
+                                 6032.1274,
+                                 6043.2233,
+                                 6046.8977,
+                                 6052.7229,
+                                 6059.3725,
+                                 6064.7508,
+                                 6081.2433,
+                                 6085.8797,
+                                 6090.7848,
+                                 6098.8031,
+                                 6101.1615,
+                                 6103.5390,
+                                 6105.6351,
+                                 6113.4657,
+                                 6114.9234,
+                                 6119.6565,
+                                 6123.3619,
+                                 6127.4160,
+                                 6128.7227,
+                                 6145.4411,
+                                 6155.2385,
+                                 6165.1232,
+                                 6170.1740,
+                                 6173.0964,
+                                 6174.4032,
+                                 6212.5031,
+                                 6215.9383,
+                                 6243.1201,
+                                 6296.8722,
+                                 6307.6570,
+                                 6333.1459,
+                                 6357.0229,
+                                 6364.8937,
+                                 6369.5748,
+                                 6384.7169,
+                                 6396.6097,
+                                 6399.2065,
+                                 6403.0128,
+                                 6416.3071,
+                                 6418.3703,
+                                 6431.5550,
+                                 6437.6003,
+                                 6441.8994,
+                                 6443.8598,
+                                 6466.5526,
+                                 6468.0483,
+                                 6472.4294,
+                                 6481.1453,
+                                 6483.0825,
+                                 6493.9694,
+                                 6499.1061,
+                                 6538.1120,
+                                 6604.8534,
+                                 6620.9665,
+                                 6632.0837,
+                                 6638.2207,
+                                 6639.7403,
+                                 6643.6976,
+                                 6656.9386,
+                                 6660.6761,
+                                 6664.0510,
+                                 6666.3588,
+                                 6677.2817,
+                                 6684.2929,
+                                 6719.2184,
+                                 6752.8335,
+                                 6756.1631,
+                                 6766.6117,
+                                 6827.2488,
+                                 6861.2688,
+                                 6863.5350,
+                                 6871.2891,
+                                 6879.5824,
+                                 6888.1742,
+                                 6937.6642,
+                                 6951.4776,
+                                 6965.4307,
+                                 7030.2514,
+                                 7067.2181,
+                                 7147.0416,
+                                 7206.9804,
+                                 7272.9359,
+                                 7311.7159,
+                                 7353.2930,
+                                 7372.1184,
+                                 7383.9805,
+                                 7503.8691,
+                                 7514.6518,
+                                 7635.1060,
+                                 7723.7611,
+                                 7724.2072,
+                                 7948.1764,
+                                 8006.1567,
+                                 8014.7857,
+                                 8103.6931,
+                                 8115.311,
+                                 8264.5225,
+                                 8408.2096,
+                                 8424.6475,
+                                 8521.4422,
+                                 8667.9442,
+                                 9122.9674,
+                                 9224.4992,
+                                 9354.2198,
+                                 9657.7863,
+                                 9784.5028,
+                                 10470.0535]}
+
+    def get_line_list_by_lamp(self, ccd):
+        """Get the reference lines for elements in the lamp's name
+
+        Splits the name in chunks of two characters assuming each one of them
+        represents an element in the comparison lamp, then fetches the list of
+        line positions available and appends it to a list that will be return
+        ordered.
+
+        Args:
+            lamp_name (str): Lamp's name as in the header keyword OBJECT.
+
+        Returns:
+            line_list(list): Sorted line list.
+
+        """
+
+
+        if ccd.header['OBSTYPE'] in ['ARC', 'COMP']:
+            elements = []
+            for lamp_key in ccd.header['LAMP_*']:
+                print(lamp_key, ccd.header[lamp_key])
+                if ccd.header[lamp_key] == 'TRUE':
+                    elements.extend(self.lamps_elements[lamp_key])
+            # elements = [lamp_name[i:i + 2].lower() for i in range(0,
+            #                                                   len(lamp_name),
+            #                                                   2)]
+            print(elements)
+            line_list = []
+            for element in elements:
+                line_list.extend(self.line_list[element.lower()])
+            return sorted(line_list)
+        else:
+            log.critical(f"Obstype {ccd.header['OBSTYPE']} it's not expected to have lamp signal.")
+
     def get_reference_lamp(self, header):
         """Finds a suitable template lamp from the catalog
 
@@ -3772,7 +4523,7 @@ def get_reference_lamp(self, header):
                 lamp.
 
         Returns:
-            full path to best matching reference lamp.
+            full path to best matching reference lamp or None.
 
         """
 
@@ -3786,7 +4537,7 @@ def get_reference_lamp(self, header):
                 (self.ref_lamp_collection['lamp_cu'] == header['LAMP_CU']) &
                 (self.ref_lamp_collection['wavmode'] == header['WAVMODE']))]
             if filtered_collection.empty:
-                error_message = "Unable to find a match for: "\
+                error_message = "Unable to find a match in the reference library for: "\
                                 "LAMP_HGA = {}, "\
                                 "LAMP_NE = {}, "\
                                 "LAMP_AR = {}, "\
@@ -3799,7 +4550,7 @@ def get_reference_lamp(self, header):
                                                        header['LAMP_CU'],
                                                        header['WAVMODE'])
                 self.log.error(error_message)
-                raise NoMatchFound(error_message)
+                return None
         else:
             filtered_collection = self.ref_lamp_collection[
                 (self.ref_lamp_collection['object'] == header['object']) &
@@ -3812,7 +4563,7 @@ def get_reference_lamp(self, header):
                                 "WAVMODE = {}".format(header['OBJECT'],
                                                       header['WAVMODE'])
                 self.log.error(error_message)
-                raise NoMatchFound(error_message)
+                return None
 
         if len(filtered_collection) == 1:
             self.log.info(
@@ -3919,6 +4670,54 @@ def check_comp_group(self, comp_group):
                 return comp_group
         return None
 
+    def create_reference_lamp(self, ccd, wavelength_solution, lines_pixel, lines_angstrom):
+        self.log.info(f"Creating Reference lamp.")
+        assert len(lines_pixel) == len(lines_angstrom), f"Pixel and Angstrom list must have same length."
+        self.lines_pixel = lines_pixel
+        self.lines_angstrom = lines_angstrom
+
+        wcs = WCS()
+
+        ccd = self._record_lines(ccd=ccd)
+        ccd = wcs.write_gsp_wcs(ccd=ccd, model=wavelength_solution)
+
+        lamp_elements = []
+        for keyword in ccd.header['LAMP_*']:
+            if ccd.header[keyword] == 'TRUE':
+                lamp_elements.extend(self.lamps_elements[keyword])
+
+        elements = set(lamp_elements)
+
+        lamp_elements_name = "".join(elements)
+
+        if ccd.header['FILTER2'] in ['NO_FILTER']:
+            pass
+
+        new_name = f"goodman_comp_{ccd.header['WAVMODE']}_{ccd.header['FILTER2']}_{lamp_elements_name}.fits"
+
+        self.log.info(f"Created new reference lamp with name {new_name}")
+
+        write_fits(ccd=ccd, full_path=new_name, overwrite=True)
+
+    def _record_lines(self, ccd):
+        self.log.info("Adding pixel and angstrom line record.")
+        last_added = 'GSP_WREJ'
+        for i in range(len(self.lines_pixel)):
+            keyword_name = f"GSP_P{i + 1:03}"
+            ccd.header.set(keyword_name,
+                           value=self.lines_pixel[i],
+                           comment="Line location in pixel value",
+                           after=last_added)
+            last_added = keyword_name
+        for i in range(len(self.lines_angstrom)):
+            keyword_name = f"GSP_A{i + 1:03}"
+            ccd.header.set(keyword_name,
+                           value=self.lines_angstrom[i],
+                           comment="Line location in angstrom value",
+                           after=last_added)
+            last_added = keyword_name
+        return ccd
+
     def _recover_lines(self):
         """Read lines from the reference lamp's header."""
         self.log.info("Recovering line information from reference Lamp.")
@@ -3931,6 +4730,7 @@ def _recover_lines(self):
                 assert pixel_key[-3:] == angstrom_key[-3:]
                 assert angstrom_key in self._ccd.header
                 if int(float(self._ccd.header[angstrom_key])) != 0:
+                    self.log.debug(f"Retrieving Line {re.sub('GSP_P', '', pixel_key)}")
                     self.lines_pixel.append(float(self._ccd.header[pixel_key]))
                     self.lines_angstrom.append(
                         float(self._ccd.header[angstrom_key]))
@@ -4715,10 +5515,10 @@ def _fit_gaussian(fitter,
         profile_model = []
         if stddev_min is None:
             stddev_min = 0
-            log.debug(f"Setting STDDEV minimum value to {stddev_min} pixels. Set it with `--profile-min-width`.")
+            log.debug(f"Setting STDDEV minimum value to {stddev_min} pixels. Set it with `--target-min-width`.")
         if stddev_max is None:
             stddev_max = 4 * order
-            log.debug(f"Setting STDDEV maximum value to {stddev_max} pixels. Set it with `--profile-max-width`.")
+            log.debug(f"Setting STDDEV maximum value to {stddev_max} pixels. Set it with `--target-max-width`.")
         log.debug(f"Using minimum STDDEV = {stddev_min} pixels.")
         log.debug(f"Using maximum STDDEV = {stddev_max} pixels.")
         for peak in selected_peaks:
diff --git a/goodman_pipeline/core/tests/test_core.py b/goodman_pipeline/core/tests/test_core.py
index 3185d313..ca905c07 100644
--- a/goodman_pipeline/core/tests/test_core.py
+++ b/goodman_pipeline/core/tests/test_core.py
@@ -34,7 +34,7 @@
 # import of functions in core.py
 from ..core import (astroscrappy_lacosmic,
                     add_linear_wavelength_solution,
-                    add_wcs_keys,
+                    add_linear_wcs_keys,
                     bias_subtract,
                     bin_reference_data,
                     call_cosmic_rejection,
@@ -93,7 +93,7 @@ def setUp(self):
         self.ccd = CCDData(data=np.random.random_sample(200),
                            meta=fits.Header(),
                            unit='adu')
-        self.ccd = add_wcs_keys(ccd=self.ccd)
+        self.ccd = add_linear_wcs_keys(ccd=self.ccd)
         self.ccd.header.set('SLIT',
                             value='1.0_LONG_SLIT',
                             comment="slit [arcsec]")
@@ -145,9 +145,7 @@ def test_add_wcs_keys(self):
                     'DC-FLAG',
                     'DCLOG1']
 
-
-
-        self.test_ccd = add_wcs_keys(ccd=self.test_ccd)
+        self.test_ccd = add_linear_wcs_keys(ccd=self.test_ccd)
         for key in wcs_keys:
             self.assertIn(key, self.test_ccd.header)
 
@@ -208,8 +206,6 @@ def test__bin_reference_data(self):
             self.assertEqual(len(new_wavelength), np.floor(len(wavelength) / i))
 
 
-
-
 class CentralWavelength(TestCase):
 
     def setUp(self):
@@ -1856,9 +1852,9 @@ def test_get_reference_lamp_no_match_status_keys(self):
 
         self.ccd.header.set('WAVMODE', value='400_M2')
 
-        self.assertRaises(NoMatchFound,
-                          self.rd.get_reference_lamp,
-                          self.ccd.header)
+        reference_lamp = self.rd.get_reference_lamp(header=self.ccd.header)
+
+        self.assertIsNone(reference_lamp)
 
     def test_get_reference_lamp_exist_with_object_key(self):
         self.ccd.header.set('OBJECT', value='HgArNe')
@@ -1884,9 +1880,9 @@ def test_get_reference_lamp_does_not_exist(self):
         self.ccd.header.set('OBJECT', value='HgArCu')
         self.ccd.header.set('WAVMODE', value='400_M5')
 
-        self.assertRaises(NoMatchFound,
-                          self.rd.get_reference_lamp,
-                          self.ccd.header)
+        reference_lamp = self.rd.get_reference_lamp(header=self.ccd.header)
+
+        self.assertIsNone(reference_lamp)
 
     def test_lamp_exist(self):
         self.ccd.header.set('LAMP_HGA', value='TRUE')
diff --git a/goodman_pipeline/data/ref_comp/goodman_comp_2100_3900A_NO_FILTER_ArHg.fits b/goodman_pipeline/data/ref_comp/goodman_comp_2100_3900A_NO_FILTER_ArHg.fits
new file mode 100644
index 00000000..2ffbe6e3
--- /dev/null
+++ b/goodman_pipeline/data/ref_comp/goodman_comp_2100_3900A_NO_FILTER_ArHg.fits
@@ -0,0 +1,106 @@
+SIMPLE  =                    T / conforms to FITS standard                      BITPIX  =                  -64 / array data type                                NAXIS   =                    1 / number of array dimensions                     NAXIS1  =                 4060                                                  ORIGIN  = 'NOAO-IRAF FITS Image Kernel July 2003' / FITS file originator        IRAF-TLM= '2024-05-10T19:58:54' / Time of last modification                     OBJECT  = 'CD-34d241'          / Name of the object observed                    DATE-OBS= '2023-12-15T00:52:56.895' / DATE-OBS Format: YYYY-MM-DDThh:mm:ss.sss  DATE    = '2024-05-10T19:56:49' / Date Format is YYYY-MM-DD                     TIME    = '00:52:56.895 to 00:52:57.900' / ~ Start & Stop of Exposure           N_PRM0  =                    5 / Status                                         PG0_0   =               -106.2 / CCD 0 CCD Temp., C                             PG0_1   =                0.000 / Chamber Pressure, Torr                         PG0_2   =                    0 / Shutter Status, (Closed)                       PG0_3   =                    1 / XIRQA Status, (Occured)                        PG0_4   =                    1 / Cooler Status, (On)                            N_PRM1  =                   36 / Factory                                        PG1_0   =                  699 / Instrument Model,                              PG1_1   =              8388607 / Instrument SN,                                 PG1_2   =              8388607 / Hardware Revision,                             PG1_3   =                    1 / Two Serial Registers, (True)                   PG1_4   =                    1 / Installed CCDs,                                PG1_5   =                    4 / Installed Ports,                               PG1_6   =                    0 / Port 0 Connect, (SR0)                          PG1_7   =                    0 / Port 0 Map, (ADC0)                             PG1_8   =                    0 / Port 0 Shift Direction, (Same)                 PG1_9   =                    0 / Port 1 Connect, (SR0)                          PG1_10  =                    1 / Port 1 Map, (ADC1)                             PG1_11  =                    1 / Port 1 Shift Direction, (Reverse)              PG1_12  =                    1 / Port 2 Connect, (SR1)                          PG1_13  =                    2 / Port 2 Map, (ADC2)                             PG1_14  =                    0 / Port 2 Shift Direction, (Same)                 PG1_15  =                    1 / Port 3 Connect, (SR1)                          PG1_16  =                    3 / Port 3 Map, (ADC3)                             PG1_17  =                    1 / Port 3 Shift Direction, (Reverse)              PG1_18  =                   16 / Bits Per Pixel,                                PG1_19  =                    1 / CCD Enable Mask,                               PG1_20  =                    1 / Rectangular Grid X,                            PG1_21  =                    1 / Rectangular Grid Y,                            PG1_22  =              8388607 / Controller SN,                                 PG1_23  =              8388607 / Analog Part #,                                 PG1_24  =              8388607 / Analog Rev. #,                                 PG1_25  =              8388607 / Controller Rev. #,                             PG1_26  =                   16 / Serial Pre-Masked,                             PG1_27  =                 4096 / Serial Active Pix.,                            PG1_28  =                    0 / Serial Post-Masked,                            PG1_29  =                    0 / Parallel Pre-Masked,                           PG1_30  =                 4096 / Parallel Active Pix.,                          PG1_31  =                    0 / Parallel Post-Masked,                          PG1_32  =                    0 / CCD Type, (Full-Frame)                         PG1_33  = 'CCD 486'            / CCD Model                                      PG1_34  =                 4221 / Software Part Number,                          PG1_35  =                    1 / Software Revision,                             N_PRM2  =                    5 / Miscellaneous                                  PG2_0   =                  130 / Tested Speeds, (200 KHz)                       PG2_1   =               -110.0 / Low Temp Limit, C                              PG2_2   =               -100.0 / Operational Temp, C                            PG2_3   =                5.000 / High Pressure Limit, Torr                      PG2_4   =                0.100 / Operational Pressure, Torr                     N_PRM3  =                   18 / Control                                        PG3_0   =                    0 / Serial Origin, Pixels                          PG3_1   =                 4142 / Serial Length, Binned Pixels                   PG3_2   =                    1 / Serial Binning, Pixels                         PG3_3   =                    0 / Serial Post Scan, Pixels                       PG3_4   =                  980 / Parallel Origin, Pixels                        PG3_5   =                  948 / Parallel Length, Binned Pixels                 PG3_6   =                    2 / Parallel Binning, Pixels                       PG3_7   =                    0 / Parallel Post Scan, Pixels                     PG3_8   =                  130 / DSI Sample Time,                               PG3_9   =                    0 / Analog Attenuation, (Low)                      PG3_10  =                 1836 / CCD 0 Port 0 Correlation Bias,                 PG3_11  =                 1836 / CCD 0 Port 1 Correlation Bias,                 PG3_12  =                 1964 / CCD 0 Port 2 Correlation Bias,                 PG3_13  =                 1748 / CCD 0 Port 3 Correlation Bias,                 PG3_14  =                    0 / Parallel Phasing, (SR0)                        PG3_15  =                    0 / Serial Phasing, (Normal)                       PG3_16  =                    2 / Port Select, (Port 1)                          PG3_17  =                    0 / Abort Mode, (Without Readout)                  N_PRM4  =                    6 / Setup                                          PG4_0   =                1.000 / Exposure Time, Sec.                            PG4_1   =                  100 / TDI Delay, us                                  PG4_2   =                    4 / Trigger Mode, (Light Exposure)                 PG4_3   =                  250 / Parallel Shift Delay, 100 ns                   PG4_4   =                0.500 / Shutter Close Delay, Sec.                      PG4_5   =               -107.0 / CCD Temperature Setpoint, C                    N_PRM5  =                    1 / Operational                                    PG5_0   =                   11 / Mode,                                          TELESCOP= 'SOAR 4.1m'                                                           INSTRUME= 'ghts_blue'                                                           NOTES   = ''                                                                    INSTCONF= 'Blue'                                                                CAMSWV  = 'Beta 29'                                                             CONSWV  = '8359,10'                                                             INSTSWV = 'GSCS 2.0.17.6.6-Alpha'                                               CAMERA  = 'Si 600-658 '                                                         RA      = '00:41:46.642'       / right ascension [hh:mm:ss.sss]                 DEC     = '-33:39:26.740'      / declination [dd:mm:ss.sss]                     AIRMASS =             1.030000 / airmass at approx. start of exposure           UT      = '00:53:23.947'       / time at approx. start of exposure [UTC]        FOCUS   =          -851.000000 / SOAR telescope focus                           MOUNT_AZ=           252.016746 / SOAR mount azimuth                             MOUNT_EL=            76.225221 / SOAR mount elevation                           ROTATOR =           356.800000 / Nasymth cage rotator angle [deg]               POSANGLE=             0.000000 / position angle [deg. E of N]                   SEEING  =            -1.000000 / DIMM seeing [arcsec]                           LST     = '01:44:12.033'       / Local Sidereal Time  [hh:mm:ss.sss]            OBSRA   = '00:41:46.680'       / target right ascension [hh:mm:ss.sss]          OBSDEC  = '-33:39:26.701'      / target declination  [hh:mm:ss.sss]             DOME_AZ =           250.250293 / SOAR Dome Shutter azimuth                      HA      = '01:02:25.391'       / Hour Angle  [hh:mm:ss.sss]                     ADCSTAT = 'IN'                 / ADC Status                                     ADCPOS  = 'DONE_82.089'        / ADC Position                                   LAMP_HGA= 'TRUE'               / Hg(Ar)                                         LAMP_NE = 'FALSE'              / Neon                                           LAMP_AR = 'FALSE'              / Argon                                          LAMP_FE = 'FALSE'              / Iron                                           LAMP_CU = 'FALSE'              / Copper                                         LAMP_QUA= 'FALSE'              / Quartz                                         LAMP_QPE=             0.000000 / Quartz Percent                                 LAMP_BUL= 'FALSE'              / Bulb                                           LAMP_DOM= 'FALSE'              / Dome                                           LAMP_DPE=             0.000000 / Dome Percent                                   CAM_ANG =            48.348653 / camera angle [deg]                             GRT_ANG =            24.173100 / grating angle [deg]                            CAM_TARG=            48.346900 / camera target [deg]                            GRT_TARG=            24.173400 / grating target [deg]                           CAM_FOC =                  827 / camera focus                                   COLL_FOC=                 1001 / collimator focus                               FILTER  = 'NO_FILTER'          / primary filter wheel                           FILTER2 = 'NO_FILTER'          / secondary filter wheel                         GRATING = '2100_SYZY'          / VPH grating [1/mm]                             SLIT    = '0.45_LONG_SLIT'     / slit [arcsec]                                  COL_TEMP=            17.578125 / coll ext temp (deg C)                          CAM_TEMP=            19.906250 / cam ext temp (deg C)                           WAVMODE = '2100_3900A'         / Wavelength                                     EXPTIME =             1.000000 / integration time                               RDNOISE =             4.740000 / CCD readnoise [e-]                             GAIN    =             1.400000 / CCD gain [e-/ADU]                              OBSTYPE = 'ARC'                / observation type                               OBSERVER= 'Diego Gomez'                                                         PROPOSAL= ''                                                                    EQUINOX =          2000.000000 / equinox of coordinates                         ROI     = 'CUST_0_4142_980_948_1x2'                                             ENVWIN  =            24.919920 / Wind Speed [km/hr] at start of exposure        ENVPRE  =           735.350000 / Atmospheric Pressure [hPS] at start of exposur ENVDIR  =           318.700000 / Wind Direction at start of exposure            ENVTEM  =            14.675000 / Outside Temperature [C] at start of exposure   ENVHUM  =            19.450000 / Relative Humidity at start of exposure         DISPAXIS=                    1                                                  DETSIZE = '[1:4096,1:4096]'                                                     TRIMSEC = '[1:4142,1:1896]'                                                     CCDSIZE = '[1:4096,1:4096]'                                                     CCDSUM  = '1 2'                                                                 BUNIT   = 'adu     '                                                            OBSID   =                                                                       CONFID  =                                                                       REQNUM  =                                                                       PROPID  = 'calibrate'                                                           SITEID  = 'sor'                                                                 TELID   = '4m0a'                                                                RLEVEL  =                    0                                                  BLKUID  =                    0                                                  L1PUBDAT= '2023-12-15T00:52:23.078580Z'                                         IMAGEID = '307'                                                                 HEADERVE= '1.0.1'                                                               BLOCK_ID=     1702600267045374                                                  OPENTIME= '00:53:26.1313352'   / GPS-Synched Time for Shutter Open (UT)         OPENDATE= '2023-12-15'         / GPS-Synched Time for Shutter Open (UT)         CLOSETIM= '00:53:27.0366172'   / This is the GPS-Synched Time for Shutter Closi         -- Goodman Spectroscopic Pipeline --                                    GSP_VERS= '1.3.7   '           / Goodman Spectroscopic Pipeline Version         GSP_ONAM= '0307_Calibration-Star_15-12-2023_comp.fits' / Original file name     GSP_PNAM= 'cfzst_0307_Calibration-Star_15-12-2023_comp_386.11-415.65.fits' / ParGSP_FNAM= 'goodman_comp_2100_3900A_NO_FILTER_ArHg.fits' / Cu                    GSP_PATH= '' / Location at mo                                                   GSP_TECH= 'Spectroscopy'       / Observing technique                            GSP_DATE= '2024-05-10'         / Processing date                                GSP_OVER= 'none    '           / Overscan region                                GSP_TRIM= '[51:4110,2:948]'    / Trim section from TRIMSEC                      GSP_SLIT= '[1:4060,62:819]'    / Slit trim section, slit illuminated area only. GSP_BIAS= 'master_bias_BLUE_SP_1x2_R04.74_G01.40.fits' / Master bias image      GSP_FLAT= 'norm_master_flat_2100Custom_3900nm_0.45_dome.fits' / Master flat imagGSP_NORM= 'simple  '           / Flat normalization method                      GSP_COSM= 'none    '           / Cosmic ray rejection method                    GSP_TMOD= 'Polynomial1D'       / Model name used to fit trace                   GSP_TORD=                    2 / Degree of the model used to fit target trace   GSP_TC00=    400.8807838751269 / Parameter c0                                   GSP_TC01= -0.00633820903910904 / Parameter c1                                   GSP_TC02= 2.98343351871721E-09 / Parameter c2                                   GSP_TERR=   0.3403306007581067 / RMS error of target trace                      GSP_EXTR= '386.11:415.65'      / Extraction window at first column              GSP_BKG1= 'none    '           / First background extraction zone               GSP_BKG2= 'none    '           / Second background extraction zone              GSP_LINE= 'FALSE   '           / Data has been linearized                       GSP_WRMS= 'none    '           / Wavelength solution RMS Error                  GSP_WPOI= 'none    '           / Number of points used to calculate wavelength sGSP_WREJ= 'none    '           / Number of points rejected                      GSP_FUNC= 'Chebyshev1D'        / Mathematical model of non-linearized data      GSP_ORDR=                    2 / Mathematical model order                       GSP_NPIX=                 4060 / Number of Pixels                               GSP_C000=    3493.517485375643 / Value of parameter c0                          GSP_C001=  0.18002656901217812 / Value of parameter c1                          GSP_C002= -7.4196419059406E-07 / Value of parameter c2                          GSP_P001=                876.4 / Line location in pixel value                   GSP_P002=                902.8 / Line location in pixel value                   GSP_P003=              3154.02 / Line location in pixel value                   GSP_A001=             3650.153 / Line location in angstrom value                GSP_A002=             3654.836 / Line location in angstrom value                GSP_A003=             4046.563 / Line location in angstrom value                GSP_SCTR= 'ecfzst_0308_Calibration-Star_15-12-2023.fits' / Science target file tAPNUM1  = '1 1 386.11 415.65'  / Aperture in first column                               -- GSP END --                                                           COMMENT  Triggered, Exp Time= 01 - Image Transform: Flip Y - Image Transform: FlCOMMENT  ip Y, Saved as: 0307_Calibration-Star_15-12-2023_comp.fits             REFSPEC1= 'ecfzst_0307_Calibration-Star_15-12-2023_comp_386.11-415.65_copy'     END                                                                             @iZ�V{
@Oœ 
+RhºÀT•
¡%Ñ@IÒ²-
"$@LÛÖŠh@Jñ¹dbÚß@PîJžr@S¾Àîñ¨l@RK ÛFÔÀ0Ý{C¤ËÚ@"oîˆ!@Hqû†f„|@9CÔ��€{@Qy„ˆ]@@ªÆÞK{„@LæJD]å‚@Q§¦C�9yÀ(Î}Õ¶‡®ÀPJÃã½í“À�]½ÚqÀ;‘ÕÔ¦å@
+DS›zsÀ(–�±eË”À8ŒòN7ÀÀ<ª¸µ1Õ$À>«ýQ‰xÀD`Ô9³œ|@(4çõ²ÊŸÀ9›ƒü¸°ÀIé¾·äj…ÀG#�ACœ°@—QF.
>ÀE•yÛúB:À$3%®ï¾uÀW¹úfO
+ÀN��«“
„ÀGu5=³±ÿÀF8Ûëo´¯À5­¼s†ÐÀGwSl$ÇýÀA<ÍÜ¡[”ÀJÖ™&ÍcÀGõOƆíÀ:‘|Ñ�^˜À7ÔÒÐ�|À0�®É*¹ÀV2¶]qÀ=¿¹^–?À(q›šp\ÀK隟]”À10ª¿ô*ÀIˆ
Ú1ÀHœÂÛ,ì*À*%ÒiTfÀ-:›wD¯ÀI™Y<IÀBóž$ÁœÀFjjŸë°À:€BrŸÀDë{‡.OšÀ?jGiÇÿ¼ÀIC…e§lÎÀ@›D²ÀEý¨±(¦ÀHŸ†dLæÀ=5ÑÁx"ÀQ[†h‚3­À6é~c¢²ÏÀ<¹Pk˜E½ÀM‡e<RžÀOÅ2úôœøÀT:Î~ÏxÀJ@ê´DÚÆÀ9\§`M€ÀRMçkN£òÀBÖrWø¤žÀ>[[n-ÀI»’fäÎ@.®’RV­ÀP6/÷ðî†À@X~HÔÀRwÝÕ˜`´ÀA±¼-{	@0÷oöÓtÀL1 >õÞÀRLÝ¿hÀLŽ´0IIeÀ,íÜ‘ŽŠÀ8€Ý2“à^À8£rÎ{èÀ:’)p•6¾À7®œ—píÞÀB$…DJ#ÏÀI$,•µ5†À:šÆx”«À9�ÖÀNRŠÀQBŒ}z¹ÄÀIkƒøeÀF€øsž:¦À0Ï­Ô§é*ÀH*e qÒÀ4`²÷ßk&ÀN‡eD
’EÀ.ìsªÀ3º%Ýå‘@pm���6ÀPŸªÊ‰–ÀDÚë]ÒÀPœb* {zÀ>8'ú‚9ÄÀR; Aõ‰^ÀLjR9³ã†ÀAï_Xj7\ÀDJ¼DáGiÀ=¸·f¿B_ÀGH„Ý8ÀK`–²§CàÀT²ðët®ÆÀC%0¹¼ÀBÔ�¶ЂÀ@§e
¢ÚÀYIí¢È‰À?5HåŸ<aÀI�…%k“íÀKá2öuÅ$ÀGçÓÏéÀKcNZÌÀR˺¸Ê¼À0-8>ç»âÀG¶:ð–•"@#ÖŠÜÙVDÀDŸm¡8˜^À5™=ö¤ôóÀ1bÒNñ]À6‰*ŸldÀM4	¼o$;ÀF¹¬ª
;%¿Â÷CGh@®ySô¹êÀN½ƒö>ZÙÀEH-oVàÀ;wE•Y	ÀIëzL¨À=׿=_ À9GÂ_i~`À@v,
	$À-¯Dn¢CDÀD†èR2ÀJY]–˜RÀB¬%
êåÀ7ÒÓãü½ÌÀ3°—ø$äÀ@9øY¹À$ãæo`DÀ@ë„hgÛÀK|.ÂÁ§ÀFqί¸¸ðÀAzFUe§À@¦ß#ñJÀ:ß—8sÀ>%oôÀVÀ;U¸Æ&:ÀB¦/FsÀAcSÞƒýÀ/Ô·•À;<‰Ã6[ÊÀG<
•
ª@2Ùûå�Ý!@7ܹ¾c-ÅÀFj*Q—4›ÀQ›�Öªx¯Àñ†k[h@œu›k³ÏÀ8ßÌIzSºÀ5¿A–A!;ÀJ¾SY._À6˜K Ÿ¬À;U__#µ¤ÀM)Ù—yÈmÀ0ùò{š4?èOš[±fÀ7€’î€ÀKC\Ñc ŠÀ@`M¡a"SÀG_]Ó«úÀ>U¯bWÀŠG|9»ŽÀGxG¯åÀ3Ó¡”ÄÓÀB¯³ÊëÊœÀ6ì|:Ñ–rÀ8/—cG]™À8¿
Ô>bæÀR;°ÃÆsbÀC	¨vµÀ1Upæ�ÑÀCå$…â?
@#6V��ßÀ3ÅAîÞ±˜ÀC;l‚+ØÀ(ô÷ýÞ²®ÀK�ÌŒr±ŽÀ4®\ì5À4³—s�K°@¹²ÍUr@¤@òfÀEbtY‰
cÀ2¼ßJµ7Àr×@”À?ÒR°p‹À1ÂÁé=DÅ@%
—öTÅ#ÀÓÖ’*’+¿æ8PƒÁÖÀ,páùæ@*ËbÊRnÀ;(g@ØWÀ1!‰srÈÀù:ãfpÀ@GS(Ÿ¥’À(<k¼yÀR�÷_
+À:I›“ôxO@ÚÈÝÑÇ®À8:²¹ð^¿æ2LlëMn@
+6' 
+@0D�w}äí¿ó�ö‰å”À1Cˆ©-æÀKO½“ÿ­WÀ@ÏÙ¹:"Ï@ÔõàK5Àç!ÎÑ{ìÀ"�׺у\@8¹1c]ÀG
sIñ¢@-©“qx(À/‰!ž£Æ/À8èäJs¯œÀGfÏL¹¡À�ž¬z[<@¢'"*+À­Á¥Ì&·@ ©m�]ü@,¢ºÞœŠ@:˜@Ñ‘ö@!Aö{}±À×ΩȮÀ8ïßpßT«À.˜î
2z‚À.½µ1V¥@'
Á 5ns@5V¡ó³À@ÝjÀÀ7Ú%ˆ¾€žÀ
+QzõÕRZÀ4«šçH#ÀD�Ѽ†€ÀMwOž‰ÀJÆBœÔMIÀ-,FS�}ÀŽ8qKnÎÀú
+18ždÀ<J[uøÍ@-8}ÿ�c€À.vl]rH@6ü­ö
À3äcV°í_@6âîæ­öÀHk¨3
ÀB{»ë�hÀA3–o3YÀ2Š ·‘äÀHç¼n‰{@6œXh~o�¿þØHW€¼"@+[*šÁd@zù)ÿÜa@7,�l­ÎÏÀ3Z|à–øÀ:MÐÏÁÀ
öZè�ÛÀAZQ	fÑë¿ñ,iOô¦À4éÓ%ïcÀ=~_ïSÖ"À_'0
+îÀ.Û4}²jÀ9„‹È¯:^À3x_ãdÉÙÀI#i±Bˆà¿ë2Ù-�è¿Ä6¦ÇµõÀÀKºy#ýöÀ0Ée±6ˆÀEtKoÿ:n@BÊt`tüÀBI{»(É@;]Nãã�ÀEéâÎb¿î༽ø�À1cvµ[ÿ%Àœ8¬ž†À8Úd ¨¿ðNoÅk¡OÀ6�‘Ÿ•s@8ë†ÙCm@$ÁµTArÓ@?÷HüíïÀ	bñAxÐ|À)•½²ÊSºÀWêÑ\×�À1”.ªÞQøÀEÔñÀØì@ÀßÓ£‚¬˜@0íl‰öd@$«0[ùxV@1"-?‚z!ÀÈwí²ê@uÁW.À7í[€=À(D/âìÊ}@L�²	/|1ÀBïÕv"@"°)D%™@ðûI´ºÀ>ìƒb…`¦@Ž'‰+,À#ôÝ
I¥?@ÛbÄ@º¡ƒ½?ñÆ5,MžÒ@4Ų8õq�ÀA»ð@æv�À !¥“´æÀJE"³ÂLÎÀ19ŽÄ DÀ?¿§½$@*ŽyrXE@4‚]ß&ÞaÀ$…-͈œÀ+²‰vøcÎÀ
ȯÜK˜
+À	UÉÿˆ¡@3˜·B…ž—À„¯~Ë@+†ÛWjJÉ@¾íµ{sÀ7íÉ>Êå®À<B>{ûb©À+TƒÓæ@={Œº@Ú6À/tÔ¾<À>ŒzÑûLhÀ4<2•%?ÜÀ&7‚0Wo?ôhuþ›”<À>+­±PÀDÛùY^ëh@7u€Ék@6E&¼©Ì@H¼è³‚°@1¨†ÞJc>À{úWbïâÀ(ôg7Á[
+@,––ž(©oÀ<Q«ØŸR¯ÀÄyÉž�dÀC¿;ç9¦À!¶Ë‡ÃæÀ�ß„·ù@AõN29K+@2	�¶÷§]¿ï3LSĺ�?á �qCu6À7º)ÍÑ~À7’c¡Go¤À1Uá‰àÀâ çô¹>À+¿s£„Ø@ =‘L˜ÜýÀ7éŸ?8À6Ò:«k9PÀ6“ªà³ì×À!Ä~W�E¡?Ófô>b�T@,bFðînÀ!‘tvïÀ2ÁŸÑ±q@­.A‹€@ òÚ%<*@'T_oœñ\@@siNšÎÀ7ÇÃ2€À<L™ã5/$?ùRn$X9À(D],gÎ@.ÂòðµŸr@3&jH-wa@:j_È£=;À*À

É{À"4÷hÈÀ1Š%[û]@*d$#Ê�HÀ&tsÐ3[À^ØÍ
Ã@6üý/É©×@LïDz`:»À&óÍ¡×å@5òA…õaèÀ!@KÔÕC@QnÚðW@+פXmÂ@1+Í”H¥²@6u==æbÀùÊÀ¥�ÇÀ=[¢	!¤@:J4ÇòÂÀÑ"ã*÷«@=+üJ¡øYÀ;åæãýl@:pBÅT™@0ØMÅÿ3†@%;bsfUVÀ:XSÀt6ô@Hi´˜€ç@0
ï½™,WÀ(`lùE@ml«ú«ë@úÁ�ú†y@AÉ^ˆ¦j@/#‹ŒÊ@2ƒ8r#–@"]–—£‹@1+XèÜ›@:/δ{@Cu:¤l®À2‘”lÒt4@:ÐQÉs@.añ~˜ 2@&dê¡$¿ô	6�þ»@'•±_¹ËÀ+7C_ú=À2â*'¶Á"@'Öø-å@B8ÝgÈb@,+ŠpÂ÷ÐÀ5Úeêç6À0¸iI*´À0­¦ötf@?lA÷ÉÝB?êQ�µŠh`?ûá­”Oñ^@1Ç”üU;-@<ûÖxîÎ@( ©�D#&¿êPŸ§1@œ­cDwv@4}Ú­Ù@CKƒý¡¦@@`²Ìàn@A$	Ý?À0yÉxRX
+À'ô¹c@#yÒþÄW>@6'ÕÇ
z¿þЄqn@“çËýü@;tA•~*@8œU›­í=À4ö‘@™¡@
+S/P¾½@7•Š³ŽÎû@<ä Vh‡À&ê¢ùkæ@!ço^ÈM„@?ƒGÙá¢@DŒ°}i¹ë@2ÛÖ¿ooT@4, Ÿåy@)�ÑßÈ@(Yo÷j½À-ÌÖ±uyâÀ'OT<-ãÀó[-Õ~@G›ÛÔ`FÄ@&?z%圯@·�‚¹ºd@7Ë‚ì0ÅÔ@5åM:^óÎÀ K¥ÇwÑ@(NV}ßÖú?Ép'1¥^¨À6¹½ƒ¤!@¯¬­;Ò@9C™Â&¦!@FÜ~é<›h@3
05’Ò�@>ÂÈ¡ Ê@5y`÷}Ý@4—ÍyÏ‘»@=8Í¿]@<i‘…oÀ.5"”l‹î@ÿ­üÕ@5žrÀ¶eÀ˜Çhãëæ@=82
Ræ@#ÿpËò@0IïxÉRA@3ñ8w8„À*ãÒ-Ž™3@ULV~	YÀ2è†"s@2@1!í¥|¹@7ègYÀ)|õ‡½ŽŽ@6âD†g6@ß;U#®9@BÀMÉÑG‘@C“{õ;”ï@5âpƒ’·:À•Íö¨ð¿±'h(®æ&@<2º_a¾0@DHn?ŒK>@8uú~ÞI@Fþ|Dq‹É@4p�¾øÏw@4XŽûÐÒiÀlºÈÏ@&M“'Uâ@6_Á’`Ǹ@ï£X¸@@ƒ�kÇ‘©@-œ&—Ä2À'·x´�,œ@&2bq+BÀS=©á?@A£Ž²^Å@=µfÜO@>@zçjÎÕ@A—1Nô§@2£Áæcá@G¨Î´ç,@'[Òœ@Gq²Ïžvå@I_¨W�ž@8¬y°Æ@CTоž8>@&hZc}<Ï@Nr¦@¤z@H4ø3pxñÀ2Š°ùŸð@K²R<ë™­@WˆÔvì!@?¯«*ÊÖâ@A“ÂüBÛ3@H´7®©Dµ@#c6Kp5@)âD²OŒçÀ,"
+„*sùÀE‡A:@ð¯Æ·ûx@HDmê¥Z@=Ž!�Ø@Q$íS@Hý?ܲ,@LlÈÝtA
@@ž¼ÃÀ”@0’æ¡Áy@/›T;Z@!(kuÕ=Û@?vÕ£;ÇÖ@BW‡˜æyD@H‡×¤W»¿@DòùÔ3/@D
+ ó"ŸA@>Hšv6®@Bª`ó‡@8$–·––B@=Y~¤F¿?÷ªóªÁ\¬@0µïlS@$�TüÛû-@3ÉË
+¼ƒ@Fª·¡ID@-Š³¢¾a@LI±ƒô@@?šg%á6@N¦„Y–@EÆ£+4$@<³1Èå@I|L]F;@B¦v!/1]@ywzå6@H‚ø9aëR@8�¨Æí�@F‡]ƺ5@&:ûAÐ×@CúlÙߥõ@9/=³†ù]@Hyõ“	)@VüîS¥”@CóXD	‚
@ÿÏÃ
A©@B¢•”Ä	@À$‘P×ì@KbÏÄG£³@!?	“h’@Iøe@M‹ð@<.ÉÔ¦
p@:㌃f†2@Nç˜õ9Ú`@¬ÙØšÖ@M_pÜ°Ý @P*{ü,ðù@Uºy\.þ@Rï»"æSÍ@@{œ‘B@:¶t¬Qt@ Ê�.@G}wDJ�@CoÊ4™ú—@I¢!!
’G@R”žbƒ5
@PÊ¢yw@DT©v©é{@PÕ#GÜ{ü@MÈÚ%J/¦@U#‚QÝ"|@v¦lH=ƒ@-ÉžßaH @F%SAFá,@9Ç™É'Ë6@W”É´óU+@T¿N[ù@S`—@Oï�%ç5µ@P–�n¢û@A¨“pË<Æ@DÇE~gb@LvAÀv@J]nß)9ª@+œØÛ¡„@+àç�ì.@0u·�ïœ@KÚ^64@"@OàJYý¶�@Q=;4°G@;c.Q>�—@TsKnTxÔ@Q¶�]‡’Ú@Wp‘£”æ@Ti(ÌÍ"@O¬_Û²1+@P½|¥Ž@MÊAÚ«ûù@KßÓV„ì@KЕAëHo@P»¦Ô‹@‘@P$'@h)Å@F³þ{ê_¾@Pl–fMÏ@JÈ¡2@˜@Qaf)Âo1@HËÁÝÔ@QZµlÐ@UB^}–Ÿ�@[úáè}±ž@[Ç{Lµ}½@X>LÌ	i@Sƒ)Þ„ê@%c6_·#@PQ"B)@QW{]cJ@WÓd^áä@A&H�yNº@SÉcwƒ ×@U�þ8)@UÔ ÉBÃ@\}/^¾	ê@SDC2îý@Væ”c @UZòìBØ@T$·�--@W"ʈSD@\6™)PŒ@Q¤[xÉ#1@IßV¢É4/@Q÷*(Õ/A@T&‡ÿ½Ø@Vk4	0@V2 çp@PAV¾ýÎ@R.}ãÏhG@U†JJ.T(@]Õb�¨|ð@SÇhG¿”é@O»àïßzî@Z/ÈÚbø@\ê¤MLÀ@SnljÊÐ@UáwùAê@3jô¬€”@OóJdI@MüIR•3¡@W*ö±\@^å3¬š–@R¤>kZÔÐ@\n¶myäæ@WxvïtŠ@Z*}#Ü@PDho*ÊU@SÝ\¨3ˆ@aÎmêZ8@Užó~Ú@ZA¸ô Q&@]‰Ö^Æ@]ZŠå³T@[mþCUªV@]�‚bž[@T�Hì1pf@\c«¥‡k@[oüN¦®L@Zêù
F�Ì@Pú•YWu�@^Ž©%çB@X‘~ÛØ@_”³…%Ùz@\ï?Ÿá¨@V19öÏ3Þ@Z¦KPø*•@Y1‹ÜǼÈ@\V0Uø/(@\ Îñ”@Y®Ï’©f{@WÈDêþz@^æM—bp#@_ÙCS®T@dëÁÔ¨åq@\8˜¨ôî
@bH
L áÑ@cOl�N@a€…{²)¤@]6µ!^%@eÀˆÌ²É@bÖ¶òů—@aÒŒ:ññ@`~FzñL(@dDlÙB’ø@_Mw.Æ;z@fcž‰
š@i¤tˆÌý�@f/âî­Ç™@bâ³((|Þ@aÐ>½Ç¯4@fÀ’Ÿ\�@eñ2N–:@fîÿ1º!ä@e©ƒ&c˜ @hC
+wȳ²@fíôaBÏé@b‚˵Zæ]@gà;[�t#@e翹ð@gzbü5r@go7ïôì@d
+õm¥í@fÅ*£v»‹@jA»oÊý$@j't,Ž@i<²Ì!ñù@i47iΉ@j�õU7@k¯±kV+@rmšˆr—@n¸6L¸@lÞzIt@oSïÛ� @rRÏQ@oœkyŽÒ@m'Ñ^¯
õ@jè³ÏA”@o…‘i+~x@nì
µTé@ss]Ö�ï@o¡ÍÆÆl@pâ|lÏ¢‘@sö´'¨2@t‡ËØþ¬@rȃ¹ˆí@rhù–CÍw@p§”o! O@qûpq‚¸@rów̨@tMb)£…¬@uJsm7P'@v$¼v’ç@uÚ\
áÖ@u4¶Q®@v§ÇKz˜Û@vãž›”k/@xj‡¼PsU@v£ª–½È@xüUåÉÿ@z#f’C#ù@{BÞ-@|
.`ª}@{]5æn‡Ò@z $ˆ¥@}¨ë|>Q@}Rí†Ø@}K¯>¨®×@~È—–Ôp@€§Qp!ûí@€ŒÁð™þc@�D�^hÃ@€°ßˆ¥î”@�KÁN'›„@‚õ<¦w@‚TÇ&í€@‚¿UCŸ&@„HT‹ÚDx@„7RÍC]’@„jGAþC@…ÿÅ»Dv:@†ÊfÇüZ@†Ö�2DZ<@‡{ê<äÙ@†xÌk3^@‰ZÔï
@ŠÒ¨-×\@‹YqC-›@@Œ0ÄyJ`¢@Ž]ñŸzö@�z>1@�y•ß(Ý@�ªÐ
+
«Ô@‘KŠÓçÇ@’ÏÂD(ø@’›Üp¼ÚØ@’³IæY5@“'ÈxŽe=@”’Äù�i@•””©G@•÷<nîÖ0@—…|i,qó@˜Ùˆx­¦@šJ´°Æ(@›Ã]ú�×W@›Ù7’f+*@œÉòC0@ž�ÕJ²<@Ÿég]Ðè×@ eµÚ‚ó@¡W·Ø–?â@¢‡¯ÜMÅP@£ºu1ÁGd@¥«Vë@¥òÍÅsé@§¡_GŸ4Ž@¨‹cijf@ªidFx7ú@­
UÚ@«@°<ª
TG@²˜¡ídE@´>Òp¥�à@¶”)éŠ@»d37¹ÚÔ@Ãñï1=ì:@Õæ$Ë]¤´@êåÜ¢ó �@ô€ÇýÂ'@óŽÐò‚·k@æùrH>@ÒšRP‹|»@Äyx„1w@¾ÞqD뀮@¹ÎýlŠ;@¶�*ÌZÍ@´. „ÄÜ&@±Óª… f@°>`N@®¡ý‹Ãâ@­DGõ'Û@«fCœ4@@©ýzàNé@©w ÄÀG|@¨&ÒŸ\…
@¦ñÆÐrÔ@§hÍQ[]@§þÒß.@¥é4bGnp@¦¬"ùaû-@§/û9*D•@©¶«%­i@±œT‘E.+@Á˜²{ˆ@Íîê&¶9@зÚáP'Ì@É&`�îº@¹/m
@«²ºŸ„ò@¦—»e@¢ê�k“@¡1-€ XA@ vôµ;@�ýŠ3IŠ@›ÜmÿP@šjiDƒ¤.@™ñ®Ç´f@—úRìK¿@—®ÞòÅ(@–«ýá˜@–ØO6µÍz@–8`}uc@”™J¡ �,@”;±h@“‘4§>K­@“uÍsк@’ýFüt
ÿ@‘ÃÔ8§"{@‘;VŸK"U@‘lo%Þ@�\(;¶Õ@�}
$Y‹@‘	;”@�:èñJÐ@�e-	íŽ}@�µIÉ,2i@�S$¯¹F@Žv¥Ø8
+W@�Í–b¾@�F{Q@�_)–Þ$@�OÆ©2J@�žèIY±_@‘VÙ§ C@‘ðxÇ1ØI@’ô$Ô÷×@“,‚›µ[–@–dŽÆŒð-@��£ïÑD@§ÔUϼŸ@²áØÈ_J@Àj)`OÂ@ÆocוRÄ@Å@0}w@º3˜VÈÜ@§(®«¢ˆy@šµ×Cq#@•=(•)Ý=@’Ê·1Å@’0Ò³­~@�@8ŸØ@Ž=ZøzÇ@‹óÏðÉÌ
+@‰ö¢­Kº@‡
,�F@†´{~ˆ>×@‡Ï$êó~ã@†kt†Ó„@†Ÿ]©E~‡@„wÇèœ9[@ƒßˆuô3@ƒŸx"ã@€\vS±Œ,@€ýÔf>@€0fù¿@k@Ûª«ÆÍè@‚wRšvë@~w0¬­"“@€
?ðp¨€@zj„ö”Yw@~Ý�_"½`@~DÅ4:±E@zWN�œÀº@y‰Eå[
t@xª¦hÊ%Ç@v©Ì²ë‡2@wÆ©8`HL@{~¥§æw™@xm›ÚåH@u©•e·J@tv=´©Ö¿@w”@᧵W@tR×þù
£@t3»_¡Úÿ@u(fN‹y»@rÈ4Vþž@t¼Î�¥•@t(ÅÐÁOÊ@qUËÝ_è@t¸,£r„®@sXþº;ã@qãc-4¾@qÃGQ;ím@jÌ1ÄÁ¤/@o¹ýÔÛF@p\né7C“@qD·++@n²ã~w¾@q§�Ž@pÉ­Gœ$L@n—ÊÍ#ª@n¤<EN@qŸˆ#›@k©³c×@m¨<ç×9+@pzêwRs@kçU}Ìg@jÇXrlØ@gp6ÍŸÓ@nsìë@ažd£ƒ@iw}éª_@j®Ç>¯˜@gÚ¿L}AY@h/N#jB$@j(e×L­r@h¤fàyOž@l©rp’@fÌû¸LKü@lqsqüø«@l"9žN@kkíÅ?W@gyïÒ’+@g*ˆr<)}@grĦõ¯�@h—Å�ü�´@h)¬Wÿ@bq˧@gy'¯À@g„´eælŒ@bDÀ™ãQ8@dÀ‚ºL@d¿¬fƸ…@gN�d{³@f�mµ¢£™@^CÄLÄ-•@^µͯFš@hS~	gÒ@d˜[‹-Ú¦@iª^;š@f bF@f�¯°­¿@d(Ãàc@dH ËG·@cQì6ˆAç@e„¹ÙÕp@fÎä[ñ@gñãÌ+@bú'÷ 3~@`Û[£¸†ˆ@d¨Û½MŽ›@gõG�2ê—@cûÏ‹æC@^À¥ïïÑ@gêô™Wëy@`ŒBaÓ
œ@c 
-ó°%@aYfóôù£@_AÆÙz‡k@cFva	íi@fÌ”—¤n>@eÙõm­t@bÂ|ò5=@`>¯Œ»4@fdìîR�@cžJÊÉ>@`-Ñ,¨ÿÀ@b{O»9´@f¤ÉŒô@agyRÓ*`@`5u°Éÿ@`uû7#�@ZÕŪ@[›‰?m›@bé8]@d­°ù ˜‰@dÈe„Sþ@[ŸÐP!ý@b7&WvFz@d)›�° @cÈh�›6@XÊÛ>‹µ@]ät‹\@Rð.P�‰¦@ZP�|‰½@_㞆‘Ú¥@eŸ´{ðÔ@@U7¨@¶3@^·¶ü�Z@]á|f„ü@\?é–ðÌ@cÌEÿûd@KzÄ&äÅf@`ríêòIu@`½®CÕà@R6lþ³÷Z@aIÞ§þa@[«¾i©Í£@\Í—Mïüé@UKÄ»	¤"@`Û•�—(Ì@Z…’$zé¯@_-x¼v¯@W g 
@^"É7†s@\"|¤ÑVä@bHâTg÷z@[¹ç.yn@aB^ß8	
@W—�×™˜û@aÏ—*åDá@`Ek@]]¨)Ý—@]{
ø­…{@[Â�³›¯$@a(¨F,@asxŒr©Ã@SßùÒ+@Y—Èðý@bð-’*5æ@Xü‡¯?@`r`;
@^Zž_j(Ü@U1[0\ý*@U™uû@Vü›ÉìÌ@Qy@šP%@^ƒõ…ê�ò@ZyìÌö]Y@\WºÄ•¦@@_L¯5CÞ‹@]ßÏ?…QZ@YƒØšTç@[&VÈòn¼@[°(@›ðÍ@Z ÄÎPÅ¥@a[ì'—A‚@[ü«Ôwö@]#“õ1@ZïSÈ™M×@\Â|ˆ@¢@ZžLšû@YÍèV	ž@]ÊŒwðFØ@ZÁ¿
+¬,@^smÆìæ@`ÿdZÀ~}@[È«âeds@XU‚ðOÆ.@Sìf~&æ@IXfÌZbc@WhIjÛéŠ@_…éFâÚÞ@T*ˆOµã@Z�êˆ`
+@U…à¯N0Ì@UÇ®w(rõ@`
+ØÄÍôl@\žãàÇ×Ú@_È1ÙéëŸ@_ÐUiîÆ0@V
+½] Ð¤@a�#TÉÝ@Wö[È0˜@Wù;<²Í½@Y§S`
åF@VؘEùÆ@Wæ á£~@S•äwK¾i@\ïDðzsÂ@\RÍÍ9c@XìBý;@\•O„ÿ¡@UÌ÷îZØ“@\HË~ÔÐ@X–3»@Y'Õ|«uô@X5]ø*Ë3@`^—ÇÃû™@]¬ö%‚@Zë5V7#@ZŒƒÀÉâÙ@`7^|@ã@a�UZþ<@W\DòÂ=4@]?9»	v@W<C #œ@_ÉL\2B³@XÇšž‡²»@Y“Ðv{ê@TþÍŒIú@QS×Uⸯ@TWsh@Z)©±ÄÔˆ@Xi½œj	@XRPˆfx½@\4n¡W@]DÔ±‹¥Q@N+ฯPx@[€âzh…r@Rý¿ªÀHÑ@]
+–¸	ªu@Zãš3IY@[íh#àÌö@Y²“Tºª:@XçVǤSÑ@U½ 4ìË@U2ü£”"'@TÑ'qÂ'Ü@^AynÈÅ1@`[`õËt@_ßy.<}v@VµBT|þ@^@l#Ê	@S=Ÿ@m@Qv)HPÊá@]�.	Qú@YÃrÉO¸í@Y-ø1ò…8@QÚý¥�„ò@R¼^£q‘@až?8wE�@\Ž¸ªò¬)@a8èÍ¥Y@X}½E«þ@Vú&AsÚî@[b7‰�‘Ã@V˜ÓsWtÒ@^†s‘0î@W¶¿ž�xl@Z/ëÿøÍX@T* ¬a~#@[žõU®²»@PÕ—L÷=@WVv™òïW@UÍÕ�ø¹@VœUB”74@Xô¬ÙÛÐŒ@Y¨@î3½@Z–ÿ?M³@_­á¤õM@Uq¾ídb@Z;gº
+K�@P�Y5]-@@bWæMæ¨@V³Çé=G@^y툟â.@\ÄÈ£2ê•@a›Õ"QÀ@_q>÷àÆ—@Vk	œ” @[Õ2F]Y@[u¢�Ùt@`³­6Ú6²@VßF:ññ³@VÜ×(Yhs@`Õ䯧pˆ@IJö"bàF@\(@–†@d^\÷*•s@\½˜píè†@`<TR
+@[¹‘l,¾@P<üþìÂq@\Ê ìà@dèÁï:ð@c|G)-@Uœ%y78·@Z.SëcSº@a;Ñ�̦@`ùïñÒñ€@WZä°nŸm@^›Ûð«²@Z€/bBEç@aÛ•Î!áù@bNûFhѳ@WŸ‡vj7@^|#Ðy�ú@Xâ—BB3L@cŠO.Þ¯@]y€n@Yr!O×)@YÙÝÑ,ê@Yл¬B²@V€Î/oBº@UœÚ˜Tî5@X¹“½º�„@Q6ÚfÒ—@Zôãy”
@_
oåè`@X)3†ãÜ@Zl¶$*‡U@YmƒÌäzÁ@\󼜇íÃ@[§&—±@Rîµ�c2x@cÖîSw"@\Ä»–„TÓ@ZG^÷1ÕO@_ÂOº­/@`•×ûü¹ú@\aÉÑ!G@Z]‡¿‚Wà@aÔ‘m‡o @\Ç”=-,@\hêÇÆW³@b$ƒ#MP@`*ž#ÂÇ@YBaÛxÿY@`nQ×xné@U³àpêÏŠ@W›Ü%õp@`vð
Ú_Þ@b§a·&‰@PÍ%c9@Wq…ï";@Uö&¸(ßo@Xœ!eiÕ@Tü‘ÒŠ!Z@b?¥Ùä@M@až®,ÃØC@`�9“L@`Ïu
.&@UÕÉdF•@_¢ñô'›W@[+9Ê/N¾@]sï‚Ž?(@Z(!U;p­@_Ý‘œ®®ê@V é
€®@`~ÞéeYE@`1–~
+z1@\žˆ×oôi@`µ!ÞqtW@Y²œ¼¶/S@Yçý5@`Zð-éÿ@X‹Åžù4_@P¤_è_Ÿ@ZT
ØœóÍ@[¬ñzã2@]ÝŽ©ÎQ@Y­âAYÇ@_ËkyÔÈX@UÌHKÖ&å@Z솸¿Ø@[q>à6:@R´÷};@Xuû<}Na@U÷û!˜@\‹Ž()£#@Y?—r¬@Z¨w�Ÿ@_CÆB‘°–@^ 0 ¤’@S&ƒ!õ³@\ÆZ×k¤Ž@XW�I0@]5º^V‚@btI™Â@@_ŒëeMY@_		rúv@`õVd�ûO@`ÒÔC)‡@[Jò¸
+`
+@]J€XkÒ@\•Oz`çŸ@YÞ¿ud“ã@_‚„Þ@TFÈé�=†@V«qÂ$@bIo+&|@^ZTDÏ]¢@ZŽé·&@Yþ<ÝmÝ@^ŒôO]°›@aJù÷Á¶Í@Tød
+ßÆ@[)'
À@\rÍf�(A@\
ѹ´ª@XÑ—rJnT@`¾FUa@\ÆλØ@YÕ’¢,­0@R‚ëêœ|@a8‹M~�@bB:yø«@`-2Û~%‘@Vb‘˜I:–@_Û¶ÒKèí@`2J.«Ã¿@^‹¿«XùN@bŠ¤d£E@U~‘ÇÕ¥@``ÀO

ó@\cΩHtH@`M^qøÔ½@_©ÊìFÊn@Y¼öu¯6@aêôÁ,.3@Z©ðÏÀ—@]ûbÙkk�@^§ÈüòUƒ@`°#]£1 @VÒ§<ó@ZƒÕAôàù@`&ç^1W@`2Mßu×r@aºq9î²@[
+° œF@`_´ßÖ_„@]1yrÌï@c
ÅïLÊ—@_P“@`ÿU†¥(r@`T{0Fœú@cçäÈÄV@[•ax<bò@`FkÔA˜'@e$¹y=Ø@cVÖܳõÀ@Xƒ¬s+w@d	1‹ýê@b³LÙè!ê@\:‚)ù¡@a'~_v»@`
9l 8@]ôŸmr3ã@cCÖ;úþÕ@\Õívgy,@^4Ss8)¢@]sâŽÖÑF@^×Kþ!À¶@bKúã7@bö¶Xê³@b&p+N¦œ@_©qÝóx
+@YMÖ9–<Ô@aq<:$e@be…ðð@_¬ebM @\"ÞUe@avz¤T†?@bÈ}dyÆ'@ZÍ×Ë,¤@bí
+Mòè@aÞa|Æz@bôÑŽ(l,@d¨@çãÄ@h1]*¶-@`ÿj¨¡î@Xl
jF¨@c€s7n–@_ä·t	â@bâüÈ`F@ZО”)@V.õ:嘜@aáep,|u@W]êÒ‘�@dêy\þ'@a
	Ü¿u@aõb®
+�Ž@b§ìšï\@_œZ&HÉå@`_†µ9Å@]r��êŒ@d­°Ûýо@\Cí€8›@\û6Í@`4ÿçá§Ã@^ 0$Çvò@Z¤§w3Ç_@\µ#£b¦÷@`óùÿ_@`�à¤ìây@_<ƒ~tx@dÂw³aG@`ɶ.¥:@^Á,„ä>ç@`…§*jšú@cAF<mõ@`_QÐ:‰@\ªF`Y¹@_Š‡i÷ö@`.P!˜¯°@`Âk3¢›@`=Z_LõO@`á‘Á»ˆõ@bóú�†@W–û ãö@`e•gîdÇ@f	0urPÄ@ax»ûå-°@e6¯›N'û@eSX´Šq8@\ß4çÐ@d¼•Uë
,@c†0�²<¥@^åý‰áŸ@a?(p1ÅÜ@[‡繎Õ@a˜;ŠÒÛP@e.Ú®õ@aò§>¼Ä@W_`
y:@cT¤ã馷@c~õ>îI@_{ȉ3Yò@c€s¢¨ãv@bšE’.À@`-%Ò�ª.@cñÝ{"M@`Ó6ßÒf²@fs¡ö«
+ß@e5¥šñ#@bZBÔ¼‰@d¦öoŠ@cw}±k$Ú@bsƒ�¾™@eê4´ýýö@cYwÀ„@^¨tÎ@`ëÕqF
+@d)¦Æùg{@diÝòU3&@`mÉnÅõ@d×4,	@_hÐÕIT‰@b·UÇÍL@bC�Þu…`@d‰}'+@cÄÝ:0@`{•WÁ—Ë@aHKîç;‚@`Žù&+¸@`4­ïüWy@b%aL£ù@[Dsîñ~@d¼c€B@`8´Šàuú@`©ò…F"@a~ª¤=@cÔÎ?Óz@Ukך<Ø*@h©vb²@g¹_@ýÝ@agœËÙ?�@aëSæUz§@bX%æz’2@cኊöð@enÞÍK”@dxþ>.
@fíÞ÷üó@b±rðˆC‘@fÿ4L'ì¾@hÛ@Ý|@a—ÈÄÓE@afÄ�£"@k”IÂõ4‚@fŒÆ!Ëÿ@`çNTúuÇ@ež¡Móð|@f©Å
„@`ÁªjZý@a#œ™òö@fý©|È—‚@b^M´k=@f†–S
s@a(5)ªè@hSÛ•­Ê¨@ag±ÛÇ;û@bjª+ê÷@bV6—5˜·@hWSÄG½@fÃÀ$ˆÛ@g¯¥#„@a%0\GîÑ@dοZL÷Ò@f°8üMý6@`gàÛ{@gJëuݤ@SDÛuý}@a5ÔvÙ�{@c'ËGKP†@dá|u#ö@a¨@b×ÁòL2þ@a¹(ý:ˆ\@b›øõ-¨@h®Í]ˆ@c³EgÛƒþ@dX­YR'@g¡5Ó!@cÏ tZ»p@cë¥pvfß@hÍG³¡=@dN×N=²s@e�W¶:ç@c;¹¥É%P@fÙħì—å@d^ì:�®@evæï©=@e†ÅW[Z£@a\ÞA^e•@aÓ|Sæ�@b!$é Úë@a÷ÐêG@cÝnçø��@cJu·h»"@g¬=FNØ@hf1EV'÷@hù¨ÄßÉ@gRM⑇š@ahBÿ9‚¶@`W
+éd\|@g'»€—.@bš¯§ OZ@eò”Õ÷@d‰Mêt1Þ@g‰3Ez‘Á@eGÅÄ9nN@YMb¼8)@eµT{GÌ@k½àæ ï:@aí?$@€ì@g"¸ÎÔ	@avIFß¡½@ešuÎc@coX§î£@f#Tuâ9É@g‹Ã*hø@Z2!I37@`¥à¤F	@je…À0.`@d¶–ÃG@g|ƒ$æŒ@bC1ä׳ø@g`¢ÏË`!@h^M‚Pg.@dB�1H§Ç@dÞCrçH¾@cœ ±M5@bÜ¿™¡¤@jŠI³º×µ@fóž¥�‡i@a{<ZŽ×@c¾=ÐwêS@f”¶ËQÖé@f1G}G@`Keò—R@f¯½Æn}@g­ÁÌ^@g"kô
+�@aì \æ§@k˜Dèj†@fö½`Ã@bÕ=cjÿ@cT$:Ý8í@f»_1`I@eœËã^Êw@hª³’:z@e47¥zˆ@e®£ðåèÜ@bW¶•ô1œ@f&U|5¯M@g»<SÃÞ@f¬!ÊÖ…@ahFƒé°í@izâÇ=µ@f½ë1†‡”@eԌ˴4¼@eEÓi~[¦@eâ3Wâ2³@iÃn›ü™@eðŠ
ús@dG=|
\š@a­“ž÷£9@a¼noÜ@a|0/
+r¹@f.–]ƒò@d´Zt@gå­+ÉÑ@k„Xè½ÐŒ@eÉ<[ÚÌD@f×:¥B,y@céè´Ò$@hº¡è³KL@`HIXÕ¤A@g·€•ÿ@cîÊèÑø@gÖhN°¡”@m$@6Ô¡@j6#=­iŒ@e£D*µŽ÷@e±G•Ð”ä@k_vŸs®Ù@_¼`J{€g@`C;¬Ç3Ê@h?Bɵóc@kv£xI÷d@d“UÁÕç@l#ìÝ9q@h¯J‡Pg@iS–®†Ñ@fƘX&c@g	Ÿ´¯Âé@cÒåüº@hVà‹¶”÷@dð’ñs*l@f—rïî$@kÇo”)Š@eÍŒ~­¢@bµ¹Ë$ˆ@gãzæ@k5@læëŒ&ðÌ@kQcŽ¤ZŠ@fÂ+©²Æa@eð
�“M3@fj‹5k§‰@h	Ä7g@f&9g @iÜ•ÕWÀ•@d¹L§ä¹@f¡·."±t@kÕ¨ c~%@lO†ýB@gPM›"
+N@i£%\r,@f¿}�8NÐ@géÒׂÜ@m
+Ä•±ý@j8aÃð@kÃ>¢¾@bL5w²]@p ¢¹÷žÁ@g Í—@g T f@i›Ù¥ž@aUéëíæ@fÉl¹|§@d5£¨»ƒ¯@f,`†LÒ@f«†|ËJÀ@jÆ’y=@k&½t @kc�>ý·¥@l©8l
w @kV�YÛûp@e€Å¹•×ü@l¾ýÑe®/@gFc·Ê@fçµ
Ï›	@iª¿º¦A³@k×ûZ!_@ghž÷(»¼@jÕÖ9zcô@a±iLÍâ@kjÜÿn_@c%´|ö‡&@j,3Ô'íJ@e’pRÎâ@hõª£Ð·@d¸gækÐÁ@gæKtŒ@f´|‡#ü@l~W
gêç@h`VÜ>@f«þûÄ—æ@k`áÿïŒ@h_¤QÌk@lrÚ:	‰K@dœá$§º@háH(iu@hdJGF@hÛ+m.@cI¸4{@b�˜RÚŠÂ@g8—p ïC@iÚXóJì@g¬Jo@jØþœl•U@kyÖ#ƒK@hh©\5µ@c	±|Y†Ò@k¥ Ëq	`@eàý´&p@föÌJ¢"Ë@j�AlF@fgR½°b
@ltôòyþÝ@hÃ6
%M®@hÖ©È®Ÿl@i$öfgã@kÂ<{í<@jÜv�ÃL½@e.‡?
¦%@khÙ"¢@j¸E6'š@j¯}¿žð@i°
§–@hæùá£=ç@kû²!ô@nr}>kº@n!»*zŽí@i1"C~8@hI¡/æþ@g¹”…{@fÆŸ0+¼s@ooÔ£ M@iVAåÜÐ@kÍbÆ�å@hâÑñ`�@p�ÀL¦ó@f}‹÷Åbô@dø–¶E=@h#+NýZg@gL]I¢U¹@hÕ¿%jq¯@jðiƒ®¥t@k@G/]æb@iLž¯Pß
+@k'
{°l@jü€b¢'@ij€|¦5@j
šsöb@m›�QŠÖñ@qZ¼~¤ð?@k9ÝW·à@jIýÐHÖ@jük5„‚Û@ló+.JSò@geùÞ¹=­@iqP¯•Y@f�þ´GuÁ@k-ù]V�^@gÛ«£”Z@h,#‡Í
+@k+ƒø½/§@iÄöf|\Â@jŸÎ!_Q@kkP÷°Êž@i–ƒ$ƒ­W@k¡¹§Û¯5@eÿ`Mr–@p3Äh:H@i}æ—¨@k3U,/L·@f×P’wAg@j5íEZB@mIe�’I@mpÆ‹—ñ@j“íÉJ@j<ä)‰Ž@lÚ´’å@n,ûu�@oÅ:ü2?4@hhÇ>Š�@e\Í£µ@i«Š°0km@f÷Ñ

+å@f©"£äŽ@f|×&@fÂ~qâ-²@nG.¢èV¼@hÛdÛ{çq@lÜf%€,&@iÈ èµÇ@nN'
¶Šm@n((ƒÖB@k"3¶mW®@gN~Bébâ@kPÔ@i«²’‘´S@d8$ÅS@g�ÜNù4Ö@eÛ^õWM˜@lèVÒ§ 8@e’LëêU@l&ü @mT“)3Ç@k»¦�]`%@jóÌÓ‡�@g°ö@iÖ—þÁ°O@oQÔÅç�@k�Ú~î1Û@ln[~%»@lYºåad
@i"–6=gB@lÑxmõ�@k$€ˆ™È@i”uÐñ@mLQúü´@m·µëÕ݆@i~aVCÀ0@lˆñµ…È@i‰êÊ_ÿ
@fOâŽö[7@pè±{@naKxÃ÷@k”ÅTb}@fà¶ÇIðW@j»j>‘@luñº‹Ê�@kÍ	Tvâ×@n:u+ü¼@j·7ÐúS@m	ê¿Ã@l]!ÜŒ•@layíèÉ@kÜ�ô%©@lj�ìlç·@iG”8Öd@kðZá9¯È@kpý
g;|@jtç\oMd@k®<g˲@g¥Æ13C£@q†µ`€T@l²¥Â<)@eâ_…“9ô@i­ÞmÍ�@p+~/Ú@n“8ü@m°Ó›CÍâ@pÞ®$<@jôyP4-@oåæ�Îû>@j²)£
+@k&	n˦e@k•2¤¶cœ@jh
OIBR@j¿¯âÎÎK@i
jˆv8}@kC¨ì&~Œ@i#PP'e-@hÀüâÓí@k‡bý]uÁ@n
+
+/]|u@q
Ñ&38@p,œÔ³=N@nÍš'º0@oE“<´.µ@p™žam¾@nQ?ã„9ƒ@gdù'�¦@lÀ¡¬Ñj·@nüGyŠ‘G@k¼}'¿>@k† ö°@mÞ£.°!5@j
^P+¤
@jCŠs<d@m¾x~ØO@l'Ä4D@lO³�ìI›@lã·åÔ-@o	TÒ-Ã@kaÂRÚ/@qt%Ä«@lü'¯D§b@oâRí l@omõ�,e?@qÖÃÛ'Kí@p{31ÆÉ“@m—`³q«
@pÂ#B%@p†\—jP¤@kÄÛx¢Û@jxQ—3FH@nò» è»�@o*ž	–=@hÅõ·»#@k¥ýX�?8@oÆ-�8G@n¡Êâr)#@köxþ/�@iI„Eõf@pŸøã´¾@kýáÃÖ{À@q02F�=}@k©]Çi?¥@mG°È*Ää@j&9ŸóˆÓ@mÕïÄ8¯@gçæ%1h@q=‘N)ž@kàóxºa@mO’W„Ø@Ž»sgƒ|@ps û�u@m1y[*†@iëÐ<Cê@q
+
ÎxD@f&ŽÂÐÿl@nuÞRÚËQ@q]y!:Ê@l[€yª@j]�¦¥+@mreÇÇ€@n}¿Ô#@n˜‡JÖF@nÖ“%㈱@nñå¥|—~@q&|ë¨î¾@h¯Ô\Bô@ló§ÎôÒŒ@kçxǸæû@m»Btïÿv@kíߣ/l@p=
ƒïh¯@jæ‹ñ]@mZJ�^@go%C^ó@o—c´Hi@hìY{gëI@i²Ø’¢²@mhŸD~-ò@oú‰­;t‡@q!”sð4Ú@nïàë	ÔJ@p6'”g,@oáó"7@kR›$/±±@m-D, _@oŠK¯f,Ï@m±þN‚’ƒ@oC©‚°ñ�@dÁoE¼@k
+Hr¼lª@nçÓ9ÒB@nϳ +j@m¸/ñ€°Õ@mYÃÅØbÜ@eá¨aÌm@rˆ.lêž@o"ÄM@qK!Ûæ™@mýѸ/"|À{ˆQzÌ–$@mFä�è®Ç@qª7©»~¤@knË�Oœ@rã´M)§Ê@o,E�AY@p‰˜Z
f@s*
?V¹(@m‡	&Æ8@o_‘(º­†@mÔHÚz+@phœƒúGÿ@mq�´ý­@mN6‚×°|@n¼Z± i4@rí¯�‘�@r„¡ˆcÊh@qÅäÛ€–@p¤³q½k:@k¥Îô>”k@n¶wÜ•G
+@pvß6zò@sK?:¢µ&@p+Ï‚C„Ñ@rÑ	�ØŠÔ@l¯kÓê,D@rÜƆqò@qÃ'ðˆqŒ@nf–þy9@lñÛÂÂ=[@o„ÄjRå®@jLäím+@l	rÆòø@q!î�w\@o‹7¢
ÃÚ@j$a;�¾r@ntˆ� Û¦@n�)/@icµ¦Ÿ)@kh?pŽÜÇ@p%ú‘+Î@r%+´½@pˆ¶Tøyò@oyˆ>�Î@pQÅS¾´?@p F-(wò@pläOÔ»@qö�e‘î@nû}
}Ù—@pO�¡{@pþýú|
@p^…g@nƯž•@qÈJÏt¥D@mSÙ:Ý>q@m¸å‹XM@k9´]¥@r�J,¬@pjþJ-·@o“2þ1T«@m/d†@pçÃ2Ø@k);ÏÎݵ@o{z€8Öû@pɸÀñ3@s8ûM�@qÔUõž-@jóP€n½ò@oY°*Å�4@t”S‘Ìã@k¢»�´#ž@q§ÂD®†l@qJßÚ@nšÊ¬}‚#@måüCr0@qµɯÑ@nþÿÝ(ô@sÜIÕ3í¼@rB¶À‡ø@r)˜6£L@r74•û'@hía€‰Vž@p–ù”
@n�¥A:@o¼ºmP ¼@q‰h`_@l…æh}0a@pá�­„O@oX!Ý) '@n=¯=p­Î@j¬˜ÊM@jóòÇzØ@oÿ/Ë5l-@lö3u@A@r�¢‚õÇ3@pæ•+oΉ@qÊlÓ
+@pSQ
Éß@rs–«x¯É@hl€¢¡‹x@q!•#å@qµ•Q‚7¶@n¡4WÑ6§@sqת–¾@nËíÜÚ@mz«Êšþô@mä-f�[—@nz{¼/�#@n©Hœ*¥@hç^+ùÛ®@mÁ·qEh@rIé3
+#‚@nwœ02@nËG8Æ•ª@p¾$7ùmx@pgID¡ð@r­#``—@n’¨ÐË@r5Ö[KN)@oït¼5^@qìåñq“?@q3”ßš||@lß_Ïu{@o/xTm@rÙ64E@q9ý¸Yd_@qÝ뮓@ldâkZ?]@iϯI]jÖ@lÛ{1…åD@kÁæ:½í@qþ¶·e9@p†ñÓ'Y@m®ÍÞh™@q bîÓa@r†:GT¡@riÐ˘ã,@qäC]¦4@mw•Ý_Í@mÑ
+Ns�@pËæå,ü!@mü¢CAàÒ@pã×\æU@rBá¡‚áÒ@qú	ó,ù†@ré¹Jÿ@mñD�½Ý˜@nHù;@oæîÏ䣅@pÛÕ)Ѓ!@s@
vÄHë@pL3I‹@q ÃÍ”;@my;[wÀ“@lL=¬Ê@p® G/ª@rG&w[A@p•„‹$®u@qfâ5œŽ9@oÉxŽØ¦A@stÄg1j«@p;¼Æu
+\@j=ÄG‘@l²fÓÎö²@q²�Ç»µö@pÝ-42à@q™@²æ1@mðã8U@qÇB]ôÆÔ@paBú�p›@pÈ}×
W@r\MŸ‚ü@rŽ£«UR@o{x½“•È@s¨}¹ú¯@qo�½º‘@q·û%T2Ó@pLsšÖ</@q†sw'L@l"²¿3&à@r’Úƒi½n@p5Q³Ä'€@sáˆ_¬æ@qÛ¬šr˜@j
Ksa1@qÂÁþ@pq]U¾ «@p¢

/@pÙ•»®Ÿ·@q£rS,„@qÁ"ê­@qª}Š•@soIûüÚ;@qÆWÎèØ@s_iY@@pÃ]*ɳÐ@pA³ûñ§|@rø…&ç¿@mñÈ©Y
@nä\]@r£Ç@rL®íT@i㢲dÐ;@rÓqö l@pÄû_@qð$•VðÆ@p,é²@~@nÈH	ˆ¤|@p7Æpòî@qôn’¡­@rqw”·d@sÕÀ"gZW@fPN~³žÂ@pŒè³šÍÛ@rÀì®Z1@rM>KP@pæ£ãq¹‰@q°€i�v@p¥M *\ã@pL‘gAB†@pö>cŒÒ@q¦jýCµ@p¼îTÐRa@r“ÍõH?@pÍ5Î1ñ]@rEzdÍÞß@r(òtú®‚@páwJÍ¥š@pˆ¯#@pèIåJV@qym${D@p-°brßï@q’k#/oø@rQ0F‹¢@s35„Å(ó@hƒ:õ(ä@r
+B©ðÖe@txþäú‚Â@sWÃþK£1@rñÍÊHÒ¥@sþ»û@p˜í�Óö@qÿ=Õr²I@q¿êÙè[<@pù±r²ÀL@p:EF°#@qmú­Ê˜@r¿ÿÚjSÎ@r¨1	Xæl@r˜ø½l¤ç@q}«›“@q¬­›
”&@s½ô›ˆ@q«‘b¨)_@pV™(
M–@r�¬n¸Ü@tKþF�"—@t#ýÔ
uÚ@s`²°a«@s
+Ãû,€@q£VŒ'¿@pøNé]Ç@v§õ™rß‹@q¹ìù±é@uóç?S§G@r"•‰JH@pÖjŸ™­2@p:ÈÒ¢‡@r¦1†€.@q,ÎÍOo@pYÚm¥@r�æÙê
Ÿ@qQó<Õ((@qâ%ÆÀæ@qP8$b@r”F¶mG@t$·uÉ€@t’c—DÁ°@q4óá™"@q?�Öƒ0Z@t‡-÷A@n`9k)¼Y@qzËËn@t.ØìL¢@sQí<ع @n§½¶š”@s—¢„q&3@tOxÀ.;š@w ñ¨˜ùh@yâ¥\C@xäè"�@vè(ðò�º@q/n8ß d@s¨3€,>@v{Ã9÷?@m]þqÜ9­@o9㛋×@svlNÆ¥”@r7))°@rW|lM3è@pÿÌ<A™@rVÔóSÍï@qt�`Ÿ+[@p(¼vö–°@p=¡N'Ž @qÿ)ÆÈ@rºŠ¯AGò@tÄ'I¨jã@q¦f
”nx@p<[Ô•˜@r¶ì¬}Bž@q‰ñSYÞw@rÜZ¿@pCZGF@r…Áêþ^@r¥5°MÝ@rŠê²@‚@q½…?¹@rÔúÌ*‘à@qCæ>¡S@t“J�„–@rÍA#V@sOLÂxøf@oµv÷ëS\@pÃá¡)f@ràÍ-ë¯9@q«loÌüÀ@p»ÚÆÙÚÍ@pëe*ˆsÂ@p@G¹mY@s?
¦&—@pe¶O®ó@p–*êš�K@s¯K˜�þ@s>ÆØá“@r×ËUhí@t
+ $—F@sÅ:Ëß°Â@qy$Tº{@p­ö
]ň@pãŒ#@pº˜qòD@pŽ ÉxÀ@p«ŒL	‹I@sw@qvŸ@s‘Ùè¾@qÏ"Æf˜@qDYk¢&@pCâæ0û@n€'2YÔ"@t—#$Åi:@q…jrV–@mÍWÌLÇW@o£Æšs@qtO°Ã.@tÌ©üÖß‘@q¶HÕQ¤«@reqÉq¤@sª†@æ,Ä@r	x½TJ¹@pF÷PÌ<2@nZZ¾i@råÄ™$FC@sÓ9¼4G@u‰;T�Us@r„6>k·@p’FæŽz'@p_�dE¥›@qþJ8|%ÿ@qL¶|3kÅ@sÃ¥ºÎRÅ@q=Á§¢pý@r¿eZÜ4ÿ@t4æÕ“@q·z'š6%@qŽè(²»@t5�’3Aq@tF­ÅÉ@rc“ßVÞ‚@nw} ü¸»@r¤)ÎËÇ@sm¯­¬ù’@r¹8û`;=@r�]*þº@pÕ	
õdÐ@s¾câ«íw@t\Œ£á@piÃ&³Wš@qê¡ ,å‡@r¸}*@oà±ÿéàš@s»™š/4Ú@q�‘$1Ô@rÊã	Ïõ*@t|e‡fp@t[­Æ–j¹@usDpF_v@t&é÷Á”@s¶Gˆ$
+�@s[cnƳV@rJÑ×x#²@s$5Þ>²@rWþ¥qrË@qˆU}Æ.@q¥l$~x@r4u-™ö@t³_¼›µ@s<tÐã4 @q�Î*ƒ@Á@r
�ÁscA@t—jüج@p×{ŸW@sj¶6FJ@tñ<_VÁ@sëRDz3�@rqtN
¬@rÔè, ur@uè)|Y(@pÀvæ*)1@m½…Ì£	ã@s4–Ufh7@t0Õçô°1@sÀ½D�Û@rÝ,FH@u"I•‰›@sz¿yClâ@uiv{R@sKø©_ ó@r¿Õ®à@so‡úâÍ¥@s
"ƽ§@u}sŸ»Ÿæ@sԜՖ}@t"²¸›ª@v‡åûKâ@q–ÖÌÖ@rBˆÈÅCƒ@q4]jù½@s)ì2ó®@n¡€wKg@rÒ{’4Þ@t:
ÂêW@tA¤¡u„q@rÑß^
+@r×_[,@sUóRÏ3û@sÍÙNzš@uj�@Q@sÐârK.=@vÆÛ›Z¹@q)•/È+c@w'æþ˜âÏ@sF™ÕcûÆ@p®Zþ'rÛ@rö_Ãí×#@wç*)ï²@r5ÜÓ~Hà@vLþó”“™@s4Ô¤=ù@t%X‰�]Z@sw>ðóóí@uÔA{Ÿ@s®1ä€�ˆ@rŸ³5$Á@pô{¼<Y@rß~åÈ50@t]p篣²@sHVHši>@t?¥~ý˜@v²K§¤ÛÕ@sqLù;¨ @u2T‡Øht@tŠ¿�ìqú@võ‰£ØZj@u˸˜:¶@s(Ëܸ=@sA©ï¼ß@tFêiøËr@r¤¶ƒ×zÏ@rGIJ	?@s+F[÷$X@u—ÒaÉ»@s7UuÐ#@s_˜€ô@uC¯#N@tÕ2²é­@v.»ò»@uª…�£ëå@u8TÙ¨•\@r¥ß­
+"µ@s±è	‰%†@u~œ›(Âè@rJ$Ç›• @uy†Øé»ô@u,ãÿ>[–@uZÀ>�5«@rä
ô’ò@w‡qÿX Å@téû9r�p@pÅŽu}~þ@tDù*n@s$	ºâÍ@v.nÁÌÐ0@rᕇ:�§@piãx¿ð-@t¬§Y,@sÁ·šŸ2¤@rt÷%pÖ@s_tõk(ÿ@jš	×”ØH@r«9Ý"
+P@r‘e"@súöQÀëD@s`r°£ §@uZ©³VÝ@tµ ¤@uŸ�mb@s…Þó
ÅE@såôRýW
@qã²3Pj*@sµ¦^\@qÀ>¤Þ:Ö@sWÚÆ^q+@qwÎ"*åC@qÒÅñ–äº@rGÄ�p5@t†°ª”ü–@v=)þg@s×›š(
+@rbö3Š3Q@sÇU0J@u7x6<Ç2@sÙµÄ:³g@uÑwkî‰@r2'oc̯@utˆÐ ²ý@r-Ü%ö©6@r¾“
+ìÆÀ@pA½æ�ÒV@u|‡Ø¦hr@uUH'~,@sÖAñsÓ@p\¾eú`@súr!¸\C@ub	Êty@t{Ãa9êG@r‹ï&Àáƒ@tya§™Ÿ'@uO‘è&=X@q˜{™`�Ô@qÏ×Pœ`@sì&gn0@sœIT@sž‚˜,_@s’®ía¤@t½rÁ´	{@q7�ž�"!@tšÐM×]@s\&Î�…Y@s€z;U»b@tW½xR�@qä”1µ’Å@pù0‘ÍŸ±@s8k®ƒôÃ@uÄÎH$ãK@t<²¸È@uòïx¢�-@s€qaè�p@t¥h
+T±#@u)‘èûèÙ@sÌ­N"@røedíf@ulJ?†x@v#B#¨ä@uïÊ^êrx@tx�œ`«ø@püsœœ@uVŠS«)@tGŠ,Á8Ü@q37`œ†C@s­ÜÌòD@uuù`@
@tU‡©»ö�@táq^˜æ@w
+¢ÒÈ“I@rš¾·ˆ@s	Ó‹\*@uœGs10¡@qѼNàjÈ@tdÖƒ“@@s‚/M�X@qj%È�ë*@t3ÉXpJ,@v•ù…»~u@rqÔPZò@v”b+zO@s×6O–
+A@w.÷x®@s˜›>èoU@r—¿r¦¡@sÑC§Ò[k@tªü·ÂÖ@tBí¯Ò–@uúˆÌgò¡@t‘]€Ê4@uK [ä[;@t
+ãƒ7°;@pt	r"DÁ@sÉbSÈìµ@r% óä²\@tkm…±e@sÓ9Tæ´É@rSRà\�…@tèÅ£"
†@uXüµJi“@u("Ȭr@uiQ:ͼ@r¯ùq�Ô@u÷uìÉÌ@rq/!ÚnC@sø¬ÁqyÛ@u�]PC³j@r¿Ý$FO£@rÒ´Vl~W@sªÄËw@v4Þv
@u�@ª€ßx@qX¿�T@täâ¤X*@tŸ×£«>$@tÔôtwö4@t­… ¯—ù@uÁ¬fÇÏq@v 3ÒÌÑ@vºÔ(@vmÜ«m¶D@u,¢…G0/@vxDú ñ@tS&h5šÐ@uÆ�{·,/@tËÅ9/±B@sóØzoí¹@s­Ÿ‡;ÐÊ@tÊ\_ûÝ@w7‹–N‰r@v
+µŒþx@säkû×@sE3eI{Á@u)•ã÷‡@s¡¿˜öTé@v“žË,Wô@vpƯej@rî\l‹@t£Ä_{„@tkf§�dÌ@r¢.¨Ú ï@sOñ[Nq@w®bðÅÅ@tÌüŠ�ÚŸ@u|ï‚Må@sv`fÝí@wßhIL
+Í@whõÀ¦$ï@qÏÿ ç@rµ¾k>K@x`É4c@ur4îr|ò@v3­Bá @t|`v1í@u°hÖ�(@t†3¨po@sc$ $Å@pøÊhâg¸@xáüêXI@wÆ=‰ÃW@täËäïN@t£$ø¢è³@v,æ&п@tYGb=«–@töÿÒfëì@t"iå�þ»@t¯ä ¤µ
@w$Jq|„b@vÇ4Õˆù@sXQ?lÆÅ@vwqüC‡@v˜ÎKã�ò@xN×£Å@p£­õ	�¤@s¼Ž:‡û@uÝU`2S @vëj0²‰@sÆçg(�@w±ŠíµaÈ@x2Šeƒ@rhy˜,‰@sÁZã¸? @v�SÙ<@u
[LzÕ@s¦nÉ=@,@w“}”+@v€E_Mª@w·Qa˜Ç@rô#¶ò@7@qÄ=B‚Ä@v}'�‹%¸@v­ÒÒO¥U@r
+›2‰²@t©-'¥¹@v}_ˆú¼@s÷xÃ@u55ŠCîä@u Ô(b¥@v4âyÛù@tX¤xâd@u!fŽ¼4@u‹›\ßÓå@t
;2öÛ@rþ
ðk¾@tí™�à%ó@r£q@uÕ[vƒ=H@s‰p:&@t¿?^©@q[z€@v!t•s@tcì…7!‚@sŸIO@sþ~o'…¸@wùG/E@uH2,‡˜@sµ—UìU@vf¡’ª™@uÑaÇögì@wãѯX¿@u¸êöYF/@t?ãØ#
@vÇ'LõV@vÞy&y­é@z!MDÄ÷@z.>¬'Þ·@xº…å]@vpé‰bª1@u¢F>@y×WwÂ�@w·S?[@w¢7‚„,˜@w©W “a@s¾¸|åÑ@uV^„üÁ`@v§>ºQUš@v]Ù“Ÿ´@tøª.õ{@w‘üXû ¢@vÿ¾Üû@xl„£.@vÿ>=ß‚@sKœ&íoÑ@vRß–“¡§@v@€g"ª@u	Fá†@5@vHŽ:¹�@sV¬dØ{Ž@täÊ“þV…@v9‰à‰@vÍ°>�’¶@w¡(ôG@vuÿ¥hÊ@yðãŠ)q@t~PT¬RC@v^å¨Í$Ü@v­‚�²^2@u´((¼<@tYFW̃@wTÜ%ÇJ%@xòj4ˆÓ¦@wâúéä+)@sÑH°,ÿw@t‰Ä¹l¥Ï@v–ý�u•p@ví¸@l;È@w€òR:@w×G ÎÝ@w—ô÷ÿq@x‡Â³r?@y@†hÔØ@uæXmU?-@w0ÁH²M@wÙ¦ªÙÒo@q…ƒwøþä@yÑßÿÎ¥-@v™aëXó�@x4®äMã@vùqNç@u;uj�@uÅ…�8Ã@tc êÀpÁ@v%‹[›Fi@to y´Z@vÐX0"H
+@t<;mS
T@v `ñ¯©—@wzðÜÙß"@vWqݲ÷ê@wAóYmŠR@xÑ«2õð@wÕP“„¸.@wÐ’µ4¸@uCCá:Êj@võ¶Ì¸´F@wþe‹y>d@vå�عK@xœ,ÖÎT@v4þ3mJâ@t7IþÛÎk@v‘ñ|Ãøs@vdÕ
+"@x¤].ê@v„u¾}b@{ÝK^½þ±@wÈ_‘QÓ@v
‰„eo2@týL¯¬¿‹@wÎrUÙ³@|CN®¥H8@u|„tÅ}Ý@y¹ÆW†@xw\Œ ‘k@yc­¯ÑÒ@wÈ¢�È_M@wç¼µÕG@wî“ÎfQý@yƒZÙÕé
@uß•á@w%�ÉQD@@u:ž9¡½@v+Rxû
c@uí9J¶œ<@uu›·*¦@yS5ª<vÎ@xòÄ&Ç�B@xµ¨’Ž@v)}êšÎt@x–]årŽÉ@y©ñLÐÔs@wâ›]¶@xL�€¸oÔ@wÐ7òpæ×@wú Ö]›x@x¾–ϲÎÕ@xW`X[
+@wÏáZÿ1ž@vý¼§X6@ztYqñ/@uÈÒ:àî¢@wìšÙdz|@yë’{C3@wá®…ùYú@yd¿î­Ñw@t®®†
+1£@wbÎ�e#@xÑǼЦp@w15,×®ê@w�4—@y4»AZt@wÞ‰$¯¸P@yá�à¯P@x°xw¼@{
+-rÏI
+@x3ÔùS5@z,Y–”¤½@woj»¬³@vv?�Ò¾@zTIùG¯2@w¦ô»úJ@xr°ûˆv@{[)Õ7¶@{RèLþæ@y-?¥ûWO@x˜­ >v@{‡ð}Ó\›@yúÛ¢ åj@}M4%_|@x©Îû„[@yƒSjªÎE@yÙ˜÷Ï‘ï@{˜âs?B@yšzmSé@x$°©â=ž@tIôîÚ`Ã@{ãŠ0^@zò|¸žT@xV„s£Jø@xÕRœÀOÝ@z)+Gr+@y;Úî@zûY!æÒJ@wPZ/UŽ@{‚EÒ�©‡@y¤ñlZÌe@zW0ßþ9
@y'QÑã-@v•:È—@yáû
õ>:@zí]b…�…@|cúnRïÄ@yu`O#@yvÙ[&ò@@z]ìÚ5ß�@zÅïùDB@yŒä4á‡o@|›�Å@z•dÆêï;@wôäI+”Å@x�Bº0åE@y9€§'±@{†„¸OÒ@|ö4éW$@{¢CB
ÄT@{‘¸+Èè)@{V
ú?@{$—ž,ÔX@z>&X˜@zF§He™‹@}Šß|Þw@|·¢óŒ8@}vîy&£a@|2–„@~YÕC;�ˆ@xhýY¯@}=Ö…�Ñ»@{¤jZˆÔ@| í!~M@z51„‰J@y` 8¶c¦@€H”4š@$.V“|B@|Nc Ã¬—@z°ò¹N@Ï�`Œ
+Ê@yVô‡ªGo@~'^ož%C@|±
+�N>@~ëá¾þæ@|ð{D;S|@}€	 y/È@}$Zèáe@zžß«÷¶@~[žµCË@,AâËi@éÖèƒ,*@{Tp™ïÅ¢@~K
DÑ@}øYXbO@{t\FÈ@€×ù­²èê@€Ÿ@<\“h@~rÇì­œn@�8YÓí7@| Ü¸ÈÁ@žw
ì�@€‚’g}K@R�Óƒ”@€b€0ÂþÜ@€Á?Œ‘@€}PêB¡>@�;¯
+N@�À�^‹ä9@€™úÿUŠ@�]ÐbSðÁ@E³•¬ @€|ÝMuí@�ছ3:Ž@€=6Y¸‘´@Cý®õ¿­@�8‹ì‡@€Æy‹–¬@€	þÎ
û@~Ö~jbe@‚ƒÞ•²>­@�*H3÷e@ƒ$Vé‹v@‚×´9LQ@�°8ŠŠì˜@‚ùï2fh@€úkQ»}@‚2h¾@�#ÆØfXß@‚ÕoÆQÍM@ƒ“ë×ýd“@ƒ’CÑÖSÍ@ƒ¹2ò9
Û@‚ÈÆ?ºäZ@ƒLç·@ƒ:µœ{¢Å@„£Çú@‚pâ2ûk@‚
=NçØú@ƒ¯íO,ìk@„Z¼(E¿@„F¢…žº@ƒãg•b@ƒPÒP6kÒ@…BISÕõí@…5»ÁþÁ‘@ƒ@âXàÏû@…}œ“…@ƒÜLƒÎJê@…­üÕÏ–@„ͬf×�@†êc”.tÚ@†zFbæv‡@…M:œæøô@„æ1F†\@‡ö‡ã¿~@ˆ–˜2©q*@‡EFÞÉ‘¼@…˜vZ›‚×@ˆŠW¸êí@ˆu(ÙŒvå@‰ªNnÇöV@‰jÔ·�NP@‡
¯´åÈ@‰g³K^@ˆê¥rÕ@ˆT'Í’à@ŠVWב½a@Œ>#ÛÙÕ@Šâ‰O@Ô@‹€a8zï@ŠA„Rþ·L@�«þöÜÞ@ŒÉ³¦"§@�ŒKB5¼k@Žòç.�A@�“‚¶ú@�ñVmÀÛà@ŽÖ¶öTå¼@�æ¥SE9}@�Qý‹E(¸@�ìcTÉð@�Z~XÔjM@�ñï†Þ @‘fÂAœ@’2ø	PÞ@’0�£þ@’A¦/.ì{@’Ľ¡Q©+@’ˆvÉÈ�Ù@“¥�‰ÔB@”…€ž@ú@“�
+’áß‘@”¶©HŽjW@”Iüü½-0@•âAƸ@•Ë
+‰ÐŒ@—¥MÏÃô@–Ø~æ`@—Äô“‡Ì@™0kUô{®@˜®hÑCSØ@š‹žÛ¾¥È@šZäãèø@œ$ÈÒýæñ@šÍ!Ó^V@�ð,ÉïìÙ@žtî1¹¥@žPÕÔ¶@Ÿñ@益@ ãû…¿Ã@ ñu½`R¤@ Ø_:\%@¢�AÖç@¢qóbèø’@£‰!¬ƒuÒ@¤WòÓl@@¤J÷-Ïøº@¥“:Í?@¦öïBÐs§@§ç¦fq›Þ@¨A8W«_•@©œ*£
5@«"ðÕF=@«ÄЭÃ@«õ
+ºå1¼@®s6ƒÝßË@¯þ²ÈPÀ@°U´7Š�~@°ý趧?@²	½M¶&ì@²Å©ÄŒê#@³€1Üga@´gƒòÑ»@¶6½×–ü@·v˜‰i@¹$†Îˆüð@»–ŸGcd@¾5íÊ°åÈ@ÀŠÓ¹]à·@ÂŽ÷t`6ß@ŧøhÊì@É4Y�Rô@ÐVwà%J!@ÝàH™Í@ò}ÜnÒA€TR²
+A¿½”Üý´Ag›ëQU‡@óF}b!§]@ÝhÜD @РŠ!F@É[ŒcUª`@Å™¿ŠOò¦@ÂËŒ.¤o@Àß(§Ðx@¾è9n{l@¼8`cËzã@ºCxr´&"@¸bŸ€Gô÷@¶Ë?ò®lÙ@µ¾‚w—K@´:zÛ�ó±@²üaŽ`Ž
@²`Õܼþ@±)Àò16@°fGÑ"@®/}ï½Çƒ@¬ëD³7»*@«‰ÆJº‘>@ªl7Óq˜A@¨ÝW‡ã@§ÌSFч@§û;÷oFz@¦Xÿ¿fG@¦�v¢Ò@¥5	30“¬@£�Í•,ôû@¢ËŽB`Ò@£`¿1ð-@¡|3ìÒ©t@¡‘„�­M|@¡€–C´U@ ,µ‘$çB@ ä@ž‚‰i½@žbÓ‹R­³@œ‚TÞ;|@›Ï¨Þ‰â:@š�üX¡üw@šE”Þ¯ìÖ@™€’avW@™Šî¿&f@—ïI¨Úþ@—ß�èÏŽù@–~›o¨çq@–„KoŒ@–såùw=	@”-ÖÐB„o@”ï#f~û@“üˆ,{^!@”ohglú@“>6¶~×@“ž¥Ü>%V@’68Ñž'º@’]*¿Os@‘ZvNÝ×?@‘Ýþ»Fqš@‘^ô„³ÅC@‘
Ö«nãÀ@‘+€¢ÇóÕ@‘>îÛa@�> Ÿ‚ŒH@�˜‘Ë9ï@Ž[+ÞC@ŽÍÕ�<{@�É�pØ™@�˜fUnû+@Ž0ôì|ôË@Œ¢È³#‚È@‹XŒ[õ.@‹~soÆã@‹Àì¤r!@‰öv[U²@ŠOi‘+p@Š$#&W ®@ˆÐ)á~ªº@ŠÇÅô—¤Ì@ˆî}¬óB@ˆéWl"[Ø@†}oØóZë@ˆï'"Q�8@‰ée¥÷Q@‡g
+�¨!«@‡yê ºš£@‡w¡K{´ª@ˆêBÒŒ@‡¯Ø>3B@@‡¥´@‡ÄÙ#>@†J
+<˜ }@†%�{t�¸@‡iGý�Ý@…óûÕ'¬M@†,ý( XU@„­·áe:ä@…42®ÂS@†{vPº“Ù@„cU�n@…S�Ͼ3‚@ƒ )ή—*@…²ÉlIº@…1v¹H@„ßl„É{@ƒ¢‘Öæ�(@ƒ+U~CÝ@ƒS>ó¦î@…4•ŸÐ�™@ƒA§|K{@ƒW³jJ^ü@„‘
+Ô£æ¹@‚×öfÖ`Œ@„>–D^?@‚è	:‘Aþ@„‰Ó¨@‚1+,”Bì@€^óDç€Í@‚† ­Ï@‚Œ
xti€@‚ñ³ñy(d@‚+8ˉ`ô@‚q „cŒ(@„Ý–Gg°@€¼�_Æc@�'<G
+/@‚â�Ï@‚–µP•R@‚®hó¶ ê@�×qd¹ü@‚¯_oÀO\@�žûµ|ÛŠ@‚º$¶·.@�9‡ã˜›@‚ÎÃzwÜŠ@€vŸ5Úª@‚ƒ�#¥@€¤Íº¶ÞU@ƒ3äi"‚À@�P†qV@‚ô“
�‹@ƒ/4اWè@„
E^0Ú@ƒ_g±‚Kn@‚e/€ O®@ƒ–°T†@‚hþ@I@�[TäQp@‚»ksÀß@‚êx×hH@‚„g1˲@„9�Þ¥¦¶@�Ûpu¦1\@ƒÚJ”ÝRÄ@ƒ)�T5÷@‚üðx›u@‚åcÚ!®@ƒl×2w‚¬@„®â¶ÿf’@ƒOS›?§ö@ƒá~Âœ×ð@„€—XÝ£@…�ì.cU¼@ƒpöp®)@„—A!ä-¬@…H³6þØ@‡qfƒãì@†¯IP	Z”@ˆLÈÉdÜÚ@‡	 ‡Ä<?@†Æ¿ñ)t_@Š›Bºz¹s@ˆ“ó>®$@ŠÐøf„ÌÝ@Œ
ëXÓ©@�D);-×@�göÝuߥ@�Á?ºF@”Üo-4©Ÿ@��Ã÷—‰Ç@¯?öî–Tü@À¼M\ðÄ¿@Æ�ó–¼Í—@Ä-®éM»@·×‹ñl@£cBºš¹@–ˆZ9<„@“
00
LÄ@‘psz6‰@�DÄJ§À»@Œ'T]¶@‹_!ÃÇT™@Š°M³¯|@ˆ¶Ï5ÕFË@‰‰K0v'@‡÷Z9%r@…D8fkìN@†ôÝÚÞ V@ƒÅ
—Bæ’@…„Ì"bŒ@„‰À,é¿„@ƒ³t[+P@„ Š_õ²@ƒ\ó°÷¬÷@ƒÿ!��a@„ÖÍV€B>@‚&ið“@@ƒl1»K¶
+@‚Ä8zõÿ@�(=‡áËJ@�|1a˜@€p=/ckO@ÌG�ÿXŒ@‚B`ï .K@�W]Æœ¥@‚^,Êž�@€3Ïo¦þ9@�„}Ú÷@€&� †ƒ§@~‰×*˜@~!Ä´¯Ÿ@€–üxèÀ@Nj€é“@~pq¸Ì›Q@~’àäsÍÎ@|K¢—†@ôE´oÔ­@€wj˜Î÷£@~B{¡ÜBN@Kü«…±@|BúU�«²@{ÿrÔñò@}4ÍÞž-@{”Œðd»S@~÷ì{.ô¹@zÎ…�†¦@|-æR»–W@{?JiUÌ@~äm™ ±@@|cQ©8q@z<йÑV@}ÜÔ#a´@~WF�Œçœ@}á·zš	‘@}Ý£š}Š"@{pzd®óë@|8�ódÏ@{¢h‚RbJ@z€æ†*_²@{¤L¬Óù@{ÃÜ'Š¥@{‹«×\¼@z9·÷ê{@yù×ïHU€@w4±»ì¸/@z6Kv‡@zMªÔÚ!5@y‘>¶m6@yTOé|‚ê@zæ3tþ"â@{â%oÝ	+@y—Švð-Ç@|_q¹~ð@xf«â6@zÐ=�@{ÇËú5´|@|5ü5*’Ž@}6B€³@xÉ(`WºM@{oóÓ9ù@vÍVZ>Î@z©…™b@z.Þ3>µ@yt~áAQë@xT¿U³]•@w%þWóšÙ@yS�^¡hó@yh¯ÍUì@y�J6ÆíW@v¨ i*¾
@w´ªÿõÎ@zÉ ÍÏšI@z—?Ú¹[@}7›‰,·@{“Q»@y,9×fT/@{Xv|¥U@zÈíÁrg@x†{:7â¶@yzN/“XÜ@yAwâaF@v¨%86Z3@y‘U¶è`^@x×
÷@yí"E[™š@z#= @v>�ù‘@zw“ðØ@ycÖQîtH@w¸©ôò{@xÓÙ‹yG@z—‚Ø|@y8µ#æâ@x*m<ˆˆR@wòŒÇÁÒ@xaf5›X³@v\>x³Ì§@vjbˆè† @{$3½­ñ&@y·|8Ç!à@u÷ÎA;6@y¦%_¿þ�@y
+JsË@uÎà%aâ§@vs*€áOÒ@x('à�ÖM@u½|RÀ@v Ó¶‰2I@uˆL,|�@yáˆìM¿@w(®é mj@w©!b%‹›@wGb$8ø‘@{•ˆôéâk@v]žÛKw¥@xE»T5cÙ@xëÏzuÕ}@y“)Ç?‹€@xý÷CnG@x³ûX²‚@xqGŽŸÅ@v´låÞˆ@xBò521@v‚âöˆÑ€@w›o3vx@vO¶ZŒ@xë¿Å«§@xp�ºµ“p@xȆUÚ@w%_רr@wõ»°ÿ&F@{=x’ù@y*B‚"RZ@y
¤†)ê@tð=‘fú!@uÿ¾)×f?@|ó€KŒô’@zçõJ¼ÞÀ@wvCta@z+/Ëï-õ@w¯¹À0Z@ttWF@u~vF3¨@|§Tûñ–@uƒÁµ� ú@y³#щ€ý@yãßîîò@wUdtJ@xþ™¼£4!@z6Ô¬vS@xfÞ {ð0@zG#q½ð@z%<=ü@zêíxÇß@yŸWú	Ë@vôÙ5¹ñ@u’¹ØÄ�ï@wL"NKgp@z[ƒêŒr@vÿÅj¯¸¢@yô\xüøN@y4ç¶|‰@x–…åw7@u½ßEÁ@wBöd¢^f@vCøüA?@w>%¯øA%@w×ø&0¿·@z_
+sÉl@z£V»¥FÕ@vÈÝjL@´@x9‡`Í@u(N‰„%Û@w `y+,Í@xàÔq¶@w*ñ|Î%x@s™³UÆI@v@¤Ÿš$ö@wÐê1N@uw1›á#Ó@vêÿz9‡¼@u)­^‘Àe@z :|©õ@uêuM“J@u‘G¤Û@u~)�êës@uøôÃþFª@wê£r ñ5@u~¶sY@v³2KÝYñ@v®©›NÉ@t×CŒHuª@wéÍ_¯v¡@wÃïþ?ê@vnäYÔÉ@x$bk|ç@vÀ:ÇOt@w³V+³­ì@yÏ([UØ@u~†$ô|C@v'Ñ],A¼@vé\8ÀÔ@w¥3CG@xA	ƒó¸@v;´±Ð?x@tNÞŠDôÝ@tó-žÛ©³@uø�=íÖµ@wζ�¦úq@v“ALç@x!nô¥Ã@y—[K“dD@w
€g/x@xA‘^s1Y@w±BϬéK@vù€X'ƒ@w=•da=`@xxšQ–Ic@tÿ·èWcì@uõGvip@uÊS–ýe@uʄЂ•»@xuC¶m>¡@tý:Ê3{@w=lÉúâ@v家r@w¡í×°ãÈ@zÑûTn]@x9Ñ\»@tJm¥@u$ÜÛy½³@t~m¤™2@v"´#Äåã@xÛâH˜Yå@yÈý*a¿)@wN…»…×@xðŸEV>ê@uR… ·ç@vÌŒaÒºß@wÉþYq@u+å
+Å‹@vÑÕHSG@x ª…f4Å@u͵ælg@wÿ.vWø@v�˜Dx³â@uN–„¼ôy@w¬ž
v'
@r‘Ý?£øØ@wW‡<8Æu@v|ë¥û»µ@t."„¯R@wsÝ�Ì(@wi;lŽ�5@tû
+ü1@tÍس	eÁ@tJÌB³¤X@vÍ3ðD_@vßÉ+÷®í@u^t€@uXw¹Z®@wU~ÙŽ@v³rÊ•r;@xË‘ùvç@xÖFê
+Q²@v‰Zú[·J@vhÍÃÝc@wj?¹&ƒ¨@vGx=ÿ0Ó@wCÉ’‡Pù@xjŸå­Úâ@vO�	úCZ@yWÙÅ|Îù@vó¹ÀÜ÷@vê\J=€T@w87à`@=@tw,ÿf„S@u¶ôP¾ Î@tc»rg‰Ì@s<O#ù@wçM
*Å–@vt-}ÐI@tR:ïyt@v¢§b{Ð@v˜êÃøc@w±…lGˆ@v„¬IŠ,ý@tGH�4Œç@w&¼ËÜ
(@vVÙZ;Ë`@y£µ‚@x“X4Kñ@u_Íý›é«@v+®D7š@uÕþÈ”lO@u‹¢ñ¶^@w
ÄŸ¸:[@tÇ{})ù2@w9U§þÂÿ@tT�rS»Õ@w§
ìà>�@wö9âÁôV@vêrãçŒ>@xf{,C‘©@w^±¹Ý@wAÌc+ªù@u¤JÍ€¿ @wùñ=ç
+@u-¿=`ø@vâIš)W@u¦™gÍ@w©ECóò:@urdíTÄ@vˆ|AŒ:@v²¤ÔfS†@u‰Mèä@uÙº@oÌÆ@wÏ0Ò¹@tÜm0@x)ýMÅ�@w*qvfy@u–ú-34˜@xHÔäæT@x¥7@CÁ2@vmPZ¡J9@v‚É0�Zë@wcmãf³@yµ|CqåÃ@v°ûá:fæ@wè.>œË@ta(T#ã@wÅS¬ÈÓ@wô�÷ÉQ@vÓB�ûJÕ@wBJsÿßµ@x_±\"õ@už¨÷hi}@yé·†@v´ò‚êÎ@w|3Òk'ª@u°Ëei@v+¢äS6@v&¶ûÀâ.@vnåw>[@uœàY„ï@væ¦IB˜@z6‘ž‹.@x:4Ì'âÜ@uïËÐY\@t÷àá@â%@z…î‰Þþ&@vkIQø›@wx“H�@wìÑ®X(@y¶[ª5ÿð@vúúªÌÛ@uéIíÇl@z�Œ/f@t×Qž·‹l@zŽÔº¦ØŽ@sa{HŽ³¯@u˜téÌ)@v\‘|
+Õ@u¤œMër?@vÙŠ÷êgÿ@v‘%­±@vÎ�LS@vIi{ç
@u¯Iÿ­eó@w`h§H�@vàd4°…×@yokéS 0@uð±^ôi@s-bÖöò¥@u	,žVý@wŽ6Ñ6Q@wM‹/HÏ/@vëíÏ @x+Òt™m¼@x}j»Ñ®,@v/"f=@xDÎeîH@yÈ:Ð×$€@w]»qõÈ"@vìQñG�@y;k³ SØ@v›J¡v¢@zNÖšh£@w­½Øvr@x±t_£�@t¦‚ßSoõ@wȇ‹³òÑ@wÆb?3'£@tËÆ„m@x˜ktµ³@v{ž#@wCƒ�U¸¹@uƒE€Æ@wêîê�Šÿ@xUx‘ÿ@t³ O0|@wÿ !…F?@y©„S˜”t@w$5PŒ°†@v*½?t"@t[œ8ÅÜ@uƒ dúþ@uõQ•Ùy¦@zÌçNé@w¿±“ikÑ@wíu”æŒ@tv'/Ž@x6¾¸yä@u™²Î�j+@wqò¢Þöƒ@vdª&íÕ³@qÑ£Úˆ@u*�þÒW*@u�”‘\^»@v”É,?@wd<…ÁÖ@yqLô”rs@ulî3©½@}jûDy@yf=JÆEÖ@yÑýÌ�G@x8eœ¼@uæf¯L
@x(Z
+bã@z}V/
+@wý
øÊÉ@vaNz�ÿ@u›E‚—7²@u<|Õ·þŸ@y2$„…Þ@v{Ùdˆ–@sªíÝç»@x‚]=``$@wÒ®h	F@uÔmÑ•T‹@wûQ°^~@x<–7°§+@uá2úã!m@yótÊ@zpB°4“@t0rrü@z¤âïf÷
@wW¨‡ˆÕQ@{ƒIžúª�@{röA@y§¹®x’ã@yãº�½_ë@~gLÓô…@~f`>2†É@zn±7³Ôâ@usútã~@x°¹\/�@v�Õ%è@wRÌì‡B4@w	Ç{63æ@}!ãÙ5ä@zm––ÙCß@wúOÈ16Ý@vÌ›Yõõn@w"e~[ª±@uºÔv-¿@yMrÊ‚›@x¢>mÀ~@x¹ʬU8@xd>vt£@u¸@º¯i|@zÅ-&6WŠ@vï	žw¢@uÍ#ó6@x;;·‚ž@wàš×<ê@y|Ńö«	@y¶†•Ê5@x¤ÿ)	›f@y<Šg²ºõ@vùþ@zuùIÖ:'@y¥ñ³¤ã8@zÜ„ mîú@y2Œ*íœQ@x6ØP�v@z{Þz–ýy@v­"cAÞ
@u¿’ÍuIB@xª€
ôE@x5ÏtÖž@z3‰¦HŽ@yuÒåA4O@vb>5ç<@|‹lIËà#@x`’YK®@vpˆ”¦ü@ycÂä�ŒÇ@}I#ê[é�@y
+µÜ—~Î@x§sÏ:&@wVbdVˆ¯@x°=åu†@z‰JÃ+lÉ@wìËÕÏ=ƒ@z
y†h-e@v¢º¯ÜY@zóäôðs@zq‚”Ä7@z¡%›ü%U@wN2Á…@yñÄKP­@zž�¾9Â@y1$žªà5@{)™}ÂsÛ@yé�¦ Pð@u¢`°é|@y§¢pë@~¥Àâ/ê^@{4é`™t9@|¯U¼¥@z>dp•«@xqèÈ(@zÿŸ1¨d@yQ¡»ÿaØ@|
xæ\/i@y·õ
+g¯‘@wε
+Èšš@zúAïC@zeeÕv@|HƵ!ÖÎ@|ùL_ô$@yk1
sFd@}°`ñÎæÀ@y…ÔÒY„@yzÛÁç8@}êIXÑ@{z˜ëÄ@yy›@ŠIØ@|Í4Öî~@{jceÝÅ4@|¿fÍ@{§åq±@z§åAVú(@yËÝË‚|<@zy«úÎ9Û@{] s¯!V@~û2—’-Ø@|�k5'Í@z˜Lc¹'Ž@|ªhyl
+V@y[¨ä^B1@y9ÝÌøÛ�@~fN“þw§@{¤Ê“îC@z­vÕ.¿q@xþnžv@zS/¬§w@}²˜²»�«@z86oÍœ†@y{¸Àïq×@}M±,y4U@|%ÉJaõ@}eŠ3IO@xÏRBqêG@{õËý–èh@{Ã?^ð.²@|tºBã@{ï
pÍÖ@z|[ÇË
Ú@z
+‘(ÅÚS@yCÊwÄ3@|³˜ªšó@|tóøPÙ@z”<AH@zÎÃK@xv„Wš�@xMR³#@zö4¨%HŒ@ lùÏ@{½|±Å¥¯@}‹iÌq@|xsµZ„@zÁ×WìÎ
@|Ó"ÑÂH±@%¥xcŠæ@‡07÷@{2³¢xé@xtÍ€ÀC@}ÌMêp„ÿ@yÀT§„öä@{odì�u�@~´=81÷n@|\@"ã›ê@}(kºî@~~Üš5í@|tA"¼ô@{†¹˜¾C@{#ÉØF@~ã<vùnN@{ßÛ‚øš"@}zÇ@Iá(@}³\ì$h@|ü�Û’²@{S Ûév@{¥8gõí@}.`m3Ìœ@~À‰ÎC¯Ï@B©ÈÍùÖ@ýBèÒ+@w
4�½«@€GO²ÿ¨@|€¬&úÌ,@~KËT§”•@|]ÿÎKŒ@}:
�ÙÚ@yÍ Ï¹ž¯@|Ü#Ö´Ù@€3YˆÉ¨Â@}ðH!tûš@}æÈ°¥Íž@~6pYò{õ@€.dgšGj@òK®hJ�@~»”åý@~>s´zŠ@€•8§
o¿@€ÚÃØ+X@yRá¡v@€¯0»žÿ@~ãP�‡@€ Ÿ½m@[Cí:ô@Býo,®­@€6³“+‡@€µ&Ó†+@Ö
+·'¯@ Ù˜),é@€�Úû×Rû@}€�…Ý„@€Y¥ØPó!@€‘$‚X@€
�øg³@�\°Ï±^à@€Ñ
�»Üš@‚‰Û�ÆìN@}üÞ¿ÌR@€ÿFø å@€ÜûåcŒm@~.¸Å˜µø@¨«µéX@€>¬�d'd@‚°U=¡•@�yçŠ[pÞ@€a-Jöµ²@�¡èƒ°_@�½�P­Òz@��ѹïIù@�ªÃÜÚ{@€´Q‚°g@„MŽ#“Å8@~÷Ó¨”+Ò@�d¿S"¨¡@€azý*wG@€Ê±6õ²@�¥‡Us¸@}¾“UõD±@�z‹¿‚%@€ÏÏߌxX@‚4<–—Á@‚S¨{øæ@‚¤q
Îÿß@�*¥
â@œbà%¡p@��|ëpï@‚|:Ín�F@€ÂM+Ù¶@�=I ;@�;¨4î~â@ƒ	™iB@€¤¥˜'i	@�`�te„H@ƒ£…#·Ü@‚Â'KÑu@‚
#Ö`Ó@ƒ1Vç„@‚(:^°@1@‚µ©-½—‡@�ãÉ’B˜Ø@‚ñQHµ–@„SrÑhÅ°@„*Gº¢¡œ@ƒL0kb@„†j¡üñ@‚	pˆV³‚
\ No newline at end of file
diff --git a/goodman_pipeline/data/ref_comp/goodman_comp_2100_650_GG455_HgNeAr.fits b/goodman_pipeline/data/ref_comp/goodman_comp_2100_650_GG455_HgNeAr.fits
new file mode 100644
index 00000000..f18d15ab
--- /dev/null
+++ b/goodman_pipeline/data/ref_comp/goodman_comp_2100_650_GG455_HgNeAr.fits
@@ -0,0 +1,100 @@
+SIMPLE  =                    T / conforms to FITS standard                      BITPIX  =                  -64 / array data type                                NAXIS   =                    1 / number of array dimensions                     NAXIS1  =                 4060                                                  ORIGIN  = 'NOAO-IRAF FITS Image Kernel July 2003' / FITS file originator        IRAF-TLM= '2024-05-08T18:56:30' / Time of last modification                     OBJECT  = 'Haro_5-2_A'         / Name of the object observed                    DATE-OBS= '2021-10-21T06:06:55.840' / ISO-8601 time of observation              DATE    = '2024-05-08T18:53:49' / Date Format is YYYY-MM-DD                     TIME    = '06:06:55.840 to 06:06:56.349' / ~ Start & Stop of Exposure           N_PRM0  =                   59 / Status                                         PG0_0   =                24624 / Camera Flags,                                  PG0_1   =           895078.436 / Camera Up Time, HH:MM:SS.sss                   PG0_2   =                    0 / Continuous Clear Mode,                         PG0_3   =                4.476 / Frame Clear Time, HH:MM:SS.sss                 PG0_4   =                4.476 / CCD Read Time, HH:MM:SS.sss                    PG0_5   =                5.976 / Cryo Current, Amps                             PG0_6   =                0.000 / Cryo Delay, HH:MM:SS.sss                       PG0_7   =                19071 / PS Flags,                                      PG0_8   =                   39 / PS Pressure 1, PSI                             PG0_9   =                  252 / PS Pressure 2, PSI                             PG0_10  =                 27.6 / PS CPU Temp, C                                 PG0_11  =                   39 / PS Fan 0 Speed, Hz                             PG0_12  =                   40 / PS Fan 1 Speed, Hz                             PG0_13  =                   40 / PS Fan 2 Speed, Hz                             PG0_14  =                   41 / PS Fan 3 Speed, Hz                             PG0_15  =                 33.9 / PS Case Temp, C                                PG0_16  =                3.292 / PS 3.3V Supply, Volts                          PG0_17  =               11.983 / PS 12V Supply, Volts                           PG0_18  =               11.767 / PS Sensor Supply, Volts                        PG0_19  =               23.997 / PS 24V Supply, Volts                           PG0_20  =               49.587 / PS 48V Supply, Volts                           PG0_21  =              -13.168 / Camera Switched -13V, Volts                    PG0_22  =               -6.624 / Camera Switched -6V, Volts                     PG0_23  =                6.615 / Camera Switched 5V, Volts                      PG0_24  =                5.717 / Camera Switched 6V, Volts                      PG0_25  =               13.416 / Camera Switched 13V, Volts                     PG0_26  =               24.570 / Camera Switched 24V, Volts                     PG0_27  =               31.494 / Camera Switched 28V, Volts                     PG0_28  =           2147483647 / PS Software Rel.,                              PG0_29  =               10.174 / SW+, Volts                                     PG0_30  =               -0.002 / SW-, Volts                                     PG0_31  =               12.045 / R+, Volts                                      PG0_32  =                0.020 / R-, Volts                                      PG0_33  =               29.522 / VDD, Volts                                     PG0_34  =               17.015 / VRD, Volts                                     PG0_35  =                2.267 / VLG1, Volts                                    PG0_36  =                0.994 / VLG2, Volts                                    PG0_37  =              -13.093 / -13V, Volts                                    PG0_38  =               -6.307 / -6V, Volts                                     PG0_39  =               -4.870 / -5V Pre., Volts                                PG0_40  =                1.212 / 1.2V, Volts                                    PG0_41  =                3.275 / 3.3V, Volts                                    PG0_42  =                3.290 / VREF_P, Volts                                  PG0_43  =                5.157 / +5V, Volts                                     PG0_44  =                5.029 / +5V Pre., Volts                                PG0_45  =                6.166 / +6V, Volts                                     PG0_46  =               13.368 / +13V, Volts                                    PG0_47  =               23.856 / +24V, Volts                                    PG0_48  =               31.493 / +28V, Volts                                    PG0_49  =                0.000 / Chamber Pressure, Torr                         PG0_50  =                 40.5 / CPU Temperature, C                             PG0_51  =               -125.0 / Cold End Temperature, C                        PG0_52  =               -100.0 / CCD 0 CCD Temp., C                             PG0_53  =               23.702 / CCD Heater+, Volts                             PG0_54  =                0.282 / CCD Heater Current, Amps                       PG0_55  =               23.648 / Cold End Heater+, Volts                        PG0_56  =                0.194 / Cold End Heater Current, Amps                  PG0_57  =               23.916 / Window Heater+, Volts                          PG0_58  =                    0 / HKS Flags,                                     N_PRM1  =                   10 / Miscellaneous                                  PG1_0   =                  750 / Tested Speeds, (Not Defined)                   PG1_1   = 'e2V CCD231-84-1-F21' / CCD Model                                     PG1_2   = '10282-14-01'        / CCD 0 SN                                       PG1_3   =                 8811 / Hardware Part Number,                          PG1_4   =                    0 / Hardware Revision,                             PG1_5   =                -69.8 / Operational Temp, C                            PG1_6   =                0.150 / Operational Pressure, Torr                     PG1_7   =            41.120000 / Image Area Size X, mm                          PG1_8   =            40.960000 / Image Area Size Y, mm                          PG1_9   =                2.000 / Frame Clear Time, Sec.                         N_PRM2  =                   25 / Setup                                          PG2_0   =                0.500 / Exposure Time, Sec.                            PG2_1   =                 1000 / TDI Delay, us                                  PG2_2   =                    0 / Acquisition mode, (Video)                      PG2_3   =                    2 / Trigger Mode, (Timed Exposure After Trig.)     PG2_4   =                    0 / Initial Clear Mode, (Enable)                   PG2_5   =                    0 / Initial Cooler State, (Off)                    PG2_6   =                    0 / Initial Window Heat,                           PG2_7   =               -100.0 / CCD Temperature Setpoint, C                    PG2_8   =               -125.0 / Cold End Temperature Setpoint, C               PG2_9   =               -125.0 / Low Flow Begins, C                             PG2_10  =               -124.0 / Low Flow Ends, C                               PG2_11  =                    3 / Trigger 1 In Setup, (CMOS (Pull-Down Inverted))PG2_12  =                    1 / Trigger 1 Out Setup, (CMOS)                    PG2_13  =                    0 / Trigger 1 Out Selector, (Shutter)              PG2_14  =                    3 / Trigger 2 In Setup, (CMOS (Pull-Down Inverted))PG2_15  =                    0 / Trigger 2 Out Setup, (Opto)                    PG2_16  =                    2 / Trigger 2 Out Selector, (Frame)                PG2_17  =                    0 / Trigger Input Select, (1)                      PG2_18  =                0.000 / Shutter Open Delay, Sec.                       PG2_19  =                0.500 / Shutter Close Delay, Sec.                      PG2_20  =                   10 / Parallel Shift Delay, us                       PG2_21  =                    1 / Parallel Clear Count,                          PG2_22  =                 2048 / Serial Clear Count,                            PG2_23  =                    0 / Pre-exposure pulse select, (Short)             PG2_24  =                    1 / LED Operation, (Enable)                        N_PRM3  =                    1 / Mode Mask                                      PG3_0   =                  127 / Mode Mask,                                     N_PRM4  =                   59 / Factory                                        PG4_0   =                 1110 / Instrument Model,                              PG4_1   =                  111 / Instrument SN,                                 PG4_2   =                   50 / Line Strobe Fall Delay, 10 ns                  PG4_3   =                    0 / Pixel Pipeline,                                PG4_4   =                    0 / VDD off, (Disable)                             PG4_5   =                    0 / Clear During Exposure, (Disable)               PG4_6   =                0.100 / Long Pre-exposure pulse duration, Sec.         PG4_7   =                0.001 / Pre-exposure pulse duration, Sec.              PG4_8   =                    0 / Pre-exposure pulse enable, (Disable)           PG4_9   =                    0 / Camera De-interlace, (Software)                PG4_10  =                    0 / SREG 0 De-interlace Position,                  PG4_11  =                    1 / SREG 1 De-interlace Position,                  PG4_12  =                    0 / CCD Type, (Full-Frame)                         PG4_13  =                    4 / Parallel Clock Regions,                        PG4_14  =                    1 / ADC Clock Divisor, (1)                         PG4_15  =                    0 / Analog Chain Delay, ADC Clocks                 PG4_16  =                    0 / Parallel Pre-Masked,                           PG4_17  =                 4112 / Parallel Active Pix.,                          PG4_18  =                    0 / Parallel Post-Masked,                          PG4_19  =                    0 / Parallel Region 0 Masked, (False)              PG4_20  =                    2 / Parallel Region 0 Shift Cap., (Both)           PG4_21  =                    0 / Parallel Region 1 Masked, (False)              PG4_22  =                    2 / Parallel Region 1 Shift Cap., (Both)           PG4_23  =                    0 / Parallel Region 2 Masked, (False)              PG4_24  =                    2 / Parallel Region 2 Shift Cap., (Both)           PG4_25  =                    0 / Parallel Region 3 Masked, (False)              PG4_26  =                    2 / Parallel Region 3 Shift Cap., (Both)           PG4_27  =                    1 / Two Serial Registers, (True)                   PG4_28  =                   50 / Serial Pre-Masked,                             PG4_29  =                 4096 / Serial Active Pix.,                            PG4_30  =                    0 / Serial Post-Masked,                            PG4_31  =                    4 / Installed Ports, (4)                           PG4_32  =                5.100 / PS +5V Setting, Volts                          PG4_33  =                6.000 / PS +6V Setting, Volts                          PG4_34  =               -6.300 / PS -6V Setting, Volts                          PG4_35  =               13.200 / PS +13V Setting, Volts                         PG4_36  =               24.500 / PS +24V Setting, Volts                         PG4_37  =               31.500 / PS +28V Setting, Volts                         PG4_38  =              -13.000 / PS -13V Setting, Volts                         PG4_39  =                    0 / Port 0 Connect, (SR0)                          PG4_40  =                    0 / Port 0 Map, (ADC0)                             PG4_41  =                    0 / Port 0 Shift Direction, (Same)                 PG4_42  =                 1018 / CCD 0 Port 0 Gain Correction,                  PG4_43  =                 1024 / CCD 0 Port 0 HG Correction,                    PG4_44  =                    0 / Port 1 Connect, (SR0)                          PG4_45  =                    1 / Port 1 Map, (ADC1)                             PG4_46  =                    1 / Port 1 Shift Direction, (Reverse)              PG4_47  =                 1024 / CCD 0 Port 1 Gain Correction,                  PG4_48  =                 1024 / CCD 0 Port 1 HG Correction,                    PG4_49  =                    1 / Port 2 Connect, (SR1)                          PG4_50  =                    2 / Port 2 Map, (ADC2)                             PG4_51  =                    0 / Port 2 Shift Direction, (Same)                 PG4_52  =                 1055 / CCD 0 Port 2 Gain Correction,                  PG4_53  =                 1055 / CCD 0 Port 2 HG Correction,                    PG4_54  =                    1 / Port 3 Connect, (SR1)                          PG4_55  =                    3 / Port 3 Map, (ADC3)                             PG4_56  =                    1 / Port 3 Shift Direction, (Reverse)              PG4_57  =                 1038 / CCD 0 Port 3 Gain Correction,                  PG4_58  =                 1024 / CCD 0 Port 3 HG Correction,                    N_PRM5  =                   22 / Control                                        PG5_0   =                   16 / Bits Per Pixel, (16)                           PG5_1   =                  113 / DSI Sample Time,                               PG5_2   =                    1 / Gain, (High)                                   PG5_3   =                    1 / Port Select, (Port 0)                          PG5_4   =                    2 / Parallel Binning,                              PG5_5   =                  948 / Parallel Length,                               PG5_6   =                  980 / Parallel Origin,                               PG5_7   =                    0 / Parallel Phasing, (SR0)                        PG5_8   =                    0 / Parallel Post Scan,                            PG5_9   =                    1 / Serial Binning,                                PG5_10  =                 4142 / Serial Length,                                 PG5_11  =                    0 / Serial Origin,                                 PG5_12  =                    0 / Serial Phasing, (Normal)                       PG5_13  =                    0 / Serial Post Scan,                              PG5_14  =               -1.691 / CCD 0 Port 0 ADC Offset, Volts                 PG5_15  =                 1993 / CCD 0 Port 0 Correlation Bias,                 PG5_16  =               -1.709 / CCD 0 Port 1 ADC Offset, Volts                 PG5_17  =                 2015 / CCD 0 Port 1 Correlation Bias,                 PG5_18  =               -1.709 / CCD 0 Port 2 ADC Offset, Volts                 PG5_19  =                 2017 / CCD 0 Port 2 Correlation Bias,                 PG5_20  =               -1.702 / CCD 0 Port 3 ADC Offset, Volts                 PG5_21  =                 1984 / CCD 0 Port 3 Correlation Bias,                 N_PRM6  =                    1 / Operational                                    PG6_0   =                   10 / Mode,                                          TELESCOP= 'SOAR 4.1m'                                                           INSTRUME= 'ghts_red'                                                            NOTES   = ''                                                                    INSTCONF= 'Red'                                                                 CAMSWV  = 'Beta 29'                                                             CONSWV  = '8359,10'                                                             INSTSWV = 'GSCS 2.0.17.6.6-Alpha'                                               CAMERA  = 'Si 1110-111'                                                         RA      = '05:35:06.841'       / right ascension [hh:mm:ss.sss]                 DEC     = '-02:48:33.492'      / declination [dd:mm:ss.sss]                     AIRMASS =             1.350000 / airmass at approx. start of exposure           UT      = '06:06:53.873'       / time at approx. start of exposure [UTC]        FOCUS   =         -1279.700000 / SOAR telescope focus                           MOUNT_AZ=            55.468354 / SOAR mount azimuth                             MOUNT_EL=            47.953000 / SOAR mount elevation                           ROTATOR =            38.000000 / Nasymth cage rotator angle [deg]               POSANGLE=           214.700000 / position angle [deg. E of N]                   SEEING  =             0.954000 / DIMM seeing [arcsec]                           LST     = '03:23:37.876'       / Local Sidereal Time  [hh:mm:ss.sss]            OBSRA   = '05:35:06.835'       / target right ascension [hh:mm:ss.sss]          OBSDEC  = '-2:48:33.638'       / target declination  [hh:mm:ss.sss]             DOME_AZ =            56.249099 / SOAR Dome Shutter azimuth                      HA      = '-02:11:29.967'      / Hour Angle  [hh:mm:ss.sss]                     ADCSTAT = 'IN'                 / ADC Status                                     ADCPOS  = 'DONE_42.441'        / ADC Position                                   LAMP_HGA= 'TRUE'               / Hg(Ar)                                         LAMP_NE = 'TRUE'               / Neon                                           LAMP_AR = 'FALSE'              / Argon                                          LAMP_FE = 'FALSE'              / Iron                                           LAMP_CU = 'FALSE'              / Copper                                         LAMP_QUA= 'FALSE'              / Quartz                                         LAMP_QPE=             0.000000 / Quartz Percent                                 LAMP_BUL= 'FALSE'              / Bulb                                           LAMP_DOM= 'FALSE'              / Dome                                           LAMP_DPE=             0.000000 / Dome Percent                                   CAM_ANG =            86.080156 / camera angle [deg]                             GRT_ANG =            43.039500 / grating angle [deg]                            CAM_TARG=            86.080000 / camera target [deg]                            GRT_TARG=            43.040000 / grating target [deg]                           CAM_FOC =                 -943 / camera focus                                   COLL_FOC=                 1001 / collimator focus                               FILTER  = 'NO_FILTER'          / primary filter wheel                           FILTER2 = 'GG455'              / secondary filter wheel                         GRATING = '2100_SYZY'          / VPH grating [1/mm]                             SLIT    = '0.45_LONG_SLIT'     / slit [arcsec]                                  COL_TEMP=             9.281250 / coll ext temp (deg C)                          CAM_TEMP=            12.906250 / cam ext temp (deg C)                           WAVMODE = '2100_650'           / Wavelength                                     EXPTIME =             0.500000 / integration time                               RDNOISE =             3.890000 / CCD readnoise [e-]                             GAIN    =             1.480000 / CCD gain [e-/ADU]                              OBSTYPE = 'ARC'                / observation type                               OBSERVER= 'Cesar Briceno'                                                       PROPOSAL= ''                                                                    EQUINOX =          2000.000000 / equinox of coordinates                         ROI     = 'CUST_0_4142_980_948_1x2'                                             ENVWIN  =            26.721360 / Wind Speed [km/hr] at start of exposure        ENVPRE  =           736.850000 / Atmospheric Pressure [hPS] at start of exposur ENVDIR  =           318.300000 / Wind Direction at start of exposure            ENVTEM  =             7.725000 / Outside Temperature [C] at start of exposure   ENVHUM  =            22.800000 / Relative Humidity at start of exposure         DISPAXIS=                    1                                                  DETSIZE = '[1:4096,1:4096]'                                                     TRIMSEC = '[1:4142,1:1896]'                                                     CCDSIZE = '[1:4096,1:4096]'                                                     CCDSUM  = '1 2'                                                                 BUNIT   = 'adu     '                                                            OBSID   =                                                                       CONFID  =                                                                       REQNUM  =                                                                       PROPID  = 'GHTS_ENGINEERING'                                                    SITEID  = 'sor'                                                                 TELID   = '4m0a'                                                                RLEVEL  =                    0                                                  BLKUID  =     1634792943495716                                                  L1PUBDAT= '2023-04-21T06:06:55.295219Z'                                         IMAGEID = '81108'                                                               HEADERVE= '1.0.1'                                                               OPENTIME= '06:06:55.9242486'   / GPS-Synched Time for Shutter Open (UT)         OPENDATE= '2021-10-21'         / GPS-Synched Time for Shutter Open (UT)         CLOSETIM= '06:06:56.7576303'   / This is the GPS-Synched Time for Shutter Closi         -- Goodman Spectroscopic Pipeline --                                    GSP_VERS= '1.3.7   '           / Goodman Spectroscopic Pipeline Version         GSP_ONAM= '0382_Haro_5-2_componet_A_21-10-2021_comp.fits' / Original file name  GSP_PNAM= 'cfzst_0382_Haro_5-2_componet_A_21-10-2021_comp_390.16-406.97.fits' / GSP_FNAM= 'goodman_comp_2100_650_GG455_NeHgAr.fits'                             GSP_PATH= '' / Location at moment of reduce                                     GSP_TECH= 'Spectroscopy'       / Observing technique                            GSP_DATE= '2024-05-08'         / Processing date                                GSP_OVER= 'none    '           / Overscan region                                GSP_TRIM= '[51:4110,2:948]'    / Trim section from TRIMSEC                      GSP_SLIT= '[1:4060,67:826]'    / Slit trim section, slit illuminated area only. GSP_BIAS= 'master_bias_RED_SP_1x2_R03.89_G01.48.fits' / Master bias image       GSP_FLAT= 'norm_master_flat_2100Custom_6500nm_GG455_0.45_dome.fits' / Master flaGSP_NORM= 'simple  '           / Flat normalization method                      GSP_COSM= 'none    '           / Cosmic ray rejection method                    GSP_TMOD= 'Polynomial1D'       / Model name used to fit trace                   GSP_TORD=                    2 / Degree of the model used to fit target trace   GSP_TC00=   398.56581606865825 / Parameter c0                                   GSP_TC01= -0.00191583338475523 / Parameter c1                                   GSP_TC02= -3.1950842919327E-08 / Parameter c2                                   GSP_TERR=   0.3496584714239631 / RMS error of target trace                      GSP_EXTR= '390.16:406.97'      / Extraction window at first column              GSP_BKG1= 'none    '           / First background extraction zone               GSP_BKG2= 'none    '           / Second background extraction zone              GSP_WRMS= 'none    '           / Wavelength solution RMS Error                  GSP_WPOI= 'none    '           / Number of points used to calculate wavelength sGSP_WREJ= 'none    '           / Number of points rejected                      GSP_FUNC= 'Chebyshev1D'        / Mathematical model of non-linearized data      GSP_ORDR=                    3 / Mathematical model order                       GSP_NPIX=                 4060 / Number of Pixels                               GSP_C000=    6134.757573933042 / Value of parameter c0                          GSP_C001=  0.14942319843612395 / Value of parameter c1                          GSP_C002= -9.1903523823550E-07 / Value of parameter c2                          GSP_C003= -2.7530156141553E-11 / Value of parameter c3                          GSP_P001=                55.54 / Line location in pixel value                   GSP_P002=               193.47 / Line location in pixel value                   GSP_P003=               556.31 / Line location in pixel value                   GSP_P004=                892.0 / Line location in pixel value                   GSP_P005=              1155.49 / Line location in pixel value                   GSP_P006=              1360.89 / Line location in pixel value                   GSP_P007=               1700.4 / Line location in pixel value                   GSP_P008=              1836.11 / Line location in pixel value                   GSP_P009=              2582.82 / Line location in pixel value                   GSP_P010=              2774.92 / Line location in pixel value                   GSP_P011=              3263.22 / Line location in pixel value                   GSP_P012=              3863.53 / Line location in pixel value                   GSP_A001=            6143.0626 / Line location in angstrom value                GSP_A002=            6163.5939 / Line location in angstrom value                GSP_A003=            6217.2812 / Line location in angstrom value                GSP_A004=             6266.495 / Line location in angstrom value                GSP_A005=            6304.7889 / Line location in angstrom value                GSP_A006=            6334.4278 / Line location in angstrom value                GSP_A007=            6382.9917 / Line location in angstrom value                GSP_A008=             6402.248 / Line location in angstrom value                GSP_A009=            6506.5281 / Line location in angstrom value                GSP_A010=            6532.8822 / Line location in angstrom value                GSP_A011=            6598.9529 / Line location in angstrom value                GSP_A012=            6678.2762 / Line location in angstrom value                BANDID1 = 'spectrum - background none, weights none, clean no'                  APNUM1  = '1 1 390.16 406.97'  / Aperture in first column                       WCSDIM  =                    1                                                  CD1_1   =                    1                                                  LTM1_1  =                    1                                                  WAT0_001= 'system=equispec'                                                     WAT1_001= 'wtype=linear label=Wavelength units=angstroms'                       DC-FLAG =                    0                                                  DCLOG1  = 'REFSPEC1 = non set'                                                  GSP_SCTR= 'ecfzst_0381_Haro_5-2_componet_A_21-10-2021.fits' / Science target fil        -- GSP END --                                                           COMMENT  Light, Exp Time= 00.500, Saved as: 0382_Haro_5-2_componet_A_21-10-2021_COMMENT  comp.fits                                                              REFSPEC1= 'ecfzst_0382_Haro_5-2_componet_A_21-10-2021_comp_390.16-406.97_copy'  WCSAXES =                    1 / Number of coordinate axes                      CRPIX1  =                  1.0 / Pixel coordinate of reference point            CDELT1  =                  1.0 / Coordinate increment at reference point        CTYPE1  = 'LINEAR'             / Coordinate type code                           CRVAL1  =                  1.0 / Coordinate value at reference point            LATPOLE =                 90.0 / [deg] Native latitude of celestial pole        MJDREF  =                  0.0 / [d] MJD of fiducial time                       MJD-OBS =      59508.254812963 / [d] MJD of observation                         END                                                                                                                                                                                                                                                                                                                                                                                                             @šõ‹®à[X@›·¿7tó¸@›æÜ%›@Ÿ0°aŸ@ž¬5‰Ðá³@Ÿ~û‘ó¯ƒ@ <
¹ãÀ°@ ª
+³ê°…@ À½õV3]@¡i`³à@¢J&Ã[@¢²:òï‘?@¢Î}+VKË@£w:¨q<@¥+•ç‡)@¦ u�ø†±@¦C6Ökì@¥À®Æ­*™@¦ùÒ72)¯@§—þó{¤@¨·­ÎùcV@©¬ÞW+�;@«pe
s;ž@«‡
•§˜@­�i™N±J@®‚nÎp¡@¯¼ïš½ú@°Aä2ù�@±ß~Ð@²puCñ^@³Øç5;=@´ÿç«t£@µ#ü�	xs@µ²AÅk™f@¶ð®ßÃv@·Ïkò�@¸È*AM¬²@ºµ™iôØ@ºYú¸ØÊ;@»×êÁåmô@¾$¬tùÕß@¾t»¼DÐÏ@¾x9�Ô1@½gˆmÒeÖ@¾À²ûmØ@¿ùFÃÈLH@À0{Ÿ±©
@Á)»*)=ˆ@§F�FÎ@Ä8ò”qï@Æ (^4¡(@Έµ«t7@åœ×´Å�~Aó'ÝØA¢\€†`NAÁM8—¢A­ly
fÅ@âþ-XªT@ËÆ|tÕÎõ@ÄÎ'hÙ/z@ÁñbQA@¿K:Í«@½Õu°5¯@»Pw|C€@º-b1E/ž@¹|	»ã3@·Ò^‡ññý@·71¢þ©@¶•²ÿb×¢@¶$y¢ û@´þ»¢þ *@´H{GÄ
+?@³V
+iOî…@²§¿¤"å\@²Eï+úñ‹@±]dìÃÄ8@±W&�IN@°†jÌOJë@°Y~´“W"@®¦gt±„½@­Qì·&&É@­.ûÞž5@¬ŒŒf]«¯@¬{.zo:;@ªzm†•Ôr@¨˜m†IŒ@¨¿¼¹Š¦¦@¦·m‡l;û@§Y¨Øâ~Ë@¦«‘jO@¥ºç1€@¥‡FÚû@¤·žlb¹@£h�ýH@¢ê]õQ˜@¢°@! Ö—@¢´3ó%@¢'d·,/á@¡oÝÛ
¼@ øz'Ëe@ 1e
tV¸@Ÿ×ã):@ x(¸‹G@ O¨ÍF°¸@žZ»ç²×f@žE»ñë‡E@œsY–¶uÚ@œ:ÿ]c}$@�Œ—U`ÿ@œ )ÁcÆ@š„>ÝÜ&@™™üCÜ@™TÆ™Jã@šõøͧ\@™)V`‰V@˜Œ%~ý„“@™ˆýÚ \@˜Åä�¯v@˜˜°¶“@˜œ2·°@—a¬þ@˜$ÎÉ5¢@–©²çF°T@–Þ�TÖ}«@–H%Õ%^@”ðŽ~$yÑ@–êË
+ÿöf@•ð²�zÂ7@–M‡ù{@”;÷¿ZE\@”ÎƳÆÀÚ@•kyˆ¾ð
@“˪M
+Á?@”7A,q
…@–&€ò¢¹$@•E§æW^—@•¶\–Ÿ‘‰@•4uò@«%@•/@e;@•ê†}§‹@•‡>!ãP@”‚¬¸8Ñ@•êÑ{Rw@•JJoÿÕ—@•Óÿõ8™@•ÛqðKf@•åzÖ$�@•þS½Ïº²@•„Õ»Ó@—JÛûuâ@–TŠÄ»a@—¦šÑMY@—L΄l@—^UkŸhØ@˜OùǶo@˜>•­w@˜ÿÚ´Ò@˜˜�lGÜ�@™<ß)y@™n}\¨å@šÙýÇ›�¦@œF
+Ë
@œ®þ�“«@œïzµÁ£Š@žoûع‡@žHGÖ¥³b@žÓÊõ«V@ ¥ðVcZë@¡7û™–\@¡bÝë²'ã@¢‹¸(Ô@¢<–ü™àŠ@£æÁÿã+@£Ç¤,…@¤›‡s Ô-@¥.$ç’I�@¥°ç¡®»«@§›n´øj@§
½§�YÚ@¨xØ„hÙS@¦üíš=tj@§¯øåEIq@¨D.bÜ@¨‡G™Šz@©ÙB¶#·,@ª»Çœ� 9@¬·Z�;qF@­Ñ*WØg]@°–󸽊_@·	1~ƒ@нLã´ÑŠ@îC›:è�@üö”È‹'@ü0g*ƒŒ–@í<w‘ã­@@Ç©0»›k
@²ÇIᔶ@®â”ÿ±Ý5@ª–-»þ…@§ÇŒ„@¦b…Úé@¤¼à,‘Ü€@¤uZ�ÕŠ@£PZÜ®1ƒ@¢¸1342ˆ@¢ô=Ç|ï@¡9ÇùÎX#@ ³ÞÊEô@ É¿·XÙk@ (úF
+­F@žÅRª)~@�ÐüǧK@œñ,�ta4@œZLc
+“�@šÆHÞ̼@šàN^ö`@š:Tq—<¼@™Ë½ã¹Mm@™
+bÝoÌ@˜…n„ÿv@—µÿ’NÛ@˜$I®>ª@—Ï�´ŸŠ@•Ö AF¿C@”fŠ÷’Wk@“Òÿ][åÅ@“uáë-'„@’Û™õÖ“@’{DkÀÞ@‘£SŒ£@‘«‹.טÖ@‘U	"ÂÚ@� )f®Çå@�gP7v€<@Ž9'BiØx@Žã_¡’®¼@�ÃÆJ�ž@ŽÊßí³ú(@Ž¥%àäº@��û³)£Š@Šþöndm~@Œ	c¯"A@Š™ÑBžÏú@Š¯?ŸÙK@‰w˜h•Æ•@ˆkY=5Ì@ˆ×[Öâž@ˆv<^b5j@Š7‚d�x@ˆÄBPlÏ£@‡×DÏûm@…ó?1sÓ�@†å½Ä�ß@†Éššüt@…Û™ðeà@†ÂŽK�@‡??ÖãoÞ@†Y<¸þ[@†$ø%ñò�@„¾°’n£�@…J}ÍlÏ@„$îc@‚$#ãdzœ@‚‰>Ôí#@�˜<·à5V@ƒ§÷Z%¯ó@ƒ¯ep{.@…MÑ{ƒv@‡$„ 8iª@…gWÈÚZ°@„\YÅ¡“Y@„+ê×C@„«_=ï@�ÄÐ�±½@€EÌ2nó@€_=Ô—!ù@€áDaÒMO@€#uötQ@€ëä}1£@§È•tóî@Okŵ@©×Y	n@€"_TR@~³¸±eÁ¸@¬#�q²¤@~�«tÅ\b@~ÇPÃ˸É@~ËâFö;…@l'€Dê®@{ØÎóˆÓ@|ml€ÝcÀ@z#õt/�¢@}pŠ;ß²@} Çu ö·@|TPÏ}A@}ÖJñv}î@{pWÂU@yX‹�Ж@{ÈÚ�§ïÄ@{P©{¤@zIú´)¯@y¦hºÃ@zöÕAJ°@zp4±¹ªÊ@xÉlzäîS@zHÇ5ì‰@z,œ“Dv^@xßÜÓºó@yÜ�07@xEâø}™@wŸ`îè³Í@y²�zà7@zx÷´¦@yÛ¼}'x@{yóëv
+Ô@}{|DïK@…E>4á@‹*4„>ú@Œ)®ÄÍÌ@ƒcT–>y_@~7šTËjá@z�!^b®@v˜CJçò@v¶óСB@uåóá+.@wR¾2Ró@vËŽÄ<¢@yM`”ç=è@x±¯š9‰Â@wkç)¤®@wEŒáÿ@v¢#�€Ñ @wËÔ!×…@ué;2-@v/åÖÒ¯œ@wRyÕ2iº@ub÷�Ñ@vþòðM@w u6á?@vÌ+ÞCsK@vö
4^!�@vH»¢X$Ë@wLÑËá£6@vPŸÿK@u?{¨l.ê@tÞÕ-?¦¢@u=÷{ÛÖª@tËšÃ
§Å@wÒ�%Ž!@siÜ^[#U@w&ÁZI9C@uAˆ^Nç@w:LõGEe@te‡âñØ@uEb�ï@vZs0¼"–@u¥!’Y¿è@t$÷“ù�_@uÓ¤0¿@s¾âñĹ@u\½‹@¼¼@uéÉŠÁ
@uÿ0ùEé@weõÙù
¥@{éS.h'^@x-‚ajÌž@tÏÙwò°@t=䂾²„@v9Õ5)Ì@tU ?Y³ÿ@t… Ž³Ý3@vºU¬Ï¸a@qm™®õ¶-@tÎâ´Óu²@sý=˜ëf{@t1P€mÉ@uúº,
²@vh�ØÃúú@sì¯ò'i@uëÙÿá¦w@tOµ&ö}g@t1ß³/{–@s@=6@tâ®*™@sÒ!R½UŽ@u"¸)yg¿@s¦[ÿ<Á7@ti¦ùZn@s´G�D›n@uI¬1ªÑ!@t£Ïr[Ñ@uÑ|þ¾=…@s២a\@voìDGÊ@uªÝ\ø¨+@sû|¸@s�Ò-ËJ@sš|Ͼ�t@r®«º^@tœý3¹!Ì@sg×L
+æ™@t¤«z‡qU@rÇ¥Ì@twË­	fâ@tÒ¢§Q@uG°£šà.@rônOÁƒù@tTan¢í@r‚cÒ
+™À@u–³Ð.»o@u!&è—™@tÏûa•Aƒ@rÌ:<g7e@t–D"@v4ƒ‹§ž�@tIåË¿³”@tgVú„æ@td�‰
¼u@t,dv£¾J@u›ÎêWxn@tïí¼ÎŒ@uÅpHbè@v(R"Ä–@ušÕ´ÚÿÝ@u;e¢û@u2'Ão±@vy�è�æ7@u‹N{_Ê@uлWÆÁÀ@uÖ1³—Jq@uÀÑF&T@uú
0F‹±@t$ü(7©@uhîÂÕA@u�‘Œz
+‹@wu�ë\e@uÇöø¡t@uéûm‘¡@xs1›_@wêðÂ@y8šH%’O@weS$R@t«gƒBž“@xh.¬ai@wtÃc·t“@uï o:M@yÎÍÁ„J@yÿK.IÝ@x8Z$eRÚ@w’Á7q®@uSnEg~Õ@vÆß¼f(@w¥ë#õÖq@y¥˜@vƒûºâ¹ê@w²Ó]9$ž@y-.Y‹˜@xVÒ\šô<@xž'”!K@xëÚ,Åh0@y–#+±Äñ@{í¯÷P¨@y@„qÉ+@yè�›Çß/@{ó	G°fÎ@y´³ç;¥@|&aSq”ô@zuzãM‚@|ý5þ@|Ãó÷>á@|Òç�‡@|³¬“¹ïç@|š*öÎ:	@|HïûbŽ¸@|¦`KßÄ4@£îÁÌ@X@€ôu{Y½þ@‚ÜK„Ê;é@€øÖ¹ý¢‡@�KH?µe+@×]g‡¨Æ@}ÜýLð&‰@|ácCÐ
ð@€pV°ÙŽ.@€yþsv‚—@€Ü5¶Ïsd@�;Ça#“H@€ú]IcŸk@�úZÖ=~@�ÈŒ
@‚”b7¾ã@‚&i},8�@‚€_å¶í@�Õ«øcÿ@„¹2êsB@‚ä“ÝXK@ƒåö‹¾Ú@„¶œaw„ò@„Í&e9@„x›áÅ\H@…%®eóÓ@†Ì:
+]¤Í@†\Æn»l@‡˜˜ÕȱŠ@ˆI´2¡D@‡	W´z×@‰SÈØÎù@ˆ¸˜3Ø÷·@‰ñW"Üä@Š>Ú³@Ð@‹ÁL…I£@ŒÖ,Àq¦@�ßüv÷‚s@ŽÎyÍ|Ù@ŽEç
°3@�âêÙbij@�,«pÄ@�JjÛn@‘½Ú�Ò¸�@’RøN͹W@‘ýŠþO'@”{»ÿ?u}@”òµíØ°è@•˜ìT‘Æ#@–$|Ö¢æ@–QôHÊlÒ@—p/Ç>§ß@—¨;H‡Òq@™s“3}p@™áüRª�ù@œ�¶îy@ hq{Œ@¡Xâ'Šy@¡`�Pd5@ ª!Çl	“@ 6´Bé9ç@¡]…,ø:…@¢OÍiE@¢…YÛm“E@£¶,ñBãÜ@¤‡õoÛã3@¤øQØs.@¥n(˜5­à@¤4ÕVèy¦@¤M°�Ñ�Ò@¥KF€mï
@¦`+jœ-�@¨QG~—Åð@§²Ðò�¢ì@©±ÒWœ§/@«µn!…�@¯é~j%@¸K2ÎpF=@Ô01(¡ Î@ñDÆsÏ@ý0꣄~ê@ú8 û	GP@çÒÎä€fK@Âß1œ*òÄ@±2_@«nÈ8Ɔ @¨¦6�L­@¥”ì/Ö4Ê@¤MÚ‰Êë¼@£{_„k<®@¢‡m±¬q^@¡g¤âô,Õ@ ÐCý|_Z@Ÿ†» š¿*@ŸSBÃÅ	@Ÿ)�²lð@ž-‹�gf³@�ùD6S)‡@œ*Îoü¯è@›¥u¶ï@™–úó´×S@™“€&�Ü@˜!>Ï5ئ@—í?®nl>@—Ÿá D@–ý�/$Ï@”ÙÖçyÝ.@•ÞPì 8Q@•¢Ó)ø¦@•�QÑR*@”ÇAš'…ð@“É,tÇ�Y@’j^Ò’@‘!âNT/@‘¾Ô7½ä @��å¿Üb@�¾]Ëuó@�ƒQ8Ø¥@�ó÷ö'@Ž$Þ˲Î@�É�Î~J©@�@ë2'–@‹¶ä¨Öµê@‹Ü©É[ä@Š‚¹*‰ @‰=PYÔÝB@Š•§ºN:@ˆ±Ô«�Ëe@ˆõÔžÏç@ˆãù$E3@‡õ«Ó†×@…ív²I)›@…L:Ѹ´æ@„éÅÇñAÌ@…·…òµa/@†X¿¿ïMo@„lú§‚@†©Ô]×…}@ƒÇpC›Rh@ƒÜ�ù%	C@ƒ..[Ù½@ƒã.\˜Ÿ­@„—Œv4“@ƒ›|E£@ƒA�üŠ1Ñ@‚À¡å§çY@‚¸€{¤Æ@‚®†•…ªå@€‘î|…@�}uŽÖlþ@€c›.V¸¦@~Ðö?oü @ik¬ïì×@�1R¥W@€_ -¤Å�@9ƒ6.a@±%#ð²@}¶~»œô@~	ü<§&@}œä„"6Z@~\ôv.[@}ˆ„Ó
+ÁF@|:.å¤c@Óø2½’Y@|%ú.iœ)@}eÏ1}ø/@|ë]¬bú1@|ÂvA°º@|t’>£ @{7žžÖ@y(\/ýÇ@|0­
K“u@z!ýšØè‚@{–†—4„@|‘|bq8Ä@zƉš)¶Ý@x©kK#4@wì‘Û·Ø@{¯á;N§@wää"ÇÔ6@x½
‡Žìß@ykôˆ@xÍ�o|¤@y’3>çn@x¶ÜÚŸH@wšŒà ©@x2$ŒÛˆ@xµG}¤k@x S=ò‚Á@wƒ$þ<j@yš&Ï�w@y0ljìÂ@y•ÏGÂ÷@yˆyžæ@wÒÑ0&'�@xøkEò@wxCèí@{Àg1Š<@vÀÏËó*Ê@vëv‡->@u–ä“c!@vj ëÞ ³@wœ
ÛÅé*@wMÜ>
OÁ@v£êW–&@v”°ã;7Ñ@u¡ÝŽc@v°§8øÀv@y_gcEì@y€ìß“@v~†ý¾@wÃÓN”¼@xмò”w@tðÓðEh@t`4Xû9@vqBÿ ‚@t´EáæïG@uËk÷ý^ê@vÙæ—Zn@v&Er;¬@uoIpQ�Ç@v‰…@v‡@K#`!@týû	Þô6@xñú]Š@u|ÒLU@vb/òæM@u¢³‡$Ø(@tÎí¢Š @w6ݤA¨™@usãL`]X@wïÒ^j¨ß@vkYCÖ¡2@už¯ÑcŽ@uÌwÓP&@u{²6ƒ>@vÀ»¤Ô½Ø@w4¶ûŽý@u(¶F‰ˆ@w×Ñ¢ú@wƒa)=Û@vŸá,ç@wÖ „N@uL’é«.@t(5í—ý[@u²ƒÖF¥@x‚ü-»Æ)@v©£ú"«„@vjƒ’¦Ûü@tNê1„à¯@v©->3#”@xlW\ù7@t?„ããx@wæ[yFŽ+@vß‚ÐF"@u=!ŽÐ—@v|(LÕÏ@xÑ	�âM@xoä9¼Ë@x�Æ<“°Û@wb&ÿ� C@vÚ	ÅZ�[@w8×Äo¨@xpƒ¾é}×@yôÛ¦Øf@wÔ‡Êú@wÈ›«Ž§@u7êž ñU@wq=ÏH1›@x§é½ý²@x:/4Š
+¿@xƒó¸áÑç@y6a=Ótñ@y
 ¨Bf@w¶‰G,&@zjsÍqY@x{Mxû«U@{íÍú°É?@vt�´Ù×@zoÆIœ7f@€3öäŠåS@€§à}2¬Q@~úH-^T@|éÔ< @x ¬ì¼²&@{ë¹ÒMá@{˜�Ö@|£VþLi@z~¤¢a#Ö@yF“OÐpd@|;M¨tç@z†OwRè´@{h�
æl@|­‰aå°
@|1¾éÕ@}z+¥¶æ@~ŠS‰úüF@€/;ˆª@|jREw @{ÝI‚vË@|i ÓEN@}“Ϻ‰@ZÞÅHlÉ@<éð@Ïæläd@}þišŽ1_@}/[+qF@}'MKQIÔ@|à2¶è@�3¬,'«÷@€3ÃÃë@€›ÉJ¨èu@åsÆð0Ï@~ÅêE‚j@€xÂVgý@€Ø^Øü—…@�Äq5BƤ@ü¤)¼íN@‚‰æÞ)©±@‚N.�Ù@‚—³‘é@ƒ,wAÚAû@€öÀТ	.@‚Ý_"Ki@ƒ�{‚ö´@ƒýÙ2Œ@‚ÔùõÍ@ƒ˜ˆ´Ýô;@ƒ¯)C¬h@„ây稵X@„´:õ{è@ƒß›ƒé¥@ƒäŒ{“Pí@…†å‰=ƒÊ@„¬‹atKÑ@…U"À(>b@†š.8¼Ï@@‡c ïm1@†²2£·{@ˆ‹ó{%P@‡Mj�¹òt@‡]&ÊS×@‰Á(Ð’E@‰ÞÞ@£s÷@‹ÕeF?q¹@ˆéêŽ|8@‹R÷œ¢l@‹òd¹?9’@Œ-¿ÂÞ÷ä@Žü
+Ó«@Ž4¢K÷@�0¥gnV8@Ž½ÍŸ×†@�þógwÔÁ@�YŸ¨~·ç@�8Ú†¦âF@‘!)ßd6‡@�ÖjÞÚ<Œ@�Æê�ÒG @’AòÉæB–@’jÖHðc@“5ÿlkƒå@”T3*ÜL@•4º¢ù$@”šNâ�o”@•Ï7ù¿@•õ&.)þ@–L®§Œ¸@–ÿ¨”Î@–§ Í	Î@—·a£pÂ~@™E4	m@™€1Oõâ@™ñ9NÇùí@›†.â9°@›ãQ›•9@œ/P£j@	@�œª´û#1@žµycb @Ÿ:OŒUeÓ@ åÃ1¬Î@¡\“Lá’~@¡¼NÓ��)@¢ÄVA%}@£¶Ëµ=už@¤T©)Õ¨@¥zÃ×hQ@¥µ�ùµ»_@¦±þü	ß@¨Ÿ@€” @©µl¾æ¡‚@¬)9±^äñ@¬êžðý·¦@¬á²øâxÒ@®ËŒk¨F@¯à^	Ú2’@°+k¼æ0W@±4hçNï@±­ é’^´@²lÂ{dìß@³;_2wT@´%£¨á[‚@´hµQ	šÁ@´f†i
+@´&e�»¤
@³í{	Á¢@´÷ÒýTÚú@µöýØó@¶ªPõúbó@¸oaÚ€>@º`Œ)€:@¼]þý¶¾@ÁBCR°O°@Ñ	ÀKýÒC@ðeVŽAíA×Ó�íA…jVfuAi9ÑÅ î@ï/Bé¢õÎ@Ëã‰PÎ÷ð@¿ž©b7Æ[@ºÚø¦i†@·\ùeÜUù@´µP#©g@³•7(TUˆ@²h'ÌS(¤@±[€Äú@°ª^öÁ}Ž@°!ÚÅÍC@®NoáXv@®sMC¤×a@­Õº3¹Ò@­ÄÂUæž¿@«lOâ—Ð@«§]ù@©Q†�"4@¨¢ú˜rýâ@§“ÑIö¶î@§øçh›‘@¦RõÚÃêh@¦OwûÔ+@¤÷½‹z@¤/©ÿî*@£X)Uš)@¤9ØüíñÎ@£L˵î%@¢=F²Ro@¡”oœ­@ ³y£Ì,@Ÿ�-å$Åå@žü¸[«i€@�˜ç@�R¸Ï÷î`@œwœÇÙÅT@œ÷‹ÿ^¤@š o‡V@™œu½@™dö‚k@Õ@™Ÿã³¬@™iµÆg@—¿”>rzø@–ÞüÈZ¾œ@• ((ƒ•@–0Sú\°@”y2?gÅV@•Õ{ë›@”0¾×
+	y@”[$1ºl}@“Rì6û @’2Üj$'R@’m„ÒâŒÓ@‘ðC+OÐÔ@’€£í¿w¬@‘»�Í�ç@‘Ðþââ«£@�—çê9è»@�‘ÞvBÅ_@�=g.…¬’@�X˜O�V¶@�€YÔ²@Ž§Ó"_"­@ŽèŠ¡cu@Ží5óqÎ7@Ž¨�}s÷Ê@ŒMÇ�Žõ¿@‹4Væ�@ŒQÂ9~‹‚@Œ}@¥™S@ˆ„YBw�@Š�w 8ò@‰‡Š¤kDg@ˆÌš×\oë@Š
ù (‚@ˆÜó)-ø@Š1
+Ù³e@†~Õñ&t†@†aE–sS@‡ØcÆ*æF@†$b$ û@‡•²Š›Z@…œ`Xyfã@†¿ì°¤F@…½õ>$b@†ð/•¶@„í1Me—Š@„ÍøÄ^ÙÓ@…ÝrgËå@ƒµï‡AQQ@„$T4|XY@„
ï†<FV@„"Œ{á@…7³56W„@‚qõž*¹@ƒE
�Ún9@‚Ý6äú–@�hP†&Y@‚¥Ü

@‚æM¢ýÇ@‚]Ö°ì��@�û3µÑ™(@‚(s§Læ¼@‚jä;ôHj@�.HCÛ¸@�^‘Â�‰ù@�vYhyP5@‚2¬Þ@�Of®
`@�Á°X—&´@�p?O­@�dAF¥¡6@€î-×9í@�Ó;ùÜÄ}@ÃoÍ”
@€øG–`®K@~¶fvL¼@€¦¡}Z÷@€£âM,r@€;[¾öB@~�Ó©T`@~ª+¡æ*@h�yÄ0@â6S·p@€IÙX32@~jkÛÀ¸@ßùy@@€š)5ˆuo@ÜòÝßWí@}BcÁ€·d@¨Hg½U@|hú„ø^@}ÅDç9†@~Û“ïÙ/@}²Ã­f @~ä_�Íñý@~UÔD›@ÝŒ°Ê‘@|ïú›@~{÷q¤ÐJ@}/T´¡½@€3;4Š@}¼`~E@WúÕ‘D@~¿KÔ$˜š@I¬ùÞ˜@{qBZ&dP@}ÿZç7«@~7
Ç4*@@í×ÂÊN@~)f˜áŽš@}êÛ^1ù2@ÿm²»×t@}rIš•»@}gÀŒ{Ú @}’‚öã¦&@}‰¯FuA@}Ø.ÛÐ
+t@}§Ê×�3@~¹R ÒÂ@}r€ÒâQô@ÀL#ç'@|C˜h?²H@~]ö0	àg@¨î<˜@|ìî3†uã@~\;2í2K@Qz�yB@~^Ÿsl@€Ä¤»"ÖL@}ç¡$NzZ@~%H’m@}ñ—óÅ@~3”ÈæÝJ@’€³¯æS@*Ñ$
Î@¨ñ
æW«@�­¡Ã}õ@<Ô�¸@ËáâÊÃœ@�tæMFº@€/EÔf°@�»Qg
{F@�¥?‰L½@�îwAÖø@ƒdÏxIû¦@‚r£z<E"@�Îx
,}=@‚	k_ÍñÜ@�&^ÖýL¼@�žðª¸	‰@‚•w1׺é@�£tte@�6çX€_Æ@‚ŒĹÊd@‚8åõÏúÀ@‚ŽéÔÕ@ƒ//Oùig@‚ÒïÆ
Ô@ƒtU ¶@‚Λ3IèÌ@ƒ&±û<@É@ƒ@]„@û@„ÄfÀm7¶@ƒbej²…5@†l‰msÕ½@…3vX³™±@†¢u‡šPã@†EÛj@†çéTX1@†ít±!ú@‡XÅ !þ�@ˆ¾-9?eb@‡]LwJ¶Ø@ˆäá2«„f@‰5H$‹b!@‰—4,¡C*@ŠÝ¾+j@Švê?)@Š­VH�e)@‹(5
+—Øê@‹ÑYª¶]@Œftòì@ŽB(ißÓm@Ž½#ÚcÕœ@Ž_+UÉÔú@�º$}2í©@� $èàùË@‘ÇNN,q[@‘À&!á²@’/hžƒ’@’¢0Bç´@’}�Ÿ‚Uí@“o¿Þ-¡j@”äŽ[UsF@•—ju`Ë @—€xIù›@——î{çUA@˜°?)"0¡@™**w•öo@˜J20*¯6@šÔÚ¼v@œ,9ñM@œÉàÑîÅ@�²ëyéF@ž/=ð£@ Ö•—¯È@ŸÓˆEO0h@ )HÑ@ ‹Rz¢D@ }Ítrn@ ê†¸²@N@¡ûjèü@¡ÖcêØŠ@¢atnNzB@¤�àØzÊ@¤ÂŽ‚eÔ@¨_íÉ9 @°8S
�¦G@Ç6÷‘Í]Ò@厚âPò@ô„=Y¹Ço@ô4¸Ï‡´Ä@åù{Ìj�@Ã5ßa
@¬Ž @ŒSr@¦;h1Ø*@£¨]áný@¡£·³@žíŸˆRÊü@ŸK~º=@�+YY÷@›ÏÜ"Mrw@›^䓵@š©!½‚èK@˜âŸ?%Ÿù@™9•ºC{ô@˜·hE@—èÇ=Ûˆü@—´�i~áÔ@—ƒ:¨èÖð@—g¾‹õœK@–%©c8öƒ@•rôoýç@”Õ^[Ny@”º÷>Ähý@“p¶£3@“\Ÿõäv7@’…”˜=[þ@’u:oHRM@’NaÊ	öd@‘5…í)@’Z’oµ¬Ï@�Ÿd±>úæ@�t=…öY@�#XãEÏd@�1HV~<Ÿ@� ¾JL@�ðøJÒ@Žk¹ô�wM@Œ
²fÞZ7@�Ÿ?ï c@‹E£K¹ì@‹z²P¯s‰@‹èvÝpcU@ŒÂmDØ=@ŠíWnž@ŠtÓ¼ØÀ7@ŠPÑûXì@‰Dð’§I@Šå%¡ÆË@ˆƒ	Rµk@‰9“qo}@‰±GoeÊæ@ˆR4g]“h@‡çE^F)Ò@‡2­	7Ç�@‡w3hÇ
@‡É+ïrˆÊ@‡Òf¨u@‡‰–v%ƒÐ@‰V×m=Vœ@Œ
“ÅÈÔ@Œuo|Ge@‰è¥ÉH-@ˆÀ`ƒƒ6~@‡Q!Ú’kö@„‰‚DUÈ@†͸‘ÅÝ@…Í7ס3@†V¨´G1@…£
avôÙ@…-†8pÖN@…øY_@‡Jú»!x‡@…=«,Ym@†	wÉ_@…!šÛ¼±a@„ÒJ×�rh@…çXØ=@„¢—§Ümã@†±»ÙD2Œ@†J¼9ø�!@†J¥µ¾îÄ@…·Öbp�R@…�Ž§àðb@†ŽŒ¹\ý€@…KÐLNK
@†a#BÞ»@…ksõu@‡Lm—Ä@†Òé`l
]@†I×	g~@…wYýõ²@…QB…=@…›Ê[Œþ¨@…ú¨ñSQæ@‡ižrâ½-@†el–´?@†ÐM
+MwÒ@‡¶óG÷*@†Žx¯eß_@†!ø(Ëæh@†0¹Á¤Ë™@ˆ�bBÈY@‡¾¼Åj£@ˆ$zTÚhª@ˆ¿°T•cÑ@ŠvO
+L­Œ@ˆsvâCq@‡ßÉy¿Œ@‰¶í9H@‰,£Š§}@‰¦ö’Í@‰rLÂó=@‰{hPÚœ@‹×,(@Šùø‘ì&@Š*ñôî¦@Œ =V3@‹ƒ^‚$Ù¥@‹Ì&ÑÒ@�%óSø‰)@ŒÚDïƒå@�š¬Ù€hš@�B`ÔSZ@�kœB�ôz@�¨/
¸nˆ@�kÉT¦é¯@�60tæš@�æþ&«Šž@�í@š·dœ@�]Šw_Š§@‘G¢!Î@�ä=‚U÷@�ÈÝw¸@‘ìsÌv›/@‘r½·ŠK?@‘þ¤âsW°@’ýáL6¨@’»gæ@Rd@“>ø¤Þ¯@“qì‚Q³W@“ûS“é¤@•-ÇqUïñ@•\¸ÎÞî@•€p¹[´û@”νa(
É@—´ »
1@–Ày,ÿŽ@—«{À''É@˜À±ØR@™�ÃrW÷ú@™FèüÀŠ˜@›�q3ñ�€@›ÊÆç¦@�*r5…rÂ@›/à€½�J@�ÄèX��@ž‹û¼hS@Ÿ…,‡o¡ù@ –£¯¸{"@¢‡UkT=&@¤)Y$D@¤X¦8=Î@£H	Bð›@¢an¿»>@¢Ñ×(®à@£1ÿ•p@¤BÆŒíU@¥&]®NÊõ@¥ #~p¤ @¦Ï.ïi@§s“�·@¨±Ó«¾E”@©Ë4;«ë@ª³9äîŠâ@«kíZ°@«úZz¡¦@­tº² D-@¯k²Æ™ìç@±d÷çu{@²©3ÕœŽR@²n5—;jÅ@²òˆsõ@²ð	`èxs@´1¼l,«ø@µ‡æ“-¤	@¶pV#u=8@¶Ú)Úg?@·Ñ®ò|Õ~@¹bË°íö@@ºRàÙµ@¹¸Íª´†ž@¹^ÚbçŽ@¹,á¨EÔ@¹–ö)tÙ@»Ê]vAO@»ãSã=V@½PuÒûº@¿"nÝ]ø@À­¸� ò@¤DUZUX@ÆÏY-Î#ÿ@Ø
ÿjq­@øPNã&Í"A¹¨]÷Ayç\Ù”AMë²t&R@ñ/C³ãÛ@Ðø\‘Ãr@Ä:mÿ(Ì@ÀÈf0¶"@¾ÑÌe~@ºŸè¼µÀb@¸˜ò�r¸*@·—n{Î`‰@¶e%
™Š@´÷ˆ€Ú¹@´•º¡nàã@³_óNþ1@³9»¶{Û@²ªf`þ°@±µ‹N|ÅÃ@±pÁ¸¶ª=@±Uµ¿ö¶@°·ŠÂ‰�\@¯”ïÞдÓ@®‡’–ÀÄ@­¹1NùóŒ@¬/„ZÐê@¬ö¢q@«nùÃ'Ó@©ñýõØ@©–� bI@¨`jâûƒ×@§ömLÆ…&@¨£8Œ&¾@§ÇPlíþ;@¥ÓBœ>ù@¤Ý\9*Sí@£Åçk™¯@£¼Êoºœ�@¢å©ã¹b@¢íÊ*3ý@¢M`«/(ð@ Ï½E‡ @¡ÈDŽ;ì@ _•ˆl÷:@ q&¯Ù‰@Ÿ°¨RϾs@ ‰7Ô‡n@�´Ý™‚ìî@œ)ò
"™@œ4‡p?@šÀþg{� @š¼À–0¨á@š[ëþö^þ@™öGUáA~@™™Ö†ébè@˜Ïýv3U^@—×ÿ\‡Ø@•Õ¼Ç$xw@—�h½¤®j@–[+4|±@–[«I©Tå@”ûátåþÛ@”ÑË5!@“ü—ÿ7Ð@”wåŽ,ÉË@”W´dr@”G À|b@“ b‚-Ç@“™ÂM_˜@“Œ•/c¬@“©mašý›@’ÖóiÌÞD@‘æ"nH½@‘y~ºýø@‘Qvo´t@�r±Õilþ@�£¤’Ú‹@�–
+Ææù˜@�ØYôÊ’º@�ˆ³ÔHZ�@�7®šðX¼@�Fó“ž�Q@Ž\ÃßÓ„@�%“¼»y@ŽSB„v&@�*‰þ›�@�êÇÁ‘ßè@�êÙ©DªU@�>•¤9"q@�5¦:ž]@Œi]¦¡Ö@�(hjv>¯@‹£ÝV´é@Œ…]$Cp@‹sVm(²@‹c‡Òm”¼@‰ÓQÚ,F@ŠÏ·
+%»À@Š�?x
Ÿ€@Š
—üÈ*@Šã%kø§@‰/BŽ«Ÿ@ˆçÍB»@ˆ\7‰ÒÞ‰@‰A{ý´Ó@ˆº
b�@‡ñ�:
d¶@ˆAÞðú{è@ˆôpJ3¬;@ˆEƒX–¹ô@…¶*i^8!@‡Ô@‡|à)0̇@‡µ}µ¼þÎ@†A�Ì@…Ù~fá½	@‡#’Îñ¶ƒ@†°˜Øö2T@†öÊA·@†Z÷= 	@†‡ÞÖÚ6@†
HP¸Ñ³@‡	 @‡ñ„†Ð=×@‰¼sÈw	@†`Îs…™�@†
+p†•y¥@…†ˆ[ÙãÈ@…'´)v@„ªˆM–ŽN@„æH¥Þ9Ö@…*yu~¡è@…)Ã+w@„�Ww\V@†“ÉsQ@ƒÞÖ1‚|Å@…DŽÝØb@…àj.—iÎ@„𯒣â@ƒÎ,Öó@„¯ì@.Þ@„EH·]ü@ƒTÙ#n¾@@„|CϲãÛ@ƒâ¯ÈñR‰@„j™ôë°@ƒÃöcó<Z@ƒ<ßå6ðR@†ZçÌï@…‰‡¾\T@„‘Á
;S»@„«½x+œï@„@x!l @ƒÒâ‹’è¬@ƒòðŽXt@„(-¶ñ´B@„m`ÎZˆç@ƒÿÕâJ¨¢@„¬Ä̃� @„ŒûÚ@’ó@ƒêÓøS
@„�,šiú@ƒåø„Á®[@„…0Úróß@‚üðv›£@…äÊÿÅ@„#VÙÐV@„kï�ÖžW@ƒÁúëð<‰@ƒ–	•"[@„¸x“Fj @…UÇÅàŽ'@„µåö!Aö@ƒ~ÉÒ8Š™@ƒèDð„P›@…Û½mQ8w@‚ý
Œp@„Ê{CFË�@„æsk²¦@…!‡Ã+ݯ@…CŠ|`@†gØz¨Õi@…«çᬳ@„½î|¡º¹@†³?U?»r@…W¼Sú˃@„Ó¶¢çø@…z�"X@„ÞÕgs@†FåðÊËþ@…Ûc€_ûn@…?RoÁWî@„¨½Â¹ÊÇ@†6VíS@†\wgÉr©@†#ØÏ~)G@†´«‘[]@†¶‹€i@…¢kóÐc@†ÎìCÀÛÖ@‡y˜Z�Ê/@†n9N‚ôw@†*Pg9Ð&@† ë‰Ø±”@‡4Ì¢Ï_ @ˆ?å ¬ß{@ˆ‘fS;@‡×ä8H#@ˆ-ÆâÖ­@†Ë­þ:©‰@‰Dn½ö‘@ˆ
¦Œ²¼¥@‡6`�þs@‰•Ëx[VÓ@ŠLe*w@‹Æ-ñ¥›@ŠubrWn@Šw‡Æ~ª@‰ô
+ò±ì;@ˆÏë¨òÙA@Š¯p[$°ª@‰¶!„oÅ¡@Šiöâœï@Šõݧx@Š*ûš
d@‹ŽÍª”6æ@‹‡Ì­þ8@‹€iÝ÷åš@Œ…�yPî@‹ûÄÓ	{|@�·`[k @‹ÆQ]19Ã@�ªÉò¥Ì@�ˆŠ¦BÆ@�°êdèÖí@�=�Ïf×@�û7ŽeE@Ž}ØBüïH@�UÖHÖ,Â@Ž~Ç
+å©@�ð.ú¦ÀÙ@�—þÒ©;¢@�>„ha{)@�ÎùOY
+p@�¥ C¶#ñ@‘i‘7sÓp@�ÕJç»”@’©„¤ñZ@’+a-¿ö¢@’,Û¤h�j@’P¥¶‰C@’{Ë™>@‘çûIOP¤@’®}L¨]I@’³³S@“C?ª_@”/Ö¢¸2@”h]Ëaðx@”%üTëª\@”±Ó�ˆïo@•æº%®_@•PÖ­£%Q@–P0ù•b@•æz'
g@— U{¢­@—>fLóñ�@˜8Pv¼ß@—ê­T=V@˜ä
¶ÿeÔ@™Vw±ßdó@˜4�¦¥oq@™5v{›@šËÄ |s@šÂ xÙ$@šå&q¸ä@›¸Õ·Rä@œ|Æ ƒL@�n÷ÍØé@�?Ôµ,A@�™"ËJ%¶@ž�ñ²Z¥^@Ÿa÷ÛCÆ‹@ dfê}´ô@ ´ßvl$z@ øyg&@¡t•´-ÜN@¡ÌŠ8
n@¢3{Mvmz@¢yñY,@£sJ̱@£ËŒ£nF@£ÒÏÊŽ@¤âZX&Á¡@¥Ö5ùÍÎ@¦‘àÓ¢@§b•mÿF@§-ì½–óC@¨œ…¶K¡@©ñÔÍ3@©;f9»+©@ª_z‘Ó?;@ª¸jW†@«¹TÅ•
ê@¬`ÌŒd:¥@®"lG $0@¯K#;\@°$ö2\fF@°çð̵�S@²!.-(¾@²$�þ�+@³B±ü‰@³À"vâÈ@´É»¿@´¸üê}+=@¶wñ‡Dîn@¸‰j6:�°@¸ÿu
†ù@¹O.ƒ²à@ºú“ñ1_@ºæiã¥t&@¼8}Ç'èn@½\%f5
+M@¿
EtáUé@¿yÉÚ(@À°tá—¬3@ÁHï¹Ø9m@ ð(  º@ w’@Â]XëïM“@ÁÏ$¤j@ÂH�Y¨ï@ÂçBgT¶í@Ã`V®\î@ÄŽ»‚hÉu@Å›¢¦¯É@Ç
+Ĺ˜Š³@ȼÙZZi@Ì&ƒ¡@ÔlÕEv~(@ð£þ»
CñAvQ¨µA[h“È•”Aö~½î¢µA	È‚ãïOâ@æ\f{@@Ñfçm¥^@Ê3.Ìí&†@Ç0
++]„@ćK\©h±@ÂÕ©]S@Á¢‚Â&æ@Àæ8¥
žÆ@ÀyÛ‘ˆm4@¿¸Õ>†}@¾4#å&`@¼Üf�ý±œ@¼ÿ¥}R@»n9WPµí@»MB:o·@º™êei6e@¹»0®v@¸‘ˆšNh@·È„†RÄ@·h‘Ám·@¶F»álq@¶s�ƒ$¨C@¶”O׫@µÁ|Å<�N@µj—…åò@´1µž~:@³DÃ-‚äf@³›Ü°¬úÞ@³4ûìr@²�¯…±ÿv@²Yz"Ä'î@±z'	†i@±Yv¯VÒÕ@°™[I#
@°W‘!K�è@®âÓCÐì@°ïa6nÝ@®ú–bûx7@®:BÛG@®V¸ÞD@­˜Hþ‹š@­´Êd-«@­ŒìÜ8kp@¬OƒYïTü@¬iz—?S@«´ú±pì@«ƒ“õšÔ7@«ŸæXvœ#@«¤æl!âø@ª¥¨FÉë@ªèt<ÂBb@«}ý¯Ò¦@ªS‹C"ˆ@ªuÚ”Jo&@©ãKÐs"¶@«Ns~œ1j@«¶Élh@«[IBƒ…@ª¢*÷;›T@©Òå+b@ªG·uµÈß@«i0¯SÝ‹@ªëù._ôÕ@«Ê 2bì@¬§È
Á!@¬YKcb@¬a@ýÁè@¬G¾rŒÿ”@¬Ó’®æ)×@­so½éK@­w3v‹ë@®H‰µ{ë÷@­Ïª5@®1% YÓ)@¯�ŽˆÌäÑ@¯;åÔ×@°µ CÜÃ@°vQUj+@°Z˜k-ÐŒ@±�û¤kCŽ@±ŠUWX
-@±ª†šæŸ@±ìB
4ÚS@²BÖ9É�Ü@³7Ôþ*Ô@³”#ùä#5@´Ê8Uν@´C8_ÉZ1@´¡Ø?{•1@µÂ¥%B
@µñ… •*\@¶2®±>)s@·ƒ‹]@·ÒÂììé�@·¡ü{‡‹@¸ë9ÖQQ>@º÷Ù£ž@ºOÙ°ñÂ=@»ð nÓ`M@½B°üZ5+@½Ó§´6Ôæ@¿ r2¡Ó#@¿ó•Ñ,@Àk#Þ®V@Á²É¬Ã@Áò±MŽni@Ãú;ˆÒéñ@ÄÒq®K¥â@Å(ŸýCÕE@Å‹ƒ0"�@ÅÉkmà-@Ç%Ϻ¬wÑ@ÇâÒÌ é@É	lͨœÁ@ɲŠ×©ò@Ë×҉”@ÌoTGäy@ÍŸ%fk�@ÎÛLJèz@ΟãŠ×÷×@ΰ]é‡8Ç@Îa×Ô»@Σœ1û6ç@ÏØL
JüÅ@ÐÔ®¤_w@Ñ�ý:j ”@Ò…Ë?Ë©’@Ô#¢RÛŠò@Õñm‚Âœ@ÚÿÒˆA
q@çÞ{Å‚y:AÚBÂùÚ A ïF%ÆNA'<2S1AMA#j"úC³(A5H²fà
@ë—˜ƒú•@ÜH„½Åá@Õî‘wfÓ”@Ò×yÌU» @Ð�¶’=@@Î)ËIîÏ@̪ô	¸A@Êô¦3š@É¿±iÈž@È]tï_WE@dž[Û^Ge@ÆÁ+{
„$@Æ-~J6j›@ÅŸl½­¿@ÅL6
¢@Ä­t>Bi@ÃðÀ¡™µ@Ã(ló[j@Â'+�9×@Á£›‹Ø@Àú°±“2@Ài¬Ñè�@À3hò‚l@¿zì!ÒM@¾gn=‡%¹@½ŠmÊ“@¼-Þóbz@»{.>´gE@»-ïÉ/ú•@º`¹Þ¬@¸Ä¸&`9@·û¹B½¾ä@¶�s\¬cÞ@µùg„-t@µóð_RÝ'@´žbÛpI@´k}.W@³ÀSíç@³ã³1Ìó@²q´ÿíÀã@²ENá>˜@±r­ßãWp@°ñáÀ�¸@°?X§ø	_@®ØNát³³@­Û
+��@­�™(;M(@­YU³c]É@¬éñ�„@¬@³¼°
+@¬3lÊ…÷w@«(M£âœ@ª'%÷Î@©lÔ
²v@¨S³º¢Mý@¨iÒ&Ò†@§g¿öÅÓ@§ú¢Ò~@¦iÉ{Nîž@¥×½g¡6¼@¥“X‡ª7@¥HP”Ÿ@¤|̶:ØH@¤ªBçìì%@¤;ÛÉ”WH@¤AÂ/ÆÀ@¢÷Ý!€Ø#@¢¢ö»eû@¢¡A[•È@¡×õ1š“@¡I†Q†tô@ Ù…Ñ82@ †l3#ß’@ 5±Àì;è@ x~šAG¾@ AJ­·d%@žZÂ�@žÜ‘»Mt@�®Jò—@�®ïÇò¥@�>�¦¹Ú@œÆùÅ�Bï@›äq�	@›ªô(5ß@œÌ:R@šŠ¾ë«@™¬Z.@šLÝw_@š‚¼V|M@˜:æXë—Á@˜2f±"î@˜áú•7Í@˜CølÆà@˜T \Ôß@—¡knÊ$ë@˜œªsw�~@œY#Ò57@œ~ú4ƒ@šrô�9@˜µ¦Ì„Ò‰@•x‚EO@•3Ê �â@•Mâx@[¯@”U¯%)@”d/¾Üp@“»I‚ؼÁ@“w9”T‚É@“@iZ?Ã@’Nì�Èu@“"íŒþôß@“¨ª%”šh@‘•ß/
+3@’I¬¯Ñ@‘تÈ_�“@‘Þ  
ñE@‘Ïv]<@�à‘úH#@‘=ָ̦ù@‘*Oó-@‘
p#šd@‘F¹Ùï:@�Xâ´1U@�G|й@�™Ë­Å[@�iì“{1³@�mÉœI|J@Ž†]õ¡tÙ@�
ÃW-~@�Qqsþ´,@Žyðó¼­@�–Ÿåm@�^,Ÿ¼™@�-¿,�@�OÂÁ)�ñ@�è•‚.J@Žä1g0å1@�á>ÑÂO@‰6U¦Þ»$@Œ[AêsÞÆ@‹?rai�@ŠýF`±@‹ ƒjÀ@ˆPóÄý™Ç@ŠÙ.6d@Š[×UÖ	 @ŠuPV)Ý@Š¹›8
ý@‰) õ«@@ˆûNF,ƒ@‡f�Ú3»@‰'ó6"Ò@ˆ8);
+�@‰ž˜èÜêç@ˆÆ¸¾£@ˆªKòÑþ¯@‡hËŸv@‡–{ƒzü²@†3eðÒ†ü@†ËÚ„Òô@‡µØä
+µ
@†fàû™Z‚@…ÑÔ\Y¨W@†4Ÿ‹á/@…§MŠŽ›�@†“Ú�n@„~çø�z�@…·÷»�Ï@„.�¶[b«@†2Ÿo”@ù@„ƒ[áxå{@…§²A)y|@„épÜm)@„»Jñ.ý@…IõÅî~@„Sr
ù@ƒÁŸ%\¹ç@…"=ñœGØ@„y$,)v@ƒïÉÕÒG—@ƒ?ŠØsŽp@ƒ¢1~M$«@‚teŽM:–@„xÍâåI@ƒØÚ÷ì.Ù@ƒ=!'²P@�â/Â"½æ@ƒ2	$p @�éÖ«Ÿ.D@‚Öº`©s@‚wjÞ‹
@‚g…&Mz@�óJ‰V~e@�ˆ‚£ç@‚÷^\’I@‚dÜw)ÕÑ@�ž6þO@‚‰¾›„¦9@�Q®®ª£%@‚ëßb@‚Iüf³„w@€§E„%©ƒ@�‰‹‰p÷g@€µ;íý»Ÿ@€sTèÚ@�NÞ£|ÝÐ@€ãásB;@€Ò›(”ê@€›Jn×Á@€©lhå/¦@ðIk
+
@€D™êz@�F¸ãdÙ@€:@ÃÙ>@€X­ÃŸo@èZn”@€8ýš–À@€gDßš@.oÃÑ®@}û¡±@€Ò[åKƒ@€DÈE_Ž@€i
Á@Ã@}Âsg^,Ý@Öˆcì„^@R¹Ðw‚1@}³Š6|+Á@~`÷³ÑŒÔ@€¤ÃË�@€Mì?Eþ@{÷"ô›H@}-!±²@}
+î‘XßÒ@~‚`…Xé?@|i&ˆ•¸ê@|žòó‡Îz@}úZ'ÁC@·ƒ ©¡@}9ÎB—@~~”/�\@|2ÉöXÕá@|ƒEæÕè·@€‚ÏlÊ´@}�+€±xF@}5ÑÁFM@}×y’Uº@}·¡û€^e@}Ç÷‡ÕAª@zþïµCE&@}UÕ’—2å@yø¾oÆ@|ŠAeLX@}jÆò¯i@z°™d
Ë:@zRÚVcÇ�@{áUä* S@{¸¨W—–@{+|k“‰…@|x-�^7™@yô2ð—n@{8Š-f€¡@y`7™ÎF@{Mâ9Dí0@yzŸí7»l@|êLmæ@y¾ncêûM@|¨
Ó @z°G±@{ƒöÙùë@{ª‘àï@zÖˆœuPÜ@{(Oº@ &@z”vUc@{Ë–ø¹w@yôªÝúŸ@z±ŸA*…Ò@{vNñ‰5@{œuœ·°@z÷Ðû@y+Ïé%ú@z0«&AQ`@|�9Š:@x®Àšü—§@xê‰�öÅc@y½³
+OŽ@{LY.Ï’@x}Aiûµä@x} s]™Q@yŒå¼�fr@ywqO½q @xø–‚U:@x8ŸöÙcþ@xåä¹r<@{‰iðŠ0@za6u@z%,
+fÓ“@z�¥b˜°@xrcÕ¾ú°@~î†ÛÆ”@€ðLìq@�~ÂL³°@óûÀMÊ@{î*R)@z
+€éBÕ@y¶%‚R@yr�@OØ@xê8c-Ìo@wí‘%›çw@xÛÙSCÌy@w•ö½’B@v¦×yV¸@xÎ7+`/l@w™h[«a@wk-?ö..@xÁׂ@yÞöDh·Š@u¿jhQ3%@y9ÎÊÊQe@wx®E”þ�@xÚ¥‹·Ì@xŠ§=w@w›µ¬¯¦Ð@vïßò¦±@w6£ëÿq©@x�ÂÚýà®@w6—o�rN@u‹”ÑÊä@wØÍ@ß$@x<`ÊXîj@vµÃÇC ÿ@tEËW�Â@w­$�‚S§@xßæ€D@w¡7€Ä•@vŒ²{§ËG@wNˆµB¨(@vøMÔÓ.*@x7öÕ!,Ä@wöïX†à@wˆHi‘N@u³|•¾@x]lœ
@x â³ô@wp4톬@wî¾cÛy@x Ù·œ¥˜@vVÉQvþa@wµŸÙ‡zž@xŠ°ê•9u@xùÆ|•¼@w¿M(ý|@t¨Æ,i�²@t¸G*×\@vN$Q1@t+AR*Qj@uÀÃÈ/<@w_ç–g@uå3&jÍ@wÀ5÷2fÿ@t‹/p 
;@tØñølÿ�@v²Bø\ò@uA\½O½@s_…ïßX@ud™®ñÐ@u§ÄÔŒX¾@tÀÈLÐüQ@v…+ÛÓ³Ì@u	�š¥
+@v9¸“›â@v]£E¼Ýq@u_±jp·�@u»·+îW¼@w�¥AOÍ:@v­5ÅH@vXDüÑÊl@v©hXd"¥@w¸ÄflÈã@uu4èK¿@u¯ìûS²d@vµ2ð@t“ö'tb@vcDz™ôx@t)’̓t@w)!kÒ@sðå*ÃÖ@tIŸ:ÇiÊ@tYÕÁ+:@wƒ­O£Ã@u7JJ¶÷@scâ[¢
N@uk!œóÁù@sìð×Ä6#@xCà÷M@u\ž�z=™@wD’ÉL@tÙåûky@v¶Wì
a @v> ~ë­@tùYÕêþ@vˆ 3%‹™@s© mãk@v#æPed@vºÂ:f?‰@tJ‘!—å¨@t¼ªë�ŒÀ@t"%ÍG�Ô@uBÍšÿ@t.ÃéË>�@v6
ÀµÂŒ@w»{hãö@w¶üO/‰@uüŠB�p^@sÛ¤1c@tÈ]uDK@vËú˜@sþµ˜uÒ@u¦›8"@s1¼w:
‡@t4ò~cת@wù
+†@uG0q#¼@tÂ`I8š"@u?”o#ç–@tô¼Eø«¯@vª/Ñv˜U@t­NßwG@tæÎqñêÞ@wPÅ5BR™@w$J‚V@u�¡Îœô@tÞ9.\Ì@uF(äÂÍ@uÉhx½/�@uD8¥@s·�\6@sþØ
:?@w½ðK	v“@t’E›T·7@wTX¹�*Ž@sj«›v»³@v£¾×dV.@sqØ-—n­@t'0¡G|a@tÝ=âôî@tdúíxŸ@uiw™–DÍ@tº¸¤’@v
€CŸÒ@u¨I.–.¯@w?Ýæèt@wq0‹Æ­•@sù¥5<Æ@s®žÞ3?è@v"j¡‚{@uƒŸ›Jûs@uÈ3˜é@wN®â¢@t2¢
+/Ôü@wìRÊ|@vb­üÃ�X@v0iØ”@vtöWY£±@uÀÛüìñá@wV
	ËÅF@vTéáþÝ@uÃÏîaƒ@ud`'q÷A@uY]$•nì@vMy_[M³@vt+ã+@w�ž¼@u"»ÿ¨¡@v
+¨�A)J@vÌ+«DÚY@uˆ•.¯z@wª*짜>@sÉL6ÊÁ@v2ó¾aá@vGGxâ™@tX‚þÔy=@w߸Ë;{Ä@uiãF%P2@yi'®ò#@xEå5bV2@v:¯‚7CÃ@xLäמv@wÒžïÊÄÂ@và;F_H—@w@?€–g@vƒ�bÿ"À@v)°Î…± @v‰®¨´@u:F6
ý]@x`ï»OD‘@v÷®&@uæJHš¿¹@ttbÃЃ!@w’~$EöÂ@wý_ïBÎ)@wó‡„ÿ@v…™å@uªgÄÒ^ò@u¤1Œ�@w¤€¾A
v@wÁN;¼‹@u·aF8eŸ@udlS¿@@x�ŠY&md@wžÔöªB@w*ê÷ÃG@wC«V¤@wRÊØÝv@vA<4wç·@u™u9’€ü@wÖ|ÖxÝp@w¯*ˆ«Èp@v¯N-j @wè<CdÓ,@w¢.ÐdG@wê”�Ó­@y,“î]@væWv¸#@yÀj
+TO@x„↭Ê6@wš0ÍËÄ@x-/àB¹@w?£Æ=@xÒeZ—×@yrêN·¤2@wÚ¿ôöŠ”@xñÚz—£n@xËÜ
¶ï"@xÅgFf:@wË›W�[-@zg®ŒA“@ykðïÖ×�@y6G¨`Üm@vK:Ãã�@wÝiê@y|ŒË‘O@yo*¨	u@zL±à¦Ý@xÿôì@w=–Nü:Ì@wÕ—Û0È¢@z+¬Ë¦t>@xÞ8„›â@yÕ*þõ6&@zYÖZLJ@x!ÝLºy¹@wú1H#Íð@y‹Áã\[@xýX�K©ß@yÚÇÚŒº*@zû[èL@yäÍÎÆ@xtÇ5°-@|¹M0Åph@{.ûFìž‘@{vô=iU›@|a
+šú‚@z/+??Ò@z¡ÏÕT„^@|ü/�Fwä@{`Õg÷Ô‡@{oKâA‡}@xŒx‚à«@{v*Јñ@|kׯ—@{u7ï’ÇŸ@{çų\N@|9;CÒ¿@|ñ:Zt³u@xh*ð€è@|×»…ƒc@|"4‚äÿ@}§  çèª@{Fä/ö�@}ÇĘ/7÷@{öZ0<³@}}=×Éš@~OicÙ¦@|&k#91N@~?pçwN¢@~\~þC%@ Õ‰ËQ�@
ì·¥N
@€fñ¢îá@~–äÿ(‹@}òD+@}”<”º¿Ð@}ôzÿ¯éÒ@€�ÃCP@2GYx@@~‹SÅèì®@~–YïÌ£È@}¼Þ.ΙÅ@~X8ö$
@€Ö-F—Ž@~�M¹Œ5ö@€Ë˜ÏÙ©Y@�®
+µ+v�@�;�ŽZ-ò@�G|þÐ÷,@€®�p8$å@�¡
+úóœ@�vÚÃl-@€Òd6œ“@�,§*ú@�¢h©o�U@‚˜°\ßÝ2@�ùÐõÑ`­@‚
fÆc=@ƒ>ËDY”l@�üààÚ¨@ƒ£Î|Õ¸£@„é©ncr@ƒë�²ù@ƒÅ!'x¼6@ƒJ>{“ì@„8óÖ—Ð@„GWö»@ƒÃ0°V°@„ j2rS@ƒBHjoÏT@„“/ÌqRô@„AbÝüÖ�@…K*¦­ûë@…;´‡)@†¦'˜œ@†Aç([ç@†±
î»:¶@‡hû‘5:ô@†¿7ïó%A@†ãÜÔ)ß@†èÈqo¿@‡Í“XEßr@ˆ^â9X@É@‡v^X¸ùq@‰Eð¿sA@ˆU†£Áà7@‰…90$Ë@‰{¸ÁKýÞ@ŠcÆ‹dÎ@Š¢$“›Á|@‹=^%hX@‹ªC`F®@‹úaÐ@é½@Œæ÷µÒ@ŒfÙã…ÝG@‹¨ól,Íù@�ÞmèN@ŽeÞÖî§z@Žžµ)8&â@�´
s@�3-÷ÍžÐ@�ªñn�@�
€Ò¶ñ@�]ty§nV@�õH3qO6@‘góuŸì�@�h7F(	@’<~Íw£e@’ˆTH
Í@’Ä[úµu«@“@¶Ü+
+†@“¨û	QS@“�
+§ìʈ@“õÄ”(9@“Ã&öx�@”¨
›â€¾@”±w¼ªÞí@–kßìÚ®P@•Ãª‡‹+ü@•^Іƒ@—Òˆ+Ï!@—š›#šOô@—Ž\[ç@˜8.Øæŵ@™³ÛÅ3Vž@™¶,YÍ2û@šR³„W5Œ@šŸ˜ª*q½@›¤„­‡ò/@œ9ünJ™‡@�­ÇS»ñB@�æIãµé@Ÿx‘ß‘ø@Ÿ½F£ÏÅX@ `
+lÚÐ÷@ Ú£�i�@ é‡)­­@¡#z«N-@¢¥¶Þ§G@@¢­q®Â‡@£8Îp-î@¤Q=`¹@¤"Éû?C@¤}·�‚�@¥ƒ¹×Së@¦WŠU¦^¿@¦¡d¤~×d@§¡¦à%ß@§¹½*ËJ’@¨O�á@©¹3_öB@ª–Ö{ï@¬®ŠÃÚ@­‰Dcüå@®âÁ<Ês@¯[½\¿@°Ë²·ìL@°¾�EÆà@±M’¾ÉRÛ@²MÈZ’„‰@´Tá~%h@´ãŽbÇu@µ¡.‘gœ—@¶Bw0þ·@¶ô¤h±X@·w‚nÔE¢@¸—©mr5Ø@¹Ç¥Ý—b@»V(Ä*§@»mê‰iFH@¼îkt:è,@½˜Òç¡·@¿÷ƒ«	@ÀKSLÙ@À<oø4y@ÀNKháW@¿£çݺ@ÀQøPFÛ­@ÀØ¥ùɬ²@Á•Í=š/@©~‘•«Â@Ãp¼¶%ë@ÄŒ#
/,ô@ÆVéP?W@Éo36KîQ@ÑB²—Q@åÖ"—-ÌAà¹êÄŸAÖó3Ò<A/
](½AKt®Æ@ø3M$S!O@ØeWºO¿g@Ì)§–Ô@ÆÈÂP@ÄöµÚ³V@Á®t‰eeÎ@À\î}øk]@¿nËÎ!íÅ@½C_µ,@» èéé@ºb*Šœ@¹ÆÏ_K(a@¸n^Ñ'×@·f{p–@·ÃRþ»@·`rî¯@¶4æ…[´Í@µoŽ	4«.@µ
+¶OAïË@´"�c?›¾@³Tœ
+}Í@²°O��¼=@² uùR—@±å†5Ÿæ·@±§ÅëOÓ@°º,Š�Þæ@°˜C¸&@¯�##Ø@­Î¸”æBi@­å`¶€ãQ@¬½å;�@¬ûÛ™?@ªå¾jT-ã@©Ë÷Ô7ÊÍ@¨“ų™ˆÄ@¨Eóäÿ@§…wÙ Ìh@§.OS)b@¦<Œöž.@¦¶Ñ¡ÈxÈ@¥J€<Öæ@¤eÎ2’@£V©TÄ@£¥Üm+.@¤{zO@@¢Å¼ÚZt@¢$¤q$ï˜@¡X|m„Ÿé@¡•’S*@ KRÄz¸ª@ €§h´a@Ÿò.š×¦>@ "	ªª Š@Ÿ|#§æ@�ÈäÂ_z—@œ¿œ5@œëˉ)‰3@œ&ž¬’ZŸ@œ‚S
+@œ¾
+AÛbr@›iøH´‘o@™Á:uúT@™#>xÍñ×@™Ýn0½@™9S¯xá¦@˜Ê)½ìEa@˜£šÎ`õ&@˜—kÎè#@˜÷ðP»Ë
+@—Á`¦Ü
f@–à$òMyä@–~°NNÔ@—Q73ø7R@–„ýd.@–-­‚¸m@•EWª_T@•Ik‚Çà@@”‹áyRHk@”}\ÄHe@”å«zÉ1@”ôAjE3š@“×oS7òQ@“��AwÊt@“П¢@“Æä5lª$@“7ñmÌäb@”;�©ƒ@“GŽÞÌ?@’“&ôfÎG@’‡å2@“=>@’Œ?±Ñâ@‘ûS²z:
+@’*ìBˆ’@’ÜKþn׬@’
+Z
+0T@‘ücPŽ·\@‘¸1]fw9@‘†`í®:ý@‘œæ@µ@‘—Ýü�o@‘8ã¼zô@‘hYÁß6@‘4UÑy’·@‘WÃá
T@‘ßœ×�¥§@�»™ŸðI@�ê®�¥'¤@‘
+ñë«�@‘¡ÞìD„â@’q5tÒ@‘k'—RÏ@‘ÙSάGÑ@‘»¬à@’a1‚þô|@‘‚�¼öX@‘=£þ\r@’9›‘Ÿ}N@‘fÏsʼ¬@�ù#º½å&@’g\Ýóó@“
¢î—¨î@“òòÎ-‹‚@’&ú�˜j…@“9_ùÎq­@‘úqŸ=£Ö@“Ò-u%ˆ@“Nm5¦”@“¹q6}î@“¡„Å2×@•Í×Q?Ò@”‡øŒ6<@”$.öPœ@”U�¥¹ç¼@–$KHSƒU@–ð©|å@•ø(Ý?Ò@–*è¸Â‘@–ÜY	ÿÒü@—3Åöê£@—’ÊŠ~¬ç@—ƒòˆ@—åðL²”ì@™ÁÕ·û@™‘�QÞ"d@™ö	3³@šv*%sm¤@šž0ó…\§@šÉzK“,½@›µñëê
@›)\©Lb0@œ®+må@�øÓY‚³@Ÿ4	Ùû•�@ -¨ö¼ÂH@ ‰ >lÆ@ êê"(Ž@¡r�¦ª@¡É�„ &¿@¢
ÕÇ_	O@£½¡9Ó[@¤±²ÿÎ#ÿ@¦-Ø£
@¦ˆzûŠÚï@¦A(d2£€@¦¯úo8l@§ÍÄaý@¨5�òò_Ò@©ù%5€b@ªR–+¸ô@ª�…Úœ1@«òïù-rø@¬¶7ÎãÞZ@¯%wÚ¸«Ç@¯ˆºP2Ð@¯/wiòNr@¯\¸;,H@®=ÅŸô@®yEÃr©‚@°"üh½
±@°bB„¡Ü	@±VOM¤¬z@±æ,Ñ¿xŽ@³Nln\@´D[ßÖ)=@¶Œ±¯

@½¸÷)ßê[@ÒF÷‹t|#@ð0@åí®AJ
+R^ñAfíb~A
É�ò7²5@é›ØõéGº@È
ÔŸ�Œ@ºQÈ¯3@µFÕ}
+@²®
”Ïeí@°ÆîÎ]¢I@¯2öÿË#@­cɾ¿zz@«´;¹´�'@ª«¾ú܈¨@©juˆù�¦@¨�ŒUŽ@§„ÃrØÎ@§=4ÓÄCË@¦êÛ-½–@¦'|{ý|@¦QÝc]×$@¥ºc¾åAV@¤[nÁ±@£¶÷_r@¢Ó˜˜˜‚~@¢l4ÙðÙN@¡ªEÉÇ5@¡º	+òï@ Î\@!Ö!@ OÕ$�%@ >Z¤>,Æ@žúŽ½Å†@@�ø¤º~wy@�•�
«‡@�0ÿ
r�@�\¯ö6@›d<ÿ…Ì@šÔ|ªÓ—@™"6ÆOL@—ÎE·=6H@—‘`žó'…@—Ì»@=8@—P?>Ѓ@–ïÌÏ((
@–©	bk@”8¿T7½E@•$ì}>ª)@”³@ÝŒìV@”äu�‘¢@“÷–U<-L@’o¶!ZB@’12z[¿@‘ò¢wJx~@�ñöǃ›@’NŸZ
+\@‘<gl¼¤ë@�çÐ`œ¼@�¹
%Œ@�2°#ø�i@Ž–g«ì@�JU@å®@ŒL2p§jï@ŒXù
º@Ž
|ñ!dë@Œ´-ñxcl@Œ4¥kn¡µ@‹·ø£>š@Š«ªàºù@ŠJ¯dÞ	t@‹ÑdÁ‰@‰�…‹‚u’@ˆó“­ò@ˆè-øšt@ˆØÂ÷¾Ï@‡m¡›C@‰5Ä®y@†Øí:))@‡nâa·§è@†}ØÛ0xT@†a\Õâu6@†óÄÓ@†?킇ît@†»L¼`¼x@„ÌEÊv4A@„HÓ¥Ò¿J@ƒÞ«[»Zé@„‹uöÉm@„.§WŸtx@„YàÞ´v’@ƒ·p߇
+@‚ƇàmD@ƒ´A“Í»	@ƒb�ˆaó@‚e�ë—@‚„ÏbvÄ‹@�R©´¶Š@�ëë‚Áo¸@�Ï-Ê�/m@‚=ÜëªQÐ@�Ifá"fþ@�Š×›É`@€[äu
+ò@�?sý@�S8ÝmJZ@€©^ͼ¼Ñ@ý©H›ºô@U•A’N@€,S ß¤@}€OyCŒú@·æ¹Ú@~,¶ß"G@6–.xÿ7@\eéÒZÁ@}A.(iß@~eæQ¦”@~Ù:5KBa@×N¤Oû@~\bÝ<‰@~¢Kà”Ò@|}äý„Nì@z¤âx®¢@{XoY¬«D@y»@«ÖÑ@|Ö—²
+4@zV9£rmf@{&q§¢‘@}ÌC‡ê&ó@zê4æG5@zÊ\CFü@{ˆgémH?@{,7<�w@|`±´Ë H@{n1Þï ·@z;u˜!–@{b€O]@y’”k¼™³@w˜
 Œ\@xa
q¿@yâ0ÛÊ@y·�Gl`@xño®¡@yAâNÏ‘ò@za‡ÓCf£@wü4€ª@xg<éß@w¬ûurFw@y
}#Ðp—@y[º¥êñ@xxhneWO@vÄc‡_ã@vée¿Çy@v>%Û
Ž@x½‹�­>@vf
ÊŽ2¿@wLŠsøßY@vû3T�@w)¥Äà—±@u6•œ·`@tÏ£„= F@vNYÈ´†@uÂFVÏêK@v§J1'ƒ@tþrîýò@vê£
¸a
@uÀl)À@x
í5q`@v|ÞT@uGÝþ«§@tÙg}rÞ@w»ä{ו@víò̦©@vv$ý€”Ö@vP
òvÙ­@uzõÀu@uÍÎx ×@uŽi"‡´î@uÖ5å@tYˆEþ±O@uM»«H8@tÊá{Ëó@tòümªDü@v–³ êCo@t8¨€	@tƒy®–ZŽ@u3bPš–Ö@vB¹÷Ê@sEˆÛC·B@t˜¨Çï~¨@sƒ‰£Ðe@s[Ù.¨
@tf¶U{®@tû-[¾ÈÆ@tºŸ¼-[@s)�Š¸Ü@sf•A¨@uRA‘ï @u`l¸qÐ@riª×áÒ–@sL}Ϩ@rcì«
Ô€@tVŒñ¿'D@t۵ݪ:m@qÀøZL@s	Û¨@q¹ù-´"@t‹È½4à@tˆ!œtÍ@sþìî�@tÒDçð^@r©Qß\@sØåu€@t�‚ÿu4@tYMAjÄ@s×S
ëa@rg°å£¸:@rC#Ú&-ú@rÚÁU;|@tE‹ò
@r¸ši[•£@q²PYi¸@sàïˆ9û@uujº 
+ü@r¶	P’@rÇUüòDB@tŒ;5~¶²@s2•Ù(ˆ@s1Ôš¯š@t™í,OÎ@qн±?k@tWÒ¥
+e@tj	Rz@rßéÙ£©@s¿×¾Ýr²@qê^è"‚ý@r<Þª™W@pF²ÅÉ@qÑ4™v>*@q–M2{»@qÔü³©<ˆ@s©†¼”2Ñ@ró’Œm€@r¼ ·×Ī@pìWÜC×@rZä˜7µM@tX6
ŠÜ@qÿÓÀ°IR@qˆw[ñÞ@rBêTä@tcÃÇe=þ@râåìÛ8@qÜ¿óOô@r™Jß<~Õ@r£Ì*Ê
•@r¥Ì£¥�}@r9(.Âðü@p˜æØ4
G@suN	Bpu@q6î·¸5ç@r¨Ìñ¨ö@qŽB´?6a@r)‚Ö¿v@s‰¢Cªp @sÅc*³@rd°
+æâ…@rFèr´“n@spÄ9aÑÈ@r“	ËxÜ„@qŠW‘ËÍK@qîÛ°I¿Ã@s\¦lò@tÜ�H…®@q[¼¨ø|M@tùÈšU
@p—üKD)
@q÷ò;k¡ÿ@rt�óƒ
T@s¦²šõ@qŸ^â{¤@s8”Xî�@s¼Ã
+Ìs@rÜÛï®;T@rI„·‘ß®@sæZ—
@s"-cËÌ“@r¸é¯Ó Ï@ržìújš	@sl¡\K<ö@r°æw*@tÉ	Þ`@rŸô¥«5@r��îÁ¸@u@ÁõkÁt@sÄþš£
#@t¨9eõÒš@r<óQcÃ@t¨@£óÒ
@r‚ñ2kã@t|µûíî@t0¾×²€Ð@råaHÛê
@sœl°ø¨U@t0îIg�@r]¸{lo&@r�düó3@sQ±{ë@s*ìË”@sÆyËŠÆ´@sä¹4"©?@uW†6>^@uf÷2—åï@r[¢.Œ@r´]œ¨
ó@tXÛ›@twÑ£oô@s¨99ès@tM…ÊÔü’@s”2‹·Í½@v tk­ðí@t#�jÆá@uoâõg_j@tx:Yþ&Ë@s§øQ¾s@rF²Q¾ë@tœ,‚ij°@xæØþó@sUéM\¶@um/î”Fß@tvÖb¯4@tÆ<p£\Ü@uŸÑ,`Ü�@vußoóQ@u+T=>&I@w>ær‚~@vJr[LÃ;@t–ÜÓ<+@vù]µÈ6K@v©+�«@uzïBx¡@v½4�Ê@v¸Éaà¤�@v]Ë
(@ur�‡íšd@vr§úqÏÖ@vC÷F�F@uãÒÑ�@u@IVüÒ‚@x–PxQX@tŒd²Ü™}@xdB<Zv@w¸ÞÚÍQ`@xW€çVº@vxI­1¹@vÑè	•'×@wc¦>?�@x·\ØÏèÐ@v©w†£@xXŒ¤Eë@x+Ô÷ð×@xÄLQåš@xfD‹A¤x@xÌ�y
�e@zn`eHJ;@zÖ	q·²T@wô>ïG4L@{"ÿO°™@{¿oë¡@z|bà@z�hÆä
+Ë@|¬rüÏK@zíŸPÆ@{z•°½0v@y²ñvù1@}ÂW” ªX@{©š/�\¬@zæ|§§WJ@}’è9ñ¾¿@}³	œúM)@~.Dt†X
@}Ð2ɶ#ž@9íj~KÝ@}lh¤hô@~“~Ïÿ\@€‹W$§h@~è牖&h@�ã„#ù@~3$쥜@á@Ý5Üõ@€Yè¾¼¡@€Q&¼=Wê@Þ[økÅ„@€;½®úá@€ÿºM12@�MÚ1•E@æÆ1º@�Ï-ðÄ@@‚]U%¶@�ÏÚB.1¡@ƒXÐ%$*€@‚
øÖlm@�•’i»»Õ@�Þ²âžÍµ@ƒ�xšˆ4@ƒô])_Ö@ƒïÃíÇõ�@…¨±öV	@‚,³¼Z@…2Çż}l@†hH/nC@†Ík>°Çç@…îP[^¶i@†GžK…�R@†t_v^@‡�ho<B@ˆzê©KÀÅ@ˆWRÓð@‡Ÿá0Ó$
+@Š†ËƒiÍ÷@ŠÍ´«FL@‹
+¹ƒ�ñN@‰ÊW®®…
+@Š°=­³ØÍ@‹{ª;ÏoÅ@Šü�÷ã ×@‹1’�§sv@ŒÝq:Њý@�ÕÚõ©}@ŽÓ›:Ž´z@�µ6©î³$@�iù8Ù)@�š7‚vD@�úBi¶«@�Ô´­x]s@‘_+›Øü@‘ų»'~™@’eðö8rU@’J-ªîáo@’^‚§,=º@“€“àúî@”õÛø-¤­@”ÄÀ]ãËR@•‘1$Ø¡Ö@–•XzÍÎ5@—H¹îÌü@–žÝ`´�@—ŠjÕÐ9‹@˜Eïô†Ì@˜í§Jh„@š^­×mÚ&@š2Å6G¥Ÿ@š?
ÌC¢°@›åtAÌÜ¢@�k\|µï@ŸW3ƒÂý@ 
Ž‚6†a@ ÖÂ%ì@¡ª<íg@¢"ÚÞ¶5&@¢›¶kwÔ@£s08Í@ú@¤,ƒR[°"@¥pjwna.@¦J[»v™@§³R˜Ã@§²ô.©Ñ@¨òZQ«Ü@©€¾,-/û@ªz@ôr@ª­˜ªÏ¹Ü@¬¦ïL5®ê@®x³¾ÕÐ@­˜“$­c@®³Ë½“Úå@°jD�ì@±G"Ë�ªß@±[ä×Y.@±<q�‚@±'n‘4@±U÷Ëí{¨@±ô�Æåð&@²h)úú…_@³iå¹å}_@´f`gŒO@µüᾪ¨G@·ÚôŸ`èe@ºdÐ~'¼à@¿[×.2e-@Æ"½·=ä@×Ìð¹õ?@ï&¡ÍÆýA
µ!!–¬ATAuK“ÑA›FÞ2\@ø�
¶!@ÝʵÅ6
+@È`nJ¨©@À%'Öë£	@º«:ŠPÞ@¶û
+Äo®@´;óÃg
@²ò:,˜@±i²ŽWý@°«kïiÉ@¯72^ÚMV@­T�Éž¡é@¬Û© |â“@«ÎÀ¡ß@ª§ô¨kÃ(@©f‘ãy­ö@©Ng±ç@¨kùQc'@§Î”¤&èÄ@¦�ùdÈ@¥ì7ÒsH@¥xBŸƒŸ•@¤“ægªþ@¤%4Ø: V@£Þx�	c@£]”nÜ„2@¢“ª¹{B@¢\	äÆ£@¢Tˆš³Ñ@ y% Ho4@ ²™ý¶@ y?UÀ@ŸÂkÝ–2ì@�@»ùB¼@›ñå·Ñ+#@›jÔÄ‹	‚@š+,h
í?@šÍjRJò@˜ÇwÞbOz@™ZF)@˜W&¶,@˜d¬nt
+@—ó˜C,@–xZßwKD@•9LZêÄ@•Æzz¾im@•B$ìÌŠ@”�{ËØ~÷@“ZUž–b1@’VŠ×°@’T’bΨ@’/±2(B.@‘õÈ3‘L@�¶Ùχ@‘ˆä—@â@�Øuš?¼@�â=ÎEW*@Žrx#jS@Žz¦g3ïÅ@�¦SÜ(Î@Žï·zKú@�%–Î3@@� ª
Þô¸@ŒÇka³@‹âv2ï@ŠM´èª�@ˆÛàmû¸~@‰ÕŽbI¸@‰ö³Kt0}@‰`õ@ˆ•2ÀȾß@ˆ›ì:í¦@ˆ?#<)‘Ñ@ˆ\$U$÷@‡|S`·zÀ@†Q7rÑ:­@†OânÆH@‡vØïi@„úJ”h6@„§–×»z8@„ž(SÀ
@„yžX
+‰@ƒå¢ôò@…
+¾UÝT@„vËú‘¡Ú@ƒg¶·üV@„Ó}wÜ“@„@Š¦Ž2$@‚˜½?þs<@‚"EªŠÄb@ƒÇõyë@‚BËÄ«.;@‚ÞwEýô@‚E‡ö¾—+@‚D�ìêµ?@�’;Ð8¶@�Ó”‹ÁÑ@� ²k|*@�g]Q½×@€
|èÍu@€qê·c½@Q¬Î90H@�’=: 9@€!RïV±@~èSX‡¼@�´ÓK‰@€oÁáU<@\¡!Õõ@}a8Ù’K@}ËDÏÔn@~·CEªÏ@|Éê9’Rv@{ã²�çØ…@|ÿ,ƒ�
+@}kZ�µë@|1†w¼?i@|;Z’½ZO@zb©ñ�ß²@z”™<¥Ò!@zZ;ˆ¨@y‡NPŒ#@xZ=5U¾²@z‘Ooî<É@{‘,;$¬@@xk 2@yß7ü×}Æ@y’¥�©ý@zb`¤þq@xÒœ‚Ê×@x¨k1wˆ@zr<ÿ-T@x!�|u§@y±vw”@xpmðdÿ«@wÜýN•·¤@yB7×ØÝ@yn¸ƒ¶CÜ@x’ú¶ÕË
+@w|µëëûS@vБ@qî@v`ÐÂ4Üû@v4Öîng¡@uéá5“e¿@v
+Úq•|í@vÔ
Ý¿CR@w›
åþÍ@všZê±@uè7ù£EÛ@w·3Ã?Q@u¤�€ÙÌO@vßžtOqÅ@vŸµpœOV@uJè¢a¢«@uŠ~†³3@tQx^l2@smL{@ua¥žÀ¡@vBI³í‘@uòüµO0@u(–ÖD4ä@w!ïë;ô
@uÓÖ£¶@sŠKùÓ»@uY‹§Âï@rŸ1¥�:†@t+¾V@tiÓÓÎWÆ@ri"¹å˜@söŒ;yÑ@u��ÆÓZÃ@ruEÉÃöú@sÒr­-2¤@ríÅ‚­Š­@sà`‹iâ@t¹Z³ô�†@sH‡–�º@tD[ï�‚@rJ¨E¨8@sô§¶wì@rê&MÍ­@rß·î)…8@ra]l@r´j”…@rîl>€”&@tö»†@à@r	(ÜîÊk@rÊLµ�á¾@tš‘—]w@sÒÔHTT@rrÂ(²!@r°	
´@rdbp|¶@s„)£~Z@píÄ^ŠRð@rº÷Lê¶@q²KÈê`„@pGô©¶ÄÓ@rŽâ^(Ð@péØM”Ù@qw°Æ�ôº@q´"P"‘@rW	¤�+@qª½Þ¹Ø‰@pˆYLtâ@qYxò®åÅ@qLóÇÉÚ@pï5	æw°@rm,¥Î“Ê@q€ãº)³@pý
+à�3ø@qáè7q#´@rcb!\@s•Ž†@rcö¯kàr@q<¯÷ä–@q’MA¢ùB@qè|-&Ǹ@p&�@h…U@nå%NËÉ@q­Ç#`Èé@pœ”Ë®Ý-@pКÂTø6@pÎÒù@rT°¨²˜@sc¶PªÖ@pcò'9¶@p÷
”D¾¨@r‘¼–€ÀT@q,õû´§Î@qÒ4ñÜä@pŽ[ñNé@pô?‰–Gm@p�ù¸O{@qKG8jê@qdÙò>=@q�øPE7@p‰= ›.:@q]»g÷iî@pÝž¦Ê€ª@p÷ïv(@qÍ`ãfÙô@o¹+üi­@q$¶Mþ¸ž@qÇ5KM@p÷5
	§­@qdŽ¤
£J@oUîy€]k@q½³Ë“HO@r1A¼�À@n`kŠHÈ„@p¥»içÍ@p/€ÙÂ>É@qÑÅgâ‚‘@n5L–”qG@p–[Þ»¸u@q�ç›@mÍ�{W$@oλý}@pw+ŠÎ­ƒ@nqidZi»@qlÂá@@p
Q,̤@ri*8$@p8þ¤“Ø@o©Ææ4@@r¡P|Oe@nu+qÜ@pkàìÒ½@o¢ÓaÃÍ@p¥”ò–äë@qMþ c”¾@pÆ•*˜V1@n‹¥@=eÙ@pkkë³­@p@d¿ù@o	,tú7Ú@q+HP|q@qÍl'JÝw@p
霉Þ@rt�/dü@p
F*;¡F@p™µ·‰�@o6¹Úƒ}2@oyÚ¬ävà@psMƒ«ÈH@p?ÐôÜ�'@m“±æÂ!@qšZ*ñ<@p]p´
+@pÈZå‹ey@m^a]�w@m¨ìýª@pÉ7ßп@q�¾5±@p’Û)ëâ¯@m^�mè:x@qlÂgüL@r+û	\Ÿ¬@pÜ
+à†@p•5þKɉ@péCÇ:}@p„ÓÍœäÜ@kä¦Ý<['@p~+/›Þ@rwÊ#7@q [ÔÍ@@q‚a”>6é@q¥^O¯-ë@p«äÂ¥$/@rÈ8RN3L@q4J
Z
@p¹À±1ÿ@pSѤ¼Ä@p¸¼šˆ"@mAP`Å@p}(ŽŒò@q`°îFQÇ@p2;´� @qÿ´'·ø@rÏ‹ÙÀ @q&«¹µ@r2«²3_@q¾~´„@q¨AœòÓ@pkŒ8r˜x@pn
+T&)@qàÁúJý@qEXðãÕ^@r0j­o™@nÿÉë„…@s”{U/û@qß1xÈš@p¹�veƒè@q«bŸ™�U@r‰¹@q-œ:hÊm@qô9cô>`@pÙ=MZo@sõbµ�@r�”ñao@re¤éÇ2"@p‘ht�äg@r—£we¿@q"Ó©8|@s…¤[uŽ@qPí®ær8@tãôÎÒ0@qôƒ·¡›ô@qB—oî!Z@r
ج@q/ ½PTè@q‚·V"rd@s2y½+p@q'*É6Û�@s˜ˆ…K·@qé“5{@ré#‹)‚É@nòÓ“dy�@qàÉø/´@s[(yþ·@sÂg‚kcv@tö�ÜëÍ@sÞiLdW@rYüȠ΄@s�Z'�‹3@riPjÌ0¨@s5>Ãs@uWÕŸ@sšêälh‹@t³ù	ê†@tDW0<K@sQN‘<@tuåY‚úØ@s 9Ž•3@sëq�‰¯Ä@uJa¤DU @t^ý!Å!›@t‚ˆóÛà@r¶QÒ‚€«@rœ’®@@t?™s
§ª@r¶üûÕQ°@u¤ii9ª@v‹üü@vD?¡‰R@tu!XØ4@uß!·Â¡@u;Loø¹}@uŸR¸Åí¥@v帔å,[@tkÀ&!_ˆ@vÕía†@tðLùïEÈ@vì‘bß®@uØ+ï	[¯@z†³cn«@€R><4†@‰z}¿ëŠs@‘C³üo¹~@‘;•·,š@‹‚>ä¬XK@€™˜SÜQé@z''=+'?@x«™�e݆@vÍ›P})å@vš|kàC@uÊó£xQˆ@x|äÖ[“�@v§”mRÙ±@wj	zÞ'@v6T›°§›@wZvÙ)Šc@veÚ
+¯‹@voDVLŲ@x·eœò@x¯³�ðJ@tÔ|ZßI½@w¨z(—¢@wÊÅS7))@z½/‘#W@y ü›¤@wÎ$¾HÚ@y¦f™¢@vöæDtY@w4Ÿ¨@yÚ€·P@x}gÒ–Á°@zÖÿø¤•Å@w¬-(€À@z¡ð)'zØ@y6ü¥“³@v�ý®¥Tš@xC`qý¢@y¾�	@x,™h�@w¨sÍtë@wêúœû.f@yÞhÚ*”´@{d%:¡A@yO%-ÜÂ@zFÙg}Ó@{K¦†Ù@{Mw¤—`@wïå>
Â@zþi{�^0@yìSðúa;@}�o¦2d@}ƒ�>ÔP@zëÀ(ù"u@{eŠ
„@y'
+¸Ô‚@~±À —Þ¹@{³¤iy\@}Ï”�@}‡Òg`[Ì@{Lìg”‡~@Â2ŒnÊ@}ùctßÈÀ@ÈPd`B@~O! «ÈÐ@€ 'WO“ä@€Pcô–uÐ@ÖíøÄ—@�hä“æá@€Z²�°„q@‚ð·;dQ@€Ê€âì¡ï@€ƒ‘Šs#@€ç€pŽóä@é§î
@€¤I=ão@€¿×£G@€>Œß¢@�ãÖ÷¦—@�ÛMʾîX@�e‰bøà@�.¤$Æl�@„0*ш@ƒ<Òzmw@„' Ñ‚sŽ@‚N"KÚ­z@ƒäb¿m@„KïÎEž’@„ù"ê«�@‚Ñ×h�@„¹ýs#¼Â@„–CGç@„c�FD†@…þ]­�…@‡|Å#»Z@†°j‡23I@†ñ?¦|š‘@†/H¾×@@‡›Þ{eÂ@†‡ÇØhÝa@†ãP¸
+2@†h2…P@‡bIÖœÔI@ˆïX ;@‰2èÍÁ`@‰×Z=g�÷@ˆÇ²ð¦�º@ˆÿ£Y/)@‰ãTæNÀ[@‰ñ	™ƒj®@‹;Gî«@�@‹ªR—»?è@Œ/¹žcý@�0›­bG@�Yª¾�Ð@�µOS•ß�@ŽšÙ˜q@ŽˆnÏGwf@�/!S/4¥@Ž} &"_@�㓽üàF@ŽfxeTƒò@�5NÌ€ô@�£öØÇf·@�Ýâ‘Ü@‘ž„T;ý¾@’q òÄ@‘@zŠìŠ+@’–¹äñ²F@“O¤ðDJ@’ý·.™ @“á
óÝï@’¨žXOà–@“ù�㇕@•mˆŠ‰;|@•vžó‡@•h;öV©G@•œøÏÜ.@–z¦°2íR@—¨\M'· @˜QRŸ"j@˜å#'4@™h„~ô°@šÐ*äÍus@›è×´I”@›jX»0(ô@œqñÏzb@›Ô8ì?|°@œæò¤Mºe@Ÿý��¡Sa@Ÿzõæ­Ã“@ c
+S`9@ ïõ=õpm@¡,PVk†@¡BŠ%²@¢<à
9èÕ@¢¥•5õ @£Ÿ§É‰{¯@¤¨óÓâ@£æø›p1©@¤ËÊ4@¥œ†|üñ@¥õ¿ÁwÚ„@§f£ø§I@¨±*�„´@¨"Š¯Ìtq@©Šòyó–˜@ªP­]…U@ªâꨟm­@¬b˜¯W:@­Þ'¶ÏS�@¯h¸Á½÷@¯ùÃ.Ïú@±T‹õçe¦@²¤ÎÇhUž@²ÄânL+@³ÍØS„ƒ@³ÌÉ"Mn@´ö‹ó,t“@µ…)2+ê@¶•�¡ÞÂ@¶ž[‡;÷1@·íÑgG@¸-”¼Q@º-%!ïÔ@º�yÊ83@»×M¸e¸@¼@"÷1ó�@»e0
úŠ@»Áõ×€ºþ@»ÖoY°Åù@¼ÉPål[@¾LÌ�M@¿Y‘Êëˆ@Á
+ˆu(d@Ãð|îCD@Äå˜Ãxþ@Ç
Ft£‡“@Ê"Žó×÷^@ÑQˆJå×@áï¾…¾Þö@õ£�®:’ŸAz¥TzÞAYKGáùA0ðbú”A	›3wq;œ@ô]«c¥}@Û�Š�†·@λE×(wÿ@ÇëHCê®@ÃTl™ }@ÁYÒñ¸R@¿•?®@¼ËŠI[@ºßgŸÓ¢@¹ž]GZå5@¸’[Ì\þ
+@¶°”ÜÆ\@¶u2nˆ/@µM~é€r­@µl/Ždá@´pkXŒ¤@³Ôƹqy@³jŠzçFR@²�¤Þ(å$@±à˜:U°@±x‰Ô¹™y@°± 
+òð@¯Æ4ÎË‹ñ@¯é7‰K!@¯=‚UÂj­@­õs÷m@­•�Ã^˜@«Þ“ÁÈQÜ@«.Ѫ*v@©§~,ÔÐÇ@© âè(s”@¨Ú¤}ÛÉ@¨¬±4c°ì@¨A`ÅX2@¨jWáe@¦JkÌEV@¥sßqÞzÂ@¤vßç@@£xÚ‚�V­@£Z‘TyUž@¢
5ïsY²@£I˜q¨v@¢'�P¿j@¡b&Ê×Y5@ ýAÒ¡µ@ È¶C‚šÎ@ &sE#š@ {ØÇ;	q@ i�¬¾
+0@ŸFÏí4B@�!½vÕÚ$@œÈ	=£üc@œ¢ýâc¹@œhh3@›ÈkÝÍœ.@š3ÒÊ°ƒÓ@˜æ¸èŸÙ+@™ºšÞP¢¿@—õ­!ò�ë@—TjÞØ?K@—Z&šjq@–dç=X¤@–vI‰�Å@–‚?ç"—@–@cÒteÝ@•pïÿ^ª‘@”à0Wœ´@”å€',	^@“÷­�ÙNl@“¿Î	5›@“‘·mÕ�@“ŠÆëL@“{QŒB@’	$,2à@’Ôø“=&Ã@‘ªÄI@–S@‘v@ºóÓB@‘zNI%@�ËâS
+¹@�uz®MãR@‘²&åÆ0@�•¡#Þ}@�¸·½¤@Ž0qT“Ì@�µW×XH@�œìŽJÙ
+@�í	ðÈ[@�´-å¨k$@Ž [›<«Ó@�[¥Cá@Œý|E¨]@‹¥ƒ-Ý�þ@‹À|€áÃj@ŠóÊ…—(•@Šu
á–ö@ŠöGàØ<@Š¶«Ç^m`@‰Óœ2OÎ@Š#{?�–7@‰„'³lÏ@‡Át'ûÔ @‰ß3>>óD@ˆÖB3Ì¢\@ˆw¶t…²x@ˆE´&·³§@‰ähðµŽ@‡',O¬»à@‡VÌB.ûÜ@ˆO÷Öû‚@ˆ5ÁŠU/Ð@†µ%”õ�s@‡%uî�Ð@†(·]Ä Ò@…à’¼­ß@‡$ù«×?@„z
�…z @†=똨}Y@…t*ÂMSs@„@m ü@„|—Ã<D@†„k^ï>@„Ø‚9þ@„~-¡Ùï�@„£è4â�
@…€b}_@@ƒ¬—¥ôÕ@‚óq±ãqí@‚ùèïR.Q@„ç6°v#J@‚àèåušÓ@ƒ5Ä”nØ@ƒ{¹lÍ´%@ƒÚzñ^6@‚~Gßý@ƒ1¯¨­»@‚Ùtê¿Œ@ƒ×&¸Þ ë@ƒ¸¨$§9@‚ÜÉÿSC@‚d8R[*�@‚6ª×†$¨@ƒa€¡•@‚þZˆko@�‰• j@‚\8$àB@‚IyEþ3@�p»Ú� /@�a	GÞ@‚3ë·°‰@‚8xf…ØÙ@�bMë�@�>|Ü@‚•nLÔö¥@‚¥=rqt@ƒi>8§

@‚Á[,Ù!î@ƒAˆ	0Íl@‚ä짙éj@‚À¸B|~Á@ƒëeòu«ò@‚ë3ú²ú~@ƒMÇÕa5"@�»ôÊ+u@�I¯CeN˜@�zFì	„8@‚¨ŽÝê£ì@�¦.–ƒz@ƒäÌðmÏ@‚ššÄK3@ƒ¡Å6ý`@�­=u.@�F³Z‹ö@ƒ úª(@‚`òS´_ð@�¡÷«êß@„³‰›4Ú@ƒ–þçÙ@�¦MǤý@„G¢a{�c@„"ü£p…7@ƒ]ÞYÇÑ@ƒ< 3Å� @ƒä8ÔA@„ÃcœÍÀ$@„]-èc@‚ì‡V¬�Æ@„.³å5D�@„ËÉK9I0@ƒ”RŽÜlÀ@„Ç>0@„S*«¡Û@…S¿[ä@†6C€l±	@…@�у„*@…GTH™rˆ
\ No newline at end of file
diff --git a/goodman_pipeline/images/__init__.py b/goodman_pipeline/images/__init__.py
index 20bff635..286a3bbc 100644
--- a/goodman_pipeline/images/__init__.py
+++ b/goodman_pipeline/images/__init__.py
@@ -1,6 +1,4 @@
-"""Goodman CCD Reduction Tool
+# flake8: noqa
 
-"""
-
-from .goodman_ccd import MainApp, get_args
+from .goodman_ccd import RedCCD, get_args
 from .image_processor import ImageProcessor
diff --git a/goodman_pipeline/images/data_classifier.py b/goodman_pipeline/images/data_classifier.py
index acf22eac..089c92fc 100644
--- a/goodman_pipeline/images/data_classifier.py
+++ b/goodman_pipeline/images/data_classifier.py
@@ -143,18 +143,18 @@ def _get_obs_technique(self):
 
         wavmodes = [str(w).upper() for w in self.objects_collection.wavmode.unique()]
         if len(wavmodes) == 1 and wavmodes[0] == 'IMAGING':
-                self.technique = 'Imaging'
+            self.technique = 'Imaging'
 
         elif 'IMAGING' in wavmodes and len(wavmodes) > 1:
-                self.log.error('There seems to be Imaging and Spectroscopic '
-                               'data. I will assume the Imaging data are '
-                               'acquisition images therefore they will be '
-                               'ignored.')
-                self.log.info("If you really have Imaging data, please process "
-                              "them in a separated folder.")
-                self.technique = 'Spectroscopy'
+            self.log.error('There seems to be Imaging and Spectroscopic '
+                           'data. I will assume the Imaging data are '
+                           'acquisition images therefore they will be '
+                           'ignored.')
+            self.log.info("If you really have Imaging data, please process "
+                          "them in a separated folder.")
+            self.technique = 'Spectroscopy'
         else:
-                self.technique = 'Spectroscopy'
+            self.technique = 'Spectroscopy'
         # inform the results, no need to return
         self.log.info('Detected {:s} Data from {:s} '
                       'Camera'.format(self.technique, self.instrument))
diff --git a/goodman_pipeline/images/goodman_ccd.py b/goodman_pipeline/images/goodman_ccd.py
index 3072ddca..dc2b9670 100755
--- a/goodman_pipeline/images/goodman_ccd.py
+++ b/goodman_pipeline/images/goodman_ccd.py
@@ -152,10 +152,10 @@ def get_args(arguments=None):
     return args
 
 
-class MainApp(object):
+class RedCCD(object):
 
     def __init__(self):
-        """This method initializes the MainApp class
+        """This method initializes the RedCCD class
 
         The main task of this method is to call the get_args function that
         returns an argparse object.
@@ -174,7 +174,7 @@ def __init__(self):
         self._pipeline_version = __version__
 
     def __call__(self, args=None):
-        """Call method for MainApp
+        """Call method for RedCCD
 
         From the arguments this method finds the raw_path attribute and checks
         its contents for the existence of files containing the '.fits' string.
@@ -392,5 +392,5 @@ def _check_args(self):
 
 
 if __name__ == '__main__':  # pragma: no cover
-    main_app = MainApp()
-    main_app()
+    RED_CCD = RedCCD()
+    RED_CCD()
diff --git a/goodman_pipeline/images/night_organizer.py b/goodman_pipeline/images/night_organizer.py
index 3f34af0f..8354a51b 100644
--- a/goodman_pipeline/images/night_organizer.py
+++ b/goodman_pipeline/images/night_organizer.py
@@ -95,7 +95,7 @@ def __call__(self):
             _imaging_file = self.file_collection[
                 self.file_collection.wavmode == 'IMAGING']
             if not _imaging_file.empty:
-                self.log.warning("Ignoring all Imaging data. Assuming they are "
+                self.log.warning("Ignoring all files where `WAVMODE` is `IMAGING`. Assuming they are "
                                  "not science exposures.")
                 self.log.info("If any of the files listed below is a science "
                               "file, please process it/them in a separate "
@@ -108,8 +108,8 @@ def __call__(self):
                 self.file_collection.wavmode != 'IMAGING'].reset_index(drop=True)
 
         elif self.technique == 'Imaging':
-            self.log.warning("Ignoring all files where `wavmode` is not "
-                             "Imaging.")
+            self.log.warning("Ignoring all files where `WAVMODE` is not "
+                             "IMAGING.")
             self.file_collection = self.file_collection[
                 self.file_collection.wavmode == 'IMAGING'].reset_index(drop=True)
 
diff --git a/goodman_pipeline/images/tests/test_goodman_ccd.py b/goodman_pipeline/images/tests/test_goodman_ccd.py
index 91d62e1f..e677e5c0 100644
--- a/goodman_pipeline/images/tests/test_goodman_ccd.py
+++ b/goodman_pipeline/images/tests/test_goodman_ccd.py
@@ -1,18 +1,18 @@
 from __future__ import absolute_import
 from unittest import TestCase, skip
 
-from ..goodman_ccd import get_args, MainApp
+from ..goodman_ccd import get_args, RedCCD
 
 
 class MainAppTest(TestCase):
 
     def setUp(self):
-        self.main_app = MainApp()
+        self.red_ccd = RedCCD()
 
     def test___call__(self):
-        self.assertRaises(SystemExit, self.main_app)
+        self.assertRaises(SystemExit, self.red_ccd)
 
     def test___call___show_version(self):
         arguments = ['--version']
         args = get_args(arguments=arguments)
-        self.assertRaises(SystemExit, self.main_app, args)
+        self.assertRaises(SystemExit, self.red_ccd, args)
diff --git a/goodman_pipeline/scripts/redccd b/goodman_pipeline/scripts/redccd
index 4f1115ca..b2ce6d9f 100755
--- a/goodman_pipeline/scripts/redccd
+++ b/goodman_pipeline/scripts/redccd
@@ -3,7 +3,7 @@ from __future__ import (absolute_import, division, print_function,
                         unicode_literals)
 
 from goodman_pipeline.core import setup_logging
-from goodman_pipeline.images import MainApp
+from goodman_pipeline.images import RedCCD
 
 import sys
 
@@ -13,5 +13,5 @@ if '-h' not in sys.argv and \
     setup_logging()
 
 if __name__ == '__main__':
-    GOODMAN_CCD = MainApp()
+    GOODMAN_CCD = RedCCD()
     GOODMAN_CCD()
diff --git a/goodman_pipeline/scripts/redspec b/goodman_pipeline/scripts/redspec
index dfed4911..028cd2a5 100755
--- a/goodman_pipeline/scripts/redspec
+++ b/goodman_pipeline/scripts/redspec
@@ -3,7 +3,7 @@ from __future__ import (absolute_import, division, print_function,
                         unicode_literals)
 
 from goodman_pipeline.core import setup_logging
-from goodman_pipeline.spectroscopy import MainApp
+from goodman_pipeline.spectroscopy import RedSpec
 
 import sys
 
@@ -14,5 +14,5 @@ if '-h' not in sys.argv and \
 
 
 if __name__ == '__main__':
-    GOODMAN_SPECTROSCOPY = MainApp()
+    GOODMAN_SPECTROSCOPY = RedSpec()
     GOODMAN_SPECTROSCOPY()
diff --git a/goodman_pipeline/spectroscopy/__init__.py b/goodman_pipeline/spectroscopy/__init__.py
index 3674e444..1ce52103 100644
--- a/goodman_pipeline/spectroscopy/__init__.py
+++ b/goodman_pipeline/spectroscopy/__init__.py
@@ -1,6 +1,6 @@
-"""Goodman Spectroscopic Tools
+# flake8: noqa
 
-"""
 from __future__ import absolute_import
-from .redspec import MainApp, get_args
+from .redspec import RedSpec, get_args
 from .wavelength import WavelengthCalibration
+from ._interactive_wavelength import InteractiveWavelengthCalibration
diff --git a/goodman_pipeline/spectroscopy/_interactive_wavelength.py b/goodman_pipeline/spectroscopy/_interactive_wavelength.py
new file mode 100644
index 00000000..2c25bc7f
--- /dev/null
+++ b/goodman_pipeline/spectroscopy/_interactive_wavelength.py
@@ -0,0 +1,1577 @@
+from __future__ import (absolute_import, division, print_function,
+                        unicode_literals)
+
+import logging
+import os
+import re
+import sys
+
+import astropy.units as u
+import matplotlib.pyplot as plt
+import matplotlib.ticker as mtick
+import numpy as np
+from astropy.convolution import convolve, Gaussian1DKernel
+from astropy.modeling import models, fitting
+from astropy.stats import sigma_clip
+from ccdproc import CCDData
+
+from ..wcs.wcs import WCS
+from ..core import (evaluate_wavelength_solution,
+                    get_lines_in_lamp,
+                    get_spectral_characteristics,
+                    record_wavelength_solution_evaluation)
+
+from ..core import ReferenceData
+
+FORMAT = '%(levelname)s:%(filename)s:%(module)s: 	%(message)s'
+logging.basicConfig(level=logging.DEBUG, format=FORMAT)
+log = logging.getLogger(__name__)
+
+
+SHOW_PLOTS = False
+
+
+class InteractiveWavelengthCalibration(object):
+    """Wavelength Calibration Class
+
+    The WavelengthCalibration class is instantiated for each of the science
+    images, which are treated as a "science object". In this first release it
+    can find a wavelength solution for a given comparison lamp using an
+    interactive GUI based on Matplotlib. Although it works very good, for the
+    next release there is a plan for creating an independent GUI based on QT in
+    order to work better in different screen sizes and other topic such as
+    showing warnings, messages and help.
+
+    This class takes 1D spectrum with no wavelength calibration and returns fits
+    files with wavelength solutions using the FITS standard for linear
+    solutions. Goodman spectra are slightly non-linear therefore they are
+    linearized and smoothed before they are returned for the user.
+
+    """
+
+    def __init__(self):
+        """Wavelength Calibration Class Initialization
+
+        A WavelengthCalibration class is instantiated for each science target
+        being processed, i.e. every science image.
+
+        Notes:
+            This class violates some conventions as for length and number of
+            attributes is concerned. Solving this is part of a prioritary plans
+            for next release.
+
+        Args:
+            args (object): Runtime arguments.
+
+        """
+
+        # TODO - Documentation missing
+        self.lamp = None
+        self.poly_order = 2
+        self.wcs = WCS()
+        self._wsolution = None
+        self._rms_error = None
+        self._n_rejections = None
+        self._n_points = None
+        # print(self.args.reference_dir)
+        self.reference_data = None
+        # self.science_object = science_object
+        self.slit_offset = None
+        self.interpolation_size = 200
+        self.line_search_method = 'derivative'
+        """Instrument configuration and spectral characteristics"""
+        self.pixel_size = 15 * u.micrometer
+        self.pixel_scale = 0.15 * u.arcsec
+        self.goodman_focal_length = 377.3 * u.mm
+        self.grating_frequency = None
+        self.grating_angle = None
+        self.camera_angle = None
+        self.serial_binning = None
+        self.parallel_binning = None
+
+        self.pixel_count = None
+        self.alpha = None
+        self.beta = None
+        self.center_wavelength = None
+        self.blue_limit = None
+        self.red_limit = None
+        """Interactive wavelength finding"""
+        self.reference_marks_x = []
+        self.reference_marks_y = []
+        self.raw_data_marks_x = []
+        self.raw_data_marks_y = []
+        self.click_input_enabled = True
+        self.reference_bb = None
+        self.raw_data_bb = None
+        self.contextual_bb = None
+        self.i_fig = None
+        self.ax1 = None
+        self.ax2 = None
+        self.ax3 = None
+        self.ax4 = None
+        self.ax4_plots = None
+        self.ax4_com = None
+        self.ax4_rlv = None
+        self.legends = None
+        self.points_ref = None
+        self.points_raw = None
+        self.line_raw = None
+        self.line_list = []
+        self.line_pixels = []
+        self.line_angstroms = []
+        self.ref_filling_value = 1000
+        self.raw_filling_value = 1000
+        self.events = True
+        self.first = True
+        self.evaluation_comment = None
+        # self.binning = self.lamp.header[]
+        self.pixel_center = []
+        """this data must come parsed"""
+        # self.science_pack = sci_pack
+        # self.sci_filename = self.science_object.file_name
+        # self.history_of_lamps_solutions = {}
+        self._reference_lamp = None
+        self.reference_solution = None
+
+    def __call__(self,
+                 ccd: CCDData,
+                 comparison_lamp: CCDData,
+                 save_data_to,
+                 reference_data,
+                 object_number=None,
+                 output_prefix='w',
+                 wsolution_obj=None,
+                 linearize=False,
+                 plot_results=False,
+                 save_plots=False,
+                 plots=False):
+        """Call method for the WavelengthSolution Class
+
+        It takes extracted data and produces wavelength calibrated 1D FITS file.
+        The call method takes care of the order and logic needed to call the
+        different methods. A wavelength solution can be recycled for the next
+        science object. In that case, the wavelength solution is parsed as an
+        argument and then there is no need to calculate it again. The recycling
+        part has to be implemented in the caller function.
+
+        Args:
+            ccd (object): a ccdproc.CCDData instance
+            comp_list (list): Comparison lamps for the science target that will
+                be processed here. Every element of this list is an instance of
+                ccdproc.CCDData.
+            object_number (int): In case of multiple detections in a single
+                image this number will be added as a suffix before `.fits` in
+                order to allow for multiple 1D files. Default value is None.
+            wsolution_obj (object): Mathematical model of the wavelength
+                solution if exists. If it doesn't is a None
+
+        Returns:
+            wavelength_solution (object): The mathematical model of the
+                wavelength solution. If it fails to create it will return a
+                None element.
+
+        """
+        assert isinstance(ccd, CCDData)
+        assert isinstance(comparison_lamp, CCDData)
+
+        self._save_data_to = save_data_to
+
+        if os.path.isdir(reference_data):
+            self.reference_data = ReferenceData(reference_dir=reference_data)
+        else:
+            log.error(f"Reference Data Directory provided  :{reference_data} does not exist.")
+
+        self.i_fig = None
+
+        log.info('Processing Science Target: '
+                 '{:s}'.format(ccd.header['OBJECT']))
+
+        self.lamp = comparison_lamp
+
+        self.line_list = self.reference_data.get_line_list_by_lamp(ccd=self.lamp)
+        try:
+            self.calibration_lamp = self.lamp.header['GSP_FNAM']
+        except KeyError:
+            self.calibration_lamp = ''
+
+        self.raw_pixel_axis = range(self.lamp.shape[0])
+        self.lamp_name = self.lamp.header['OBJECT']
+
+        log.info('Processing Comparison Lamp: '
+                 '{:s}'.format(self.lamp_name))
+        self.lines_center = get_lines_in_lamp(ccd=self.lamp)
+        self.spectral = get_spectral_characteristics(
+            ccd=self.lamp,
+            pixel_size=self.pixel_size,
+            instrument_focal_length=self.goodman_focal_length)
+        object_name = ccd.header['OBJECT']
+        # try:
+        self._interactive_wavelength_solution(
+            object_name=object_name)
+        # except TypeError as error:
+        #     log.error(error)
+
+        if self._wsolution is not None:
+            if plots or plot_results or save_plots:
+
+                plt.close(1)
+                if not plots:
+                    plt.ion()
+                    # plt.show()
+                else:
+                    plt.ioff()
+
+                wavelength_axis = self._wsolution(range(ccd.data.size))
+
+                object_name = ccd.header['OBJECT']
+                grating = ccd.header['GRATING']
+
+                fig_title = 'Wavelength Calibrated Data : ' \
+                            '{:s}\n{:s}'.format(object_name, grating)
+
+                fig, ax1 = plt.subplots(1)
+                fig.canvas.set_window_title(ccd.header['GSP_FNAM'])
+                # ax1 = fig.add_subplot(111)
+                manager = plt.get_current_fig_manager()
+                if plt.get_backend() == u'GTK3Agg':
+                    manager.window.maximize()
+                elif plt.get_backend() == u'Qt5Agg':
+                    manager.window.showMaximized()
+
+                ax1.set_title(fig_title)
+                ax1.set_xlabel('Wavelength (Angstrom)')
+                ax1.set_ylabel('Intensity (ADU)')
+                ax1.set_xlim((wavelength_axis[0], wavelength_axis[-1]))
+                # plt.close(1)
+
+                ax1.plot(wavelength_axis,
+                         ccd.data,
+                         color='k',
+                         label='Data')
+
+                ax1.legend(loc='best')
+                fig.tight_layout()
+                if save_plots:
+                    log.info('Saving plots')
+                    plots_dir = os.path.join(save_data_to, 'plots')
+                    if not os.path.isdir(plots_dir):
+                        os.mkdir(plots_dir)
+                    plot_name = re.sub('.fits',
+                                       '.png',
+                                       ccd.header['GSP_FNAM'])
+                    plot_path = os.path.join(plots_dir, plot_name)
+                    # print(plot_path)
+                    plt.savefig(plot_path, dpi=300)
+                    log.info('Saved plot as {:s} file '
+                             'DPI=300'.format(plot_name))
+
+                if plot_results:
+                    plt.show()
+                else:
+                    plt.draw()
+                    plt.pause(2)
+                    plt.ioff()
+
+            return self._wsolution
+        else:
+            log.error('It was not possible to get a wavelength '
+                      'solution from this lamp.')
+            return None
+
+    @property
+    def reference_lamp(self):
+        return self._reference_lamp
+
+    @property
+    def wavelength_solution(self):
+        return self._wsolution
+
+    @property
+    def wavelength_solution_evaluation(self):
+        return self._rms_error, self._n_points, self._n_rejections
+
+    def create_reference_lamp(self):
+        log.info("Saving as template")
+        self.lamp = record_wavelength_solution_evaluation(ccd=self.lamp,
+                                                          rms_error=self._rms_error,
+                                                          n_points=self._n_points,
+                                                          n_rejections=self._n_rejections)
+
+        self.reference_data.create_reference_lamp(
+            ccd=self.lamp,
+            wavelength_solution=self._wsolution,
+            lines_pixel=self.line_pixels,
+            lines_angstrom=self.line_angstroms)
+
+    def get_best_filling_value(self, data):
+        """Find the best y-value to locate marks
+
+        The autmatically added points will be placed at a fixed location in the
+        y-axis. This value is calculated by doing a 2-sigma clipping with 5
+        iterations. Then the masked out values are removed and the median is
+        calculated.
+
+        Args:
+            data (array): Array of 1D data
+
+        Returns:
+            Median value of clipped data.
+
+        """
+        clipped_data = sigma_clip(data, sigma=2, maxiters=5)
+        clean_data = clipped_data[~clipped_data.mask]
+        log.debug("Found best filling value"
+                       " at {:f}".format(np.median(clean_data)))
+        return np.median(clean_data)
+
+    def recenter_lines(self, data, lines, plots=False):
+        """Finds the centroid of an emission line
+
+        For every line center (pixel value) it will scan left first until the
+        data stops decreasing, it assumes it is an emission line and then will
+        scan right until it stops decreasing too. Defined those limits it will
+        use the line data in between and calculate the centroid.
+
+        Notes:
+            This method is used to recenter relatively narrow lines only, there
+            is a special method for dealing with broad lines.
+
+        Args:
+            data (array): numpy.ndarray instance. or the data attribute of a
+                ccdproc.CCDData instance.
+            lines (list): A line list in pixel values.
+            plots (bool): If True will plot spectral line as well as the input
+                center and the recentered value.
+
+        Returns:
+            A list containing the recentered line positions.
+
+        """
+        new_center = []
+        x_size = data.shape[0]
+        median = np.median(data)
+        for line in lines:
+            # TODO (simon): Check if this definition is valid, so far is not
+            # TODO (cont..): critical
+            left_limit = 0
+            right_limit = 1
+            condition = True
+            left_index = int(line)
+
+            while condition and left_index - 2 > 0:
+
+                if (data[left_index - 1] > data[left_index]) and \
+                        (data[left_index - 2] > data[left_index - 1]):
+
+                    condition = False
+                    left_limit = left_index
+
+                elif data[left_index] < median:
+                    condition = False
+                    left_limit = left_index
+
+                else:
+                    left_limit = left_index
+
+                left_index -= 1
+
+            # id right limit
+            condition = True
+            right_index = int(line)
+            while condition and right_index + 2 < x_size - 1:
+
+                if (data[right_index + 1] > data[right_index]) and \
+                        (data[right_index + 2] > data[right_index + 1]):
+
+                    condition = False
+                    right_limit = right_index
+
+                elif data[right_index] < median:
+                    condition = False
+                    right_limit = right_index
+
+                else:
+                    right_limit = right_index
+                right_index += 1
+            index_diff = [abs(line - left_index), abs(line - right_index)]
+
+            sub_x_axis = range(line - min(index_diff),
+                               (line + min(index_diff)) + 1)
+
+            sub_data = data[line - min(index_diff):(line + min(index_diff)) + 1]
+            centroid = np.sum(sub_x_axis * sub_data) / np.sum(sub_data)
+
+            # checks for asymmetries
+            differences = [abs(data[line] - data[left_limit]),
+                           abs(data[line] - data[right_limit])]
+
+            if max(differences) / min(differences) >= 2.:
+                if plots:
+                    plt.axvspan(line - 1, line + 1, color='g', alpha=0.3)
+                new_center.append(line)
+            else:
+                new_center.append(centroid)
+        if plots:
+            fig = plt.figure(9)
+            fig.canvas.set_window_title('Lines Detected in Lamp')
+            plt.axhline(median, color='b')
+
+            plt.plot(self.raw_pixel_axis,
+                     data,
+                     color='k',
+                     label='Lamp Data')
+
+            for line in lines:
+
+                plt.axvline(line + 1,
+                            color='k',
+                            linestyle=':',
+                            label='First Detected Center')
+
+            for center in new_center:
+
+                plt.axvline(center,
+                            color='k',
+                            linestyle='.-',
+                            label='New Center')
+
+            plt.show()
+        return new_center
+
+    @staticmethod
+    def recenter_broad_lines(lamp_data, lines, order):
+        """Recenter broad lines
+
+        Notes:
+            This method is used to recenter broad lines only, there is a special
+            method for dealing with narrower lines.
+
+        Args:
+            lamp_data (array): numpy.ndarray instance. It contains the lamp
+                data.
+            lines (list): A line list in pixel values.
+            order (float): A rough estimate of the FWHM of the lines in pixels
+                in the data. It is calculated using the slit size divided by the
+                pixel scale multiplied by the binning.
+
+        Returns:
+            A list containing the recentered line positions.
+
+        """
+        # TODO (simon): use slit size information for a square function
+        # TODO (simon): convolution
+        new_line_centers = []
+        gaussian_kernel = Gaussian1DKernel(stddev=2.)
+        lamp_data = convolve(lamp_data, gaussian_kernel)
+        for line in lines:
+            lower_index = max(0, int(line - order))
+            upper_index = min(len(lamp_data), int(line + order))
+            lamp_sample = lamp_data[lower_index:upper_index]
+            x_axis = np.linspace(lower_index, upper_index, len(lamp_sample))
+            line_max = np.max(lamp_sample)
+
+            gaussian_model = models.Gaussian1D(amplitude=line_max,
+                                               mean=line,
+                                               stddev=order)
+
+            fit_gaussian = fitting.LevMarLSQFitter()
+            fitted_gaussian = fit_gaussian(gaussian_model, x_axis, lamp_sample)
+            new_line_centers.append(fitted_gaussian.mean.value)
+            # if self.args.debug_mode:
+            #     plt.plot(x_axis, lamp_sample)
+            #     plt.plot(x_axis, gaussian_model(x_axis))
+            #     plt.plot(x_axis, fitted_gaussian(x_axis), color='k')
+            #     plt.axvline(line)
+            #     plt.show()
+        return new_line_centers
+
+    def recenter_line_by_data(self, data_name, x_data):
+        """Finds a better center for a click-selected line
+
+        This method is called by another method that handles click events. An
+        argument is parsed that will tell which plot was clicked and what is
+        the x-value in data coordinates. Then the closest pixel center will be
+        found and from there will extract a 20 pixel wide sample of the data
+        (this could be a future improvement: the width of the extraction should
+        depend on the FWHM of the lines). The sample of the data is used to
+        calculate a centroid (center of mass) which is a good approximation but
+        could be influenced by data shape or if the click was too far
+        (unquantified yet). That is why for the reference data, a database of
+        laboratory line center will be
+        used and for raw data the line centers are calculated earlier in the
+        process, independently of any human input.
+
+        It wil also plot the sample, the centroid and the reference line center
+        at the fourth subplot, bottom right corner.
+
+        Args:
+            data_name (str): 'reference' or 'raw-data' is where the click was
+                done
+            x_data (float): click x-axis value in data coordinates
+
+        Returns:
+            reference_line_value (float): The value of the line center that will
+            be used later to do the wavelength fit
+
+        """
+        if data_name == 'reference':
+            print(f"{self.reference_solution=}")
+
+            reference_line_index = np.argmin(
+                abs(self.line_list - x_data))
+
+            reference_line_value = self.line_list[reference_line_index]
+
+            if not self.reference_solution:
+                return reference_line_value
+
+            pseudo_center = np.argmin(abs(self.reference_solution[0] - x_data))
+
+            sub_x = self.reference_solution[0][
+                    pseudo_center - 10: pseudo_center + 10]
+
+            sub_y = self.reference_solution[1][
+                    pseudo_center - 10: pseudo_center + 10]
+
+            center_of_mass = np.sum(sub_x * sub_y) / np.sum(sub_y)
+            # print 'centroid ', center_of_mass
+            # plt.figure(3)
+            # if self.ax4_plots is not None or self.ax4_com is not None or
+            # self.ax4_rlv is not None:
+            try:
+                self.ax4.cla()
+                self.ax4.relim()
+            except NameError as err:
+                log.error(err)
+
+            self.ax4.set_title('Reference Data Clicked Line')
+            self.ax4.set_xlabel('Wavelength (Angstrom)')
+            self.ax4.set_ylabel('Intensity (Counts)')
+
+            self.ax4_plots = self.ax4.plot(sub_x,
+                                           sub_y,
+                                           color='k',
+                                           label='Data')
+
+            self.ax4_rlv = self.ax4.axvline(reference_line_value,
+                                            linestyle='-',
+                                            color='r',
+                                            label='Reference Line Value')
+
+            self.ax4_com = self.ax4.axvline(center_of_mass,
+                                            linestyle='--',
+                                            color='b',
+                                            label='Centroid')
+
+            self.ax4.yaxis.set_major_formatter(mtick.FormatStrFormatter('%.1e'))
+            self.ax4.legend(loc=3, framealpha=0.5)
+            self.i_fig.canvas.draw()
+            # return center_of_mass
+            return reference_line_value
+        elif data_name == 'raw-data':
+            pseudo_center = np.argmin(abs(self.raw_pixel_axis - x_data))
+            raw_line_index = np.argmin(abs(self.lines_center - x_data))
+            raw_line_value = self.lines_center[raw_line_index]
+            # print(raw_line_value)
+            sub_x = self.raw_pixel_axis[pseudo_center - 10: pseudo_center + 10]
+            sub_y = self.lamp.data[pseudo_center - 10: pseudo_center + 10]
+            center_of_mass = np.sum(sub_x * sub_y) / np.sum(sub_y)
+            # print 'centroid ', center_of_mass
+            # plt.figure(3)
+            # if self.ax4_plots is not None or self.ax4_com is not None or
+            # self.ax4_rlv is not None:
+            try:
+                self.ax4.cla()
+                self.ax4.relim()
+            except NameError as err:
+                log.error(err)
+            self.ax4.set_title('Raw Data Clicked Line')
+            self.ax4.set_xlabel('Pixel Axis')
+            self.ax4.set_ylabel('Intensity (Counts)')
+
+            self.ax4_plots = self.ax4.plot(sub_x,
+                                           sub_y,
+                                           color='k',
+                                           label='Data')
+
+            self.ax4_rlv = self.ax4.axvline(raw_line_value,
+                                            linestyle='-',
+                                            color='r',
+                                            label='Line Center')
+            self.ax4_com = self.ax4.axvline(center_of_mass,
+                                            linestyle='--',
+                                            color='b',
+                                            label='Centroid')
+
+            self.ax4.yaxis.set_major_formatter(mtick.FormatStrFormatter('%.1e'))
+            self.ax4.legend(loc=3, framealpha=0.5)
+            self.i_fig.canvas.draw()
+            # return center_of_mass
+            return raw_line_value
+        else:
+            log.error('Unrecognized data name')
+
+    def _interactive_wavelength_solution(self, object_name=''):
+        """Find the wavelength solution interactively
+
+        This method uses the graphical capabilities of matplotlib in particular
+        the user interface (UI) capabilities such as click and key-pressed
+        events. We could say that it implements a matplotlib Graphical User
+        Interface. There are some limitation though, for instance, the access to
+        a better formatted help text.
+
+        It will display four plots of the same height but their width have a
+        4:1 ratio being the leftmost the wider.
+
+        Top Left Plot: Displays the spectrum of the lamp we want to calibrate,
+        or as it is called in the plot, the Raw Data, therefore the axis are
+        intensity (ADU) versus dispersion (pixels). There will be red vertical
+        dashed lines that are lines detected by pipeline. If you see the a line
+        without a red dashed line it means it was not detected.
+
+        Bottom Left Plot: Displays the reference lamp data, therefore the axis
+        are intensity (ADU) versus wavelength (Angstrom). In this case there are
+        vertical dotted lines plotted with a relatively low alpha value. They
+        represent reference laboratory lines obtained from the NIST database at
+        https://physics.nist.gov/PhysRefData/ASD/lines_form.html.
+
+        Top Right Plot: This is a quick reference help text. The formatting of
+        the text is quite difficult here due to matplotlib's own limitations.
+        This text is also displayed on the terminal.
+
+        Bottom Right Plot: This is a dynamic plot since it shows different kind
+        of information. First it shows short messages, such as warnings, errors,
+        or general information. Once you select a line it will show a zoomed
+        version of the line plus the reference value chosen as well as were the
+        click was done. And finally, it shows the dispersion of the wavelength
+        solution. This could be one of the most useful plots in the entire
+        screen.
+
+        Usage: A quick reference of the instructions is shown in the Top Right
+        Plot, but in general you have to select the matching lines in both data
+        plots this will create a table of pixels versus angstrom which at its
+        roots a wavelength solution. Then this will have to be translated to a
+        mathematical model. Having this mathematical model the wavelength
+        solution can be applied, evaluated etc. Among the features implemented
+        you can:
+          - Delete a line or a matching pair.
+          - Find more lines automatically once you have a decent wavelength
+            solution.
+          - Remove all the automatically added lines at once, this is useful in
+            some cases when adding more lines actually makes the solution worst.
+          - Find the RMS Error of the solution
+          - Remove ALL the points at a given point to start over.
+          - Fit a wavelength solution
+
+
+
+        Notes:
+            This method uses the Qt5Agg backend, in theory it could also work
+            with GTK3Agg but it is being forced to use Qt5Agg.
+
+        """
+        log.debug("Starting interactive wavelength calibration")
+        plt.switch_backend('Qt5Agg')
+
+        # disable full screen to allow the use of f for fitting the solution
+
+        plt.rcParams['keymap.fullscreen'] = [u'ctrl+f']
+
+        try:
+            self._reference_lamp = self.reference_data.get_reference_lamp(
+                header=self.lamp.header)
+        except NotImplementedError:
+            self._reference_lamp = self.reference_data.get_reference_lamps_by_name(
+                lamp_name=self.lamp.header['OBJECT'])
+            log.warning('Could not find a perfect match for reference '
+                             'data')
+            # reference_file = None
+            # log.critical('Could not find a comparison lamp in the
+            # reference.')
+
+        # reference_file = self.reference_data.get_reference_lamps_by_name(
+        #     self.lamp_name)
+
+        if self._reference_lamp is not None:
+            log.info('Using reference file: {:s}'.format(self._reference_lamp.header['GSP_FNAM']))
+            reference_plots_enabled = True
+
+            self.reference_solution = self.wcs.read_gsp_wcs(ccd=self._reference_lamp)
+            print(self.reference_solution)
+        else:
+            reference_plots_enabled = False
+            log.error('Please Check the OBJECT Keyword of your reference '
+                           'data')
+
+        # update filling value
+        self.raw_filling_value = self.get_best_filling_value(
+            data=self.lamp.data)
+
+        if self._reference_lamp is not None:
+            self.ref_filling_value = self.get_best_filling_value(data=self._reference_lamp.data)
+
+        # ------- Plots -------
+        self.i_fig, ((self.ax1, self.ax2), (self.ax3, self.ax4)) = \
+            plt.subplots(2,
+                         2,
+                         gridspec_kw={'width_ratios': [4, 1]})
+
+        self.i_fig.canvas.setWindowTitle('Science Target: {:s}'.format(
+            object_name))
+
+        manager = plt.get_current_fig_manager()
+        if plt.get_backend() == u'GTK3Agg':
+            manager.window.maximize()
+        elif plt.get_backend() == u'Qt5Agg':
+            manager.window.showMaximized()
+
+        self.ax1.set_title('Raw Data - {:s}\n{:s} - {:s}'.format(
+            self.lamp_name,
+            self.lamp.header['GRATING'],
+            self.lamp.header['SLIT']))
+
+        self.ax1.set_xlabel('Pixels')
+        self.ax1.set_ylabel('Intensity (counts)')
+        self.ax1.plot([], linestyle='--', color='r', label='Detected Lines')
+        for idline in self.lines_center:
+            self.ax1.axvline(idline, linestyle='--', color='r')
+
+        self.ax1.plot(self.raw_pixel_axis,
+                      self.lamp.data,
+                      color='k',
+                      label='Raw Data')
+
+        self.ax1.set_xlim((0, len(self.lamp.data)))
+        self.ax1.yaxis.set_major_formatter(mtick.FormatStrFormatter('%.1e'))
+        self.ax1.legend(loc=2)
+
+        # Update y limits to have an extra 5% to top and bottom
+        ax1_ylim = self.ax1.get_ylim()
+        ax1_y_range = ax1_ylim[1] - ax1_ylim[0]
+
+        self.ax1.set_ylim((ax1_ylim[0] - 0.05 * ax1_y_range,
+                           ax1_ylim[1] + 0.05 * ax1_y_range))
+
+        self.ax3.set_title('Reference Data - {:s}'.format(self.lamp_name))
+        self.ax3.set_xlabel('Wavelength (Angstrom)')
+        self.ax3.set_ylabel('Intensity (counts)')
+        self.ax3.set_xlim((self.spectral['blue'].value, self.spectral['red'].value))
+        self.ax3.yaxis.set_major_formatter(mtick.FormatStrFormatter('%.1e'))
+
+        self.ax3.plot([],
+                      linestyle=':',
+                      color='r',
+                      label='Reference Line Values')
+
+        for rline in self.line_list:
+            self.ax3.axvline(rline, linestyle=':', color='r')
+
+        if reference_plots_enabled:
+
+            self.ax3.plot(self.reference_solution[0],
+                          self.reference_solution[1],
+                          color='k',
+                          label='Reference Lamp Data')
+
+        self.ax3.legend(loc=2)
+
+        # Update y limits to have an extra 5% to top and bottom
+        ax3_ylim = self.ax3.get_ylim()
+        ax3_y_range = ax3_ylim[1] - ax3_ylim[0]
+
+        self.ax3.set_ylim((ax3_ylim[0] - 0.05 * ax3_y_range,
+                           ax3_ylim[1] + 0.05 * ax3_y_range))
+        # print(ax3_ylim)
+
+        self.display_help_text()
+
+        # zoomed plot
+        self.display_onscreen_message('Use middle button click to select a '
+                                      'line')
+
+        plt.subplots_adjust(left=0.05,
+                            right=0.99,
+                            top=0.96,
+                            bottom=0.04,
+                            hspace=0.17,
+                            wspace=0.11)
+
+        self.raw_data_bb = self.ax1.get_position()
+        self.reference_bb = self.ax3.get_position()
+        self.contextual_bb = self.ax4.get_position()
+
+        # if self.click_input_enabled:
+        self.i_fig.canvas.mpl_connect('button_press_event', self._on_click)
+        self.i_fig.canvas.mpl_connect('key_press_event', self._key_pressed)
+        # print self._wsolution
+        plt.show()
+        return True
+
+    def _on_click(self, event):
+        """Handles Click events for Interactive Mode
+
+        Calls the method register_mark
+
+        Args:
+            event (object): Click event
+        """
+        if event.button == 3:
+            self._register_mark(event)
+        # TODO (simon): Make sure the text below is useless
+        # else:
+        #     print(event.button)
+        # elif event.button == 3:
+        #     if len(self.reference_marks_x) == len(self.raw_data_marks_x):
+        #         self.click_input_enabled = False
+        #         log.info('Leaving interactive mode')
+        #     else:
+        #         if len(self.reference_marks_x) < len(self.raw_data_marks_x):
+        #             log.info('There is {:d} click missing in the '
+        #                      'Reference plot'.format(
+        #                 len(self.raw_data_marks_x) -
+        #                 len(self.reference_marks_x)))
+        #         else:
+        #             log.info('There is {:d} click missing in the '
+        #                      'New Data plot'.format(
+        #                 len(self.reference_marks_x) -
+        #                 len(self.raw_data_marks_x)))
+
+    def _key_pressed(self, event):
+        """Key event handler
+
+        There are several key events that need to be taken care of.
+        See a brief description of each one of them below:
+
+        F1 or ?: Prints a help message
+        F2 or f: Fit wavelength solution model.
+        F3 or a: Find new lines.
+        F4: Evaluate solution
+        F6 or l: Linearize data although this is done automatically after the
+        wavelength function is fit
+        d: deletes closest point
+        ctrl+d: deletes all recorded marks
+        ctrl+z: Reverts the action of F3 or a.
+        Middle Button Click or m: records data location.
+        Enter: Close figure and apply solution if exists.
+        Shift+Enter: Close the program with sys.exit(0)
+
+        Notes:
+            This method must be simplified
+
+        Args:
+            event (object): Key pressed event
+
+        """
+        self.events = True
+        if event.key == 'f1' or event.key == '?':
+            log.info('Print help regarding interactive mode')
+            print("F1 or ?: Prints Help.")
+            print("F2 or f: Fit wavelength solution model.")
+            print("F3 or a: Find new lines.")
+            print("F4: Evaluate solution")
+            print("F6 or l: Linearize data (for testing not definitive)")
+            print("d: deletes closest point")
+            # print("l : resample spectrum to a linear dispersion axis")
+            print("ctrl+d: deletes all recorded marks")
+            print("ctrl+t: Save as template")
+            print("ctrl+z: Go back to previous solution "
+                  "(deletes automatic added points")
+            print('Right Button Click or p: records data location.')
+            print("Enter: Close figure and apply solution if exists.")
+        elif event.key == 'f2' or event.key == 'f':
+            log.debug('Calling function to fit wavelength Solution')
+            self.fit_pixel_to_wavelength()
+            self._plot_raw_over_reference()
+        elif event.key == 'f3' or event.key == 'a':
+            if self._wsolution is not None:
+                self._find_more_lines()
+                self._update_marks_plot('reference')
+                self._update_marks_plot('raw_data')
+            else:
+                log.debug('Wavelength solution is None')
+        elif event.key == 'f4':
+            if self._wsolution is not None and len(self.raw_data_marks_x) > 0:
+                self.evaluate_solution(plots=True)
+        elif event.key == 'f5' or event.key == 'd':
+            # TODO (simon): simplify this code.
+
+            figure_x, figure_y = \
+                self.i_fig.transFigure.inverted().transform((event.x, event.y))
+
+            if self.raw_data_bb.contains(figure_x, figure_y):
+                log.debug('Deleting raw point')
+                # print abs(self.raw_data_marks_x - event.xdata) a[:] =
+
+                closer_index = int(np.argmin(
+                    [abs(list_val - event.xdata) for list_val in
+                     self.raw_data_marks_x]))
+
+                # print 'Index ', closer_index
+                if len(self.raw_data_marks_x) == len(self.reference_marks_x):
+                    self.raw_data_marks_x.pop(closer_index)
+                    self.raw_data_marks_y.pop(closer_index)
+                    self.reference_marks_x.pop(closer_index)
+                    self.reference_marks_y.pop(closer_index)
+                    self._update_marks_plot('reference')
+                    self._update_marks_plot('raw_data')
+                else:
+                    if closer_index == len(self.raw_data_marks_x) - 1:
+                        self.raw_data_marks_x.pop(closer_index)
+                        self.raw_data_marks_y.pop(closer_index)
+                        self._update_marks_plot('raw_data')
+                    else:
+                        self.raw_data_marks_x.pop(closer_index)
+                        self.raw_data_marks_y.pop(closer_index)
+                        self.reference_marks_x.pop(closer_index)
+                        self.reference_marks_y.pop(closer_index)
+                        self._update_marks_plot('reference')
+                        self._update_marks_plot('raw_data')
+
+            elif self.reference_bb.contains(figure_x, figure_y):
+                log.debug('Deleting reference point')
+                # print 'reference ', self.reference_marks_x, self.re
+                # print self.reference_marks_x
+                # print abs(self.reference_marks_x - event.xdata)
+
+                closer_index = int(np.argmin(
+                    [abs(list_val - event.xdata) for list_val in
+                     self.reference_marks_x]))
+
+                if len(self.raw_data_marks_x) == len(self.reference_marks_x):
+                    self.raw_data_marks_x.pop(closer_index)
+                    self.raw_data_marks_y.pop(closer_index)
+                    self.reference_marks_x.pop(closer_index)
+                    self.reference_marks_y.pop(closer_index)
+                    self._update_marks_plot('reference')
+                    self._update_marks_plot('raw_data')
+                else:
+                    if closer_index == len(self.reference_marks_x) - 1:
+                        self.reference_marks_x.pop(closer_index)
+                        self.reference_marks_y.pop(closer_index)
+                        self._update_marks_plot('reference')
+                    else:
+                        self.raw_data_marks_x.pop(closer_index)
+                        self.raw_data_marks_y.pop(closer_index)
+                        self.reference_marks_x.pop(closer_index)
+                        self.reference_marks_y.pop(closer_index)
+                        self._update_marks_plot('reference')
+                        self._update_marks_plot('raw_data')
+
+            elif self.contextual_bb.contains(figure_x, figure_y):
+                log.warning("Can't delete points from here because points "
+                            "represent each detected line in the raw data.")
+                # closer_index_ref = int(np.argmin(
+                #     [abs(list_val - event.ydata) for list_val in
+                #      self.reference_marks_x]))
+                #
+                # closer_index_raw = int(np.argmin(
+                #     [abs(list_val - event.xdata) for list_val in
+                #      self.raw_data_marks_x]))
+                #
+                # log.debug('Raw Index {:d}, Ref Index {:d}'.format(
+                #     closer_index_raw,
+                #     closer_index_ref))
+                # self.raw_data_marks_x.pop(closer_index_raw)
+                # self.raw_data_marks_y.pop(closer_index_raw)
+                # self.reference_marks_x.pop(closer_index_raw)
+                # self.reference_marks_y.pop(closer_index_raw)
+                # self.update_marks_plot('reference')
+                # self.update_marks_plot('raw_data')
+                # self.update_marks_plot('eval_plots')
+        # elif event.key == 'i':
+        #     figure_x, figure_y = self.i_fig.transFigure.inverted().transform(
+        #         (event.x, event.y))
+        #     if self.contextual_bb.contains(figure_x, figure_y):
+        #         log.debug("Trying to identify point.")
+        #
+        #         closer_x_index = int(np.argmin(
+        #             [abs(list_val - event.xdata) for list_val in
+        #              self.raw_data_marks_x]))
+        #         print(self.raw_data_marks_x[closer_x_index])
+        #         print(self.reference_marks_x[closer_x_index])
+
+        elif event.key == 'f6' or event.key == 'l':
+            log.info('Linearize and smoothing spectrum')
+            if self._wsolution is not None:
+                self.linearize_spectrum(self.lamp.data, plots=True)
+
+        elif event.key == 'ctrl+z':
+            log.info('Deleting automatic added points. If exist.')
+
+            if self.raw_data_marks_x is not [] and \
+                            self.reference_marks_x is not []:
+
+                to_remove = []
+                for i in range(len(self.raw_data_marks_x)):
+                    # print self.raw_data_marks[i], self.filling_value
+                    if self.raw_data_marks_y[i] == self.raw_filling_value:
+                        to_remove.append(i)
+                        # print to_remove
+                to_remove = np.array(sorted(to_remove, reverse=True))
+                if len(to_remove) > 0:
+                    for index in to_remove:
+                        self.raw_data_marks_x.pop(index)
+                        self.raw_data_marks_y.pop(index)
+                        self.reference_marks_x.pop(index)
+                        self.reference_marks_y.pop(index)
+                    self._update_marks_plot('reference')
+                    self._update_marks_plot('raw_data')
+                    # else:
+                    # print self.raw_click_plot, self.ref_click_plot, 'mmm'
+
+        elif event.key == 'ctrl+d':
+            try:
+                log.info('Deleting all recording Clicks')
+                self.display_onscreen_message(
+                    message='All points deleted')
+                self.reference_marks_x = []
+                self.reference_marks_y = []
+                self.raw_data_marks_x = []
+                self.raw_data_marks_y = []
+                self._update_marks_plot('delete')
+                self._plot_raw_over_reference(remove=True)
+                log.info('All points deleted!')
+            except:
+                log.error('No points deleted')
+        elif event.key == 'ctrl+t':
+            self.create_reference_lamp()
+
+        elif event.key == 'p':
+            self._register_mark(event)
+
+        elif event.key == 'enter':
+            if self._wsolution is not None:
+                log.info('Closing figure')
+                plt.close('all')
+            else:
+                message = 'There is still no wavelength solution!'
+                log.info(message)
+                self.display_onscreen_message(message)
+
+        elif event.key == 'm':
+            self._register_mark(event)
+
+        elif event.key in ['ctrl+q', 'ctrl+c']:
+            log.info('Pressed Ctrl+q. Closing the program')
+            sys.exit(0)
+
+        else:
+            log.debug("No action for key pressed: {:s}".format(event.key))
+            pass
+
+    def _register_mark(self, event):
+        """Marks a line
+
+        Detects where the click was done or m-key was pressed and calls the
+        corresponding method. It handles the middle button click and m-key being
+        pressed. There are two regions of interest as for where a click was
+        done. The raw and reference data respectively. For any of such regions
+        it will call the method that recenter the line and once the desired
+        value is returned it will be appended to the list that contains all the
+        correspondent line positions, raw (pixels) and reference (angstrom)
+
+        Args:
+            event (object): Click or m-key pressed event
+        """
+        if event.xdata is not None and event.ydata is not None:
+            figure_x, figure_y = \
+                self.i_fig.transFigure.inverted().transform((event.x, event.y))
+
+            if self.reference_bb.contains(figure_x, figure_y):
+                # self.reference_marks.append([event.xdata, event.ydata])
+                self.reference_marks_x.append(
+                    self.recenter_line_by_data('reference', event.xdata))
+
+                self.reference_marks_y.append(event.ydata)
+                self._update_marks_plot('reference')
+            elif self.raw_data_bb.contains(figure_x, figure_y):
+                # self.raw_data_marks.append([event.xdata, event.ydata])
+                self.raw_data_marks_x.append(
+                    self.recenter_line_by_data('raw-data', event.xdata))
+
+                self.raw_data_marks_y.append(event.ydata)
+                self._update_marks_plot('raw_data')
+            else:
+                log.debug('{:f} {:f} Are not contained'.format(figure_x,
+                                                               figure_y))
+        else:
+            log.error('Clicked Region is out of boundaries')
+
+    def _find_more_lines(self):
+        """Method to add more lines given that a wavelength solution already
+        exists
+
+        This method is part of the interactive wavelength solution mechanism.
+        If a wavelength solution exist it uses the line centers in pixels to
+        estimate their respective wavelength and then search for the closest
+        value in the list of reference lines for the elements in the comparison
+        lamp. Then it filters the worst of them by doing sigma clipping.
+        Finally it adds them to the class' attributes that contains the list of
+        reference points.
+
+        Better results are obtained if the solution is already decent. Visual
+        inspection also improves final result.
+        """
+        new_physical = []
+        new_wavelength = []
+        square_differences = []
+        if self._wsolution is not None:
+            wlines = self._wsolution(self.lines_center)
+            for i in range(len(wlines)):
+                # [abs(list_val - wlines[i]) for list_val in \
+                # self.reference_data.get_line_list_by_name(self.lamp_name)]
+
+                closer_index = np.argmin(
+                    abs(self.line_list - wlines[i]))
+
+                rline = self.line_list[closer_index]
+
+                rw_difference = wlines[i] - rline
+                # print('Difference w - r ', rw_difference, rline)
+                square_differences.append(rw_difference ** 2)
+                new_physical.append(self.lines_center[i])
+                new_wavelength.append(rline)
+            clipped_differences = sigma_clip(square_differences,
+                                             sigma=2,
+                                             maxiters=3)
+
+            if len(new_wavelength) == len(new_physical) == \
+                    len(clipped_differences):
+
+                for i in range(len(new_wavelength)):
+                    if clipped_differences[i] is not \
+                            np.ma.masked and new_wavelength[i] not in \
+                            self.reference_marks_x:
+
+                        self.reference_marks_x.append(new_wavelength[i])
+                        self.reference_marks_y.append(self.ref_filling_value)
+                        self.raw_data_marks_x.append(new_physical[i])
+                        self.raw_data_marks_y.append(self.raw_filling_value)
+        return True
+
+    def _update_marks_plot(self, action=None):
+        """Update the points that represent marks on lamp plots
+
+        When you mark a line a red dot marks the position of the line at the
+        exact y location of the click, for the x location it will use the value
+        obtained by means of the recentering method. There are three possible
+        actions: Update the reference plot's click, the raw data marks or
+        delete them all.
+
+        Args:
+            action (str): A string that could be 'reference', 'raw_data' or
+            'delete' depending on the action desired
+        """
+        # print(type(action), type(pixel_axis), type(differences))
+        if action == 'reference':
+            if self.points_ref is not None:
+                try:
+                    self.points_ref.remove()
+                    self.ax3.relim()
+                    log.debug('Removing reference marks')
+                except:
+                    log.debug('Reference points is None')
+                    pass
+            log.debug("Plot new marks")
+            self.points_ref, = self.ax3.plot(self.reference_marks_x,
+                                             self.reference_marks_y,
+                                             linestyle='None',
+                                             marker='o',
+                                             color='r')
+            self.i_fig.canvas.draw()
+        elif action == 'raw_data':
+            # print self.points_raw
+            # print dir(self.points_raw)
+            if self.points_raw is not None:
+                try:
+                    self.points_raw.remove()
+                    self.ax1.relim()
+                except ValueError as err:
+                    log.error(err)
+            self.points_raw, = self.ax1.plot(self.raw_data_marks_x,
+                                             self.raw_data_marks_y,
+                                             linestyle='None',
+                                             marker='o',
+                                             color='r')
+            self.i_fig.canvas.draw()
+        elif action == 'delete':
+            if self.points_raw is not None and self.points_ref is not None:
+                self.points_raw.remove()
+                self.ax1.relim()
+                self.points_ref.remove()
+                self.ax3.relim()
+                self.i_fig.canvas.draw()
+        else:
+            log.error('Unknown Action {:s}'.format(action))
+
+    def _plot_raw_over_reference(self, remove=False):
+        """Overplot raw data over reference lamp using current wavelength
+        solution model
+
+        Once the wavelength solution is obtained this method is called to apply
+        the already mentioned solution to the raw data and then overplot it on
+        the reference lamp plot. This is very useful to have a visual idea of
+        how far or close the solution is.
+
+        Args:
+            remove (bool): True or False depending whether you want to remove
+            the overplotted lamp or not
+        """
+        if self._wsolution is not None:
+            if self.line_raw is not None:
+                try:
+                    self.line_raw.remove()
+                    self.ax3.relim()
+                except:
+                    pass
+            if not remove:
+                # TODO(simon): catch TypeError Exception and correct what is
+                # TODO (cont): causing it
+                self.line_raw, = self.ax3.plot(
+                    self._wsolution(self.raw_pixel_axis),
+                    self.lamp.data,
+                    linestyle='-',
+                    color='r',
+                    alpha=0.4,
+                    label='New Wavelength Solution')
+
+            self.ax3.legend(loc=2)
+            self.i_fig.canvas.draw()
+
+    def evaluate_solution(self, plots=False):
+        """Calculate the Root Mean Square Error of the solution
+
+        Once the wavelength solution is obtained it has to be evaluated. The
+        line centers found for the raw comparison lamp will be converted to,
+        according to the new solution, angstrom. Then for each line the closest
+        reference line value is obtained. The difference is stored. Then these
+        differences are cleaned by means of a sigma clipping method that will
+        rule out any outlier or any line that is not well-matched. Then, using
+        the sigma clipped differences the Root Mean Square error is calculated.
+
+        It also creates a plot in the bottom right subplot of the interactive
+        window, showing a scatter plot plus some information regarding the
+        quality of the fit.
+
+        Args:
+            plots (bool): Whether to create the plot or not
+
+        Returns:
+            results (list): Contains three elements: _rms_error (float),
+            npoints (int), _n_rejections (int)
+
+        """
+        if self._wsolution is not None:
+            differences = np.array([])
+            wavelength_line_centers = self._wsolution(self.lines_center)
+
+            for wline in wavelength_line_centers:
+                closer_index = np.argmin(
+                    abs(self.line_list - wline))
+
+                rline = self.line_list[closer_index]
+
+                rw_difference = wline - rline
+                differences = np.append(differences, rw_difference)
+
+            clipping_sigma = 2.
+
+            clipped_differences = differences
+            once_clipped_differences = differences
+
+            old_rms_error = None
+            if self._rms_error is not None:
+                old_rms_error = float(self._rms_error)
+
+            self._rms_error, self._n_points, self._n_rejections = evaluate_wavelength_solution(
+                clipped_differences=clipped_differences)
+
+            log.info('RMS Error : {:.3f}'.format(self._rms_error))
+
+            if plots:
+                if self.ax4_plots is not None or \
+                                self.ax4_com is not None or \
+                                self.ax4_rlv is not None:
+
+                    try:
+                        self.ax4.cla()
+                        self.ax4.relim()
+                    except NameError as err:
+                        log.error(err)
+
+                self.ax4.set_title('RMS Error {:.3f} \n'
+                                   '{:d} points ({:d} '
+                                   'rejected)'.format(self._rms_error,
+                                                      self._n_points,
+                                                      self._n_rejections))
+
+                self.ax4.set_ylim(once_clipped_differences.min(),
+                                  once_clipped_differences.max())
+
+                self.ax4.set_xlim(np.min(self.lines_center),
+                                  np.max(self.lines_center))
+
+                self.ax4_rlv = self.ax4.scatter(self.lines_center,
+                                                differences,
+                                                marker='x',
+                                                color='k',
+                                                label='Rejected Points')
+
+                self.ax4_com = self.ax4.axhspan(clipped_differences.min(),
+                                                clipped_differences.max(),
+                                                color='k',
+                                                alpha=0.4,
+                                                edgecolor=None,
+                                                label='{:.1f} Sigma'.format(
+                                                    clipping_sigma))
+
+                self.ax4_plots = self.ax4.scatter(self.lines_center,
+                                                  clipped_differences,
+                                                  label='Differences')
+
+                if self._rms_error is not None and old_rms_error is not None:
+                    rms_error_difference = self._rms_error - old_rms_error
+
+                    if rms_error_difference > 0.001:
+                        increment_color = 'red'
+                    elif rms_error_difference < -0.001:
+                        increment_color = 'green'
+                    else:
+                        increment_color = 'white'
+
+                    message = r'$\Delta$ RMSE {:+.3f}'.format(
+                        rms_error_difference)
+
+                    self.ax4.text(0.05, 0.95,
+                                  message,
+                                  verticalalignment='top',
+                                  horizontalalignment='left',
+                                  transform=self.ax4.transAxes,
+                                  color=increment_color,
+                                  fontsize=15)
+
+                self.ax4.set_xlabel('Pixel Axis (Pixels)')
+                self.ax4.set_ylabel('Difference (Angstroms)')
+
+                self.ax4.legend(loc=3, framealpha=0.5)
+                self.i_fig.canvas.draw()
+
+            results = [self._rms_error, self._n_points, self._n_rejections]
+            return results
+        else:
+            log.error('Solution is still non-existent!')
+
+    def fit_pixel_to_wavelength(self):
+        """Does the fit to find the wavelength solution
+
+        Once you have four data points on each side (raw and reference or pixel
+        and angstrom) it calculates the fit using a Chebyshev model of third
+        degree. This was chosen because it worked better compared to the rest.
+        There is a slight deviation from linearity in all Goodman data,
+        therefore a linear model could not be used, also is said that a Spline
+        of third degree is "too flexible" which I also experienced and since the
+        deviation from linearity is not extreme it seemed that it was not
+        necessary to implement.
+
+        This method checks that the data that will be used as input to calculate
+        the fit have the same dimensions and warns the user in case is not.
+
+        Returns:
+            None (None): An empty return is created to finish the execution of
+            the method when a fit will not be possible
+
+        """
+        if len(self.reference_marks_x) and len(self.raw_data_marks_x) > 0:
+
+            if len(self.reference_marks_x) < 4 or \
+                            len(self.raw_data_marks_x) < 4:
+
+                message = 'Not enough marks! Minimum 4 each side.'
+                self.display_onscreen_message(message)
+                return
+
+            if len(self.reference_marks_x) != len(self.raw_data_marks_x):
+                if len(self.reference_marks_x) < len(self.raw_data_marks_x):
+                    n = len(self.raw_data_marks_x) - len(self.reference_marks_x)
+                    if n == 1:
+                        message_text = '{:d} Reference Click is ' \
+                                       'missing!.'.format(n)
+                    else:
+                        message_text = '{:d} Reference Clicks are ' \
+                                       'missing!.'.format(n)
+                else:
+                    n = len(self.reference_marks_x) - len(self.raw_data_marks_x)
+                    if n == 1:
+                        message_text = '{:d} Raw Click is missing!.'.format(n)
+                    else:
+                        message_text = '{:d} Raw Clicks are missing!.'.format(n)
+                self.display_onscreen_message(message_text)
+            else:
+                self.line_pixels = []
+                self.line_angstroms = []
+                for i in range(len(self.reference_marks_x)):
+                    self.line_pixels.append(self.raw_data_marks_x[i])
+                    self.line_angstroms.append(self.reference_marks_x[i])
+
+                self._wsolution = self.wcs.fit(physical=self.line_pixels,
+                                               wavelength=self.line_angstroms,
+                                               model_name='chebyshev',
+                                               degree=self.poly_order)
+
+                self.evaluate_solution(plots=True)
+
+        else:
+            log.error('Clicks record is empty')
+            self.display_onscreen_message(message='Clicks record is empty')
+            if self._wsolution is not None:
+                self._wsolution = None
+
+    def add_gsp_wcs(self):
+        pass
+
+    def display_onscreen_message(self, message='', color='red'):
+        """Uses the fourth subplot to display a message
+
+        Displays a warning message on the bottom right subplot of the
+        interactive window. It is capable to break down the message in more
+        than one line if necessary.
+
+        Args:
+            message (str): The message to be displayed
+            color (str): Color name for the font's color
+
+        """
+        full_message = [message]
+        if len(message) > 30:
+            full_message = []
+            split_message = message.split(' ')
+            line_length = 0
+            # new_line = ''
+            e = 0
+            for i in range(len(split_message)):
+                # print(i, len(split_message))
+                line_length += len(split_message[i]) + 1
+                if line_length >= 30:
+                    new_line = ' '.join(split_message[e:i])
+                    # print(new_line, len(new_line))
+                    full_message.append(new_line)
+                    # new_line = ''
+                    line_length = 0
+                    e = i
+                if i == len(split_message) - 1:
+                    new_line = ' '.join(split_message[e:])
+                    # print(new_line, len(new_line))
+                    full_message.append(new_line)
+
+        self.ax4.cla()
+        self.ax4.relim()
+        self.ax4.set_xticks([])
+        self.ax4.set_yticks([])
+        self.ax4.set_title('Message')
+        for i in range(len(full_message)):
+            self.ax4.text(0.05, 0.95 - i * 0.05,
+                          full_message[i],
+                          verticalalignment='top',
+                          horizontalalignment='left',
+                          transform=self.ax4.transAxes,
+                          color=color,
+                          fontsize=15)
+        self.i_fig.canvas.draw()
+
+        return
+
+    def display_help_text(self):
+        """Shows static text on the top right subplot
+
+        This will print static help text on the top right subplot of the
+        interactive window.
+
+        Notes:
+            This is really hard to format and having a proper GUI should help
+            to have probably richer formatted text on the screen.
+
+        """
+        self.ax2.set_title('Help')
+        self.ax2.set_xticks([])
+        self.ax2.set_yticks([])
+
+        self.ax2.text(1, 11, 'F1 or ?:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 11, 'Prints Help.',
+                      fontsize=13)
+
+        self.ax2.text(1, 10.5, 'F2 or f:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 10.5, 'Fit Wavelength Solution to points',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 10, 'collected',
+                      fontsize=13)
+
+        self.ax2.text(1, 9.5, 'F3 or a:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 9.5, 'Find new lines, use when the solution',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 9, 'is already decent.',
+                      fontsize=13)
+
+        self.ax2.text(1, 8.5, 'F4:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 8.5, 'Evaluate Solution',
+                      fontsize=13)
+
+        self.ax2.text(1, 8, 'F6 or l:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 8, 'Linearize Data',
+                      fontsize=13)
+
+        self.ax2.text(1, 7.5, 'd :',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 7.5, 'Delete Closest Point',
+                      fontsize=13)
+
+        self.ax2.text(1, 7, 'Ctrl+d:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 7, 'Delete all recorded marks.',
+                      fontsize=13)
+
+        self.ax2.text(1, 6.5, 'Ctrl+t:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 6.5, 'Save as reference lamp template.',
+                      fontsize=13)
+
+        self.ax2.text(1, 6, 'Ctrl+z:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 6, 'Remove all automatic added points.',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 5.5, 'Undo what F3 does.',
+                      fontsize=13)
+
+        self.ax2.text(1, 5, 'Middle Button or p:',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 4.5, 'Finds and records line position',
+                      fontsize=13)
+
+        self.ax2.text(1, 4, 'Enter :',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 4, 'Close Figure and apply wavelength',
+                      fontsize=13)
+
+        self.ax2.text(1.46, 3.5, 'solution',
+                      fontsize=13)
+
+        self.ax2.set_ylim((0, 12))
+        self.ax2.set_xlim((0.95, 3.5))
diff --git a/goodman_pipeline/spectroscopy/redspec.py b/goodman_pipeline/spectroscopy/redspec.py
index 3afeaf6e..f2b12af9 100755
--- a/goodman_pipeline/spectroscopy/redspec.py
+++ b/goodman_pipeline/spectroscopy/redspec.py
@@ -17,7 +17,6 @@
 from .wavelength import WavelengthCalibration
 from ..core import (classify_spectroscopic_data,
                     search_comp_group,
-                    add_wcs_keys,
                     identify_targets,
                     trace_targets,
                     extraction,
@@ -172,6 +171,16 @@ def get_args(arguments=None):
                              "discriminate usable targets. Default 3 times "
                              "background level")
 
+    parser.add_argument('--interactive-wavelength',
+                        action='store_true',
+                        dest='interactive_wavelength',
+                        help="Interactive Wavelength Calibration.")
+
+    parser.add_argument('--linearize',
+                        action='store_true',
+                        dest='linearize',
+                        help="Save as a linear wavelength solution, requires resampling.")
+
     parser.add_argument('--save-plots',
                         action='store_true',
                         dest='save_plots',
@@ -237,16 +246,16 @@ def get_args(arguments=None):
     return args
 
 
-class MainApp(object):
+class RedSpec(object):
     """Defines and initialize all important variables for processing the data
 
-    The MainApp class controls the way the night is organized for further
+    The RedSpec class controls the way the night is organized for further
     processing. It also sets the appropriate parameters that will allow for a
     smooth working in all the other modules.
 
     """
     def __init__(self):
-        """Init method for MainApp class
+        """Init method for RedSpec class
 
         This method initializes the arguments for the class, if they are not
         provided it will get them.
@@ -261,7 +270,7 @@ def __init__(self):
         self._pipeline_version = __version__
 
     def __call__(self, args=None):
-        """Call method for the MainApp class
+        """Call method for the RedSpec class
 
         This method call the higher level functions in order to do the
         spectroscopic data reduction.
@@ -295,7 +304,7 @@ def __call__(self, args=None):
         else:
             self.log.debug("Received non-empty data container.")
 
-        self.log.debug("Calling _run method for MainApp")
+        self.log.debug("Calling _run method for RedSpec")
         self._run(data_container=data_container,
                   extraction_type=self.args.extraction_type,
                   target_fit_model=self.args.target_fit_model,
@@ -328,7 +337,9 @@ def _run(self,
                 obj_groupby = object_group.groupby(['object']).size(
                     ).reset_index().rename(columns={0: 'count'})
 
-                self.log.info("Processing Science Target: "
+                self.log.debug("Here is where the process starts")
+
+                self.log.info("Starting process for Science Target: "
                               "{:s} with {:d} files."
                               "".format(obj_groupby.iloc[0]['object'],
                                         obj_groupby.iloc[0]['count']))
@@ -342,7 +353,7 @@ def _run(self,
                     comp_group = self.reference.check_comp_group(comp_group)
 
                 if comp_group is None:
-                    self.log.debug('Group does not have comparison lamps')
+                    self.log.warning('Group does not have comparison lamps')
                     if data_container.comp_groups is not None:
                         self.log.debug('There are comparison lamp group '
                                        'candidates')
@@ -380,16 +391,15 @@ def _run(self,
                     file_path = os.path.join(full_path, spec_file)
                     ccd = CCDData.read(file_path, unit=u.adu)
                     ccd.header.set('GSP_PNAM', value=spec_file)
-                    ccd = add_wcs_keys(ccd=ccd)
 
                     # ccd.header['GSP_FNAM'] = spec_file
 
                     if comp_group is not None and comp_ccd_list == []:
 
                         for comp_file in comp_group.file.tolist():
+                            self.log.debug(f"Preparing comparison lamp file {comp_file} for processing.")
                             comp_path = os.path.join(full_path, comp_file)
                             comp_ccd = CCDData.read(comp_path, unit=u.adu)
-                            comp_ccd = add_wcs_keys(ccd=comp_ccd)
                             comp_ccd.header.set('GSP_PNAM', value=comp_file)
                             comp_ccd_list.append(comp_ccd)
 
@@ -399,8 +409,7 @@ def _run(self,
                             'Comp Group is None or comp list already exist')
 
                     # identify
-                    self.log.debug("Calling procedure for target "
-                                   "identification.")
+                    self.log.info(f"Starting target identification for file {spec_file}")
                     target_list = identify_targets(
                         ccd=ccd,
                         fit_model=target_fit_model,
@@ -424,12 +433,20 @@ def _run(self,
                         continue
 
                     # if len(trace_list) > 0:
+                    # Experimental interactive extraction
+                    # if False:
+                    #     ie = InteractiveExtraction()
+                    #     # ie = InteractiveExtractionGUI()
+                    #     ie(ccd=ccd, lamps=comp_ccd_list, traces=trace_list)
+
                     extracted_target_and_lamps = []
                     for single_trace, single_profile, trace_info in trace_list:
                         if single_profile.__class__.name == 'Gaussian1D':
                             single_profile_center = single_profile.mean.value
                         elif single_profile.__class__.name == 'Moffat1D':
                             single_profile_center = single_profile.x_0.value
+                        self.log.info(f"Processing traced profile fitted wit {single_profile.__class__.name} "
+                                      f"centered at {single_profile_center}")
 
                         if len(trace_list) > 1:
                             target_number = trace_list.index(
@@ -454,6 +471,7 @@ def _run(self,
                             # print(spec_file)
 
                             # lamp extraction
+                            self.log.debug(f"Starting lamps extraction for science file {spec_file}")
                             all_lamps = []
                             if comp_ccd_list:
                                 for comp_lamp in comp_ccd_list:
@@ -525,6 +543,7 @@ def _run(self,
                             self.log.error('No target was identified in file'
                                            ' {:s}'.format(spec_file))
                             continue
+                    self.log.debug(f"Starting Wavelength Calibration Process for File {spec_file}.")
                     object_number = None
                     for sci_target, comp_list in extracted_target_and_lamps:
                         try:
@@ -536,18 +555,22 @@ def _run(self,
                                     reference_data=self.args.reference_dir,
                                     object_number=object_number,
                                     output_prefix=self.args.output_prefix,
+                                    interactive_wavelength=self.args.interactive_wavelength,
+                                    linearize=self.args.linearize,
                                     plot_results=self.args.plot_results,
                                     save_plots=self.args.save_plots,
                                     plots=self.args.debug_with_plots)
                         except NoMatchFound as no_match_error:
                             self.log.error(no_match_error)
-                        except NotImplemented as error:
+                        except NotImplementedError as error:
                             self.log.error(error)
 
+                    self.log.debug(f"End of process for file {spec_file}.")
+
 
 if __name__ == '__main__':  # pragma: no cover
-    MAIN_APP = MainApp()
+    RED_SPEC = RedSpec()
     try:
-        MAIN_APP()
+        RED_SPEC()
     except KeyboardInterrupt:
         sys.exit(0)
diff --git a/goodman_pipeline/spectroscopy/tests/__init__.py b/goodman_pipeline/spectroscopy/tests/__init__.py
index 3be6bd29..c3961685 100644
--- a/goodman_pipeline/spectroscopy/tests/__init__.py
+++ b/goodman_pipeline/spectroscopy/tests/__init__.py
@@ -1 +1 @@
-from __future__ import absolute_import
\ No newline at end of file
+from __future__ import absolute_import
diff --git a/goodman_pipeline/spectroscopy/tests/test_redspec.py b/goodman_pipeline/spectroscopy/tests/test_redspec.py
index 534c846c..b9adeec6 100644
--- a/goodman_pipeline/spectroscopy/tests/test_redspec.py
+++ b/goodman_pipeline/spectroscopy/tests/test_redspec.py
@@ -1,11 +1,9 @@
 from __future__ import absolute_import
 
-import argparse
 import os
-import shutil
 from unittest import TestCase
 
-from ...spectroscopy.redspec import (get_args, MainApp)
+from ...spectroscopy.redspec import (get_args, RedSpec)
 
 
 class TestArguments(TestCase):
@@ -57,17 +55,6 @@ def test_absolute_path_exists(self):
         self.assertTrue(os.path.exists(args.source))
         self.assertTrue(os.path.isdir(args.source))
 
-        # If yes, carry on
-
-            # If not, convert it to become absolute
-
-        # Check if the source folder exists
-
-        #  If it exists, carry on
-
-        # If source folder does not exists, print message and leave program
-        # error_message = 'Input folder "{} does not exists."'
-
     def test_get_args_output_path_does_not_exist(self):
         arguments = ['--data-path', 'does_not_exist']
         self.assertRaises(SystemExit, get_args, arguments)
@@ -118,20 +105,20 @@ def test_get_args():
     return args
 
 
-class TestMainApp(TestCase):
+class TestRedSpec(TestCase):
 
     def setUp(self):
-        self.main_app = MainApp()
+        self.red_spec = RedSpec()
 
     def test_instantiation_without_args(self):
-        self.assertIsInstance(self.main_app, MainApp)
-        self.assertIsNone(self.main_app.args)
-        self.assertIsNone(self.main_app.wavelength_solution_obj)
-        self.assertIsNone(self.main_app.wavelength_calibration)
-        self.assertIsNone(self.main_app.reference)
+        self.assertIsInstance(self.red_spec, RedSpec)
+        self.assertIsNone(self.red_spec.args)
+        self.assertIsNone(self.red_spec.wavelength_solution_obj)
+        self.assertIsNone(self.red_spec.wavelength_calibration)
+        self.assertIsNone(self.red_spec.reference)
 
     def test___call___no_args(self):
-        self.assertRaises(SystemExit, self.main_app)
+        self.assertRaises(SystemExit, self.red_spec)
 
     def test___call___with_valid_arguments(self):
         arguments = ['--data-path', './',
@@ -140,7 +127,7 @@ def test___call___with_valid_arguments(self):
                      '--output-prefix', 'w',
                      '--extraction', 'fractional']
         args = get_args(arguments=arguments)
-        self.assertRaises(SystemExit, self.main_app, args)
+        self.assertRaises(SystemExit, self.red_spec, args)
 
 
 if __name__ == '__main__':
diff --git a/goodman_pipeline/spectroscopy/tests/test_wavelength.py b/goodman_pipeline/spectroscopy/tests/test_wavelength.py
index e4b9ad3d..0e4eb6a9 100644
--- a/goodman_pipeline/spectroscopy/tests/test_wavelength.py
+++ b/goodman_pipeline/spectroscopy/tests/test_wavelength.py
@@ -1,20 +1,18 @@
 from __future__ import absolute_import
 
-import json
 import numpy as np
 import os
 import re
 
-from astropy.convolution import convolve, Gaussian1DKernel, Box1DKernel
 from astropy.io import fits
-from astropy.modeling import models, Model
+from astropy.modeling import models
 from ccdproc import CCDData
-from unittest import TestCase, skip
+from unittest import TestCase
 from ..wavelength import (WavelengthCalibration)
 
 from ..redspec import get_args
-from ...core import add_wcs_keys, write_fits
-from ...core import ReferenceData, NoMatchFound
+from ...core import add_linear_wcs_keys, write_fits
+from ...core import NoMatchFound
 
 
 class WavelengthCalibrationTests(TestCase):
@@ -35,7 +33,7 @@ def setUp(self):
         self.ccd = CCDData(data=np.random.random_sample(200),
                            meta=fits.Header(),
                            unit='adu')
-        self.ccd = add_wcs_keys(ccd=self.ccd)
+        self.ccd = add_linear_wcs_keys(ccd=self.ccd)
         self.ccd.header.set('SLIT',
                             value='1.0_LONG_SLIT',
                             comment="slit [arcsec]")
@@ -158,7 +156,7 @@ def test___call___method_one_comparison_lamps(self):
                               reference_data='goodman_pipeline/data/ref_comp',
                               json_output=True)
 
-        self.assertEqual(json_output['error'], 'Unable to obtain wavelength solution')
+        self.assertEqual(json_output['error'], 'Unable to obtain wavelength solution.')
         self.assertEqual(json_output['warning'], '')
         self.assertEqual(json_output['wavelength_solution'], [])
 
@@ -214,6 +212,3 @@ def test___call___method_two_solution(self):
         for _solution in json_output['wavelength_solution']:
             self.file_list.append(_solution['file_name'])
             self.file_list.append(_solution['reference_lamp'])
-
-
-
diff --git a/goodman_pipeline/spectroscopy/wavelength.py b/goodman_pipeline/spectroscopy/wavelength.py
index 96cb1eb7..9e95479b 100644
--- a/goodman_pipeline/spectroscopy/wavelength.py
+++ b/goodman_pipeline/spectroscopy/wavelength.py
@@ -30,10 +30,13 @@
                     evaluate_wavelength_solution,
                     get_lines_in_lamp,
                     linearize_spectrum,
+                    record_wavelength_solution_evaluation,
                     write_fits)
 
 from ..core import (ReferenceData, NoMatchFound)
 
+from ._interactive_wavelength import InteractiveWavelengthCalibration
+
 log = logging.getLogger(__name__)
 
 
@@ -73,6 +76,7 @@ def __init__(self):
         self.poly_order = 3
         self.wcs = WCS()
         self.wsolution = None
+        self.linearize = False
         self.wcal_lamp_file = None
         self.sci_target_file = None
         self.n_points = None
@@ -81,7 +85,7 @@ def __init__(self):
         self.cross_corr_tolerance = 5
         self.reference_data_dir = None
         self.reference_data = None
-        self.calibration_lamp = ''
+        self.comparison_lamp_file_name = ''
         self.wcal_lamp_file = ''
 
         # Instrument configuration and spectral characteristics
@@ -89,17 +93,19 @@ def __init__(self):
         self.parallel_binning = None
 
     def __call__(self,
-                 ccd,
-                 comp_list,
-                 save_data_to,
-                 reference_data,
-                 object_number=None,
-                 corr_tolerance=15,
-                 output_prefix='w',
-                 plot_results=False,
-                 save_plots=False,
-                 plots=False,
-                 json_output=False):
+                 ccd: CCDData,
+                 comp_list: list,
+                 save_data_to: str | os.PathLike,
+                 reference_data: str,
+                 object_number: int | None = None,
+                 corr_tolerance: int = 15,
+                 output_prefix: str = 'w',
+                 interactive_wavelength: bool = False,
+                 linearize: bool = False,
+                 plot_results: bool = False,
+                 save_plots: bool = False,
+                 plots: bool = False,
+                 json_output: bool = False):
         """Call method for the WavelengthSolution Class
 
         It takes extracted data and produces wavelength calibrated 1D FITS file.
@@ -140,6 +146,8 @@ def __call__(self,
         assert isinstance(ccd, CCDData)
         assert isinstance(comp_list, list)
 
+        self.linearize = linearize
+
         json_payload = {'wavelength_solution': [],
                         'warning': '',
                         'error': ''}
@@ -155,77 +163,96 @@ def __call__(self,
 
         self.i_fig = None
 
-        log.info('Processing Science Target: '
-                 '{:s}'.format(ccd.header['OBJECT']))
+        log.info(f"Starting Wavelength calibration of Science Target: {ccd.header['OBJECT']} "
+                 f"File: {self.sci_target_file}.")
 
         if len(comp_list) == 0:
             log.warning("No comparison lamps were provided for file {}"
                         "".format(self.sci_target_file))
             log.error("Ending processing of {}".format(self.sci_target_file))
             if json_output:
-                json_payload['error'] ='Unable to process without reference lamps'
+                json_payload['error'] = 'Unable to process without reference lamps'
                 return json_payload
             else:
                 return
         else:
+            log.debug(f"Science file {self.sci_target_file} has {len(comp_list)} comparison lamps.")
             wavelength_solutions = []
             reference_lamp_names = []
             for self.lamp in comp_list:
-                self.calibration_lamp = self.lamp.header['GSP_FNAM']
-                log.info('Using reference lamp {}'.format(self.calibration_lamp))
+                self.comparison_lamp_file_name = self.lamp.header['GSP_FNAM']
 
                 self.raw_pixel_axis = range(self.lamp.shape[0])
 
                 self.lamp_name = self.lamp.header['OBJECT']
 
-                log.info('Processing Comparison Lamp: '
-                         '{:s}'.format(self.lamp_name))
+                log.info(f"Using Comparison lamp {self.lamp_name} {self.comparison_lamp_file_name}")
 
                 self.lines_center = get_lines_in_lamp(
                     ccd=self.lamp, plots=plots)
                 try:
-                    self._automatic_wavelength_solution(
-                        save_data_to=save_data_to,
-                        corr_tolerance=self.cross_corr_tolerance)
+                    if interactive_wavelength:
+                        interactive_wavelength = InteractiveWavelengthCalibration()
+                        interactive_wavelength(ccd=ccd,
+                                               comparison_lamp=self.lamp,
+                                               save_data_to=save_data_to,
+                                               reference_data=reference_data)
+                        self.wsolution = interactive_wavelength.wavelength_solution
+                        self.rms_error, self.n_points, self.n_rejections = interactive_wavelength.wavelength_solution_evaluation
+
+                    else:
+                        self._automatic_wavelength_solution(
+                            save_data_to=save_data_to,
+                            corr_tolerance=self.cross_corr_tolerance)
                 except NoMatchFound as message:
-                    raise NoMatchFound(message)
+                    log.error(message)
+                    continue
 
                 if self.wsolution is not None:
-                    ccd.header.set('GSP_WRMS', value=self.rms_error)
-                    ccd.header.set('GSP_WPOI', value=self.n_points)
-                    ccd.header.set('GSP_WREJ', value=self.n_rejections)
-
-                    linear_x_axis, self.lamp.data = linearize_spectrum(
-                        self.lamp.data,
-                        wavelength_solution=self.wsolution)
-
-                    self.lamp = self.wcs.write_gsp_wcs(ccd=self.lamp,
-                                                       model=self.wsolution)
-
-                    self.lamp = add_linear_wavelength_solution(
-                        ccd=self.lamp,
-                        x_axis=linear_x_axis,
-                        reference_lamp=self.calibration_lamp)
-
-                    self.wcal_lamp_file = self._save_wavelength_calibrated(
-                        ccd=self.lamp,
-                        original_filename=self.calibration_lamp,
-                        save_data_to=save_data_to,
-                        output_prefix=output_prefix,
-                        index=object_number,
-                        lamp=True)
+                    ccd = record_wavelength_solution_evaluation(ccd=ccd,
+                                                                rms_error=self.rms_error,
+                                                                n_points=self.n_points,
+                                                                n_rejections=self.n_rejections)
+                    self.lamp = record_wavelength_solution_evaluation(ccd=self.lamp,
+                                                                      rms_error=self.rms_error,
+                                                                      n_points=self.n_points,
+                                                                      n_rejections=self.n_rejections)
+
+                    if self.linearize:
+
+                        self.lamp.header.set('GSP_LINE', value='TRUE')
+                        ccd.header.set('GSP_LINE', value='TRUE')
+                        linear_x_axis, self.lamp.data = linearize_spectrum(
+                            self.lamp.data,
+                            wavelength_solution=self.wsolution)
+
+                        self.lamp = self.wcs.write_gsp_wcs(ccd=self.lamp,
+                                                           model=self.wsolution)
+
+                        self.lamp = add_linear_wavelength_solution(
+                            ccd=self.lamp,
+                            x_axis=linear_x_axis,
+                            reference_lamp=self.comparison_lamp_file_name)
+
+                        self.wcal_lamp_file = self._save_wavelength_calibrated(
+                            ccd=self.lamp,
+                            original_filename=self.comparison_lamp_file_name,
+                            save_data_to=save_data_to,
+                            output_prefix=output_prefix,
+                            index=object_number,
+                            lamp=True)
+                    else:
+                        pass
 
                     wavelength_solutions.append(self.wsolution)
                     reference_lamp_names.append(self.wcal_lamp_file)
                 else:
-                    log.error('It was not possible to get a wavelength '
-                              'solution from lamp '
-                              '{:s} {:s}.'.format(
-                               self.lamp.header['GSP_FNAM'],
-                               self.lamp.header['OBJECT']))
+                    log.error(f"It was not possible to get a wavelength solution from lamp {self.lamp_name} "
+                              f"{self.comparison_lamp_file_name}.")
                     continue
 
             if len(wavelength_solutions) > 1:
+                log.warning(f"Multiple ({len(wavelength_solutions)}) wavelength solutions found.")
                 warning_message = str("The current version of the pipeline "
                                       "does not combine multiple solution "
                                       "instead it saves a single version of "
@@ -281,9 +308,9 @@ def __call__(self,
 
                     return json_payload
             else:
-                log.error("No wavelength solution.")
+                log.error("Unable to obtain wavelength solution.")
                 if json_output:
-                    json_payload['error'] = "Unable to obtain wavelength solution"
+                    json_payload['error'] = "Unable to obtain wavelength solution."
                     return json_payload
 
     def _automatic_wavelength_solution(self,
@@ -332,10 +359,11 @@ def _automatic_wavelength_solution(self,
             reference_lamp_ccd = self.reference_data.get_reference_lamp(
                 header=self.lamp.header)
 
-            log.debug('Found reference lamp: '
-                      '{:s}'.format(reference_lamp_ccd.header['GSP_FNAM']))
-        except NoMatchFound as error:
-            raise NoMatchFound(error)
+            if reference_lamp_ccd is not None:
+                log.debug(f"Found reference lamp {reference_lamp_ccd.header['GSP_FNAM']} "
+                          f"for {self.sci_target_file}'s lamp {self.lamp.header['OBJECT']}: ")
+            else:
+                raise NoMatchFound(f"Unable to find a suitable reference lamp for {self.lamp.header['OBJECT']} {self.lamp.header['GSP_FNAM']}.")
         except NotImplementedError as error:
             raise NotImplementedError(error)
 
@@ -377,7 +405,8 @@ def _automatic_wavelength_solution(self,
             reference=reference_lamp_ccd.data,
             compared=self.lamp.data,
             slit_size=slit_size,
-            serial_binning=self.serial_binning)
+            serial_binning=self.serial_binning,
+            selection_bias='center')
         log.debug(f"Found global cross-correlation value of: {global_cross_corr}")
 
         if plots:
@@ -491,7 +520,7 @@ def _automatic_wavelength_solution(self,
 
         if self.wsolution is None:
             log.error('Failed to find wavelength solution using reference '
-                      'file: {:s}'.format(self.calibration_lamp))
+                      'file: {:s}'.format(self.comparison_lamp_file_name))
             return None
 
         # finding differences in order to improve the wavelength solution
@@ -662,14 +691,18 @@ def _save_science_data(self,
 
         """
         ccd = ccd.copy()
-        linear_x_axis, ccd.data = linearize_spectrum(
-            data=ccd.data,
-            wavelength_solution=wavelength_solution)
-
-        ccd = add_linear_wavelength_solution(
-            ccd=ccd,
-            x_axis=linear_x_axis,
-            reference_lamp=self.calibration_lamp)
+        resample = False
+        if resample:
+            linear_x_axis, ccd.data = linearize_spectrum(
+                data=ccd.data,
+                wavelength_solution=wavelength_solution)
+
+            ccd = add_linear_wavelength_solution(
+                ccd=ccd,
+                x_axis=linear_x_axis,
+                reference_lamp=self.wcal_lamp_file)
+        else:
+            wavelength_axis = wavelength_solution(range(ccd.data.shape[0]))
 
         save_file_name = self._save_wavelength_calibrated(
             ccd=ccd,
@@ -726,8 +759,7 @@ def _save_science_data(self,
                 plot_path = os.path.join(plots_dir, plot_name)
                 # print(plot_path)
                 plt.savefig(plot_path, dpi=300)
-                log.info('Saved plot as {:s} file '
-                              'DPI=300'.format(plot_name))
+                log.info('Saved plot as {:s} file DPI=300'.format(plot_name))
 
             if plots or plot_results:  # pragma: no cover
                 manager = plt.get_current_fig_manager()
@@ -758,8 +790,7 @@ def _save_wavelength_calibrated(self,
             f_end = '_ws_{:d}.fits'.format(index)
 
         file_full_path = os.path.join(save_data_to,
-                                    output_prefix +
-                                    original_filename.replace('.fits', f_end))
+                                      output_prefix + original_filename.replace('.fits', f_end))
 
         if lamp:
             log.info('Wavelength-calibrated {:s} file saved to: '
diff --git a/goodman_pipeline/wcs/__init__.py b/goodman_pipeline/wcs/__init__.py
index ce7a0599..1b72ac48 100644
--- a/goodman_pipeline/wcs/__init__.py
+++ b/goodman_pipeline/wcs/__init__.py
@@ -1 +1 @@
-from .wcs import WCS
\ No newline at end of file
+from .wcs import WCS
diff --git a/goodman_pipeline/wcs/tests/test_functional.py b/goodman_pipeline/wcs/tests/test_functional.py
index 706b0212..29923bc8 100644
--- a/goodman_pipeline/wcs/tests/test_functional.py
+++ b/goodman_pipeline/wcs/tests/test_functional.py
@@ -1,17 +1,18 @@
 from __future__ import absolute_import
 
-from unittest import TestCase, skip
-from ..wcs import WCS
+from unittest import TestCase
+
 import numpy as np
 import os
 import re
 import sys
-from astropy.io import fits
-from astropy.modeling import (models, fitting, Model)
-import matplotlib.pyplot as plt
 
+from astropy.io import fits
+from astropy.modeling import (models, Model)
 from ccdproc import CCDData
 
+from ..wcs import WCS
+
 
 class TestWCSBase(TestCase):
 
@@ -54,7 +55,7 @@ def test_fit_chebyshev(self):
         self.assertEqual(model.degree, ccd.header['GSP_ORDR'])
         for i in range(model.degree + 1):
             self.assertAlmostEqual(model.__getattribute__('c{:d}'.format(i)).value,
-                             ccd.header['GSP_C{:03d}'.format(i)])
+                                   ccd.header['GSP_C{:03d}'.format(i)])
 
     def test_fit_linear(self):
         test_file = os.path.join(self.data_path,
@@ -127,7 +128,7 @@ def test_read__non_linear_chebyshev(self):
 
         ccd = CCDData.read(test_file, unit='adu')
 
-        result = self.wcs.read(ccd=ccd)
+        self.wcs.read(ccd=ccd)
         self.assertIsInstance(self.wcs.model, Model)
         self.assertEqual(self.wcs.model.__class__.__name__, 'Chebyshev1D')
 
@@ -138,7 +139,7 @@ def test_read__non_linear_legendre(self):
 
         ccd = CCDData.read(test_file, unit='adu')
 
-        result = self.wcs.read(ccd=ccd)
+        self.wcs.read(ccd=ccd)
         self.assertIsInstance(self.wcs.model, Model)
         self.assertEqual(self.wcs.model.__class__.__name__, 'Legendre1D')
 
@@ -193,8 +194,8 @@ def test_write_gsp_wcs(self):
         self.assertIsInstance(model, Model)
 
         blank_ccd = CCDData(data=np.ones(ccd.data.shape),
-                          meta=fits.Header(),
-                          unit='adu')
+                            meta=fits.Header(),
+                            unit='adu')
         blank_ccd.header.set('GSP_WREJ', value=None, comment='empty')
 
         new_ccd = self.wcs.write_gsp_wcs(ccd=blank_ccd, model=model)
@@ -204,7 +205,7 @@ def test_write_gsp_wcs(self):
         self.assertEqual(new_ccd.header['GSP_NPIX'], ccd.header['GSP_NPIX'])
         for i in range(model.degree + 1):
             self.assertAlmostEqual(new_ccd.header['GSP_C{:03d}'.format(i)],
-                             ccd.header['GSP_C{:03d}'.format(i)])
+                                   ccd.header['GSP_C{:03d}'.format(i)])
 
     def test_read_gsp_wcs(self):
         test_file = os.path.join(self.data_path,
diff --git a/goodman_pipeline/wcs/tests/test_unittest.py b/goodman_pipeline/wcs/tests/test_unittest.py
index 746363bd..d6130da6 100644
--- a/goodman_pipeline/wcs/tests/test_unittest.py
+++ b/goodman_pipeline/wcs/tests/test_unittest.py
@@ -1,19 +1,13 @@
 from __future__ import absolute_import
 
-from unittest import TestCase, skip
+from unittest import TestCase
 from ..wcs import WCS
-import numpy as np
-import os
-import re
-import sys
-from astropy.io import fits
-from astropy.modeling import (models, fitting, Model)
 
-from ccdproc import CCDData
+from astropy.modeling import Model
 
 
 class TestWCS(TestCase):
-    
+
     def setUp(self):
         self.wcs = WCS()
 
@@ -66,7 +60,7 @@ def test_pm_fitter_undefined_model_and_fitter(self):
         # self.wcs._fitter(physical=pixel, wavelength=angstrom)
 
     def test_pm_fitter_not_enough_points(self):
-        pixel = [1,2]
+        pixel = [1, 2]
         angstrom = [8000, 8001]
 
         self.wcs.model_name = 'chebyshev'
@@ -76,7 +70,6 @@ def test_pm_fitter_not_enough_points(self):
         result = self.wcs._fitter(physical=pixel, wavelength=angstrom)
         self.assertIsNone(result)
 
-
     def test_pm_set_math_model__none(self):
         self.wcs.wcs_dict['dtype'] = -1
         self.assertRaises(NotImplementedError, self.wcs._set_math_model)
@@ -113,7 +106,7 @@ def test_pm_set_math_model__wrong_ftype(self):
         self.assertRaisesRegex(SyntaxError,
                                'ftype {:d} is not defined in the '
                                'standard'.format(self.wcs.wcs_dict['ftype']))
-        
+
     def test_pm_none(self):
         self.assertRaises(NotImplementedError, self.wcs._none)
 
@@ -155,4 +148,3 @@ def test_pm_non_linear_lspline(self):
 
     def test_pm_non_linear_cspline(self):
         self.assertRaises(NotImplementedError, self.wcs._non_linear_cspline)
-
diff --git a/goodman_pipeline/wcs/wcs.py b/goodman_pipeline/wcs/wcs.py
index 21c0cb27..a6431c47 100644
--- a/goodman_pipeline/wcs/wcs.py
+++ b/goodman_pipeline/wcs/wcs.py
@@ -252,7 +252,7 @@ def _fitter(self, physical, wavelength):
 
     # wavelength solution reader private methods.
     def _read_non_linear(self, dimension):
-        """Non linear solutions reader
+        """Non-linear solutions reader
 
         Notes:
             Not all kind of non-linear solutions are implemented. Apparently is
diff --git a/requirements.txt b/requirements.txt
index 43dc3f23..40d1f507 100644
--- a/requirements.txt
+++ b/requirements.txt
@@ -2,6 +2,7 @@ astropy
 astroplan
 astroscrappy
 ccdproc
+coloredlogs
 coveralls
 cython
 recommonmark
@@ -9,6 +10,7 @@ matplotlib
 mock
 numpy
 pandas
+setuptools
 scipy
 sphinx
 sphinxcontrib.napoleon
diff --git a/setup.py b/setup.py
index caa5c8ed..61afabe1 100644
--- a/setup.py
+++ b/setup.py
@@ -155,6 +155,4 @@ def create_version_py(packagename, version, source_dir='.'):
     scripts=['goodman_pipeline/scripts/redccd',
              'goodman_pipeline/scripts/redspec', ],
 
-   )
-
-
+)