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Prophet is a predictive analytics framework and time series regression library designed for forecasting future values. It uses additive models to fit non-linear growth and periodic seasonal patterns, providing tools for producing forecasts with integrated error measurement.
The main features of facebookincubator/prophet are: Forecasting, Piecewise Linear Trends, Predictive Machine Learning Analytics, Forecast Accuracy Validation, Predictive Trend Modeling, Cross Validation Evaluation, Probabilistic Programming, Time Series Forecasting.
Projects with overlapping indexed features include: facebook/prophet — Prophet is a time series forecasting library and decomposition tool that uses an additive regression model to predict… ourownstory/neural_prophet — Neural Prophet is a PyTorch-based time series forecasting library designed for interpretable machine learning. It… statsmodels/statsmodels — Statsmodels is a comprehensive Python library designed for statistical modeling, econometric research, and data… letianzj/quantresearch — QuantResearch is a quantitative research framework and specialized toolkit for algorithmic simulation, financial… borisbanushev/stockpredictionai — This project is a collection of predictive models and quantitative tools for stock price forecasting. It implements a… pyro-ppl/pyro — Pyro is a deep probabilistic programming library and differentiable probabilistic modeler designed for Bayesian…
Prophet is a time series forecasting library and decomposition tool that uses an additive regression model to predict future values. It functions as an uncertainty estimation tool, calculating confidence intervals and error metrics to quantify the risk associated with future predictions. The project is distinguished by its ability to incorporate human-interpretable parameters for model tuning and its use of Bayesian inference for parameter estimation. It supports the integration of external regressors and special event modeling to account for the impact of holidays and specific dates on forec
Neural Prophet is a PyTorch-based time series forecasting library designed for interpretable machine learning. It serves as a decomposition framework that breaks signals into constituent parts such as autoregressive effects, piecewise linear trends, and Fourier-based seasonality to predict future values. The project distinguishes itself by combining neural networks with traditional algorithms to produce forecasts that explain underlying trend drivers. It features a global time series modeling approach, allowing a single model to be trained across multiple simultaneous series to share learned
Statsmodels is a comprehensive Python library designed for statistical modeling, econometric research, and data analysis. It provides a robust framework for estimating and diagnosing a wide range of statistical models, enabling users to perform rigorous hypothesis testing, regression analysis, and complex data exploration within structured environments. The library distinguishes itself through its support for advanced statistical methodologies, including state space representation for dynamic systems and generalized linear frameworks that accommodate non-normal response variables. It offers s
This project is a collection of predictive models and quantitative tools for stock price forecasting. It implements a variety of machine learning architectures, including generative adversarial networks, long short-term memory networks, and language models for financial analysis. The system distinguishes itself by combining time-series forecasting with natural language processing to convert financial news into numerical sentiment scores. It also incorporates synthetic market data generation and automated hyperparameter optimization using Bayesian and reinforcement learning methods to reduce p