PiML-Toolbox is an AI Frameworks & Infra tool that provides an integrated Python toolbox for interpretable machine learning model development and diagnostics. It supports both low-code and high-code interfaces for various ML models.
PiML-Toolbox (Python Interpretable Machine Learning) is a comprehensive Python toolbox designed for the development and diagnostics of interpretable machine learning models. It offers both low-code interfaces and high-code APIs, supporting a growing list of inherently interpretable ML models such as GLM, GAM, Tree, FIGS, XGB1, XGB2, EBM, GAMI-Net, and ReLU-DNN. The toolbox facilitates various outcome testing, including accuracy, explainability (PFI, PDP, ALE, LIME, SHAP), fairness, weak spot identification, overfitting detection, reliability assessment, robustness, and resilience evaluation. PiML-Toolbox aims to empower model developers and validators with tools for transparent, interpretable, and robust machine learning, particularly in high-stakes regulatory settings.
Best used for
Ideal for data scientists and developers who need to build, validate, and diagnose interpretable machine learning models. Especially valuable for those working in high-stakes regulatory environments or exploring cutting-edge model architectures where transparency and robustness are critical.
What types of interpretable ML models does PiML-Toolbox support?
PiML-Toolbox supports a variety of inherently interpretable ML models, including GLM, GAM, Decision Tree, FIGS, XGB1, XGB2, EBM, GAMI-Net, and ReLU-DNN. It also allows for the validation of arbitrary supervised ML models under regression and binary classification settings.
Can PiML-Toolbox be used for both low-code and high-code development?
Yes, PiML-Toolbox offers both a low-code interface for quick experimentation and a high-code API for more customized and advanced development. This flexibility caters to different user preferences and project requirements.
What kind of model diagnostics and outcome testing does PiML-Toolbox provide?
The toolbox provides extensive outcome testing capabilities, including accuracy metrics, post-hoc global and local explainers (PFI, PDP, ALE, LIME, SHAP), fairness disparity tests, weak spot identification, overfitting detection, reliability assessment, robustness, and resilience evaluation.