Shamit Shrivastava

Building Liquid State Intelligence - We are hiring!

London Area, United Kingdom

About

I've spent over a decade following a single physical principle to its consequences: the world encodes information about itself in how it responds to being disturbed. Not in its composition. Not in its structure at rest. In its dynamic behaviour under stress. That conviction took me through a decade of academic work on nerve pulse propagation, nonlinear physics at interfaces, and synthetic membranes, restoring an abandoned scientific lineage that runs from Eigen's relaxation methods through Kaufmann's thermodynamic theory of the nerve impulse to experimental proof that interfaces themselves compute. That lineage became a company. At Apoha, we've built a natural computing platform that resolves what we believe is the third fundamental data class of molecular science: States. Genomics gave us sequences. Structural biology gave us structures. Neither tells you what a molecule actually does. Our platform subjects molecules to real physical perturbation and reads the full behavioural response, generating thermodynamic state data that has never existed for complex biological and formulated materials. We're already using this to transform how the world's largest pharma and food companies make molecular decisions, from antibody developability to formulation science. Every measurement compounds, building a proprietary dataset that grows more predictive over time. The near-term case is proven. The long-term case is the data infrastructure for physical AI. Building this company has taught me that the deepest technical moats are also organisational ones. The platform only works because the team refuses to respect disciplinary boundaries, the same principle that makes the science work makes the company work. I believe in first-principles thinking, transparent leadership, and the conviction that the most important problems live at the interfaces between fields, not inside them. I write and think about what lies beyond AI, the history of science, physics-based computing, and why the mainstream keeps abandoning ideas that turn out to be correct. If any of that resonates, let's connect. #DeepTech #AIforScience #NaturalComputing #PhysicsBasedAI #MaterialIntelligence

Experience

  • CEO and Co-Founder at Apoha
    Apr 2021 - Present · 5 yrs 4 mos

    At Apoha, we empower companies to design and scale complex materials, mixtures, and formulations tailored to customer specifications. Our AI-native scientific instruments, powered by proprietary Liquid State Intelligence technology, offer rapid, sensory or behavioural classification of complex mixtures, enhancing everything from alternative food sources and sustainable materials to drug optimization for safety, efficacy, and manufacturability.

  • University of Oxford (5 yrs 10 mos)
    • Senior Research Associate
      Mar 2019 - Mar 2021 · 2 yrs 1 mo

      New technologies based on biomedical ultrasound, photonics and photoacoustics. Acousto-photonic and photoacoustic manipulation of cell membrane biophysics. Affiliated with Rosalind Franklin Institute https://www.rfi.ac.uk/science-themes/imaging-with-sound-light/

    • Postdoctoral Research Assistant
      Jun 2015 - Feb 2019 · 3 yrs 9 mos

      Shock wave enhanced delivery of antibodies, mRNA and lipid nanoparticles in cancer cells at Oxford Centre for Drug Delivery and Devices (OXCD3). Ultrasonic Neuromodulation.

  • BSF Fellow at Wilbe | Home for Scientist Leaders
    Oct 2020 - Nov 2020 · 2 mos

  • Boston University (5 yrs 9 mos)
    • Post Doctoral Research Assistant
      Jan 2014 - May 2015 · 1 yr 5 mos

      Shock wave theory for cell membranes

    • Graduate Research Assistant
      Oct 2009 - Jan 2014 · 4 yrs 4 mos

      On the existence of thermodynamic pulses at hydrated interfaces and their role in biology.

    • TA Solid Biomechanics BE426
      Sep 2009 - Dec 2009 · 4 mos

  • Undergraduate Thesis at Center for Nanotechnology IIT Guwahati
    May 2006 - May 2008 · 2 yrs 1 mo

    Heat and Mass Transfer during Evaporation of a Sessile Water Drop. Directed assembly of colloidal particles via contact line pinning.