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PAIR-code/lit

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3,636 stele·371 fork-uri·TypeScript·apache-2.0·2 vizualizăripair-code.github.io/lit↗

Lit

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 enables side-by-side comparison of multiple model versions and the quantification of high-level concept importance.

The framework covers a broad capability surface including quantitative model evaluation with confusion matrices and custom metric calculation, interactive data management via slicing and filtering, and the visualization of structured predictions. It provides an extensible architecture that supports custom visualization development and the integration of remote model endpoints.

The interface can be deployed via Docker containers or embedded directly within notebook output cells.

Features

  • Machine Learning Debugging - Provides interactive visualizations to analyze model predictions and errors and identify failure modes.
  • Model Behavioral Analysis - Explores model predictions across text, image, and tabular data via an interactive interface to identify behavioral patterns.
  • Model Interpretability - Implements techniques for explaining model decision logic through feature attribution and salience mapping.
  • Classification Metrics - Computes standard accuracy and error rates for classification tasks to evaluate model performance.
  • Comparative Metric Calculators - Calculates default or custom metrics across the whole dataset or faceted subsets for behavioral comparison.
  • Custom Model Integrations - Allows wrapping machine learning models as functions to return predictions and metadata within the visual environment.
  • Dataset Integration - Provides interfaces for connecting custom datasets to the interpretability pipeline for slicing and analysis.
  • Embedding Visualizations - Projects high-dimensional vector representations into a visual space to identify clusters and relationships in data.
  • Synthetic Robustness Example Generation - Creates new input examples using back-translation or adversarial attacks to evaluate model robustness.
  • LLM Interpretability Dashboards - Provides a comprehensive visual dashboard for analyzing LLM behavior via salience maps and embeddings.
  • Model Comparison Interfaces - Provides interfaces for the side-by-side visual and analytical comparison of outputs from different machine learning models.
  • Counterfactual Example Generation - Generates counterfactual and synthetic examples to evaluate model stability and robustness under input perturbations.
  • Model Evaluation Metrics - Computes performance statistics across datasets to quantify the accuracy and behavior of trained models.
  • ML Model Debugging Tools - Provides a system for inspecting predictions and calculating metrics across text, image, and tabular datasets.
  • Model Evaluation Tools - Assesses model performance using a combination of custom metrics, data slicing, and embedding visualizations.
  • Model Interpretability Frameworks - Implements a comprehensive toolkit for understanding complex model decisions via feature attribution and decision boundary exploration.
  • Model Performance Analysis - Evaluates model predictions and calculates metrics like accuracy or BLEU scores across specific data slices.
  • Model Performance Evaluators - Computes accuracy and reliability metrics by comparing model predictions against ground truth labels using confusion matrices.
  • Model Prediction Evaluation - Compares model outputs against ground truth labels using field specifications to generate performance reports.
  • Embedding Visualizations - Visualizes high-dimensional embeddings in low-dimensional space using techniques like UMAP and PCA.
  • Saliency Mapping - Highlights the most influential parts of an input using interpretability methods like Integrated Gradients and LIME.
  • Counterfactual Analyses - Observes prediction changes by applying manual edits or automatic transformations to inputs.
  • Counterfactual Data Generation - Generates new datapoints by applying transformations like word replacement, scrambling, or back-translation.
  • Counterfactual Example Generation - Produces transformed input examples using plugins for word scrambling, regex substitution, and adversarial methods.
  • Subset Metric Calculation - Computes performance measures, such as accuracy or BLEU score, across the dataset, current selections, or slices.
  • Dimensionality Projection Plots - Visualizes the latent space using UMAP or PCA to identify clusters and patterns in high-dimensional vectors.
  • Dataset Filtering and Search - Provides advanced filtering and search using regex, text, and numerical ranges to isolate data subsets.
  • Dataset Loading - Implements processes for importing lists of examples and structured data for model evaluation.
  • Large Dataset Explorers - Navigates large datasets using a matrix view grouped by feature values with support for zooming and panning.
  • Interpretability Pipelines - Uses a modular system of interpreters and generators to process model outputs into salience maps and counterfactuals.
  • Side-by-Side Inference Recipes - Implements a side-by-side evaluation system to compare predictions and metrics across the same dataset for multiple models.
  • ML Tabular Visualizers - Renders predictions over categorical and numeric tabular data with support for feature attribution.
  • Data Selection - Allows users to select datapoints via interactive plots and tables for downstream analysis.
  • Concept Importance Quantification - Measures how much a high-level concept contributes to a prediction using Concept Activation Vectors.
  • Confusion Matrix Analysis - Provides interactive confusion matrices to compare predictions against gold labels for intersectional analysis.
  • Datapoint Editing - Enables modification of input features for selected datapoints to test model sensitivity.
  • Decision Boundary Visualizations - Visualizes scalar features and per-class probabilities via scatterplots to identify examples near decision boundaries.
  • Decision Threshold Calibration - Optimizes probability thresholds to maximize specific classification metrics like F1 score, accounting for cost and fairness.
  • Feature Importance Attribution - Quantifies the influence of specific numeric or categorical features on predictions using partial-dependence plots.
  • Reference Datapoint Comparisons - Allows pinning a reference datapoint to visualize how model behavior differs relative to a primary selection.
  • Remote Model Integration - Provides the ability to interact with models hosted via network endpoints to maintain computation on the server.
  • Evaluation Threshold Gates - Adjusts binary classifier thresholds for specific data slices to optimize for fairness and performance.
  • Model Explanation Visualizations - Provides rich visual explanations and salience maps to diagnose the reasoning behind specific model predictions.
  • Model Output Visualizers - Renders scatter plots of model scores and regression errors to analyze prediction distributions.
  • Prediction Visualization - Renders interactive visualizations for token-aligned output, part-of-speech tags, and dependency parsing edges.
  • Classification Error Analysis - Provides a detailed categorical breakdown of classification mistakes using a 2D matrix to identify where models disagree.
  • Prompt Salience Analysis - Explains the impact of individual prompt tokens on model outputs using various salience methods.
  • Regression Scoring Evaluation - Tracks numerical target scores using regression metrics, bucketed faceting, and scalar scatterplots.
  • Pixel Saliency Maps - Generates saliency maps for image inputs using integrated gradients or XRAI to highlight influential pixels.
  • Debugging - Visualizes generated text candidates and highlights diffs against reference texts using output probabilities.
  • Tabular Counterfactual Generation - Finds alternative data points in tabular datasets to understand model decision boundaries.
  • Feature-Based Segmentation - Enables the creation of data slices by faceting along features to analyze performance on subgroups.
  • Slice Persistence - Allows users to name and save specific datapoint subsets as reusable slices for quick navigation.
  • Tabular Model Explanation - Identifies the importance of specific data columns in tabular datasets using SHAP interpreters.
  • Notebook Integrations - Integrates interactive analysis and debugging tools directly within Jupyter notebook environments.
  • Notebook Rendering Utilities - Renders the interpretability interface directly within notebook output cells for seamless workflow integration.
  • Notebook Tooling - Embeds the interactive interpretability interface directly into notebook cells for inline debugging workflows.
  • Interpretability Components - Provides standalone classes for metrics and counterfactual generators to perform analysis independently of a visual interface.
  • Client-Server Architecture - Maintains a frontend for interactive visualization and a backend server for heavy model computation and data processing.
  • Shared State Management - Encodes the current view and loaded assets into a URL for easy sharing with other users.
  • Cross-Component Selection Synchronization - Synchronizes datapoint highlighting across all interactive modules to ensure consistent analysis.
  • Partial Dependence Plots - Displays the effect of changing individual features on model output through interactive partial dependence plots.
  • Cross-Component Selection Sync - Coordinates data highlighting across disparate visual components by broadcasting selection events via a central state coordinator.
  • URL State Synchronization - Serializes the current view configuration and active data filters into the URL to enable shareable application states.
  • Profiling View State Encoders - Encodes the current model setup and UI state into a URL for sharing with other users.
  • Explainable AI Libraries - Interactive tool for understanding and debugging NLP models.

Istoric stele

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Întrebări frecvente

Ce face pair-code/lit?

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.

Care sunt principalele funcționalități ale pair-code/lit?

Principalele funcționalități ale pair-code/lit sunt: Machine Learning Debugging, Model Behavioral Analysis, Model Interpretability, Classification Metrics, Comparative Metric Calculators, Custom Model Integrations, Dataset Integration, Embedding Visualizations.

Care sunt câteva alternative open-source pentru pair-code/lit?

Alternativele open-source pentru pair-code/lit includ: autogluon/autogluon — AutoGluon is an automated machine learning framework and multimodal library designed to automate the end-to-end… nyandwi/machine_learning_complete — This is an interactive notebook-based course that teaches machine learning from Python fundamentals through deep… fastai/course-v3 — This repository is a comprehensive educational program and deep learning framework designed to teach practical deep… christophm/interpretable-ml-book — This project is a comprehensive educational resource and technical manual focused on interpretable machine learning… tommyzihao/train_custom_dataset — This project is a computer vision training pipeline and image classification framework. It provides a workflow for… lightly-ai/lightly — Lightly is a self-supervised learning framework and computer vision data curation tool designed to manage large image…

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