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ibm-granite/granite-timeseries-ttm-r3
granite-timeseries-ttm-r3 is a time series forecasting model from ibm-granite. Use it for the time series forecasting task on the model card, and read the license before you ship it in a product. The card lists the license as apache-2.0.
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From the Hugging Face model README

Building on top of TTM-R1 and TTM-R2, we introduce the next generation of TinyTimeMixer under the Granite time-series foundation model family — Granite-TTM-R3. This release incorporates several novel tiny-neural architectural innovations designed to push the limits of accuracy in high-speed forecasting, a critical requirement for real-world production deployments.
Granite-TTM-R3 is a family of pretrained models supporting multiple real-world forecasting scenarios:
Granite-TTM adopts a mixture-of-experts paradigm composed of models with varying complexities [1-35M and Lite: 1-18M parameters] — coupled with a lightweight routing mechanism that automatically selects or blends the most suitable expert based on input data characteristics.
This enables adaptive model selection, improving both accuracy and efficiency across diverse time-series scenarios.
The architecture is built on efficient mixer-based designs that avoid expensive self-attention. Instead, Granite-TTM-R3 leverages linear gating-based attention mechanisms to capture temporal dependencies with significantly lower computational overhead.
This combination allows Granite-TTM-R3 to deliver scalable, adaptive, and ultra-fast forecasting performance suitable for real-time and large-scale deployments.
Granite-TTM-R3 is engineered to achieve a strong balance between state-of-the-art accuracy and extreme inference efficiency, making it well-suited for real-world, high-throughput deployments.
Granite-TTM-R3 delivers orders-of-magnitude faster inference compared to existing popular SOTA models.
👉 Granite-TTM-R3 models achieves ~15–50× speedup over many existing approaches, without compromising accuracy, setting a new benchmark for fast and reliable time-series forecasting.
Trend–Residual Decomposition
Separately models long-term trends and high-frequency residuals for improved structural learning.
Three-Stage Pre-Training
Sequential training of trend, residual, and joint components for better stability and convergence.
Student-Teacher Pretraining
Student-teacher based pretraining for stable learning in noisy datasets.
Enhanced Data Augmentation
Structured perturbations improve robustness across domains.
Improved Normalization Strategy
Stabilizes training across scale shifts and heterogeneous datasets.
GLU Gating
Dynamic information flow control within mixer blocks.
Multi-Resolution Temporal Layer
Captures dependencies across short-, medium-, and long-term horizons.
FFT-Based Embeddings
Incorporates frequency-domain signals to model periodicity and seasonality.
Register Tokens
Learnable global tokens to encode sequence-level semantics.
Multi-Quantile Forecasting Head
Enables probabilistic forecasting with multiple quantiles.
Refined Loss Weighting
Balances trend, residual, and quantile objectives for improved calibration.
Granite-TTM-R3 is purpose-built for production-grade time-series systems where:
It provides a practical combination of compactness, speed, and accuracy, making it suitable for industrial deployment.
To be released.
Vijay Ekambaram, Arindam Jati, Haoxiang Qiu, Takayuki Katsuki, Tomoya Sakai, Priyanshul Govil, Pankaj Dayama
Please cite the following paper if you intend to use this model or its associated architectures and approaches in your work.
@inproceedings{ekambaram2024tinytimemixersttms,
title={Tiny Time Mixers (TTMs): Fast Pre-trained Models for Enhanced Zero/Few-Shot Forecasting of Multivariate Time Series},
author={Vijay Ekambaram and Arindam Jati and Pankaj Dayama and Sumanta Mukherjee and Nam H. Nguyen and Wesley M. Gifford and Chandra Reddy and Jayant Kalagnanam},
booktitle={Advances in Neural Information Processing Systems (NeurIPS 2024)},
year={2024},
}