Recent comments in /f/IAmA

ShakeNBakeGibson OP t1_j7mh7nq wrote

All reductions of complex biology cut out some of the information and become poorer representations of the patient. Scale and translation are opposing forces in biological experimentation. The most translational model is human - which is hardest to scale. The least translational model is in silico, but is easiest to scale.

What we do at Recursion is work in a human cell, the smallest unit of biology that has all of the instructions. It is not perfectly translational, but there are many examples of where it has worked well. But it does allow us to scale across biology and chemistry (whole genome scale, ~1M compounds, etc).

Using that model, we find the strong correlates of gene function and patient biology from the world’s knowledge of disease, and explore those in our dataset to find ways of modifying those processes. We then do the rigorous work of translating success from our cellular models in much more complex systems. Our clinical programs demonstrate that we are able to confirm these insights from the platform in more complex in vivo models.

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IHaque_Recursion t1_j7mg5db wrote

Might be some personal bias here – I come from a sequencing background before Recursion – but I don’t necessarily think metabolomics or proteomics are more established than transcriptomics (especially in a research context; clinical testing is different!). The past 10-15 years have seen an absolute _explosion_ in the ability to generate (and analyze/interpret) sequencing data at scale. One of our core principles is being able to generate high-dimensional data at scale, and from that perspective, transcriptomics is a great complement to phenomics. Metabolomic and proteomic technologies (whether affinity or MS-based) are still more expensive and smaller scale than what you can achieve by sequencing. That being said, as technology advances and we find the right application areas, we’re interested in exploring what these other readouts can do for us.

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70looking20 t1_j7mg0vb wrote

  1. How is the job market for biotech 2023/2024? Especially for computational scientists?
  2. I’m a Comp Chem PhD graduating end of 2023, looking to switch to CADD. What qualities are you guys looking for from a computational drug discovery scientist apart from those mentioned in the job descriptions? Thank you!
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ShakeNBakeGibson OP t1_j7mfids wrote

OK, Imran answered this question, but he’s currently restarting his computer, because Murphy’s Law… so from Imran:
In our early years we focused on using our approach to enable drug repurposing programs (“known compounds”), hence why 4 of our 5 clinical stage programs are with repurposed molecules. But for the last few years we’ve been using our maps to discover & optimize novel chemical entities, including both natural and synthetic ones - in fact our first new chemical entity (synthetic compound) just entered Phase 1 clinical trials!

For 2, see above!

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BioRevolution t1_j7mf1eh wrote

  1. The area of AI enabled Drug Discovery is a fast moving field: When have you planned to update the Frost & Suvillian Analys Slide showing the Top companies? It most likely will require regular updating.

  2. What made you change the visualization of your pipeline slide? (Going from the Horizontal "scatter" Plot with the different programs from early discovery to clincal to the newer illustration of the bar plots, that is no longer showing the number of early stage programs)

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ShakeNBakeGibson OP t1_j7meg5a wrote

I love this question. We’re really lucky to already be working with two dream partners! One with Bayer in fibrosis and one with Roche/Genentech in neuroscience and a single oncology indication.

What we look for in new, transformational partnerships are threefold:

  1. Learning for us - can we learn from a partner to make the company better for the future?
  2. Impact - can we drive value for patients and our shareholders?
  3. Data - can we gain access to, retain access to, subsidize access to, or otherwise build our dataset?

[Edited - list formatting]

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Novel-Time-1279 t1_j7mdfcu wrote

To what extend (if any) do you think that a database profiling common human genetic variation in eg KRAS tumors would be helpful so that you can design antibodies that will be broadly applicable? Do you analyze mass datasets from eg TCGA or Genomics England and try to design antibodies considering common variants or do you pick a canonical target and work from there?

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Novel-Time-1279 t1_j7md0o5 wrote

Are you limited by capital or by discovery? Eg have you discovered what you think are disease targets with unmet need where you’re reasonably confident you have a real target, but you have to deprioritize it due to trial costs? Or is the limiting factor finding targets and agonists/antagonists for them?

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