Li Auto Unveils AI Trilogy: ME-Brain-1.0, ME-U0, and Edge ME-VLM
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Li Auto Unveils AI Trilogy: ME-Brain-1.0, ME-U0, and Edge ME-VLM

Li Auto's fundamental models team unveiled an artificial intelligence trilogy on September 22nd, consisting of the ME-Brain-1.0 system, the unified model for understanding and generating actions in the MachEmbodied world (ME-U0), and the MachEmbodied-VLM cognitive models (ME-VLM). The official English name for these developments is Li Auto / MachEmbodied. The main focus of this review is on the architecture of the system and models—memory, cognition, and action—rather than on marketing electric vehicle products.

According to the ME-Brain-1.0 technical blog, this system integrates Evolvable Memory, a Cognitive Core, and an event-driven Action Model into a cycle that includes execution, experience logging, and skill updating. The Cognitive Core is available in an MoE variant with 35B-A3B parameters and in a compact version for edge devices with 4B parameters. In laboratory tests, the large core achieved an average score of approximately 70.9 on embodied systems datasets and 72.5 on agent datasets, while the 4B parameter version ranked second compared to other companies.

The Evolvable Memory and its associated modules operate on Li Auto's peripheral M100 SoC to generate and retrieve memory directly on the device. ME-VLM represents a path of the Cognitive Core, where quantization W4A8 and token compression reduced the prefill latency on the M100 from approximately 400 ms to 188 ms.

The ME-U0 model was pre-trained on approximately 4200 hours of data selected from larger robot datasets and first-person data. According to the company's metrics, the model achieves an average success rate of 99.1% on standard LIBERO, 81.8% on LIBERO-Plus without specific adaptation, and a process score of 17.66 on RoboDojo-Sim among participating world action models. The architecture uses dual-expert modules for understanding and generation with multi-speed rotational encoding of position, ensuring temporal alignment of visual latent representations and action tokens.

External publications, including coverage by Robot Forward republished by Phoenix Tech, note visible capture pauses, periodic capture errors, and incomplete tasks in open scenarios, even where scripted scenes succeed. These observations are useful additions to laboratory leaderboards. For now, the benchmarks remain data provided by Li Auto until external labs reproduce the results. The short-term signal is the existence of a packaged memory-cognition-action stack with a documented path on a peripheral SoC, rather than the presentation of a single chassis.

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Startup EBKernel presents brain-inspired Cog-WM 1.0 model for cognitive world modeling
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Startup EBKernel presents brain-inspired Cog-WM 1.0 model for cognitive world modeling

Shanghai-based startup EBKernel unveiled Cog-WM 1.0 at the embodied brain intelligence session during the Puzhang Innovation Forum in 2026. The company positions this release as a cognitive world model built on latent space prediction rather than pixel reproduction.

According to the company's statement, this architecture borrows organizational concepts from human cognitive maps, such as selective memory updating, goal-conditioned encoding, and multi-horizon prediction. These ideas are combined with a JEPA-style joint embedding objective, enabling robots to plan using abstract spatial and state features instead of reconstructing raw frames.

In terms of navigation, the Cog-WM Nav 1.0 model was tested without using a pre-built map. On a subset of HM3D-ObjectNav, EBKernel reported an increase in success rate from 78.50% to 86.89% compared to the BSC-Nav baseline published in Nature Communications. This represents an absolute gain of 8.39 points (approximately 10.7% relative), and the SPL metric increased from 47.70 to 48.35.

The navigation component maintains explicit spatial memory and predicts subgoals for exploration in the latent space. It then balances between goal semantics and path cost, which is particularly useful when the target is outside the current field of view and the robot needs to decide where to look next.

The manipulation branch, Cog-WM Manip 1.0, trains multi-scale state and value-modulated experience prediction, providing a link between short-horizon action effects and long-term task progress. Using a unified replay protocol, EBKernel claims that the model outperforms massively pre-trained baseline models like pi0.5 by approximately 16% across three main manipulation datasets, including more complex RoboTwin 2.0 settings.

Analysis of component influence on LIBERO-Plus showed an additive effect: the policy alone achieved nearly 80%, local prediction reached 81.6%, multi-horizon prediction reached 82.0%, and the full system reached 84.6%.

The company states deployment capabilities cover wheeled and quadrupedal humanoids for mapless navigation, route planning, spatio-temporal memory retrieval, spatial question answering (QA), and object searching. Manipulation was tested on wheeled humanoid bodies, while quadrupedal navigation was noted on client objects for inspection or patrolling.

EBKernel, founded in mid-2025, promotes a product thesis centered on lifelong learning with low data requirements and high generalization ability. However, independent outdoor durability metrics and long-horizon field results remain within the confines of the company's internal benchmarks, so laboratories are advised to consider the published SR metrics and manipulation changes as the primary comparison set until third-party work emerges.

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