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SHAP is a machine learning explainer that uses a game-theoretic framework to estimate the contribution of each feature to a model prediction. It provides a set of tools for quantifying how individual input features push a specific output away from a baseline value. The project includes specialized explainers for different architectures, including high-speed implementations for decision trees and ensemble models, linearization algorithms for deep learning networks, and covariance integration for linear models. It also features a model-agnostic interpretability tool that uses a kernel method to

This project is an agnostic model interpretability framework and explainability tool designed to provide local interpretable explanations for individual predictions. It functions as a local surrogate model that approximates the behavior of any machine learning classifier or regression model to identify the most influential features for a specific instance. The framework is designed to be model-agnostic, meaning it can explain predictions across tabular, text, and image data regardless of the underlying architecture. It employs local linear approximations and feature importance visualization t

This project is a collection of supervised and unsupervised machine learning algorithms implemented from scratch using Python. It serves as an educational resource for studying model training, parameter optimization, and the implementation of core predictive models. The library provides a variety of supervised learning tools, including linear and logistic regression, decision trees, and support vector machines. It also features unsupervised learning capabilities for discovering patterns in unlabeled datasets through clustering algorithms. Broad capability areas include ensemble learning thro

Interpret is an interpretable machine learning library and glassbox model framework. It provides toolkits for training inherently transparent models and applying post-hoc explanation techniques to make machine learning predictions human-understandable. The framework distinguishes itself by integrating differential privacy into the training of interpretable models to prevent sensitive data from leaking through explanations. It also features a visualization tool for rendering interactive decision paths and model behavior. The library covers model explainability through feature importance calcu

Acest proiect este o resursă educațională cuprinzătoare și un manual tehnic axat pe machine learning interpretabil și AI explicabil. Servește ca manual și referință pentru implementarea tehnicilor care fac modelele complexe de machine learning transparente și ușor de înțeles pentru oameni. Resursa oferă îndrumări atât pentru construirea modelelor inerent transparente, cum ar fi arborii de decizie și modelele liniare rare, cât și pentru aplicarea metodelor de explicare post-hoc sistemelor black-box. Detaliază metodologii specifice pentru cuantificarea importanței caracteristicilor, generarea de raționamente pentru predicții individuale și utilizarea modelelor surogat pentru a aproxima procesele complexe de luare a deciziilor. Conținutul acoperă o gamă largă de capabilități analitice, inclusiv analiza influenței caracteristicilor globale și locale, interpretabilitatea viziunii computerizate și utilizarea contribuțiilor teoretice ale jocurilor, cum ar fi valorile Shapley. De asemenea, abordează evaluarea modelului prin evaluări de interpretabilitate, fluxuri de lucru de depanare pentru a identifica scurtăturile modelului și designul structurilor algoritmice transparente. Proiectul este implementat ca o colecție de Jupyter Notebooks.

Lit is a machine learning interpretability framework and model debugging tool designed to analyze model behavior and performance. It serves as an interpretability dashboard for large language models and a general performance analyzer for text, image, and tabular datasets. The project distinguishes itself through a comprehensive suite of interpretability tools, including salience map generation for feature attribution, the creation of synthetic and counterfactual examples to test robustness, and the projection of high-dimensional embeddings into visual spaces via UMAP or PCA. It further enable