Advanced Thermal Formulas

This is the last paragraph from the evaluation of my flagship product. The system that was evaluated integrates carbon conductors, cooling, and high performance wiring in one single non metallic thread. This signals the end of heavy metals in electronics and cooling architecture. "The successful execution of this specification via scaled MADD and coaxial wet-spinning technologies will trigger cascading mass-reduction effects across aerospace platforms, ultimately redefining the mass, thermal, and electrical limits of next-generation flight hardware. Future development should prioritize the optimization of the continuous directed-energy doping mechanisms to ensure strict quality control of the P-N junction transitions during high-speed spooling operations." #MADD2D3D #NextGenhBN #Superconductors #ThermalManagement

The latest IBM and foundry announcements are a reminder that we’re genuinely approaching the physical limits of transistor scaling. Conductors a few atoms thick, extreme lithography, and device physics that are right up against noise and variability walls. That doesn’t mean progress stops; it means the path shifts. More and more of the roadmap is now about what we build around and above CMOS. Superconducting logic and links, 2D material films and Josephson class structures, hybrid stacks that bring Cooper pairs and van der Waals layers into the same environment as classical chips. The platform I’ve been working on, MADD. Magneto‑Acoustic Deterministic Deposition, is aimed directly at that regime. Instead of relying purely on thermal equilibrium and random nucleation, MADD turns the deposition line into a programmable physics engine for 2D and 3D substrates. Acoustic waves and directed energy, bias how ultrathin superconducting 2D films land and lock in. At system level, that matters because superconducting electronics and 2D Josephson structures are incredibly sensitive to defects, thickness variation, and interface quality. If we want Cooper pair logic, 2D tunnel barriers, and van der Waals junctions to graduate from lab prototypes into dense, manufacturable circuits, we need more control over how those layers are grown on real wafers and chip stacks. The goal isn’t to “extend Moore’s law” in the old transistor count sense. It’s to give chipmakers and superconducting electronics teams a tool that can place and pattern superconducting and 2D films with deterministic precision on top of and alongside CMOS, so we can keep increasing system‑level performance and energy efficiency even after classical scaling flattens. #MADD2D3D #Semiconductors #BeyondMoore #MooresLaw #MorethanMoore

Imagine this in 5 years, then 10… these things will be absurdly good at fighting, and shooting. Future military might, will just be who can manufacture these and drones the fastest. It’s not looking good for the US right now 😰

@TFTC21 Give it a reel or longer post on each finger and switch the tape back and forth between them to wrap way faster. It can even be a detachable toolset like a CNC machine uses, in a rack right in front of it.

Watch robot hands thread a wire harness. This is one of the hardest fine motor tasks in manufacturing and it's now being done with commercially available hardware.

In English.. We’re running out of room to make transistors smaller, so instead of shrinking them, I’m working on a manufacturing tool that can lay down tiny, atomic scale superconducting circuits and better metal wiring on top of, and around today’s chips. Think of it as a ultra‑precise 3D printer for advanced materials on silicon, so we can keep getting faster, more efficient hardware even after Moore’s law slows us down.

@AtfCool @martinmbauer Can you translate this to English please

We're rapidly approaching the fundamental physical limits of transistor scaling

Great thumbs-down idea: Tap it + select a reason (spam, bot, not interested, etc.) it removes that account from your algorithm, even if you follow them. Posts stop appearing unless you seek them. no full block, stops hate doomscrolling. Cleaner feeds. @x @elonmusk @nikitabier

@sama Do you have it connected to your home sound system like Tony Stark?

i talk to chatgpt more than i type to it at this point new voice model really crossed a threshold

"This exponentially decreases the inter-tube contact resistance, which is traditionally the primary bottleneck in macro-scale CNT electrical conduits. The resulting network behaves less like a bundled array of individual resistive wires and more like a continuous, single-molecule electrical pathway, yielding order-of-magnitude reductions in bulk resistivity."

"In contemporary aerospace platforms, the electrical wiring harness represents one of the heaviest subsystems, severely limiting payload capacity and operational range. Traditional copper wiring necessitates thick, thermally insulating polymer jackets (such as polytetrafluoroethylene or Kapton) to prevent dielectric breakdown. These insulating layers trap resistive Joule heat, forcing engineers to significantly derate the current-carrying capacity of the cables, which in turn requires the use of even thicker, heavier copper gauges to manage high-power loads. Furthermore, terminating copper or aluminum cables into carbon-fiber-reinforced polymer (CFRP) structures introduces profound galvanic corrosion vulnerabilities, necessitating heavy environmental sealants and isolation hardware. The proposed ecosystem entirely circumvents these limitations."

This is the last paragraph from the evaluation of my flagship product. The system that was evaluated integrates carbon conductors, cooling, and high performance wiring in one single non metallic thread. This signals the end of heavy metals in electronics and cooling architecture. "The successful execution of this specification via scaled MADD and coaxial wet-spinning technologies will trigger cascading mass-reduction effects across aerospace platforms, ultimately redefining the mass, thermal, and electrical limits of next-generation flight hardware. Future development should prioritize the optimization of the continuous directed-energy doping mechanisms to ensure strict quality control of the P-N junction transitions during high-speed spooling operations." #MADD2D3D #NextGenhBN #Superconductors #ThermalManagement

The biggest bottleneck in deep tech today isn’t compute. It’s heat. Whether it is a 1,200W AI processor, a millikelvin quantum computing package, or the thermal mass of a satellite swarm, hardware is hitting a wall. For decades, our answer to heat has been brute force: heavy copper blocks, rigid aluminum radiators, and leak-prone pumped fluid loops. We are adding massive dead weight and failure points just to keep systems alive. I’ve spent a lot of time exploring high-temperature superconductors (like REBCO) as the ultimate hardware paradigm shift. And they are. But I've realized something recently: before we can scale next-generation power, we have to entirely reimagine cooling. What if we replaced rigid, heavy metal thermal systems with a solid-state "Thermal Superhighway"? Instead of pumping fluids, imagine a flexible, woven architecture. A thread with a highly conductive core, surrounded by precision heat-routing shells and electrical isolation, woven directly into a structural textile. By engineering heat rejection directly into a flexible fabric, we can route heat from a source to a sink across complex geometries without the bulk. We can achieve temperature-band locking on both the hot and cryogenic sides, completely passively. The implications? Stripping hundreds of pounds of dead weight out of aerospace vehicles. Eliminating thermal pump-out and dry-out in high-density AI data centers. Creating ultra-quiet, vibration-free thermal bridges for quantum hardware. Solid-state, structural thermal management is the key to unlocking the next generation of hardware. We have to stop treating heat as a fluid dynamics problem and start treating it as a materials science opportunity. #MADD2D3D #MADDTE #NextGenhBN #ThermalManagement #DeepTech #AerospaceEngineering #QuantumComputing #AdvancedMaterials #Semiconductors #HardwareInnovation #SpaceTech

@_ty13r @NobodyInPaqv4z @jefielding Reducing resistance at the chip/radiator interface will allow using a smaller radiator and run hotter chips. So that's one way.

Heat needs to radiate in space to dissipate since it’s a vacuum… that’s a very slow process… removing the heat from data centers operating at 1GW is a very hard and capital intensive problem that every concept I’ve seen is either absent or hand wavy on how they attempt to solve it. It’s like how we pretend living on Mars is actually possible with no atmosphere and fraction of gravity. I’m not saying it can’t be solved, but I’m very surprised no one is addressing how difficult of a problem it is.

Investing in data centers in space seemed crazy until NY just banned all new AI data centers. Nowhere left to go except Florida and space! 🚀

Mesoscale control of matter isn’t a thought experiment for me, it’s the core design target of my patented MADD platform. MADD (Magneto‑Acoustic Deterministic Deposition) is a guided CVD architecture for 2D and 3D substrates thst uses magneto‑acoustic fields to steer where, when, and how atoms land on real hardware. In practice that means three immediate embodiments: - MADD REBCO Deterministic REBCO coated-conductor tapes and 3D forms for next‑generation high‑field magnets and fusion hardware. - MADD Optics Precision optical and photonic coatings on complex geometries, from high‑damage‑threshold mirrors to integrated waveguides. - MADD Vacuum In‑vacuum 2D/3D deposition where the chamber itself becomes part of the substrate, so you can grow functional layers directly on cryostats, beamlines, and power cans rather than just on wafers. - MADD Heat Thread Thermal threads loaded with hBN/BNO, turning high‑conductivity, electrically insulating fillers into deterministic heat highways for power electronics, cryostats, and superconducting hardware The goal is simple: turn desired material and defect patterns into programmable recipes that industrial tools can actually execute. #MADD2D3D #NextGenhBN #Fusion #Superconductors #Quantum #ThermalManagement #REBCO #Superconductivity #Optics #Photonics #VacuumTech #ThinFilms

While most of us are sleeping... Thousands of strawberry plants are getting treated. Every. Single. Night.

With my Magneto‑Acoustic Deterministic Deposition (MADD) platform, it’s all about the tool. I’ve combined the strongest capabilities of CVD, PVD, ALD and related methods, combined with our emerging technology, into a universal deposition system that works with virtually any material on an ultra‑durable reel‑to‑reel substrate, with unmatched precision and repeatability. That means we can engineer interfaces and functional layers that were previously impractical—tuning thickness, composition and structure at scale on threads, instead of being locked into one legacy process. #MADD2D3D #NextGenhBN #Fusion #Superconductors #Quantum #ThermalManagement

Once we have completed our review for security vulnerabilities, we will make the entire codebase of 𝕏 open source, with no exceptions. Moreover, we will invite third party reviewers to examine the system that is running to confirm that the open source code is what is running. Trust through total transparency is the only thing that should be believed.

Exploring a new approach to precision materials deposition. The Magneto-Acoustic Deterministic Deposition (MADD) platform uses acoustic strain templating combined with directed-energy activation to control growth on both planar substrates and continuous threads/fibers in real time. One of the biggest constraints in quantum and cryogenic systems is moving heat away from the sensitive core without introducing vibration, extra power draw, or new thermal loads. A passive thermal transport thread — essentially acting like a quiet power wire for heat — could change that. The same platform is also targeting faster, lighter REBCO conductors (MADD REBCO). High-temperature superconductors like REBCO are already redefining magnets for fusion, NMR, and high-field physics. Yet most current hardware relies on short segments of rigid advanced tape that are difficult to scale and integrate into complex geometries. Using continuous substrates processed in vacuum under acoustic fields, directed energy, and deterministic control of lattice, strain, and functional layers, the goal is to produce long, engineered superconducting threads, braids, and ribbons that are easier to wind, route, and embed directly into fusion, power, and magnet systems. The MADD platform (patent pending) is built for this kind of precision continuous fiber work. Early focus includes high-performance conductors, refractory metals, optics, and functional microstructures with potential in demanding environments. #MADD2D3D #NextGenhBN #Fusion #Superconductors #Quantum #ThermalManagement

I’m not building a data center. I’m targeting a specific flaw in how high‑density compute handles heat and turning that into a product. Anyone is free to decide whether they like orbital or terrestrial data centers—that’s a system‑level decision. What I’m doing is independent of which company or architecture wins: if you have chips dumping tens or hundreds of watts into a cooler, the chip–TIM–radiator interface is a real bottleneck. Fixing that is valuable whether you’re in a rack, an immersion tank, or low Earth orbit. #NextGenhBN #TIM #hBN #AI #orbitaldatacenters

I Recently filed provisional patents on my MADD 2D/3D, Magneto‑Acoustic Deterministic Deposition materials platform and my Next Gen hBN, magnetically aligned phase‑change hBN TIMs. MADD is my continuous materials platform: threads, ribbons, skins and monolithic coatings grown under fields, directed energy, and acoustics instead of cut from wafers and tapes. It covers MADD REBCO conductors, catalyst super‑threads, BNO thermal / radiation fabrics, MOF/COF capture textiles, vanadium reactor fibers, silicon jackets and quantum/vacuum lines. The MADD platform is built so any compatible material can enter any station and leave stacked as high‑performance threads, ribbons and fabrics with more than one duty in operation—conducting, cooling, shielding, sensing, all on the same incredibly durable backbone. Next Gen hBN is my hexagonal boron nitride thermal management products. Magnetically aligned phase‑change TIM pads increase in-plane conductivity for the highest thermal transfer, zero pump out, and efficient heat transfer lowering cooling requirements. Smart fabrics, isotopic h‑10BN neutron‑shield variants, asymmetric boron‑fiber smart fabric for superconducting qubits, and hBN radiation cooling blankets for orbital and high‑radiation hardware, share the same in-plane hBN performance design, while protecting components from radiation while cooling. Lowering chip‑to‑radiator interface resistance means less cooling mass for orbital data centers and terrestrial racks alike—the same W/m·K physics applies in vacuum or air, only the cooling method changes. The future of technology here is advanced cooling and high‑performance functional threads, built as a long‑horizon platform instead of a single product. #MADD2D3D #NextGenhBN #TIM #superconductors #AI #quantum #REBCO