Matt300209/Ouro-modified-config

TEXT GENERATIONConcurrent Unit Cost:1Model Size:1.4BQuant:BF16Context Size:32kPublished:Jul 12, 2026License:apache-2.0Architecture:Transformer Open Weights Featherless Exclusive Cold

Ouro-1.4B by ByteDance is a 1.4 billion parameter Looped Language Model (LoopLM) that achieves exceptional parameter efficiency, matching the performance of 3-4B standard transformers. It utilizes iterative shared-weight computation and recurrent steps for latent reasoning, supporting adaptive computation with early exit mechanisms. This model is optimized for research purposes, offering a configurable approach to balancing performance and computational cost.

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Ouro-1.4B: A Parameter-Efficient Looped Language Model

Ouro-1.4B, developed by ByteDance, is a 1.4 billion parameter Looped Language Model (LoopLM) designed for exceptional parameter efficiency. It demonstrates performance comparable to larger 3-4 billion parameter standard transformers by employing iterative shared-weight computation and recurrent steps for latent reasoning. The model is built on a decoder-only Transformer architecture with 24 layers, a hidden size of 2048, and a vocabulary of 49,152, supporting a context length of 4K (extendable to 64K).

Key Capabilities & Features

  • Exceptional Parameter Efficiency: Achieves performance similar to larger models with significantly fewer parameters.
  • Iterative Latent Reasoning: Performs reasoning through recurrent computation in its latent space.
  • Adaptive Computation: Features configurable recurrent steps (total_ut_steps) and an early_exit_threshold to dynamically manage computation, allowing a trade-off between performance and speed.
  • Configurable Behavior: Users can adjust recurrent steps via the config.json to optimize for specific needs.
  • Extensive Training: Trained on 7.7 trillion tokens across multiple stages, including web data, code, mathematics, and long-context documents.

Use Cases & Considerations

  • Research Purposes: Primarily intended for research into parameter-efficient language models and recurrent computation.
  • Resource-Constrained Environments: Its efficiency makes it suitable for scenarios where computational resources are limited but strong performance is still required.
  • Exploration of Adaptive Inference: Ideal for experimenting with dynamic compute allocation and early exit strategies in LLMs.

Note: The adaptive exit feature is not currently supported by vLLM, meaning the model will execute all recurrent steps when used with vLLM.