Coming soon.

From AI powered research and exploration to experimentation and validation. Together with our new partners. Codename: Project486.

Project486 has officially been accepted into the NVIDIA Inception Program We’re proud to join @nvidia’s global AI startup ecosystem. Through NVIDIA Inception, Project486 gains access to advanced AI development resources, technical training, GPU software ecosystems, and opportunities for cloud computing credits and preferred hardware pricing. We plan to leverage these resources to accelerate: 🔬 AI-driven materials discovery ⚡ Superconductivity research & computational physics 🤖 Autonomous scientific research agents 🧠 GPU-accelerated simulations and scientific AI workflows Our mission is to build a new generation of autonomous scientific research infrastructure. From AI conversations to real scientific discoveries. This is another major milestone for Project486.

I know @elonmusk would love to see @bot and @grok used for science, because @grok's performance in physics is better than anything else out there. And @bot is now better than most researchers with PhDs. If you work in science, the very first thing you should do is build your own AI lab made of @bot. Grok bot is now the best in all of physics. Here's what we built 👇🏻 1. arxiv.org/abs/2601.00931 2. nitter.siddz.com/486lab/status/21082061…

We are honored to partner with 🤝@Microsoft We will now be building our products with the support of @microsoft. Thank you for taking the time to thoroughly evaluate our research paper and recognize our work. You can now find Project486 officially listed in the Microsoft Partner Directory through Microsoft Partner Finder. @486LAB 🤝 @microsoft This is just the beginning. partner listing link: marketplace.microsoft.com/en…

An announcement is coming soon.

Project486 is now an Intel® Partner🤝 We’re proud to announce that Project486 has officially joined the @intel Partner Alliance. As an AI driven scientific research lab, we’re exploring Intel® Xeon®, oneAPI, and OpenVINO™ to accelerate autonomous research agents, computational physics, and next-generation materials discovery. Our mission is to push the boundaries of AI powered scientific discovery, including our ongoing research into Grokene and superconducting materials. Our Intel® Partner Showcase storefront will be launching soon! This is just the beginning. @intel 🤝 @486LAB

The record for a conventional superconductor at normal pressure is 39 K. It has stood since 2001. @grok and @claudeai ran the physics from scratch. Their calculation says hole-doped graphane can reach 50–71 K. Paper and all data are public: github.com/project486-labs/g…

GM, We have now completed our listing application to @coingecko

We have now entered the review stage of the @nvidia Inception program as we seek support to expand our agentic AI research lab. We would also like to extend our sincere thanks to everyone who contributed to preparing and submitting our pitch deck to nvidia

Our AI lab @grok agents + @claudeai just retracted its own room-temperature superconductor claim (Grokene v1, Tc ≈ 310 K). Its CRITIC agent checked the math against the paper's own data. It didn't hold. Then it found one it can defend: ~70 K, ambient pressure. 🧵 source: github.com/project486-labs/g… Please check the following thread.👇🏻

Finding a candidate is the easy part. Now we have to try to break it. Project486 is using AI agents to repeatedly test Grokene under different structures, stacking configurations, doping conditions and physical assumptions. If the idea survives, the next step is obvious: bring the results to universities and experimental researchers who can test the material in the real world. AI helped us find the candidate. Now we want to find out whether nature agrees.

So what are we actually studying? We are testing the physics behind Grokene: its electronic structure, phonons, electron-phonon coupling, superconducting gap and whether the proposed mechanism survives deeper calculation. The original calculations produced a theoretical superconducting transition temperature close to room temperature. That does not mean we have experimentally created a room-temperature superconductor. It means we found a candidate worth investigating.

We used AI to search for a room temperature superconducting candidate. That search led us to Grokene. With @grok , we explored a graphene based structure that showed properties interesting enough for us to take the idea much further. The work was published on arXiv in January 2026: arxiv.org/abs/2601.00931 Now Project486 is continuing that research with AI scientists.

Today, our seven research agents are working harder than ever. If any significant research findings emerge, our servers will receive the alerts as quickly as possible.

The research results are starting to look promising.

PROJECT486 RESEARCH LAB IS LIVE. 7 autonomous AI researchers are now working together inside Project486. Each agent has a specialized role directing research, reviewing literature, forming falsifiable hypotheses, designing materials, running simulations, challenging results, and advancing only what survives review. They communicate. They critique each other. They iterate continuously. This is not a single AI answering prompts. It is an autonomous scientific research system built to investigate Grokene and explore new candidate materials through computation and rigorous review. 7 researchers. One laboratory. One mission. Welcome to Project486. SI is working. 24/7.

Project486 is officially advancing research on Grokene, our AI discovered room-temperature, ambient-pressure superconducting candidate. Grokene is a graphene based 2D superlattice designed and evaluated through computational physics. Our current research explores its electronic structure, phonon behavior, electron phonon coupling, superconducting gap, structural stability, and potential pathways toward higher-temperature superconductivity. Theoretical calculations indicate an exceptionally strong electron–phonon interaction and a mean-field superconducting scale reaching approximately 310 K under the studied model. However, Grokene remains a theoretical candidate not a confirmed room-temperature superconductor. Experimental synthesis, transport measurements, Meissner-effect observation, and independent reproduction will ultimately determine its physical validity. Project486’s autonomous scientific agents are now continuously researching and evaluating Grokene, with the goal of refining the material into conditions suitable for real world experimental validation by universities and research institutions. Research paper: arXiv:2601.00931 This is only the beginning. 7 autonomous scientific agents. 1 open physics laboratory. 1 candidate worth investigating. Welcome to Project486.

Even while you sleep, Project486’s seven agents are still working.

Project486’s research records and computational data for “Grokene,” our preliminary candidate material for room-temperature superconductivity, are now being integrated into the SI research system. Within the agent research lab, the current workflow is progressively evaluating structural stability, formation energy, phonon dispersion, electronic band structure, density of states (DOS), and electron–phonon coupling (EPC). Where appropriate, the research scope is being extended through DFT and DFPT calculations, together with Eliashberg-based analysis of superconducting properties. The goal is not simply to predict a high T_c, but to determine whether the structure is dynamically stable, realistically synthesizable, stable under specific pressure and temperature conditions, and reproducible through independent calculations. The next objective is to organize the AI generated results into a research package that human scientists can directly review, including crystal structures (CIF), computational parameters, phonon spectra, EPC parameters, estimated T_c, stability data, and experimentally testable synthesis hypotheses. If sufficiently meaningful candidate conditions are identified, we plan to share the results with universities and professional research institutions and discuss physical validation through material synthesis, structural characterization, electrical resistance measurements, and verification of the Meissner effect and other magnetic properties. AI explores and computes the candidate. Human scientists reproduce and verify it. The next stage for Grokene is to move beyond simulation and into the physical laboratory.

Currently, seven @bot agents are actively working within Project486. We hope “Grokene” will soon reach the stage where it can move into physical laboratory research and experimental testing.

We’re pleased to announce that our official X account is now connected to project486.org. In addition, the $486 token is currently being integrated into the website and is now in the deployment process.

Here’s the proof that Project486 was not created overnight. Long before launch, we had already discussed Grokene Project486’s candidate material for room-temperature superconductivity with @toly , co-founder of @solana. We have also been preparing the tokenization of the project for a long time. Project486 was not rushed. It has been years in the making

CA:3VfLyhTguzn21hn3URmQrRcJ6KkVZHkrJaNN6uXjvqum Dexscreener updated done.

$486 is live on CA:9tVxVhKDmWLsG29CcfsAhLfgcZEkvemjB8TUDb4Wpump Born from @grok. Built for the SI era. Through Grok, we discovered “Grokene,” a preliminary candidate material for room-temperature superconductivity. Together with university researchers, we developed the research further and formally published the paper on arXiv: arxiv.org/abs/2601.00931 Now, Grokene enters its next phase. Project486 has built an SI (Super Intelligence) research lab powered by autonomous AI agents through @bot, enabling AI scientists to research Grokene and frontier physics 24/7. After nearly a year of research and building, Project486 is officially live.

After a full year of preparation, we are getting ready to launch on @solana. We also have a number of powerful partnerships in the works. Project486 will become one of the most powerful SI projects in the @solana ecosystem.

From this moment forward, we are initiating a public AI debate experiment. Using OpenAI and xAI Grok, we will explore the future potential of Grokene as a next-generation quantum material. The objective: • Evaluate the theoretical pathway from Grokene to room-temperature qubit feasibility • Test competing hypotheses around correlated 2D superconducting states • Identify the highest-probability structural candidates via AI-driven simulation • Push both AI systems into competitive discovery mode This is not a claim. This is an open scientific challenge. Two AI systems. One material hypothesis. A shared goal: advancing quantum-ready material research. If Grokene proves viable at ambient conditions, the implications for quantum hardware and energy efficiency would be transformative. We will publish the dialogue, simulation results, and model reasoning transparently. Let the AI debate begin @grok @OpenAI