Falcon-H1R: Pushing the Reasoning Frontiers with a Hybrid Model for Efficient Test-Time Scaling

Fuente: arXiv
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Auteurs principaux: Falcon LLM Team, Chaabane, Iheb, Khanna, Puneesh, Mohmad, Suhail, Frikha, Slim, Hu, Shi, Abubaker, Abdalgader, Alami, Reda, Lubinets, Mikhail, Seddik, Mohamed El Amine, Hacid, Hakim
Format: Preprint
Publié: 2026
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author Falcon LLM Team
Chaabane, Iheb
Khanna, Puneesh
Mohmad, Suhail
Frikha, Slim
Hu, Shi
Abubaker, Abdalgader
Alami, Reda
Lubinets, Mikhail
Seddik, Mohamed El Amine
Hacid, Hakim
author_facet Falcon LLM Team
Chaabane, Iheb
Khanna, Puneesh
Mohmad, Suhail
Frikha, Slim
Hu, Shi
Abubaker, Abdalgader
Alami, Reda
Lubinets, Mikhail
Seddik, Mohamed El Amine
Hacid, Hakim
contents This work introduces Falcon-H1R, a 7B-parameter reasoning-optimized model that establishes the feasibility of achieving competitive reasoning performance with small language models (SLMs). Falcon-H1R stands out for its parameter efficiency, consistently matching or outperforming SOTA reasoning models that are $2\times$ to $7\times$ larger across a variety of reasoning-intensive benchmarks. These results underscore the importance of careful data curation and targeted training strategies (via both efficient SFT and RL scaling) in delivering significant performance gains without increasing model size. Furthermore, Falcon-H1R advances the 3D limits of reasoning efficiency by combining faster inference (through its hybrid-parallel architecture design), token efficiency, and higher accuracy. This unique blend makes Falcon-H1R-7B a practical backbone for scaling advanced reasoning systems, particularly in scenarios requiring extensive chain-of-thoughts generation and parallel test-time scaling. Leveraging the recently introduced DeepConf approach, Falcon-H1R achieves state-of-the-art test-time scaling efficiency, offering substantial improvements in both accuracy and computational cost. As a result, Falcon-H1R demonstrates that compact models, through targeted model training and architectural choices, can deliver robust and scalable reasoning performance.
format Preprint
id arxiv_https___arxiv_org_abs_2601_02346
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Falcon-H1R: Pushing the Reasoning Frontiers with a Hybrid Model for Efficient Test-Time Scaling
Falcon LLM Team
Chaabane, Iheb
Khanna, Puneesh
Mohmad, Suhail
Frikha, Slim
Hu, Shi
Abubaker, Abdalgader
Alami, Reda
Lubinets, Mikhail
Seddik, Mohamed El Amine
Hacid, Hakim
Artificial Intelligence
This work introduces Falcon-H1R, a 7B-parameter reasoning-optimized model that establishes the feasibility of achieving competitive reasoning performance with small language models (SLMs). Falcon-H1R stands out for its parameter efficiency, consistently matching or outperforming SOTA reasoning models that are $2\times$ to $7\times$ larger across a variety of reasoning-intensive benchmarks. These results underscore the importance of careful data curation and targeted training strategies (via both efficient SFT and RL scaling) in delivering significant performance gains without increasing model size. Furthermore, Falcon-H1R advances the 3D limits of reasoning efficiency by combining faster inference (through its hybrid-parallel architecture design), token efficiency, and higher accuracy. This unique blend makes Falcon-H1R-7B a practical backbone for scaling advanced reasoning systems, particularly in scenarios requiring extensive chain-of-thoughts generation and parallel test-time scaling. Leveraging the recently introduced DeepConf approach, Falcon-H1R achieves state-of-the-art test-time scaling efficiency, offering substantial improvements in both accuracy and computational cost. As a result, Falcon-H1R demonstrates that compact models, through targeted model training and architectural choices, can deliver robust and scalable reasoning performance.
title Falcon-H1R: Pushing the Reasoning Frontiers with a Hybrid Model for Efficient Test-Time Scaling
topic Artificial Intelligence
url https://arxiv.org/abs/2601.02346