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Chicago-area chemical biologist. Previously Northwestern (protein glycosylation) and Harvard (DNA replication/repair). Formally @rikeijames. Personal account.
Google Scholarhttps://scholar.google.com/citations?user=yfARKJgAAAAJ&hl=en
I am once again asking big name professors to give a talk on 1-2 projects and not high level overviews of 20

Interestingly, models #1 and #2 did just as well or better as the neural networks as a predicting whether a particular sequence will generate a nanobody that will be a "sticky" binder to the PSR (seen by the high area ROC curves below).

This is nice, because models #1 and #2 generate rules that are fairly straightforward for a human to interpret - i.e., such a such a motif of 3 sequential amino acids at positions XXX, is a large contributor to nanobody "stickiness".

Social media apps and stoicism
DOE rn

Of course, the previous studies attempt to correct for this, but Mashaal's paper, and the accompanying manuscript, find that it didn't do as well as hoped.

How they showed this is they used a much less genetically diverse sample - the UK Biobank ("UKB" below), which contains genomes of 300,000 white British people - and found a lot of the signal of adaptation found in a similar dataset of a more genetically diverse population ("GIANT") disappeared.

First #parentalleavepaper is something I would have read for work - Kevin Hou et al.’s excellent paper in Nature reporting a role of IFITM1-3 in the uptake of >1000 Da bifunctional inhibitors in K562 cells
https://www.science.org/doi/10.1126/science.abl5829