Xtest = X[trainlen+1:] Yhtest = Yh[trainlen+1:] Ystest = Ys[trainlen+1:] Yvtest = Yv[trainlen+1:] idstest = ids[trainlen+1:] rh = regression_one(Xtrain, Yhtrain) rs = regression_one(Xtrain, Ystrain) rv = regression_one(Xtrain, Yvtrain) Yhpred = np.sum(Xtest * rh, axis=1) Yspred = np.sum(Xtest * rs, axis=1) Yvpred = np.sum(Xtest * rv, axis=1) h_avg = average_vector_dist(Yhpred, h_dict, idstest) s_avg = average_vector_dist(Yspred, s_dict, idstest) v_avg = average_vector_dist(Yvpred, v_dict, idstest) avg = (h_avg + s_avg + v_avg)/3 if (avg < best_avg): best_avg = avg best_h = h_avg best_s = s_avg best_v = v_avg print "BEST" print "h: " + str(best_h) print "s: " + str(best_s) print "v: " + str(best_v)
Ybtrain = Yb[1:trainlen] Xtest = X[trainlen + 1:] Yrtest = Yr[trainlen + 1:] Ygtest = Yg[trainlen + 1:] Ybtest = Yb[trainlen + 1:] idstest = ids[trainlen + 1:] rr = regression_one(Xtrain, Yrtrain) rg = regression_one(Xtrain, Ygtrain) rb = regression_one(Xtrain, Ybtrain) Yrpred = np.sum(Xtest * rr, axis=1) Ygpred = np.sum(Xtest * rg, axis=1) Ybpred = np.sum(Xtest * rb, axis=1) r_avg = average_vector_dist(Yrpred, r_dict, idstest) g_avg = average_vector_dist(Ygpred, g_dict, idstest) b_avg = average_vector_dist(Ybpred, b_dict, idstest) avg = (r_avg + g_avg + b_avg) / 3 if (avg < best_avg): best_avg = avg best_r = r_avg best_g = g_avg best_b = b_avg print "BEST" print "r: " + str(best_r) print "g: " + str(best_g) print "b: " + str(best_b)
Yarotrain = Yaro[1:trainlen] Xtest = X[trainlen+1:] Yvatest = Yva[trainlen+1:] Yarotest = Yaro[trainlen+1:] idstest = ids[trainlen+1:] #print Yarotest[0] rva = regression_one(Xtrain, Yvatrain) raro = regression_one(Xtrain, Yarotrain) Yvapred = np.sum(Xtest * rva, axis=1) Yaropred = np.sum(Xtest * raro, axis=1) va_avg = average_vector_dist(Yvapred, va_dict, idstest) aro_avg = average_vector_dist_polar(Yaropred, aro_dict, idstest) avg = (va_avg + aro_avg)/2 if (avg < best_avg): best_avg = avg best_va = va_avg best_aro = aro_avg print "BEST" print "r: " + str(best_va) print "theta: " + str(best_aro)
Yvtrain = Yv[1:trainlen] Xtest = X[trainlen + 1:] Yhtest = Yh[trainlen + 1:] Ystest = Ys[trainlen + 1:] Yvtest = Yv[trainlen + 1:] idstest = ids[trainlen + 1:] rh = regression_one(Xtrain, Yhtrain) rs = regression_one(Xtrain, Ystrain) rv = regression_one(Xtrain, Yvtrain) Yhpred = np.sum(Xtest * rh, axis=1) Yspred = np.sum(Xtest * rs, axis=1) Yvpred = np.sum(Xtest * rv, axis=1) h_avg = average_vector_dist(Yhpred, h_dict, idstest) s_avg = average_vector_dist(Yspred, s_dict, idstest) v_avg = average_vector_dist(Yvpred, v_dict, idstest) avg = (h_avg + s_avg + v_avg) / 3 if (avg < best_avg): best_avg = avg best_h = h_avg best_s = s_avg best_v = v_avg print "BEST" print "h: " + str(best_h) print "s: " + str(best_s) print "v: " + str(best_v)
Xtrain = X[1:trainlen] Yvatrain = Yva[1:trainlen] Yarotrain = Yaro[1:trainlen] Xtest = X[trainlen+1:] Yvatest = Yva[trainlen+1:] Yarotest = Yaro[trainlen+1:] idstest = ids[trainlen+1:] rva = regression_one(Xtrain, Yvatrain) raro = regression_one(Xtrain, Yarotrain) Yvapred = np.sum(Xtest * rva, axis=1) Yaropred = np.sum(Xtest * raro, axis=1) va_avg = average_vector_dist(Yvapred, va_dict, idstest) aro_avg = average_vector_dist(Yaropred, aro_dict, idstest) avg = (va_avg + aro_avg)/2 if (avg < best_avg): best_avg = avg best_va = va_avg best_aro = aro_avg print "BEST" print "v: " + str(best_va) print "a: " + str(best_aro)
Xtest = X[trainlen+1:] Yrtest = Yr[trainlen+1:] Ygtest = Yg[trainlen+1:] Ybtest = Yb[trainlen+1:] idstest = ids[trainlen+1:] rr = regression_one(Xtrain, Yrtrain) rg = regression_one(Xtrain, Ygtrain) rb = regression_one(Xtrain, Ybtrain) Yrpred = np.sum(Xtest * rr, axis=1) Ygpred = np.sum(Xtest * rg, axis=1) Ybpred = np.sum(Xtest * rb, axis=1) r_avg = average_vector_dist(Yrpred, r_dict, idstest) g_avg = average_vector_dist(Ygpred, g_dict, idstest) b_avg = average_vector_dist(Ybpred, b_dict, idstest) avg = (r_avg + g_avg + b_avg)/3 if (avg < best_avg): best_avg = avg best_r = r_avg best_g = g_avg best_b = b_avg print "BEST" print "r: " + str(best_r) print "g: " + str(best_g)
trainlen = int(len(Yaro) * 0.7) Xtrain = X[1:trainlen] Yvatrain = Yva[1:trainlen] Yarotrain = Yaro[1:trainlen] Xtest = X[trainlen + 1:] Yvatest = Yva[trainlen + 1:] Yarotest = Yaro[trainlen + 1:] idstest = ids[trainlen + 1:] #print Yarotest[0] rva = regression_one(Xtrain, Yvatrain) raro = regression_one(Xtrain, Yarotrain) Yvapred = np.sum(Xtest * rva, axis=1) Yaropred = np.sum(Xtest * raro, axis=1) va_avg = average_vector_dist(Yvapred, va_dict, idstest) aro_avg = average_vector_dist_polar(Yaropred, aro_dict, idstest) avg = (va_avg + aro_avg) / 2 if (avg < best_avg): best_avg = avg best_va = va_avg best_aro = aro_avg print "BEST" print "r: " + str(best_va) print "theta: " + str(best_aro)