Package towards building Explainable Forecasting and Nowcasting Models with State-of-the-art Deep Neural Networks and Dynamic Factor Model on Time Series data sets with single line of code. Also, provides utilify facility for time-series signal similarities matching, and removing noise from timeseries signals.

DeepXF: Explainable Forecasting and Nowcasting with State-of-the-art Deep Neural Networks and Dynamic Factor Model

Also, verify TS signal similarities and Filtering of TS signals with single line of code at ease

deep-xf

About deep-xf

DeepXF is an open source, low-code python library for forecasting and nowcasting tasks. DeepXF helps in designing complex forecasting and nowcasting models with built-in utility for time series data. One can automatically build interpretable deep forecasting and nowcasting models at ease with this simple, easy-to-use and low-code solution. It enables users to perform end-to-end Proof-Of-Concept (POC) quickly and efficiently. One can build models based on deep neural network such as Recurrent Neural Network (RNN), Long Short Term Memory (LSTM), Gated Recurrent Unit (GRU), Bidirectional RNN/LSTM/GRU (BiRNN/BiLSTM/BiGRU), Spiking Neural Network (SNN), Graph Neural Network (GNN), Transformers, Generative Adversarial Network (GAN), Convolutional Neural Network (CNN), and others. It also provides facility to build nowcast model using Dynamic Factor Model.

DeepXF is conceived and developed by Ajay Arunachalam - https://www.linkedin.com/in/ajay-arunachalam-4744581a/

Please Note:- This is still by large a work in progress, so always open to your comments and things you feel to be included. Also, if you want to be a contributor, you are always most welcome. The RNN/LSTM/GRU/BiRNN/BiLSTM/BiGRU are already part of the initial version roll-out, while the latter ones (SNN, GNN, Transformers, GAN, CNN, etc.) are work in progress, and will be added soon once the testing is completed.

The library provides (not limited too):-

Exploratory Data Analysis with services like profiling, filtering outliers, univariate/multivariate plots, plotly interactive plots, rolling window plots, detecting peaks, etc.
Data Preprocessing for Time-series data with services like finding missing, imputing missing, date-time extraction, single timestamp generation, removing unwanted features, etc.
Descriptive statistics for the provided time-series data, Normality evaluation, etc.
Feature engineering with services like generating time lags, date-time features, one-hot encoding, date-time cyclic features, etc.
Finding similarity between homogeneous time-series inputs with Siamese Neural Networks.
Denoising time-series input signals.
Building Deep Forecasting Model with hyperparameters tuning and leveraging available computational resource (CPU/GPU).
Forecasting model performance evaluation with several key metrics
Game theory based method to interpret forecasting model results.
Building Nowcasting model with Expectation–maximization algorithm
Explainable Nowcasting

Who can use deep-xf?

DeepXF is an open-source library ideal for:-

Citizen Data Scientists who prefer a low code solution.
Experienced Data Scientists who want to increase model accuracy and improve productivity.
Data Science Professionals and Consultants involved in building proof-of-concept (poc) projects.
Researchers for quick poc prototyping and testing.
Students and Teachers.
ML Enthusiasts.
Learners.

Requirements

Python 3.6.x
torch[>=1.4.0]
NumPy[>=1.9.0]
SciPy[>=0.14.0]
Scikit-learn[>=0.16]
statsmodels[0.12.2]
Pandas[>=0.23.0]
Matplotlib
Seaborn[0.9.0]
tqdm
shap
keras[2.6.0]
pandas_profiling[3.1.0]
py-ecg-detectors

Quickly Setup package with automation scripts

sudo bash setup.sh

Installation

Using pip:

pip install deep-xf or pip3 install deep-xf or pip install git+git://github.com/ajayarunachalam/Deep_XF

$ git clone https://github.com/ajayarunachalam/Deep_XF
$ cd Deep_XF
$ python setup.py install

Using notebook:

!pip install deep-xf

Using conda:

$ conda install -c conda-forge deep-xf

Getting started

FORECASTING DEMO:

# set model config
select_model, select_user_path, select_scaler, forecast_window = Forecast.set_model_config(select_model='rnn', select_user_path='./forecast_folder_path/', select_scaler='minmax', forecast_window=1)

# select hyperparameters
hidden_dim, layer_dim, batch_size, dropout, n_epochs, learning_rate, weight_decay = Forecast.hyperparameter_config(hidden_dim=64,                                                                                                                                                               layer_dim = 3, batch_size=64, dropout = 0.2,                                                                                                                                    n_epochs = 30, learning_rate = 1e-3, weight_decay = 1e-6)

# train model
opt, scaler = Forecast.train(df=df_full_features, target_col='value', split_ratio=0.2, select_model=select_model,              select_scaler=select_scaler, forecast_window=forecast_window, batch_size=batch_size, hidden_dim=hidden_dim, layer_dim=layer_dim,dropout=dropout, n_epochs=n_epochs, learning_rate=learning_rate, weight_decay=weight_decay)

# forecast for user selected period
forecasted_data, ff_full_features, ff_full_features_ = Forecast.forecast(model_df, ts, fc, opt, scaler, period=25, fq='1h', select_scaler=select_scaler,)

# interpret the forecasting result
Helper.explainable_forecast(df_full_features, ff_full_features_, fc, specific_prediction_sample_to_explain=df_full_features.shape[0]+2, input_label_index_value=0, num_labels=1)

Example Illustration

__author__ = 'Ajay Arunachalam'
__version__ = '0.0.1'
__date__ = '7.11.2021'


    from deep_xf.main import *
    from deep_xf.dpp import *
    from deep_xf.forecast_ml import *
    from deep_xf.forecast_ml_extension import *
    from deep_xf.stats import *
    from deep_xf.utility import *
    from deep_xf.denoise import *
    from deep_xf.similarity import *
    df = pd.read_csv('../data/PJME_hourly.csv')
    print(df.shape)
    print(df.columns)
    # set variables
    ts, fc = Forecast.set_variable(ts='Datetime', fc='PJME_MW')
    # get variables
    model_df, orig_df = Helper.get_variable(df, ts, fc)
    # EDA
    ExploratoryDataAnalysis.plot_dataset(df=model_df,fc=fc, title='PJM East (PJME) Region: estimated energy consumption in Megawatts (MW)')
    # Feature Engg
    df_full_features = Features.generate_date_time_features_hour(model_df, ['hour','month','day','day_of_week','week_of_year'])
    # generating cyclic features
    df_full_features = Features.generate_cyclic_features(df_full_features, 'hour', 24, 0)
    df_full_features = Features.generate_cyclic_features(df_full_features, 'day_of_week', 7, 0)
    df_full_features = Features.generate_cyclic_features(df_full_features, 'month', 12, 1)
    df_full_features = Features.generate_cyclic_features(df_full_features, 'week_of_year', 52, 0)
    # holiday feature
    df_full_features = Features.generate_other_related_features(df=df_full_features)
    select_model, select_user_path, select_scaler, forecast_window = Forecast.set_model_config(select_model='rnn', select_user_path='./forecast_folder_path/', select_scaler='minmax', forecast_window=1)

    hidden_dim, layer_dim, batch_size, dropout, n_epochs, learning_rate, weight_decay = Forecast.hyperparameter_config(hidden_dim=64,                                                                                                                                                               layer_dim = 3, batch_size=64, dropout = 0.2,                                                                                                                                    n_epochs = 30, learning_rate = 1e-3, weight_decay = 1e-6)

    opt, scaler = Forecast.train(df=df_full_features, target_col='value', split_ratio=0.2, select_model=select_model,              select_scaler=select_scaler, forecast_window=forecast_window, batch_size=batch_size, hidden_dim=hidden_dim, layer_dim=layer_dim,dropout=dropout, n_epochs=n_epochs, learning_rate=learning_rate, weight_decay=weight_decay)

    forecasted_data, ff_full_features, ff_full_features_ = Forecast.forecast(model_df, ts, fc, opt, scaler, period=25, fq='1h', select_scaler=select_scaler,)

    Helper.explainable_forecast(df_full_features, ff_full_features_, fc, specific_prediction_sample_to_explain=df.shape[0]+1, input_label_index_value=0, num_labels=1)

NOWCASTING DEMO:

# set model config
select_model, select_user_path, select_scaler, forecast_window = Forecast.set_model_config(select_model='em', select_user_path='./forecast_folder_path/', select_scaler='minmax', forecast_window=5)

# nowcast for user selected window
nowcast_full_data, nowcast_pred_data = EMModel.nowcast(df_full_features, ts, fc, period=5, fq='1h', forecast_window=forecast_window,    select_model=select_model)

# interpret the nowcasting model result
EMModel.explainable_nowcast(df_full_features, nowcast_pred_data, fc, specific_prediction_sample_to_explain=df.shape[0]+2, input_label_index_value=0, num_labels=1)

Example Illustration

__author__ = 'Ajay Arunachalam'
__version__ = '0.0.1'
__date__ = '7.11.2021'

    from deep_xf.main import *
    from deep_xf.dpp import *
    from deep_xf.forecast_ml import *
    from deep_xf.forecast_ml_extension import *
    from deep_xf.stats import *
    from deep_xf.utility import *
    from deep_xf.denoise import *
    from deep_xf.similarity import *
    df = pd.read_csv('./data/PJME_hourly.csv')
    # set variables
    ts, fc = Forecast.set_variable(ts='Datetime', fc='PJME_MW')
    # get variables
    model_df, orig_df = Helper.get_variable(df, ts, fc)
    select_model, select_user_path, select_scaler, forecast_window = Forecast.set_model_config(select_model='em', select_user_path='./forecast_folder_path/', select_scaler='minmax', forecast_window=5)
    df_full_features = Features.generate_date_time_features_hour(model_df, ['hour','month','day','day_of_week','week_of_year'])
    # generating cyclic features
    df_full_features = Features.generate_cyclic_features(df_full_features, 'hour', 24, 0)
    df_full_features = Features.generate_cyclic_features(df_full_features, 'day_of_week', 7, 0)
    df_full_features = Features.generate_cyclic_features(df_full_features, 'month', 12, 1)
    df_full_features = Features.generate_cyclic_features(df_full_features, 'week_of_year', 52, 0)
    df_full_features = Features.generate_other_related_features(df=df_full_features)
    nowcast_full_data, nowcast_pred_data = EMModel.nowcast(df_full_features, ts, fc, period=5, fq='1h', forecast_window=forecast_window, select_model=select_model)
    EMModel.explainable_nowcast(df_full_features, nowcast_pred_data, fc, specific_prediction_sample_to_explain=df.shape[0]+3, input_label_index_value=0, num_labels=1)

Tested Demo

## Important Links

Find the forecasting demo here : https://github.com/ajayarunachalam/Deep_XF/blob/main/demo_notebook/Forecast-Demo.py
Find the notebook of the nowcasting demo here : https://github.com/ajayarunachalam/Deep_XF/blob/main/demo_notebook/Nowcast-Demo.ipynb

License

Permission is hereby granted, free of charge, to any person obtaining a copy of this software and associated documentation files (the "Software"), to deal in the Software without restriction, including without limitation the rights to use, copy, modify, merge, publish, distribute, sublicense, and/or sell copies of the Software, and to permit persons to whom the Software is furnished to do so, subject to the following conditions:

The above copyright notice and this permission notice shall be included in all copies or substantial portions of the Software.

THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. © 2021 GitHub, Inc.

Related tags

Overview

DeepXF: Explainable Forecasting and Nowcasting with State-of-the-art Deep Neural Networks and Dynamic Factor Model

Also, verify TS signal similarities and Filtering of TS signals with single line of code at ease

About deep-xf

The library provides (not limited too):-

Who can use deep-xf?

Requirements

Quickly Setup package with automation scripts

Installation

Getting started

Example Illustration

Example Illustration

Tested Demo

## Important Links

License

Owner

AjayAru

RINDNet: Edge Detection for Discontinuity in Reflectance, Illumination, Normal and Depth, in ICCV 2021 (oral)

This is a repository of our model for weakly-supervised video dense anticipation.

PyTorch reimplementation of the Smooth ReLU activation function proposed in the paper "Real World Large Scale Recommendation Systems Reproducibility and Smooth Activations" [arXiv 2022].

Using LSTM write Tang poetry

STMTrack: Template-free Visual Tracking with Space-time Memory Networks

A Transformer-Based Feature Segmentation and Region Alignment Method For UAV-View Geo-Localization

Repositorio de los Laboratorios de Análisis Numérico / Análisis Numérico I de FAMAF, UNC.

DSTC10 Track 2 - Knowledge-grounded Task-oriented Dialogue Modeling on Spoken Conversations

Unofficial implementation of Pix2SEQ

Source code for our paper "Learning to Break Deep Perceptual Hashing: The Use Case NeuralHash"

Towards Part-Based Understanding of RGB-D Scans

YOLOv5 + ROS2 object detection package

Implementation of average- and worst-case robust flatness measures for adversarial training.

ICCV2021 Oral SA-ConvONet: Sign-Agnostic Optimization of Convolutional Occupancy Networks

Implementation for the EMNLP 2021 paper "Interactive Machine Comprehension with Dynamic Knowledge Graphs".

Supplementary materials for ISMIR 2021 LBD paper "Evaluation of Latent Space Disentanglement in the Presence of Interdependent Attributes"

TransReID: Transformer-based Object Re-Identification

Finetuning Pipeline

Codes for TIM2021 paper "Anchor-Based Spatio-Temporal Attention 3-D Convolutional Networks for Dynamic 3-D Point Cloud Sequences"