--- title: Garmo Labs — Extraordinary by design. url: https://garmolabs.com/ description: Explore eight distinctive chip architectures, executable software demonstrations and reusable semiconductor IP. --- Extraordinary ideas start with the right building blocks. [Explore Garmo IP ›](https://garmolabs.com/marketplace) [Explore GSP ›](https://garmolabs.com/gsp) [Explore silicon ›](https://garmolabs.com/silicon) [Run our software ›](https://garmolabs.com/demos) [License IP ›](https://garmolabs.com/marketplace) Frontier AI. A Garmo original. # LAVI ## AI. Native to the machine. Model, memory and compute. Designed to understand each other. [Take a closer look](https://garmolabs.com/silicon/lavi) [Explore with us](https://garmolabs.com/contact?products=silicon-lavi) Architectural visualization. Not a photograph of fabricated silicon. RESULTS FROM SPINFORGE, A GARMO LABS COMPANY ## Measured, recounted, published. Scale records and head-to-head results from our posters and papers. Every figure links to its charts and conditions. Research records [200 billion variables in one max-cut run on one 8×H100 node: 77.42% of 6×10¹¹ edges cut in 11.4 h. To our knowledge the largest max-cut instance solved](https://spin-forge.com/proof/p2) [16.5 billion variables solved and recounted on an independent CPU code path: 89.4392% cut, difference 3.2×10⁻⁷](https://spin-forge.com/proof/p2) [4 / 4 cuOpt-proven 3D Edwards–Anderson ground states reached by the GPU solver (max relative gap 6×10⁻⁸)](https://spin-forge.com/proof/p1) [0.738–0.776 infinite-degree extrapolation from converged runs at 10⁸ to 10¹⁰ spins, bracketing the Parisi constant 0.7632](https://spin-forge.com/proof/p0) Against established solvers [39 vs 20 schedules proved optimal vs CP-SAT (40 schedules, 20 s)](https://spin-forge.com/proof/s09) [67 vs 49 Max-Cut instances proved optimal vs HiGHS (Biq Mac library, 148 instances)](https://spin-forge.com/proof/s01) [0.046 vs 0.190 mean regret of the solver router vs the best single backend (276 instances; lower is better)](https://spin-forge.com/proof/s07) [37 / 26 / 21 wins / ties / losses vs PyVRP on vehicle routing at equal budget (84 runs)](https://spin-forge.com/proof/s05) [11 / 6 / 3 wins / ties / losses vs mt-KaHyPar on ISPD98 chip partitioning (60 s, 2 seeds)](https://spin-forge.com/proof/s06) [235× batched solve throughput vs solving one by one](https://spin-forge.com/proof/s13) [16 / 16 AC-OPF cases above 5,000 buses solved faster than PowerModels + Ipopt on the same machine (5.5× geometric mean)](https://spin-forge.com/proof/s16) [28 / 28 SDPLIB instances solved faster than CSDP wherever CSDP needs over 10 s, same machine (22.2× geometric mean)](https://spin-forge.com/proof/s18) [9 / 9 min-cost flow wins vs OR-Tools at 2^19 to 2^21 nodes, every optimum independently certified](https://spin-forge.com/proof/s17) [See every result and chart ](https://spin-forge.com/proof) INTRODUCING THE CONNECTED GSP EXPERIENCE ## The platform behind the silicon. From the first intention to a result you can inspect. Keep the engineering connected. [Discover GSP](https://garmolabs.com/gsp) [Experience the workbench ](https://garmolabs.com/gsp/workbench) [gsp INTENT · GRAPH · SILICON · SYSTEM](https://garmolabs.com/gsp) SOFTWARE. NOT JUST SOMETHING TO LOOK AT. ## See what happens when you press Run. Real software. Your inputs. A result you can inspect. [See real software executions ](https://garmolabs.com/software/studio) [Explore 42 software offerings](https://garmolabs.com/software) DieWeaver / interactive software playground GARMO DIEWEAVER 1.2.0 ### A better place for every task. Change the power budget. Require independent failure domains. Run the actual archived placement engine and inspect the result. [Run DieWeaver](https://garmolabs.com/demos/dieweaver) [Try ModelNative](https://garmolabs.com/demos/modelnative) A Resource a · domain 0 95 health B Resource b · domain 1 Selected C Resource c · domain 0 Selected Recorded example · synthetic inputs 2 failure domains SEMANTIC AI & REASONING ## MITAN-X1 Many kinds of compute. One integrated idea. [Discover MITAN](https://garmolabs.com/silicon/mitan-x1) [Explore the architecture](https://garmolabs.com/silicon/mitan-x1#architecture) Architectural visualization. ### NFESR-H4 HIVE Connected by the field. [Explore NFESR-H4 HIVE](https://garmolabs.com/silicon/nfesr-h4-hive) [Technical overview](https://garmolabs.com/silicon/nfesr-h4-hive#specifications) Architectural visualization. ### KONBIT-X1 Different engines. Shared intelligence. [Explore KONBIT-X1](https://garmolabs.com/silicon/konbit-x1) [Technical overview](https://garmolabs.com/silicon/konbit-x1#specifications) Architectural visualization. ### SKYRA Execution with a stronger contract. [Explore SKYRA](https://garmolabs.com/silicon/skyra) [Technical overview](https://garmolabs.com/silicon/skyra#specifications) Architectural visualization. ### KMJ-X130 One coherent machine. [Explore KMJ-X130](https://garmolabs.com/silicon/kmj-x130) [Technical overview](https://garmolabs.com/silicon/kmj-x130#specifications) Architectural visualization. ### MSR-X130 More intention. Every square millimeter. [Explore MSR-X130](https://garmolabs.com/silicon/msr-x130) [Technical overview](https://garmolabs.com/silicon/msr-x130#specifications) Architectural visualization. THE GARMO IP MARKETPLACE ## Great silicon. One building block at a time. 512 named technologies. Explore their architecture, compare their boundaries and build a project around the right fit. [Explore the marketplace](https://garmolabs.com/marketplace) [Browse by engineering task ](https://garmolabs.com/marketplace/collections) [How integration works](https://garmolabs.com/developers/ip-integration) [Garmo semiconductor IP ### AI & tensor compute ](https://garmolabs.com/marketplace?category=AI%20%26%20tensor%20compute) [Garmo semiconductor IP ### Arithmetic & logic ](https://garmolabs.com/marketplace?category=Arithmetic%20%26%20logic) [Garmo semiconductor IP ### Compute & AI ](https://garmolabs.com/marketplace?category=Compute%20%26%20AI) [Garmo semiconductor IP ### CPU & execution ](https://garmolabs.com/marketplace?category=CPU%20%26%20execution) [Garmo semiconductor IP ### DSP, audio & video ](https://garmolabs.com/marketplace?category=DSP%2C%20audio%20%26%20video) [Garmo semiconductor IP ### Fabric & connectivity ](https://garmolabs.com/marketplace?category=Fabric%20%26%20connectivity) [Garmo semiconductor IP ### Integration & tooling ](https://garmolabs.com/marketplace?category=Integration%20%26%20tooling) [Garmo semiconductor IP ### Interconnect & networking ](https://garmolabs.com/marketplace?category=Interconnect%20%26%20networking) [Garmo semiconductor IP ### Interfaces & mixed-signal ](https://garmolabs.com/marketplace?category=Interfaces%20%26%20mixed-signal) [Garmo semiconductor IP ### Memory & coherency ](https://garmolabs.com/marketplace?category=Memory%20%26%20coherency) [Garmo semiconductor IP ### Memory & storage ](https://garmolabs.com/marketplace?category=Memory%20%26%20storage) [Garmo semiconductor IP ### Power & control ](https://garmolabs.com/marketplace?category=Power%20%26%20control) [Garmo semiconductor IP ### Power, clock & reset ](https://garmolabs.com/marketplace?category=Power%2C%20clock%20%26%20reset) [Garmo semiconductor IP ### Qualification programs ](https://garmolabs.com/marketplace?category=Qualification%20programs) [Garmo semiconductor IP ### Reliability & safety ](https://garmolabs.com/marketplace?category=Reliability%20%26%20safety) [Garmo semiconductor IP ### Security & cryptography ](https://garmolabs.com/marketplace?category=Security%20%26%20cryptography) [Garmo semiconductor IP ### Security & trust ](https://garmolabs.com/marketplace?category=Security%20%26%20trust) [Garmo semiconductor IP ### SoC interfaces & control ](https://garmolabs.com/marketplace?category=SoC%20interfaces%20%26%20control) [Garmo semiconductor IP ### Specialized compute & integration ](https://garmolabs.com/marketplace?category=Specialized%20compute%20%26%20integration) [Garmo semiconductor IP ### Test, debug & reliability ](https://garmolabs.com/marketplace?category=Test%2C%20debug%20%26%20reliability) FROM FIRST LOOK TO FIRST INTEGRATION ## Beautiful to explore. Built to go further. Understand the architecture. Run a software example. Review the release. Bring the right technology into your project. [Explore technical evidence](https://garmolabs.com/evidence) 01 ### Discover the right product 02 ### Evaluate a controlled release 03 ### Agree scope and delivery 04 ### Build with Garmo ## Your next big idea. Let’s build it together. Start with a chip, a software release or a single IP block. [Talk to Garmo](https://garmolabs.com/contact) [Start exploring](https://garmolabs.com/developers)