diff --git a/TP1_prog1.py b/TP1_prog1.py
new file mode 100644
index 0000000..b75b2c5
--- /dev/null
+++ b/TP1_prog1.py
@@ -0,0 +1,34 @@
+from sklearn import datasets
+import matplotlib.pyplot as plt
+
+
+###################
+###  EXERCICE 1 ###
+###################
+# Chargement de la base de données MNIST
+mnist = datasets.fetch_openml('mnist_784')
+
+# Affichage de quelques commandes
+affichage = True
+if affichage:
+    print(mnist)
+    print (mnist.data)
+    print (mnist.target)
+    print (len(mnist.data))
+    help(len)
+    print (mnist.data.shape)
+    print (mnist.target.shape)
+    print (mnist.data[0])
+    print (mnist.data[0][1])
+    print (mnist.data[:,1])
+    print (len(mnist.data[:100]))
+
+# Extraction et affichage de la première image de la base de données
+images = mnist.data.reshape((-1, 28, 28))
+for i in range(5):
+    plt.imshow(images[i],cmap=plt.gray(),interpolation="nearest")
+    plt.show()
+
+# Affichage de la classe de la première image de la base de données
+targets = mnist.target
+print("Classe de la première image: %s"%(targets[0]))
diff --git a/TP1_prog2.py b/TP1_prog2.py
new file mode 100644
index 0000000..54e536d
--- /dev/null
+++ b/TP1_prog2.py
@@ -0,0 +1,151 @@
+from sklearn import datasets
+from sklearn.model_selection import train_test_split, KFold
+from sklearn.neighbors import KNeighborsClassifier
+import matplotlib.pyplot as plt
+import numpy as np
+from random import seed
+from graphs import bars_plot2, bars_plot
+import time
+
+np.random.seed(0) # initialise le generateur aletoire avec seed=0
+seed(0)
+
+###################
+###  EXERCICE 2 ###
+###################
+# Chargement de la base de données MNIST
+mnist = datasets.fetch_openml('mnist_784')
+
+# Extraction des images de la base de données
+images = mnist.data.reshape((-1, 28, 28))
+
+# Extraction des classes des images de la base de données
+targets = mnist.target
+
+# Génération d'échantillon de données avec 5000 exemples
+indexes = np.random.randint(70000, size=5000)
+data = images[indexes,:]
+data_targets = targets[indexes]
+
+# Division de la base de données en lots d'entraînement et de test
+def k_10_classifier_and_score():
+    pourcentage_donnees = 0.8
+    xtrain, xtest, ytrain, ytest = train_test_split(data, data_targets, train_size=pourcentage_donnees)
+    # Mise en conformité des dimensions de xtrain et xtest aux dimensions attendues par le classifeur
+    xtrain = xtrain.reshape((-1, 784))
+    xtest = xtest.reshape((-1, 784))
+    # Instanciation et entraînement du classifieur
+    k = 10
+    clf = KNeighborsClassifier(n_neighbors=k)
+    clf.fit(X=xtrain, y=ytrain)
+    predictions = clf.predict(X=xtest)
+    # Classe d'image 4 et sa classe prédite
+    print("VERDICT IMAGE N°4\nClasse réelle: %s\nClasse prédite: %s"%(ytest[3], predictions[3]))
+    # Affichage du score sur l'échantillon de test
+    score_xtest = clf.score(X=xtest, y=ytest)
+    print("Score xtest = %.2f%%"%(score_xtest*100))
+    # Taux d'erreur sur les données d'apprentissage
+    score_xtrain = clf.score(X=xtrain, y=ytrain)
+    print("Score d'erreur xtrain = %.2f%%"%(100*(1-score_xtrain)))
+
+def k_variation_and_score():
+    # Variation du nombre k de voisins et score résultant
+    n_folds = 10
+    kf = KFold(n_splits=n_folds, shuffle=True)
+    k_score = {}
+    for k in range(2,16):
+        sum_score = 0
+        for train_index, test_index in kf.split(X=data):
+            x_train, x_test = data[train_index], data[test_index]
+            y_train, y_test = data_targets[train_index], data_targets[test_index]
+            x_train = x_train.reshape((-1, 784))
+            x_test = x_test.reshape((-1, 784))
+            clf = KNeighborsClassifier(n_neighbors=k)
+            clf.fit(X=x_train, y=y_train)
+            sum_score += clf.score(X=x_test, y=y_test)
+        k_score[k] = (sum_score/n_folds)*100
+    bars_plot2(bar_labels=list(k_score.keys()), bar_heights=list(k_score.values()), xlabel="Valeur de k",
+               ylabel="Score", fig_title="Score par valeur de k (nombre de voisins)", show=True, percent_mark=True,
+               output="tp1Output/mnist_k_variation_scores.png")
+
+def train_test_percent_variation_and_score():
+    # Variation du pourcentage des échantillons (training et test) et affichage des scores résultants
+    k_score_percent = {}
+    for pourcentage in [0.05*i for i in range(1,20)]:
+        xtrain_percent, xtest_percent, ytrain_percent, ytest_percent = train_test_split(data, data_targets, train_size=pourcentage)
+        xtrain_percent = xtrain_percent.reshape((-1, 784))
+        xtest_percent = xtest_percent.reshape((-1, 784))
+        clf = KNeighborsClassifier(n_neighbors=10)
+        clf.fit(X=xtrain_percent, y=ytrain_percent)
+        k_score_percent[pourcentage] = clf.score(X=xtest_percent, y=ytest_percent)*100
+    bars_plot2(bar_labels=["%.2f" % (percent) for percent in list(k_score_percent.keys())],
+               bar_heights=list(k_score_percent.values()), xlabel="Pourcentage d'échantillons train",
+               ylabel="Score",
+               fig_title="Score par pourcentage de découpage de DATA (5000 images) en échantillons train et test",
+               show=True, percent_mark=True, bar_colors="red",
+               output="tp1Output/mnist_split_data_percentage_scores.png")
+
+def train_percent_variation_and_score():
+    # Fixation de la taille de l'échantillon test (25% de DATA) et variation de la taille de l'échantillon train avec affichage de score
+    k_score_train_variation = {}
+    xtrain_global, xtest_25_percent, ytrain_global, ytest_25_percent = train_test_split(data, data_targets, train_size=0.75)
+    xtest_25_percent = xtest_25_percent.reshape((-1, 784))
+    for pourcentage in [(10*j)/100.0 for j in range(1,10)]:
+        xtrain_echantillon = xtrain_global[:int(pourcentage*len(xtrain_global))+1]
+        xtrain_echantillon = xtrain_echantillon.reshape((-1, 784))
+        ytrain_echantillon = ytrain_global[:int(pourcentage*len(xtrain_global))+1]
+        clf = KNeighborsClassifier(n_neighbors=10)
+        clf.fit(X=xtrain_echantillon, y=ytrain_echantillon)
+        k_score_train_variation[pourcentage] = clf.score(X=xtest_25_percent, y=ytest_25_percent)*100
+    bars_plot2(bar_labels=["%.2f" % (percent) for percent in list(k_score_train_variation.keys())],
+               bar_heights=list(k_score_train_variation.values()),
+               xlabel="Pourcentage d'échantillons train", ylabel="Score",
+               fig_title="Score par pourcentage de découpage de train (%s images initialement) et %s images comme test (25%% de DATA)" % (
+               len(xtrain_global), len(xtest_25_percent)),
+               show=True, percent_mark=True, bar_colors="magenta",
+               output="tp1Output/mnist_split_various_train_percentage_scores_with_fixed_test.png")
+
+def distance_type_variation_and_score():
+    # Variation du type de distance avec train=75% de DATA et test=25% de DATA puis affichage de score
+    xtrain_distance, xtest_distance, ytrain_distance, ytest_distance = train_test_split(data, data_targets, train_size=0.75)
+    xtrain_distance = xtrain_distance.reshape((-1, 784))
+    xtest_distance = xtest_distance.reshape((-1, 784))
+    distances = ["minkowski", "euclidean", "hamming", "canberra", "braycurtis"]
+    distance_score ={}
+    for distance in distances:
+        clf = KNeighborsClassifier(n_neighbors=10, metric=distance)
+        clf.fit(X=xtrain_distance, y=ytrain_distance)
+        distance_score[distance] = clf.score(X=xtest_distance, y=ytest_distance)*100
+    bars_plot2(bar_labels=list(distance_score.keys()), bar_heights=list(distance_score.values()),
+               xlabel="Types de distance", ylabel="Score",
+               fig_title="Score pour différent type de distance (métrique) avec train=75% de DATA et test=25% de DATA",
+               show=True, percent_mark=True, bar_colors="green",
+               output="tp1Output/mnist_various_distance_metric_scores.png")
+
+
+def parameter_njobs_variation_and_score():
+    xtrain_distance, xtest_distance, ytrain_distance, ytest_distance = train_test_split(data, data_targets, train_size=0.75)
+    xtrain_distance = xtrain_distance.reshape((-1, 784))
+    xtest_distance = xtest_distance.reshape((-1, 784))
+    distances = ["minkowski", "euclidean", "hamming", "canberra", "braycurtis"]
+    for n_jobs in [6, -1]:
+        distance_based_training_time = {}
+        for distance in distances:
+            clf = KNeighborsClassifier(n_neighbors=10, metric=distance, n_jobs=n_jobs)
+            tic = time.process_time()
+            clf.fit(X=xtrain_distance, y=ytrain_distance)
+            toc = time.process_time()
+            distance_based_training_time[distance] = (toc-tic)
+        bars_plot2(bar_labels=list(distance_based_training_time.keys()),
+                   bar_heights=list(distance_based_training_time.values()),
+                   xlabel="Types de distance", ylabel="Temps d'entraînement (seconde)", show=True, bar_colors="pink",
+                   fig_title="Temps d'entraînement pour différent type de distance avec train=75%% de DATA et test=25%% de DATA et\nN_JOBS=%s" % (
+                       n_jobs))
+
+
+k_10_classifier_and_score()
+k_variation_and_score()
+train_test_percent_variation_and_score()
+train_percent_variation_and_score()
+distance_type_variation_and_score()
+parameter_njobs_variation_and_score()
diff --git a/TP2_prog1.py b/TP2_prog1.py
new file mode 100644
index 0000000..dfcbd1f
--- /dev/null
+++ b/TP2_prog1.py
@@ -0,0 +1,217 @@
+from sklearn import datasets
+from sklearn.model_selection import train_test_split, KFold
+from sklearn.neural_network import MLPClassifier
+from sklearn.metrics import precision_score, zero_one_loss, recall_score
+import numpy as np
+import matplotlib.pyplot as plt
+from random import seed, randint
+from graphs import bars_plot2, bars_plot
+import time
+
+
+np.random.seed(0) # initialise le generateur aletoire avec seed=0
+seed(0)
+
+#######################
+###  TP2 PROGRAMME  ###
+#######################
+# Chargement de la base de données MNIST
+mnist = datasets.fetch_openml('mnist_784')
+
+# Division de la base de données
+x_train = mnist.data[:4900,:] ## training
+y_train = mnist.target[:4900]
+x_test = mnist.data[4900:7000,:]  ## test
+y_test = mnist.target[4900:7000]
+
+# Mise en conformité des dimensions de xtrain et xtest aux dimensions attendues par le classifeur
+x_train = x_train.reshape((-1, 784))
+x_test = x_test.reshape((-1, 784))
+
+def modele_hidden_layer_sizes_50():
+    # Création du modèle, entraînement et génération de précession
+    modele = MLPClassifier(hidden_layer_sizes=(50))
+    modele.fit(X=x_train, y=y_train)
+    score = modele.score(X=x_test, y=y_test)
+    print("MLPClassifier[hidden_layer_sizes=(50)] score = %.2f"%(100*score)) # après compilation 95.19%
+    # Classe d'image 4 et sa classe prédite
+    y_pred = modele.predict(X=x_test)
+    print("VERDICT IMAGE N°4\nClasse réelle: %s\nClasse prédite: %s"%(y_test[3], y_pred[3]))
+    # Calcul de la précession à travers le package precision_score
+    score_package = precision_score(y_true=y_test, y_pred=y_pred, average="micro")
+    print("MLPClassifier[hidden_layer_sizes=(50)] score[using precision_score] = %.2f"%(100*score_package)) # après compilation %
+
+def layers_number_variation_and_scores():
+    # Variation du nombre de couches et affichage de scores résultants
+    scores_dictionary = {}
+    layers = []
+    for iteration in range(1,11):
+        layers.append(50)
+        hidden_layers = tuple(layers)
+        print(hidden_layers)
+        modele_iter = MLPClassifier(hidden_layer_sizes=hidden_layers)
+        modele_iter.fit(X=x_train, y=y_train)
+        scores_dictionary["%s couches"%(iteration)] = modele_iter.score(X=x_test, y=y_test) * 100
+    # Génération sous forme diagramme à barre
+    print(scores_dictionary)
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(range(1,11), list(scores_dictionary.values()))
+    plt.xlabel("Nombre de couches de 50 neurones")
+    plt.xlim(left=1)
+    plt.ylabel("Score")
+    plt.title("Courbe d'évolution du score de précession en fonction du nombre de couches cachées")
+    plt.savefig("tp2Output/scores_with_hidden_layers_variation.png", dpi="figure")
+    plt.show(); plt.close()
+
+def five_models_with_different_layers():
+    scores = {}
+    times = {}
+    layers = {}
+    for counter in range(5):
+        hl = tuple([randint(10, 300) for i in range(counter*2 + 2)])
+        modele = MLPClassifier(hidden_layer_sizes=hl)
+        tic = time.process_time()
+        modele.fit(X=x_train, y=y_train)
+        toc = time.process_time()
+        times[counter] = toc - tic
+        scores[counter] = modele.score(X=x_test, y=y_test) * 100
+        layers[counter] = hl
+    barWidth = 0.4
+    y1 = [times[c] for c in range(5)]
+    y2 = [scores[c] for c in range(5)]
+    r1 = [0, 4, 8, 12, 16]
+    r2 = [x + barWidth for x in r1]
+    plt.figure(figsize=(12.8, 9.6))
+    bar1 = plt.bar(r1, y1, width=barWidth, color=['red' for i in y1], linewidth=2, label="temps (sec)")
+    bar2 = plt.bar(r2, y2, width=barWidth, color=['green' for i in y2], linewidth=4, label="precision (%)")
+    plt.xticks([r + barWidth for r in r1], ['%s couches\n%s'%(i*2+2, layers[i]) for i in range(5)], rotation=10)
+    plt.xlabel("Modèles")
+    plt.ylabel("Valeur")
+    plt.title("Evaluation du temps d'apprentissage et la précession de cinq modèles de différentes couches")
+    for rect in bar1 + bar2:
+        height = rect.get_height()
+        plt.text(rect.get_x() + rect.get_width() / 2.0, height, '%.2f' % height, ha='center', va='bottom')
+    plt.legend()
+    plt.savefig("tp2Output/comparison_times_scores_of_methods_different_layers", dpi="figure")
+    plt.show()
+
+def optimization_algorithms_variation():
+    solvers = ["lbfgs", "sgd", "adam"]
+    scores = {}
+    scores["lbfgs"] = {}
+    scores["sgd"] = {}
+    scores["adam"] = {}
+    for counter in range(1, 11):
+        hl = tuple([randint(10, 300) for i in range(counter)])
+        for solver in solvers:
+            modele = MLPClassifier(hidden_layer_sizes=hl, solver=solver)
+            modele.fit(X=x_train, y=y_train)
+            scores[solver][counter] = modele.score(X=x_test, y=y_test) * 100
+    print(scores)
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(range(1,11), list(scores["lbfgs"].values()), label="L-BFGS")
+    plt.plot(range(1,11), list(scores["sgd"].values()), label="SGD")
+    plt.plot(range(1,11), list(scores["adam"].values()), label="ADAM")
+    plt.xlabel("Nombre de couches cachées")
+    plt.xlim(left=1)
+    plt.ylabel("Score de précession")
+    plt.title("Courbe d'évolution du score de précession en fonction du nombre de couches cachées")
+    plt.legend()
+    plt.savefig("tp2Output/scores_with_hidden_layers_variation_different_solvers.png", dpi="figure")
+    plt.show(); plt.close()
+
+def activation_functions_variation():
+    activations = ["identity", "logistic", "tanh", "relu"]
+    scores = {}
+    scores["identity"] = {}
+    scores["logistic"] = {}
+    scores["tanh"] = {}
+    scores["relu"] = {}
+    for counter in range(1, 11):
+        hl = tuple([randint(10, 300) for i in range(counter)])
+        for activation in activations:
+            modele = MLPClassifier(hidden_layer_sizes=hl, activation=activation)
+            modele.fit(X=x_train, y=y_train)
+            scores[activation][counter] = modele.score(X=x_test, y=y_test) * 100
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(range(1,11), list(scores["identity"].values()), label="identity")
+    plt.plot(range(1,11), list(scores["logistic"].values()), label="logistic")
+    plt.plot(range(1,11), list(scores["tanh"].values()), label="tanh")
+    plt.plot(range(1, 11), list(scores["relu"].values()), label="relu")
+    plt.xlabel("Nombre de couches cachées")
+    plt.xlim(left=1)
+    plt.ylabel("Score de précession")
+    plt.title("Courbe d'évolution du score de précession en fonction du nombre de couches cachées")
+    plt.legend()
+    plt.savefig("tp2Output/scores_with_hidden_layers_variation_different_activations_with_adam.png", dpi="figure")
+    plt.show(); plt.close()
+
+def alpha_parameter_variation():
+    scores = []
+    alphas = [10**(-i) for i in range(1,9)]
+    alphas = alphas[::-1]
+    for alpha in alphas:
+        # hl = tuple([randint(10, 300) for i in range(counter)])
+        modele = MLPClassifier(hidden_layer_sizes=(60,47,179,251,296,61,191,232,171,114), alpha=alpha)
+        modele.fit(X=x_train, y=y_train)
+        scores.append(modele.score(X=x_test, y=y_test) * 100)
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(alphas, scores)
+    plt.xlabel("Valeurs d'alpha")
+    plt.xlim(left=10e-8)
+    plt.ylabel("Score de précession")
+    plt.title("Courbe d'évolution du score de précession en fonction du paramètre alpha")
+    plt.savefig("tp2Output/scores_with_alpha_variation_same_hidden_layers_sizes.png", dpi="figure")
+    plt.show(); plt.close()
+
+def times_scores_recalls_errors_comparison():
+    scores = {}
+    times = {}
+    recalls = {}
+    errors = {}
+    layers = {}
+    for counter in range(5):
+        hl = tuple([randint(10, 300) for i in range(counter * 2 + 2)])
+        modele = MLPClassifier(hidden_layer_sizes=hl)
+        tic = time.process_time()
+        modele.fit(X=x_train, y=y_train)
+        toc = time.process_time()
+        y_pred = modele.predict(X=x_test)
+        times[counter] = toc - tic
+        scores[counter] = modele.score(X=x_test, y=y_test) * 100
+        recalls[counter] = recall_score(y_true=y_test, y_pred=y_pred, average="micro")
+        errors[counter] = zero_one_loss(y_true=y_test, y_pred=y_pred) * 100
+        layers[counter] = hl
+    barWidth = 0.4
+    y1 = [times[c] for c in range(5)]
+    y2 = [scores[c] for c in range(5)]
+    y3 = [recalls[c] for c in range(5)]
+    y4 = [errors[c] for c in range(5)]
+    r1 = [0, 4, 8, 12, 16]
+    r2 = [x + barWidth for x in r1]
+    r3 = [x + 2 * barWidth for x in r1]
+    r4 = [x + 3 * barWidth for x in r1]
+    plt.figure(figsize=(12.8, 9.6))
+    bar1 = plt.bar(r1, y1, width=barWidth, color=['red' for i in y1], linewidth=2, label="temps (sec)")
+    bar2 = plt.bar(r2, y2, width=barWidth, color=['green' for i in y2], linewidth=4, label="precision (%)")
+    bar3 = plt.bar(r3, y3, width=barWidth, color=['red' for i in y3], linewidth=1, label="recall")
+    bar4 = plt.bar(r4, y4, width=barWidth, color=['magenta' for i in y4], linewidth=3, label="error (%)")
+    plt.xticks([r + 1.5*barWidth for r in r1], ['%s couches\n%s' % (i * 2 + 2, layers[i]) for i in range(5)], rotation=10)
+    plt.xlabel("Modèles")
+    plt.ylabel("Valeur")
+    plt.title("Evaluation du temps d'apprentissage, la précession, le recall et l'erreur de cinq modèles de différentes couches")
+    for rect in bar1 + bar2 + bar3 + bar4:
+        height = rect.get_height()
+        plt.text(rect.get_x() + rect.get_width() / 2.0, height, '%.2f' % height, ha='center', va='bottom')
+    plt.legend()
+    plt.savefig("tp2Output/comparison_times_scores_recalls_errors_of_methods_different_layers", dpi="figure")
+    plt.show(); plt.close()
+
+
+modele_hidden_layer_sizes_50()
+layers_number_variation_and_scores()
+five_models_with_different_layers()
+optimization_algorithms_variation()
+activation_functions_variation()
+alpha_parameter_variation()
+times_scores_recalls_errors_comparison()
diff --git a/TP3_prog1.py b/TP3_prog1.py
new file mode 100644
index 0000000..935b5ab
--- /dev/null
+++ b/TP3_prog1.py
@@ -0,0 +1,257 @@
+from sklearn import datasets
+from sklearn.model_selection import train_test_split, KFold
+from sklearn.neural_network import MLPClassifier
+from sklearn.svm import SVC
+from sklearn.neighbors import KNeighborsClassifier
+from sklearn.metrics import precision_score, recall_score, plot_confusion_matrix, confusion_matrix, ConfusionMatrixDisplay
+import numpy as np
+import matplotlib.pyplot as plt
+from random import seed, randint
+from graphs import bars_plot2, curve_plot
+from statistics import mean
+import time
+
+
+np.random.seed(0) # initialise le generateur aletoire avec seed=0
+seed(0)
+
+#######################
+###  TP3 PROGRAMME  ###
+#######################
+# Chargement de la base de données MNIST
+mnist = datasets.fetch_openml('mnist_784')
+
+# Division de la base de données
+x_train = mnist.data[:3500,:] ## training
+y_train = mnist.target[:3500]
+x_test = mnist.data[3500:5001,:]  ## test
+y_test = mnist.target[3500:5001]
+
+# print(x_train.shape,x_test.shape) #
+
+# Mise en conformité des dimensions de xtrain et xtest aux dimensions attendues par le classifeur
+x_train = x_train.reshape((-1, 784))
+x_test = x_test.reshape((-1, 784))
+
+def kernel_variation():
+    kernels = ["linear","poly","rbf","sigmoid"]
+    scores = {}
+    for kernel in kernels:
+        clsvm = SVC(kernel=kernel)
+        clsvm.fit(X=x_train, y=y_train)
+        scores[kernel] = clsvm.score(X=x_test, y=y_test) * 100
+        print("Score avec kernel=%s: %.2f"%(kernel, scores[kernel]))
+    bars_plot2(bar_labels=kernels, bar_heights=list(scores.values()), xlabel="Kernels utilisés",
+              ylabel="Score", fig_title="Score par kernel utilisé", show=True, percent_mark=True,
+               output="tp3Output/scores_for_kernel_variation.png")
+
+
+def kernel_and_c_variation():
+    kernels = ["linear", "poly", "rbf", "sigmoid"]
+    scores = {}
+    c_values = [0.1 + 0.18 * x for x in range(6)]
+    for kernel in kernels:
+        scores[kernel] = {}
+        for c_value in c_values:
+            clsvm = SVC(kernel=kernel, C=c_value)
+            clsvm.fit(X=x_train, y=y_train)
+            scores[kernel][c_value] = clsvm.score(X=x_test, y=y_test) * 100
+            print("Score avec kernel=%s: %.2f" % (kernel, clsvm.score(X=x_test, y=y_test) * 100))
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(c_values, list(scores["linear"].values()), label="linear")
+    plt.plot(c_values, list(scores["poly"].values()), label="poly")
+    plt.plot(c_values, list(scores["rbf"].values()), label="rbf")
+    plt.plot(c_values, list(scores["sigmoid"].values()), label="sigmoid")
+    plt.xlabel("Valeurs de C")
+    plt.xlim(left=0.1)
+    plt.ylabel("Score (précision)")
+    plt.title("Courbe d'évolution de la précision en fonction de C")
+    plt.legend()
+    plt.savefig("tp3Output/scores_all_kernel_with_c_variation.png", dpi="figure")
+    plt.show()
+    plt.close()
+
+def train_test_error_with_c_variation():
+    kernels = ["linear", "poly", "rbf", "sigmoid"]
+    scores = {}
+    c_values = [0.1 + 0.18 * x for x in range(6)]
+    data_types = ["train", "test"]
+    for data_type in data_types:
+        scores[data_type] = {}
+        for kernel in kernels:
+            scores[data_type][kernel] = {}
+            for c_value in c_values:
+                clsvm = SVC(kernel=kernel, C=c_value)
+                clsvm.fit(X=x_train, y=y_train)
+                if data_type=="train":
+                    scores[data_type][kernel][c_value] = (1 - clsvm.score(X=x_train, y=y_train)) * 100
+                else:
+                    scores[data_type][kernel][c_value] = (1 - clsvm.score(X=x_test, y=y_test)) * 100
+                print("Score d'erreur données=%s avec kernel=%s: %.2f" % (data_type, kernel, scores[data_type][kernel][c_value]))
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(c_values, list(scores["train"]["linear"].values()), label="train linear", marker="o")
+    plt.plot(c_values, list(scores["train"]["poly"].values()), label="train poly", marker="o")
+    plt.plot(c_values, list(scores["train"]["rbf"].values()), label="train rbf", marker="o")
+    plt.plot(c_values, list(scores["train"]["sigmoid"].values()), label="train sigmoid", marker="o")
+    plt.plot(c_values, list(scores["test"]["linear"].values()), label="test linear", marker="*")
+    plt.plot(c_values, list(scores["test"]["poly"].values()), label="test poly", marker="*")
+    plt.plot(c_values, list(scores["test"]["rbf"].values()), label="test rbf", marker="*")
+    plt.plot(c_values, list(scores["test"]["sigmoid"].values()), label="test sigmoid", marker="*")
+    plt.xlabel("Valeurs de C")
+    plt.xlim(left=0.1)
+    plt.ylabel("Error score")
+    plt.title("Courbe d'évolution du pourcentage d'erreur de précision en fonction de C")
+    plt.legend()
+    plt.savefig("tp3Output/error_scores_train_test_with_kernel_and_c_variation.png", dpi="figure")
+    plt.show()
+    plt.close()
+
+def generate_confusion_matrix():
+    kernels = ["linear", "poly", "rbf", "sigmoid"]
+    for kernel in kernels:
+        clsvm = SVC(kernel=kernel)
+        clsvm.fit(X=x_train, y=y_train)
+        plot_confusion_matrix(estimator=clsvm, X=x_test, y_true=y_test, values_format=".1f")
+        plt.show()
+
+def time_precision_recall_error():
+    kernels = ["linear", "poly", "rbf", "sigmoid"]
+    times = {}
+    scores = {}
+    recalls = {}
+    errors = {}
+    c_values = [0.1 + 0.18 * x for x in range(6)]
+    for kernel in kernels:
+        times[kernel] = {}
+        scores[kernel] = {}
+        recalls[kernel] = {}
+        errors[kernel] = {}
+        for c_value in c_values:
+            clsvm = SVC(kernel=kernel, C=c_value)
+            tic = time.process_time()
+            clsvm.fit(X=x_train, y=y_train)
+            toc = time.process_time()
+            y_pred = clsvm.predict(X=x_test)
+            times[kernel][c_value] = toc - tic
+            scores[kernel][c_value] = clsvm.score(X=x_test, y=y_test) * 100
+            recalls[kernel][c_value] = recall_score(y_true=y_test, y_pred=y_pred, average="micro")
+            errors[kernel][c_value] = 100 - scores[kernel][c_value]
+            print("Score avec kernel=%s: %.2f" % (kernel, clsvm.score(X=x_test, y=y_test) * 100))
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(c_values, list(times["linear"].values()), label="linear")
+    plt.plot(c_values, list(times["poly"].values()), label="poly")
+    plt.plot(c_values, list(times["rbf"].values()), label="rbf")
+    plt.plot(c_values, list(times["sigmoid"].values()), label="sigmoid")
+    plt.xlabel("Valeurs de C")
+    plt.xlim(left=0.1)
+    plt.ylabel("Temps d'apprentissage (secondes)")
+    plt.title("Courbe d'évolution du temps d'apprentissage en fonction de C")
+    plt.legend()
+    plt.savefig("tp3Output/times_all_kernel_with_c_variation.png", dpi="figure")
+    plt.show(); plt.close()
+    ###
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(c_values, list(scores["linear"].values()), label="linear precision")
+    plt.plot(c_values, list(scores["poly"].values()), label="poly precision")
+    plt.plot(c_values, list(scores["rbf"].values()), label="rbf precision")
+    plt.plot(c_values, list(scores["sigmoid"].values()), label="sigmoid precision")
+    plt.plot(c_values, list(errors["linear"].values()), label="linear error", marker="*", linestyle="-.")
+    plt.plot(c_values, list(errors["poly"].values()), label="poly error", marker="*", linestyle="-.")
+    plt.plot(c_values, list(errors["rbf"].values()), label="rbf error", marker="*", linestyle="-.")
+    plt.plot(c_values, list(errors["sigmoid"].values()), label="sigmoid error", marker="*", linestyle="-.")
+    plt.xlabel("Valeurs de C")
+    plt.xlim(left=0.1)
+    plt.ylabel("Score")
+    plt.title("Courbe d'évolution de la précision et de l'erreur de classification en fonction de C")
+    plt.legend()
+    plt.savefig("tp3Output/scores_and_errors_all_kernel_with_c_variation.png", dpi="figure")
+    plt.show(); plt.close()
+    ###
+    plt.figure(figsize=(12.8, 9.6))
+    plt.plot(c_values, list(recalls["linear"].values()), label="linear")
+    plt.plot(c_values, list(recalls["poly"].values()), label="poly")
+    plt.plot(c_values, list(recalls["rbf"].values()), label="rbf")
+    plt.plot(c_values, list(recalls["sigmoid"].values()), label="sigmoid")
+    plt.xlabel("Valeurs de C")
+    plt.xlim(left=0.1)
+    plt.ylabel("Recall score")
+    plt.title("Courbe d'évolution du recall en fonction de C")
+    plt.legend()
+    plt.savefig("tp3Output/recalls_all_kernel_with_c_variation.png", dpi="figure")
+    plt.show(); plt.close()
+
+def methods_comparison():
+    times = {}
+    scores = {}
+    recalls = {}
+    errors = {}
+    matrices = {}
+    ### Méthode 1
+    knn = KNeighborsClassifier(n_neighbors=10)
+    tic = time.process_time()
+    knn.fit(X=x_train, y=y_train)
+    toc = time.process_time()
+    y_pred = knn.predict(X=x_test)
+    times["knn"] = toc - tic
+    scores["knn"] = knn.score(X=x_test, y=y_pred) * 100
+    recalls["knn"] = recall_score(y_true=y_test, y_pred=y_pred, average="micro")
+    errors["knn"] = 100 - scores["knn"]
+    # matrices["knn"] = confusion_matrix(y_true=y_test,y_pred=y_pred)
+    plot_confusion_matrix(estimator=knn, X=x_test, y_true=y_test, values_format=".1f"); plt.show()
+    ### Méthode 2
+    mlp = MLPClassifier(hidden_layer_sizes=(50))
+    tic = time.process_time()
+    mlp.fit(X=x_train, y=y_train)
+    toc = time.process_time()
+    y_pred = knn.predict(X=x_test)
+    times["mlp"] = toc - tic
+    scores["mlp"] = mlp.score(X=x_test, y=y_pred) * 100
+    recalls["mlp"] = recall_score(y_true=y_test, y_pred=y_pred, average="micro")
+    errors["mlp"] = 100 - scores["mlp"]
+    # matrices["mlp"] = confusion_matrix(y_true=y_test, y_pred=y_pred)
+    plot_confusion_matrix(estimator=mlp, X=x_test, y_true=y_test, values_format=".1f"); plt.show()
+    ### Méthode 3
+    svc = SVC(kernel="rbf", C=1)
+    tic = time.process_time()
+    svc.fit(X=x_train, y=y_train)
+    toc = time.process_time()
+    y_pred = knn.predict(X=x_test)
+    times["svc"] = toc - tic
+    scores["svc"] = svc.score(X=x_test, y=y_pred) * 100
+    recalls["svc"] = recall_score(y_true=y_test, y_pred=y_pred, average="micro")
+    errors["svc"] = 100 - scores["svc"]
+    # matrices["svc"] = confusion_matrix(y_true=y_test, y_pred=y_pred)
+    plot_confusion_matrix(estimator=svc, X=x_test, y_true=y_test, values_format=".1f"); plt.show()
+    ### Plotting
+    barWidth = 0.5
+    y1 = [times["knn"], times["mlp"], times["svc"]]
+    y2 = [scores["knn"], scores["mlp"], scores["svc"]]
+    y3 = [recalls["knn"], recalls["mlp"], recalls["svc"]]
+    y4 = [errors["knn"], errors["mlp"], errors["svc"]]
+    r1 = [0, 3, 6]
+    r2 = [x + barWidth for x in r1]
+    r3 = [x + 2 * barWidth for x in r1]
+    r4 = [x + 3 * barWidth for x in r1]
+    plt.figure(figsize=(12.8, 9.6))
+    bar1 = plt.bar(r1, y1, width=barWidth, color=['green' for i in y1], linewidth=2, label="temps (sec)")
+    bar2 = plt.bar(r2, y2, width=barWidth, color=['yellow' for i in y2], linewidth=4, label="precision (%)")
+    bar3 = plt.bar(r3, y3, width=barWidth, color=['red' for i in y3], linewidth=1, label="recall")
+    bar4 = plt.bar(r4, y4, width=barWidth, color=['magenta' for i in y4], linewidth=3, label="error (%)")
+    plt.xticks([r + 1.5 * barWidth for r in r1], ['Modèle K-nn', 'Modèle MLP', 'Modèle SVM'])
+    plt.xlabel("Méthodes")
+    plt.ylabel("Valeur")
+    plt.title("Evaluation de différentes métriques de performance pour chacune des méthodes vues")
+    for rect in bar1 + bar2 + bar3 + bar4:
+        height = rect.get_height()
+        plt.text(rect.get_x() + rect.get_width() / 2.0, height, '%.2f' % height, ha='center', va='bottom')
+    plt.legend()
+    plt.show()
+    plt.savefig("tp3Output/global_comparison_of_methods_different_metrics", dpi="figure")
+
+
+kernel_variation()
+kernel_and_c_variation()
+train_test_error_with_c_variation()
+generate_confusion_matrix()
+time_precision_recall_error()
+methods_comparison()
diff --git a/graphs.py b/graphs.py
new file mode 100644
index 0000000..db4e44d
--- /dev/null
+++ b/graphs.py
@@ -0,0 +1,54 @@
+def bars_plot(bar_labels=None, bar_heights=None, bar_colors="blue", bar_width=0.25, xlabel="xlabel", ylabel="ylabel", fig_title="title", figsize=(12.8, 9.6), output="./bars.png", show=False):
+    import matplotlib.pyplot as plt
+    plt.figure(figsize=figsize)
+    plt.bar(x=list(map(str,bar_labels)), height=bar_heights, width=bar_width, color=bar_colors)
+    plt.xlabel(xlabel)
+    plt.ylabel(ylabel)
+    plt.title(fig_title)
+    plt.savefig(output, dpi="figure")
+    if show:
+        plt.show()
+    plt.close()
+
+def clustering_plot(abcissas=None, ordinates=None, predictions=None, marker="o", xlabel="xlabel", ylabel="ylabel", fig_title="title", figsize=(12.8, 9.6), output="./bars.png", show=False):
+    import matplotlib.pyplot as plt
+    plt.figure(figsize=figsize)
+    plt.scatter(x=abcissas, y=ordinates, c=predictions, marker=marker)
+    plt.xlabel(xlabel)
+    plt.ylabel(ylabel)
+    plt.title(fig_title)
+    plt.savefig(output, dpi="figure")
+    if show:
+        plt.show()
+    plt.close()
+
+def bars_plot2(bar_labels=None, bar_heights=None, bar_colors="blue", bar_width=0.25, xlabel="xlabel", ylabel="ylabel", fig_title="title", figsize=(12.8, 9.6), output="./bars.png", show=False, show_heights=True, percent_mark=False):
+    import matplotlib.pyplot as plt
+    plt.figure(figsize=figsize)
+    bar = plt.bar(x=list(map(str,bar_labels)), height=bar_heights, width=bar_width, color=bar_colors)
+    plt.xlabel(xlabel)
+    plt.ylabel(ylabel)
+    plt.title(fig_title)
+    if show_heights:
+        for rect in bar:
+            height = rect.get_height()
+            if percent_mark:
+                plt.text(rect.get_x() + rect.get_width() / 2.0, height, '%.2f%%' % height, ha='center', va='bottom')
+            else:
+                plt.text(rect.get_x() + rect.get_width() / 2.0, height, '%.2f' % height, ha='center', va='bottom')
+    plt.savefig(output, dpi="figure")
+    if show:
+        plt.show()
+    plt.close()
+
+def curve_plot(abcissas=None, ordinates=None, xlabel="xlabel", ylabel="ylabel", fig_title="title", figsize=(12.8, 9.6), output="./bars.png", show=False):
+    import matplotlib.pyplot as plt
+    plt.figure(figsize=figsize)
+    plt.plot(abcissas,ordinates)
+    plt.xlabel(xlabel)
+    plt.ylabel(ylabel)
+    plt.title(fig_title)
+    plt.savefig(output, dpi="figure")
+    if show:
+        plt.show()
+    plt.close()
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