Back to list
Meituan Open Sources LongCat-Next: A Native Multimodal Model Designed for Physical World AI Interaction
Open SourceMeituanMultimodal AIPhysical AI

Meituan Open Sources LongCat-Next: A Native Multimodal Model Designed for Physical World AI Interaction

Meituan's technical team has officially announced the release and open-sourcing of LongCat-Next, a pioneering native multimodal model. This release marks a significant step in Meituan's exploration of "Physical AI," where vision and speech are integrated as native components rather than secondary inputs. By open-sourcing the core model alongside its discrete tokenizer, Meituan aims to provide the global developer community with the essential tools to build AI systems capable of perceiving, understanding, and interacting with the real world. The project emphasizes a shift toward AI that treats sensory data as a primary language, potentially transforming how machines navigate and function within physical environments. This strategic move highlights Meituan's commitment to fostering an open ecosystem for advanced multimodal research and practical AI applications.

美团技术团队

Key Takeaways

  • Native Multimodal Integration: LongCat-Next treats vision and speech as "native languages," moving away from traditional additive multimodal approaches.
  • Open Source Commitment: Meituan has open-sourced the LongCat-Next model and its specialized discrete tokenizer to the developer community.
  • Focus on Physical AI: The model is specifically designed to bridge the gap between digital intelligence and physical world perception and action.
  • Developer Empowerment: The release aims to enable the creation of AI that can truly perceive, understand, and act within real-world environments.

In-Depth Analysis

The Vision of Physical AI: Perception and Action

LongCat-Next represents a strategic pivot toward what Meituan terms "Physical World AI." Unlike traditional large language models that primarily operate within the confines of text-based data, LongCat-Next is built to address the complexities of the tangible environment. The core objective of this research is to move beyond simple data processing and toward a model that can "perceive, understand, and act."

By focusing on the physical world, Meituan is targeting the next frontier of artificial intelligence: the ability for machines to navigate and interact with their surroundings in a meaningful way. This involves a deep integration of sensory inputs, allowing the AI to interpret visual cues and auditory signals with the same level of fluency that previous models applied to text. The emphasis on "action" suggests that LongCat-Next is not merely an analytical tool but a foundational framework for robotics and autonomous systems that require real-time environmental engagement.

Native Multimodality: Vision and Speech as Primary Languages

A defining characteristic of LongCat-Next is its "native" approach to multimodality. In many existing AI architectures, vision and speech are treated as external modules that are translated into a format the central model can understand. Meituan’s approach challenges this by treating these sensory modalities as the AI's "mother tongues."

This native integration is facilitated by the release of a discrete tokenizer. Tokenization is the process of breaking down data into manageable parts for the model to process. By providing a discrete tokenizer specifically designed for this multimodal framework, Meituan ensures that visual and auditory information is processed with high fidelity and structural consistency. This allows the model to maintain the nuances of physical world data, leading to a more holistic understanding of the environment. When vision and speech are native to the model, the latency and information loss often associated with translation layers are significantly reduced, paving the way for more responsive and accurate AI behavior.

Empowering the Ecosystem Through Open Source

By open-sourcing the core research ideas, the LongCat-Next model, and the discrete tokenizer, Meituan is positioning itself as a key contributor to the open AI ecosystem. The decision to share these tools reflects a belief that the path to truly capable physical AI requires collaborative effort across the industry.

For developers, the availability of the LongCat-Next model and its tokenizer lowers the barrier to entry for multimodal research. It provides a standardized starting point for building applications that require a sophisticated understanding of the physical world. This open-source strategy not only accelerates the pace of innovation but also allows for diverse use cases that Meituan’s internal team might not have initially envisioned. By providing the "research ideas" alongside the code, Meituan is offering a transparent look into their methodology, encouraging others to build upon and refine their approach to native multimodality.

Industry Impact

The release of LongCat-Next is likely to influence the industry's approach to multimodal AI development. As more companies seek to move AI out of the cloud and into physical devices—such as delivery robots, smart hardware, and autonomous vehicles—the demand for native multimodal frameworks will grow. Meituan’s contribution sets a precedent for treating non-textual data as a primary input, which could lead to a standardization of how vision and speech are tokenized and processed across the industry. Furthermore, by open-sourcing these high-level tools, Meituan is challenging other tech giants to be equally transparent, potentially leading to a more collaborative and faster-moving AI research landscape focused on real-world utility.

Frequently Asked Questions

Question: What makes LongCat-Next different from other multimodal models?

LongCat-Next is designed as a "native" multimodal model, meaning it treats vision and speech as primary languages rather than secondary inputs. This allows for a more direct and integrated understanding of the physical world compared to models that rely on external translation layers for different types of data.

Question: What specific components has Meituan open-sourced?

Meituan has open-sourced the core LongCat-Next model, the research ideas behind its development, and its discrete tokenizer. These components are intended to help developers build AI systems that can perceive and act in real-world scenarios.

Question: What is the primary goal of the LongCat-Next project?

The primary goal is to explore the path toward "Physical World AI." Meituan aims to create a framework where AI can move beyond digital data to perceive, understand, and interact effectively with the physical environment.

Related News

Coder Surges on GitHub Trending with Secure Development Environments Designed for Engineers and Autonomous Agents
Open Source

Coder Surges on GitHub Trending with Secure Development Environments Designed for Engineers and Autonomous Agents

Coder has captured widespread developer attention after climbing the GitHub Trending charts with its mission to provide secure development environments for developers and their agents. As artificial intelligence advances from simple code completion to autonomous agentic workflows, software development infrastructure must adapt to support both human programmers and AI entities within identical workspaces. Coder addresses this architectural shift by establishing isolated, secure workspaces where human engineers and software agents can collaborate safely without compromising enterprise infrastructure. This analysis examines Coder's value proposition, the imperative of security in agent-driven development lifecycles, and how the convergence of cloud workspaces and autonomous agents is transforming modern engineering practices across the broader technology ecosystem.

Cua Launches Open-Source Framework to Scale Computer-Use 2.0 Across Operating Systems and Unified Benchmarks
Open Source

Cua Launches Open-Source Framework to Scale Computer-Use 2.0 Across Operating Systems and Unified Benchmarks

The open-source project cua, developed by trycua, has emerged on GitHub Trending with a mission to scale computer-use 2.0. By providing open-source drivers, cross-operating-system device fleets, and comprehensive benchmarks for training, evaluation, and data generation, the repository addresses critical infrastructure bottlenecks in agentic workflows. As artificial intelligence transitions from conversational interfaces to direct operating system interaction, cua establishes a systematic foundation for software agents to operate across diverse platforms. The project unites execution layers, multi-platform fleet orchestration, and rigorous testing environments into a cohesive open-source stack. This analysis explores how cua's core components contribute to the next evolution of autonomous computer interaction, examining its architectural role in standardized agent training, multi-OS execution, and scalable benchmark-driven evaluation across modern enterprise and research environments.

BuilderIO Releases Agent-Native: A Trending Open-Source Framework for Building Autonomous AI Agent Applications
Open Source

BuilderIO Releases Agent-Native: A Trending Open-Source Framework for Building Autonomous AI Agent Applications

BuilderIO has officially introduced agent-native, an open-source framework created specifically for building AI agent applications. Captured on GitHub Trending on September 22, 2026, the repository has rapidly captured developer attention as software teams transition toward agentic workflows. As artificial intelligence advances from isolated conversational interfaces toward integrated, task-executing software agents, developers require specialized application frameworks rather than traditional application scaffolds. BuilderIO's agent-native directly addresses this need by providing the foundational architecture required to assemble, coordinate, and execute agent-driven software systems. The project's sudden rise on trending charts underscores a broader industry shift toward agent-first design patterns, establishing a standardized environment where autonomous agents operate as core components of modern software architectures.