Nvidia and Foxconn are collaborating to deploy humanoid robots in the production of Nvidia’s AI servers at a new Foxconn factory in Houston, Texas, expected to begin operations by early 2026. This initiative marks the first time Nvidia products will be assembled with the assistance of humanoid robots and Foxconn’s first use of such robots on an AI server production line.

The humanoid robots are being trained to perform tasks traditionally done by humans, such as precision cable insertion, component placement, picking and placing objects, and assembly work. Foxconn is developing two types of robots for this purpose: a legged humanoid robot designed for complex tasks and a more cost-effective wheeled autonomous mobile robot (AMR) for repetitive logistics tasks. The Houston factory’s new and spacious design facilitates the flexible deployment of these robots, enabling scalable automation without disrupting existing operations.

This collaboration represents a significant milestone in manufacturing automation, signaling a shift toward robotic automation in high-tech production. It also aligns with Nvidia’s broader push into humanoid robotics, as the company already provides platforms for humanoid robot development. The deployment of these robots is anticipated to start by the first quarter of 2026, coinciding with the factory’s ramp-up in producing Nvidia’s GB300 AI servers.

Overall, the Nvidia-Foxconn partnership pioneers the integration of humanoid robots in AI chip manufacturing, aiming to revolutionize production efficiency and set a new standard in the AI infrastructure market.

Mattel, the maker of iconic toy brands such as Barbie, Hot Wheels, and American Girl, has formed a strategic partnership with OpenAI to develop AI-powered toys and interactive experiences. This collaboration aims to integrate OpenAI’s advanced generative AI technology, including ChatGPT, into Mattel’s products to create toys that can learn, talk, and evolve with each child, offering personalized, educational, and engaging playtime experiences while prioritizing safety and privacy.

The first AI-enhanced product from this partnership is expected to launch by the end of 2025, targeting users aged 13 and up due to age restrictions on AI use. Beyond physical toys, Mattel plans to incorporate AI into digital games and content, including storytelling and interactive play, enhancing fan engagement and creativity across its brands.

Internally, Mattel will also deploy ChatGPT Enterprise to support its design, marketing, and research and development teams, accelerating innovation and streamlining product development processes. OpenAI’s COO Brad Lightcap described the collaboration as a “company-wide transformation” that will empower Mattel employees with advanced AI tools.

This partnership represents a significant evolution in the toy industry, blending fun with cutting-edge technology to redefine how children and families interact with toys. Mattel emphasizes that all AI-driven products will be developed with a strong focus on age-appropriateness, privacy, and safety. The move also aligns with Mattel’s broader strategy to expand digital and AI-enhanced experiences amid challenges in the traditional toy market.

In summary, the Mattel-OpenAI partnership is set to revolutionize playtime by introducing AI-powered toys that are interactive, personalized, and educational, while also transforming Mattel’s internal innovation capabilities through AI integration.

In today’s world of artificial intelligence, language models are rapidly evolving. One of the most exciting developments in this field is “Self-Adapting Language Models (SEAL)”, that is, language models that adapt themselves. So, what is SEAL and how are they different from other models?

SEAL, as the name suggests, are “language models that continuously improve their learning ability and adapt to changing environments”. Traditional models are trained on a specific dataset and often need to be retrained to adapt to new data. SEAL models, on the other hand, can continuously absorb new information and integrate it with their existing knowledge. In this way, they become more flexible and adaptable for different tasks.

Advantages of SEAL:

Flexibility: They can easily adapt to different data types and tasks.
Less Training Needed: They save resources by reducing the need for constant retraining.
Better Performance: Thanks to rapid adaptation to new data, they show higher performance in different tasks.

Difference from Other Models:

While traditional language models have a static structure, SEAL models have a “dynamic structure”. This allows SEAL to adapt to changing information and environments more quickly and effectively. This dynamic structure makes SEAL an important candidate for “future language models”. However, the development and improvement of these models is still an ongoing process.