
Aurora is an open-source reinforcement learning framework that enhances speculative decoding by allowing it to learn from each request it serves, rather than relying on a static setup.
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© Together AI BlogThunderAgent introduces a novel approach to agentic inference, significantly improving throughput and reducing latency in synthetic data generation. By treating each agent workflow as a program rather than isolated requests, it mitigates KV cache thrashing and balances load across nodes. This results in up to 2.5× higher throughput on single nodes and near-linear scaling on multi-node clusters. ThunderAgent's compatibility with existing inference optimizations makes it a practical choice for enhancing large-scale agentic workloads.
© Together AI BlogTogether AI's partnership with Moonshot AI marks a significant step in making cutting-edge AI models more accessible to developers. By hosting Moonshot's Kimi models, including the 2.8 trillion parameter Kimi K3, Together AI offers developers immediate access to powerful open-weight models. This collaboration allows for seamless integration and post-training capabilities, enabling developers to fine-tune models for specific applications. The partnership promises to deliver high-performance AI solutions with the flexibility and scalability that open models provide, challenging proprietary systems in the market.
© Together AI BlogTogether AI has introduced a sophisticated architecture for model inference that integrates endpoints, deployments, and configurations with capacity-aware traffic splitting. This system allows for seamless rollouts, A/B testing, and zero-downtime updates, making it easier for developers to manage and optimize AI models. By using immutable configurations and a weight-based traffic split, the platform ensures efficient resource allocation and scaling. This development simplifies the deployment process and enhances the reliability of AI applications by ensuring consistent performance and easy rollback options.
The latest b10175 release of llama.cpp continues its trend of broadening platform compatibility, making it a versatile tool for developers across different systems. Notably, this update includes support for ROCm 7.2 on Ubuntu x64, which is significant for AMD GPU users seeking alternatives to NVIDIA's CUDA. The release also maintains a wide array of builds for Windows, macOS, and Linux, ensuring that developers can leverage llama.cpp's capabilities regardless of their hardware setup. While there are no groundbreaking new features, the consistent expansion of platform support solidifies llama.cpp's position as a flexible inference runtime option.
The b10176 release of llama.cpp enhances its platform reach, notably adding ROCm 7.2 support on Ubuntu x64, which is a significant boost for AMD GPU users. This update continues to cater to a wide array of systems, from macOS to Windows and Linux, ensuring developers can deploy llama.cpp across various hardware setups. While there are no groundbreaking new features, the release solidifies llama.cpp's role as a flexible tool for AI inference. By improving compatibility and functionality, this update makes llama.cpp more accessible and practical for developers working with different systems.
The latest b10158 release of llama.cpp continues its trend of broadening platform compatibility, though without major new features. Notably, the release includes support for ROCm 7.2 on Ubuntu x64, which is significant for AMD GPU users seeking alternatives to NVIDIA's CUDA. While KleidiAI support for Apple Silicon remains disabled, the release still covers a wide array of platforms, including Windows and openEuler. This update demonstrates llama.cpp's commitment to being a versatile inference runtime across diverse hardware configurations.