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Frontier AI research

Foundational
lab for
intelligent
systems

Frontier AI research, enterprise systems, and scientific applications are expressions of a shared pursuit of understanding and building systems that operate reliably in complex, real-world environments, where each domain reinforces and advances the others. Research Commons works across it all.

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Backed by

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Our mission

We’re building on original, foundational research — every platform, product, and partnership we ship is powered by it. Enterprise systems, open exploration, and education feed one another — and each pass through that loop compounds into systems that hold up in the real world.

How we do it

  1. Enterprise[01]
  2. Exploration[02]
  3. Education[03]

Building end-to-end AI infrastructure engineered to operate at scale. From training and inference to agentic systems, and everything in between.

Enterprise

[Introducing Tensile|]The infrastructure layer for agentic companies & neolabs


  1. [01]Distributed post-training across preference optimization, reinforcement learning, and SFT.

    Kubernetes and Slurm-native infrastructure for reliable, low-config distributed training — deployable on your cloud, clusters, or enterprise compute.

    Methods
    SFT, Curriculum-SFT, RSFT, DPO, ORPO, PPO, GRPO, GRPO++
    Control Plane
    Job scheduling, distributed orchestration, fault recovery, async checkpointing
    Evaluation
    Verifier scoring, benchmark orchestration, distributed evaluation

  2. [02]Distributed LLM inference profiled and optimized across production workloads.

    Workload-aware inference optimization across vLLM, SGLang, LMDeploy, and TensorRT — reducing GPU idle time, serving cost, and latency through automatic workload simulation and bottleneck profiling across your infrastructure stack.

    Techniques
    Speculative decoding, chunked-prefill, KV cache optimization, disaggregated inference, Flash Attention
    Optimization
    Automatic workload simulation, GPU bottleneck profiling, throughput & latency optimization
    Managed Infrastructure
    End-to-end inference management, cost reduction under SLA, production workload optimization

  3. [03]Runtime infrastructure for deploying, observing, and optimizing production AI agents.

    High-performance agent runtimes with optimized sandboxing, trajectory observability, and dedicated RL environments — built for secure, production-grade browser, API, and long-horizon agents.

    Runtime
    AI gateways, trajectory observability, cost metering, runtime orchestration
    Sandboxing
    Isolation, workload optimization, domain-specific performance, security & compliance
    RL Environments
    Browser, computer-use, API, MCP, long-horizon execution environments

The Tensile difference

Case studies[05]

  1. AionNeocloud

    Inference engine optimization and finetuning for domain-specific models.

  2. LanturnBehavioural Data

    An end-to-end data capture system, synthetic data platform, and RL environments for mechanical engineering and CAD.

  3. Pavo AIEnterprise Intelligence

    Distributed sandbox runtimes for enterprise agents.

  4. StealthRobotics Foundation Lab

    Distributed training and evaluation infrastructure for robotics foundation models.

  5. StealthGenomics

    Scalable pipelines for protein structure prediction and large-scale biological simulation.

Exploration

Applied research

Open systems, benchmarks, and
tools across frontier domains

ML Systems

cpptensor

CUDA Kernels, C++

Medical AI

ASD-Bench

Cognitive Neuroscience

ML Systems

cppnet

Networking, RPC, C++

Medical AI

Spine-Bench

Image Segmentation

Medical AI

MedSAM-RL

Reinforcement Learning

Document AI

ParseTens

Deterministic PDF Parsing

Medical AI

Medical World Models

Model-Based RL

Scientific Computing

Bayesian Neural ODEs

SciML 25, Naples

ML Systems

cppgrad

NN Frameworks, C++

Medical AI

MedSAM-RL

05 / 09


Publication

Under Review

Stage

Research in Progress · Medical Imaging

Methods

Reinforcement Learning, MedSAM, Medical Imaging, Segmentation

MedSAM-RL

Cascading reinforcement learning for medical image segmentation.

Medical image segmentation is often treated as a one-shot prediction problem, despite clinical workflows requiring iterative refinement and anatomical reasoning. MedSAM-RL reframes segmentation as a long-horizon sequential decision process, where cascaded reinforcement learning agents refine masks step by step on top of MedSAM. The framework explores whether RL-driven refinement can improve robustness, edge-case handling, and label efficiency in medical imaging settings where expert annotations are scarce.


Long-Horizon Segmentation

A cascaded reinforcement learning framework that iteratively refines MedSAM segmentation outputs through sequential decision-making, optimizing anatomical consistency and segmentation quality across clinical imaging tasks.

Impact

Explores a more adaptive approach to medical segmentation by combining foundation segmentation models with long-horizon RL, improving robustness in challenging clinical cases and reducing dependence on dense annotations.

05 / 09

Education

Building platforms

Spanning problem-solving, knowledge building and research

  1. Math Commons[01]

    Learn by solving

    Curated problem sets built on top of MIT OCW, designed for people who learn by solving, not watching. Concepts paired with structured practice, fast feedback, and tight progression loops.

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  2. Sisyphus[02]

    End-to-end research

    A research platform for reading, writing, and working through ideas end-to-end. Papers, notes, citations, and analysis—kept in one continuous workflow instead of scattered tools.

    Know more

Blogs and white papers

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Build the future of intelligent systems

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