ML DL NLP CV Hands On Ideas
Machine Learning (ML) Hands On
Supervised Learning
Supervised learning involves training a model on a dataset that is already labeled, where the goal is to predict the label for new, unseen data.
Classification
Classification is a type of supervised learning where the goal is to predict a discrete label or class.
penguins_rf: This experiment involves a classification task using the penguins dataset and a Random Forest Classifier.
breast_cancer_svm: A classification experiment on the breast cancer dataset. It uses a Logistic Regression model, which is used here as a stand-in for a simple classifier.
wine_knn: This is another classification experiment, this time with the wine dataset, and it also uses a Random Forest Classifier.
sms_spam_nb: This is a text classification task to detect SMS spam using a Multinomial Naive Bayes model.
lang_detect_nb: A text classification experiment for language detection using a small synthetic dataset and a Multinomial Naive Bayes model.
penguins_rf: This experiment involves a classification task using the penguins dataset and a Random Forest Classifier.
breast_cancer_svm: A classification experiment on the breast cancer dataset. It uses a Logistic Regression model, which is used here as a stand-in for a simple classifier.
wine_knn: This is another classification experiment, this time with the wine dataset, and it also uses a Random Forest Classifier.
sms_spam_nb: This is a text classification task to detect SMS spam using a Multinomial Naive Bayes model.
lang_detect_nb: A text classification experiment for language detection using a small synthetic dataset and a Multinomial Naive Bayes model.
Regression
Regression is a type of supervised learning where the goal is to predict a continuous value.
diamonds_reg: A regression experiment that predicts diamond prices using the diamonds dataset and a Random Forest Regressor.
diamonds_reg: A regression experiment that predicts diamond prices using the diamonds dataset and a Random Forest Regressor.
Unsupervised Learning
Unsupervised learning involves training a model on a dataset with no labels. The goal is to discover hidden patterns or intrinsic structures in the data.
Clustering
Clustering is a type of unsupervised learning where the goal is to group similar data points together.
iris_kmeans: This experiment performs clustering on the Iris dataset using the K-Means algorithm with clusters. The performance is evaluated using the silhouette score.
iris_kmeans: This experiment performs clustering on the Iris dataset using the K-Means algorithm with
Reinforcement Learning (RL)
Reinforcement learning is a type of machine learning where an agent learns to make a sequence of decisions in an environment to maximize a cumulative reward.
bandits_pricing: This experiment uses a simulated environment to test different multi-armed bandit algorithms, including Epsilon-Greedy, UCB1, and Thompson Sampling. The goal is to maximize cumulative rewards in a surge pricing scenario.
elevator_qlearning: A Q-learning agent is trained in a simple elevator environment to minimize the total waiting time for passengers.
mountaincar_qlearning: This experiment uses a Q-learning agent to solve the classic Mountain Car problem, where the agent learns to drive an underpowered car up a hill.
bandits_pricing: This experiment uses a simulated environment to test different multi-armed bandit algorithms, including Epsilon-Greedy, UCB1, and Thompson Sampling. The goal is to maximize cumulative rewards in a surge pricing scenario.
elevator_qlearning: A Q-learning agent is trained in a simple elevator environment to minimize the total waiting time for passengers.
mountaincar_qlearning: This experiment uses a Q-learning agent to solve the classic Mountain Car problem, where the agent learns to drive an underpowered car up a hill.
Deep Learning (DL) Hands On
Fashion MNIST Classifier: Classify images of clothing using a simple Convolutional Neural Network (CNN). This is a great next step after the classic MNIST handwritten digit dataset.
Cat vs. Dog Image Classifier: Use a pre-trained model with transfer learning (e.g., VGG16, ResNet50) to classify images of cats and dogs. This teaches you how to leverage existing, powerful models.
Simple Generative Adversarial Network (GAN): Build a basic GAN to generate new images of handwritten digits. This introduces the concept of a generator and a discriminator model competing against each other.
Time Series Forecasting with LSTMs: Predict future stock prices, weather patterns, or sales data using a Long Short-Term Memory (LSTM) network.
Autoencoder for Anomaly Detection: Train an autoencoder on a normal dataset (e.g., valid credit card transactions). When a new, anomalous data point is fed to it, the reconstruction error will be high, indicating a potential anomaly.
Text Generation with a Character-level RNN: Train a Recurrent Neural Network (RNN) to generate text, one character at a time, based on a corpus like Shakespeare's plays or a collection of song lyrics.
Multi-label Image Classification: Create a model that can identify multiple objects in a single image. For example, an image might contain a "cat," a "table," and a "window" all at once.
Simple Transformer for Text Classification: Implement a simple version of the Transformer architecture (the backbone of large language models) for a text classification task.
Music Genre Classifier: Use a CNN on spectrograms (visual representations of sound) to classify songs by genre.
Reinforcement Learning with a Deep Q-Network (DQN): Extend your Q-learning knowledge by using a neural network to approximate the Q-table in a more complex environment, like playing an Atari game.
Natural Language Processing (NLP) Hands On
Advanced Spam SMS Detection: Go beyond your previous project by using more advanced techniques like word embeddings (Word2Vec, GloVe) and a recurrent neural network to improve accuracy.
Sentiment Analysis of Movie Reviews: Use a dataset of movie reviews to build a model that can determine if a review is positive or negative.
Text Summarization: Create a model that can take a long article and generate a shorter, concise summary. Start with an extractive method (picking key sentences) before moving to an abstractive one (generating new sentences).
Chatbot Development: Build a simple chatbot that can respond to user queries. You can start with a rule-based system and then move towards a sequence-to-sequence model.
Named Entity Recognition (NER): Develop a model that can identify and classify named entities (like names, organizations, and locations) in a block of text.
Language Translation: Create a basic machine translation model to translate short phrases from one language to another. This is a great way to understand sequence-to-sequence models.
Topic Modeling: Use techniques like Latent Dirichlet Allocation (LDA) to discover the underlying topics in a large collection of documents, like news articles or forum posts.
Text-Based Recommendation System: Build a system that recommends articles or products based on the user's previously read or purchased items by analyzing the text content.
Speech-to-Text with a Simple Model: Use a library like
SpeechRecognitionto convert spoken words into text.Keyword Extractor: Build an algorithm that can automatically identify the most important keywords from a document or article.
Computer Vision (CV) Hands On
Object Detection with YOLO: Use a pre-trained YOLO (You Only Look Once) model to detect multiple objects in a single image or a video stream.
Lane Line Detection: Create a program that can detect lane lines in a video feed, a foundational task for self-driving cars.
Face Detection and Recognition: Build an app that can detect faces in an image and then recognize them based on a pre-trained face dataset.
Image Segmentation: Develop a model that can classify each pixel in an image to belong to a certain class (e.g., car, pedestrian, road).
Real-Time Object Counter: Create a program that counts the number of specific objects (e.g., cars, people) in a video.
Image Captioning: Combine a CNN with an RNN to generate a natural language description for a given image.
Simple Augmented Reality (AR) App: Use a library like OpenCV to overlay a 3D object onto a specific marker in a video feed.
Visual Search Engine: Create a system where a user can upload an image and the program will find other similar images from a database.
Pose Estimation: Use a pre-trained model (like OpenPose or MediaPipe) to detect and track the body posture of a person in an image or video.
Optical Character Recognition (OCR): Build a model to read and convert text from images into machine-encoded text.
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