Elizabeth Wood, PhD

@lizbwood.bsky.social

Founder & CEO @jura.bsky.social | Full-stack probabilistic machine learning for the development of genetic medicines | Copenhagen & Basel & Boston

On model ablations: Linear models plateau on this data (dashed), even with foundation model representations (colors). We needed big transformers (solid) to scale.

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Elizabeth Wood, PhD@lizbwood.bsky.social · 2mo ago

Can we achieve the same scaling laws in biological AI as we have in the rest of machine learning? We found that @jura.bsky.social's mix of designed data generation and training produce robust scaling laws: more data reliably lead to better predictions over many orders of magnitude.

Overall, I am excited about geometric causal models' potential for bringing causal machine learning methods and ideas into new areas of science, including especially the molecular sciences where symmetries abound.

Ever wondered what it'd be like to run a de novo antibody campaign against 100 of the hardest targets, simultaneously, with 76% success rate, and have the complete wetlab validated results days from the project's start? We show you what that looks like, too: www.jurabio.com/mesa

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Elizabeth Wood, PhD@lizbwood.bsky.social · 9mo ago

JURA is launching a new target intelligence dashboard called MESA jurabio.com/mesa with a nice interactive case study from our recent TCRm campaigns. Go check it out -- we'll open to crowd-sourced targets soon. @jura.bsky.social

An interactive dashboard displays a UMAP of the tested generative samples, and various properties of the discovered landscape.

For most of the history of molecular biology, the experimental bottleneck has been so severe that we've learned to work around it rather than through it. The workaround is prediction. If you can only physically test a small number of molecules, you need to be good at guessing which ones to make.

Our LeaVS preprint is up! We demonstrate empirically & prove theoretically that LeaVS can dramatically accelerate learning, increasing the effective dataset size by orders of magnitude. Really useful biological assays have intractable bottlenecks: make the most of what you can get. @jura.bsky.social

Eli Weinstein@eliweinstein.bsky.social · 11mo ago

We're excited to present LeaVS, a method to scale up learning for protein function models. It is based on the co-design of wet lab experiments and in silico training.

For every Nobel that goes to a criminally under-recognized woman scientist (Brunkow, Karikó), or fails to go (Candy Lee), a week of mourning and reform for an academic system wherein you can do Nobel-prize-worthy-work and still end up without a conceivable path to being a professor.

Nature@nature.com · 12mo ago

BREAKING: The Nobel Prize in Physiology or Medicine has been awarded jointly to Mary E. Brunkow, Fred Ramsdell, and Shimon Sakaguchi "for their discoveries concerning peripheral immune tolerance" Stay tuned for more. #NobelPrize

A photo of a Nobel medal

Let's say all of a sudden you found yourself with 100,000+ wetlab validated, de novo AI designed, fully human GLP1R binding antibodies? Could you turn the patent suite into a financial instrument? Anyone who thinks about this you could connect me to?

A fundamental lesson of modern AI is that scale is essential: training bigger models on bigger datasets unlocks new capabilities. A fundamental lesson of AI engineering is that scaling up isn't trivial: it is not just a matter of spending more money and resources.

🚨 One week left to apply! I am hiring a fully funded PhD fellow and a postdoc to work on membrane protein structural biology and pharmacology at Univ Copenhagen Come work with a great team and exciting projects in a collaborative environment! 🔗 Links to the ads in comments #CryoEM #AcademicJobs

The biggest challenge for AI in biology isn't just models, it's the data used to train them. Standard biological data isn't built for AI. To unlock generative AI for drug discovery, we must rethink how we generate and capture data. 1/

Hardware/wetware codesigned data loop VISTA makes use of generative model sampling and synthesis "on chip" on-board by leveraging oligosynthesis setup shown here.