diff --git a/FINAL_PROJ_import.py b/FINAL_PROJ_import.py
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+++ b/FINAL_PROJ_import.py
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+#!/usr/bin/env python2
+# -*- coding: utf-8 -*-
+"""
+Created on Mon May 27 14:31:51 2019
+    EART/ASTR 119
+
+@author: Andrew Quartuccio
+"""
+
+# =============================================================================
+#                           Module Imports
+# =============================================================================
+from __future__ import division
+import pandas as pd
+import os
+import numpy as np
+import matplotlib.pyplot as plt
+from mpl_toolkits.mplot3d import axes3d
+import Modules.opt_utils as opt
+
+# =============================================================================
+#                           File/Directory Parmeters for Fig 1,2
+# =============================================================================
+
+
+file_in  = './Data/hygdata_v3.csv'
+file_out = './Data/star_location.gif'
+dir_in   = './Data'
+pi       = np.pi
+
+hyg_data   = np.genfromtxt( file_in, dtype = float, delimiter = ',', skip_header = 1, usecols = (16, 33)).T
+hyg_ptdata = np.genfromtxt( file_in, dtype = float, delimiter = ',', skip_header = 1, usecols = (17,18,19,13)).T
+hyg_vptdata= np.genfromtxt( file_in, dtype = float, delimiter = ',', skip_header = 1, usecols = (20,21,22)).T
+
+m_X = hyg_ptdata[0]
+m_Y = hyg_ptdata[1]
+m_Z = hyg_ptdata[2]
+
+
+m_vX = hyg_vptdata[0]
+m_vY = hyg_vptdata[1]
+m_vZ = hyg_vptdata[2]
+
+rho= ((m_X**2+m_Y**2+m_Z**2)**.5)
+mag= hyg_ptdata[3]
+
+
+#=======================================================================================
+def lin_LS( aX, aY):
+    """
+    - linear least squares assuming normal distributed errors in Y, no errors in X
+
+    :param aX: - independent variable
+    :param aY: - measured dependent variable
+
+    :return: float(<slope>)
+    """
+    meanX = aX.mean()
+    meanY = aY.mean()
+    # variance and co-variance - 1./N term omitted because it cancels in the following ratio
+    VarX  = ( (aX - meanX)**2).sum()
+    #VarY  = ( (aY - meanY)**2).sum()
+    CovXY = ( (aY-meanY)*(aX-meanX)).sum()
+    slope = CovXY/VarX
+    a     = meanY - meanX*slope
+    return slope, a
+#=======================================================================================
+
+
+
+ci= hyg_data[0]
+Lum= hyg_data[1]
+
+
+sigma= 5.670*1e-8
+T= 4600*(1/((.92*ci)+1.7)+(1/((.92*ci)+.62)))
+R= (np.sqrt(Lum/(4*pi*sigma*(T**4))))/1000
+
+# Power Law fit
+tmin, tmax = 1, 1e5
+sel   = np.logical_and( T[0::] >= tmin, T[0::] <= tmax)
+slope, f_a = lin_LS( np.log10( T[sel]), np.log10( Lum[sel]))
+
+aX_fit = np.linspace( tmin*.5, tmax*5, 100)
+aPLfit = 10**(f_a)*aX_fit**slope
+
+# Power Law Plot
+plt.figure(1)
+ax = plt.subplot(111)
+ax.set_title( 'Power-Law Fit')
+ax.loglog( T, Lum, 'ko', label = 'data')
+ax.loglog( aX_fit, aPLfit, 'r--', label = 'L ~ T^(%.2f)'%( round( slope, 2)))
+ax.legend( loc = 'lower left')
+plt.ax.set_xlim(ax, 0, 100000)
+plt.ax.set_ylim(ax, 0, 100000)
+ax.set_xlabel( 'Temperature [degree C]')
+ax.set_ylabel( 'Luminosity [solar units]')
+plt.show()
+
+#plt.figure(1)
+#ax = plt.subplot()
+#plt.plot(rho, mag, 'r.')
+#plt.Axes.set_xlim(ax, 0, 1100)
+#plt.Axes.set_ylim(ax, 0, 15)
+#plt.show()
+
+
+
+#for t in range(0, 10000001, 250000):
+#    m_X= m_vX*t+m_X
+#    m_Y= m_vY*t+m_Y
+#    m_X= m_vZ*t+m_Z
+#
+#    fig2 = plt.figure(2, figsize=(20,20))
+#    print 'Time Step: ', int( t), 'years'  #,(n+1)/plot_step,(n+1)%plot_step
+#    ax = axes3d.Axes3D(fig2)
+#
+#    for i in range(0,len(m_X)):
+#        if (abs(m_X[i]) <= 1000):
+#            m_X[i] = 0
+#            m_Y[i] = 0
+#            m_Z[i] = 0
+#
+#
+#    ax.scatter( m_X, m_Y, m_Z, c='r', marker='o')
+#    ax.scatter(0,0,0, color='blue', marker='o')
+#    plt.pause(0.08)
+#    ax.set_title( 'Time Step: %.1f [yrs]'%( t))
+##    plt.savefig( file_out)
+
+#
+## =============================================================================
+##           File/Directory Parmeters for Hertz-Sprung
+## =============================================================================
+#
+#file_in = './Data/hygdata_v3.csv'
+#dir_in  = './data'
+#
+#df = pd.read_table(file_in, delimiter=',', header=0, index_col = 0, usecols = ( 0, 14, 9, 16, 15),
+#                   names = ['ID', 'dist', 'M_V', 'SpType', 'B-V'])
+#df_clean = df.applymap(lambda x: np.nan if isinstance(x, basestring)
+#                       and x.isspace() else x)
+#df_clean= df_clean.dropna()
+#
+#
+##create new row with first two characters of spectral class
+#f = lambda s: (len(s) >= 2)  and (s[0].isalpha()) and (s[1].isdigit())
+#i  = df_clean['SpType'].apply(f)
+#df_clean = df_clean[i]
+#f = lambda s: s[0:2]
+#df_clean['SpType2'] = df_clean['SpType'].apply(f)
+#
+## Check spectral classes f = lambda s: s[0] #clases = df_clean['SpType'].map(f) #clases.value_counts()
+#
+##remove special classes C,N,R,S
+#f = lambda s: s[0] in 'OBAFGKM'
+#df_clean = df_clean[df_clean['SpType'].map(f)]
+#
+## order presicely
+#orden = {'O':'0', 'B':'1', 'A':'2', 'F':'3', 'G':'4', 'K':'5', 'M':'6'}
+#f = lambda s: orden[s[0]]+s[1]
+#df_clean['SpType2'] = df_clean['SpType2'].apply(f)
+#df_clean.head()
+#
+#def plot_lum_class(b,c, label):
+#    ''' b: boolean Series to make the selection
+#        c: Color
+#        label: for the legend
+#    '''
+#    x = df_clean['B-V'][b]
+#    y = df_clean['M_V'][b]
+#    ax.scatter(x, y, c = c, s=5, edgecolors='none', label = label)
+#
+#fig = plt.figure(figsize=(8,10))
+#ax = fig.add_subplot(111, facecolor='1.00')
+#
+#ax.set_xlim(-0.5, 2.75)
+#ax.set_ylim(15, -15)
+#ax.grid()
+#ax.set_title('H-R Diagram /n HYD Star Database')
+#ax.title.set_fontsize(15)
+#ax.set_xlabel('Color index B-V')
+#ax.xaxis.label.set_fontsize(15)
+#ax.set_ylabel('Absolute magnitude')
+#ax.yaxis.label.set_fontsize(15)
+#
+##code in luminosity class
+#f = lambda s: 'VII' in s
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'black', 'VII: white dwarfs')
+#
+#f = lambda s: ('VI' in s) and ('VII' not in s)
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'darkblue', 'VI: subdwarfs')
+#
+#f = lambda s: ('V' in s) and ('VI' not in s) and ('IV' not in s)
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'teal', 'V: main-sequence')
+#
+#f = lambda s: 'IV' in s
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'hotpink', 'IV: subgiants')
+#
+#f = lambda s: 'III' in s
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'green', 'III: giants')
+#
+#f = lambda s: ('II' in s) and ('III' not in s) and ('VII' not in s)
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'orange', 'II: bright giants')
+#
+#f = lambda s: ('I' in s) and ('II' not in s) and ('V' not in s)
+#b = df_clean['SpType'].map(f)
+#plot_lum_class(b,'yellow', 'I: supergiants')
+#
+#ax.tick_params(axis='both', labelsize=10)
+#ax.legend(loc = 'best', scatterpoints=1,markerscale = 4, shadow=True)