To solve aging, we first need to measure it. Excited to share our study in @NatureMedicine! Different cell types age at different rates within our body. From a tube of blood, we track aging across 40+ cell types, from immune cells to neurons, revealing signatures that forecast disease risk and resilience. @wysscoray 🧵1/9
Big news from Boltz - our biggest update yet! 🚀
Today we’re releasing two new state-of-the-art models for protein and small molecule design with extensive wet lab validation and a new API to run all of our models on scalable GPUs wherever you (or your agents) work! 🔥
To solve aging, we first need to measure it. Excited to share our study in @NatureMedicine! Different cell types age at different rates within our body. From a tube of blood, we track aging across 40+ cell types, from immune cells to neurons, revealing signatures that forecast disease risk and resilience. @wysscoray 🧵1/9
Daisy did an amazing job quantifying aging. There is a lot of noise out there, but this is the straight science that shows how aging unfolds. Our organs can age at different speeds. Turns out you can measure it with the proteins found in blood plasma. Great stuff!
To solve aging, we first need to measure it. Excited to share our study in @NatureMedicine! Different cell types age at different rates within our body. From a tube of blood, we track aging across 40+ cell types, from immune cells to neurons, revealing signatures that forecast disease risk and resilience. @wysscoray 🧵1/9
To solve aging, we first need to measure it. Excited to share our study in @NatureMedicine! Different cell types age at different rates within our body. From a tube of blood, we track aging across 40+ cell types, from immune cells to neurons, revealing signatures that forecast disease risk and resilience. @wysscoray 🧵1/9
This is one of the most important papers advancing the science of aging. Now at the cell level. Another outgrowth of the era of high-throughput proteomics.
To solve aging, we first need to measure it. Excited to share our study in @NatureMedicine! Different cell types age at different rates within our body. From a tube of blood, we track aging across 40+ cell types, from immune cells to neurons, revealing signatures that forecast disease risk and resilience. @wysscoray 🧵1/9
We leveraged the plasma proteome: 7k+ proteins measured in 60k+ individuals across three independent cohorts. We built cell-type aging clocks and found that accelerated / youthful cellular aging predicts mortality, future disease, and resilience. 4/9
Aging is not a single clock ticking uniformly across the body. It unfolds across biological scales: cells → organs → individuals. Lifespan reflects the integration of aging rates across these levels. Cells shape organ function and disease vulnerability. So we asked: can we measure aging at cellular resolution in humans? 3/9
Aging is a central driver of many diseases, from neurodegeneration to cancer. But not everyone ages along the same trajectory. Why do some people remain resilient while others become vulnerable? 2/9