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Marlowe enables frontier-scale AI research across Stanford, from 80-billion-parameter brain models to genomic foundation models to autonomous driving systems. Watch the researchers, read their stories, and meet the community pushing the boundaries of what's possible with GPU computing.

Leland Smith viewing computer music notation on a CRT monitor, 1976 Computer music · 1976

Leland Smith with computer music displayed on a CRT monitor · Stanford, 05/19/1976

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Iro Armeni

Iro Armeni

Assistant Professor of Civil and Environmental Engineering
School of Engineering

4D Scene Understanding: AI for Dynamic Real-World Environments

Two active projects in 4D scene understanding on Marlowe. ReScene4D introduces temporally consistent instance segmentation from sparse 3D scans — a novel task for construction digital twins and embodied AI. A companion project develops end-to-end 4D reconstruction and camera localization from monocular video using DiT architectures for autonomous navigation and AR/VR.

Emmanuel Candès

Emmanuel Candès

Barnum-Simons Chair of Mathematics and Statistics
School of Humanities & Sciences

Frontiers of AI Scaling: Synthetic Data and Test-Time Reasoning

As the finite pool of internet text that powered a decade of AI scaling runs dry, Candès's group uses Marlowe to chart the next frontiers — generating synthetic training data and scaling reasoning at test time. That work includes s1 (Simple Test-Time Scaling), a low-cost open reasoning model built in part on Marlowe and featured in The Economist. Running through all of it is a distinctively statistical agenda: knowing when an AI's output can be trusted, and how to correct it when it cannot.

Thierry Tambe

Thierry Tambe

Assistant Professor of Electrical Engineering and, by courtesy, of Computer Science
School of Engineering

Efficient AI Computing: From Model Compression to Edge-Deployable Video Generation

Extending BlockDialect (ICML 2025), their fine-grained mixed-format quantization method, from LLMs to video diffusion transformers — enabling real-time video generation on edge devices by quantizing models like Open-Sora 2.0. Also developing compact visual encoders using 2D Gaussian splatting for vision-language models. One of Marlowe's most active research groups.

Brian Hie

Brian Hie

Assistant Professor of Chemical Engineering
School of Engineering

Beyond Evo 2: Next-Generation Biological Models

Creators of Evo 2, the state-of-the-art DNA language model published in Nature, now developing next-generation biological models on Marlowe to address limitations in protein structure prediction and fitness tasks that scale alone cannot solve. Training models at 150M parameters before scaling to 1B, using training and inference infrastructure that has been used to scale models through 40B parameters.

James Zou

James Zou

Associate Professor of Biomedical Data Science and, by courtesy, of Computer Science and of Electrical Engineering
School of Medicine

AI Agents for Biomedical Discovery: Self-Improving LLMs with Scientific Tools

Developing algorithms that enable large language models to self-improve and learn to use scientific tools like AlphaFold and biomedical databases to build deeper expertise. Fine-tuning and evaluating LLMs (7B-70B parameters) for high-impact applications in healthcare, biology, chemistry, and medicine.

Azalia Mirhoseini

Azalia Mirhoseini

Assistant Professor of Computer Science
School of Engineering

Personal and Efficient Local AI

OpenJarvis is an open-source framework for personal AI that runs entirely on personal devices, keeping user data local and calling the cloud only when truly necessary. While OpenJarvis performs inference on-device, the specialized small models that make local-first AI practical must first be trained at scale, and Marlowe provides the compute backbone for exactly this. We use Marlowe to distill and fine-tune compact, task-specialized language models that recover much of the capability of far larger cloud models while fitting within the strict latency, memory, and energy budgets of consumer hardware (NVIDIA GPUs, AMD GPUs, and Apple Silicon).

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