Molecular thermodynamics
Bench research focused on molecular thermodynamics and binding kinetics, modeling energy states and transition barriers, including RNA binding.
A long-range friction study
Long-range narrative (5–7 min read).
Follow the arc from lab work to policy outcomes, or jump ahead if you prefer.
Kanav Jain’s work, mapped across scale. See how friction is measured, reduced, and governed from molecules to systems.
Key takeaways
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Each layer keeps the same friction framework as scale increases.
2010–2014 · Molecular
Bench models map binding energy, transition states, and kinetic loss.
Example: RNA binding, where reactions stall.
Signal: binding energy, activation barriers.
2014–2019 · Clinical
Field audits isolate bottlenecks and rewire queues, handoffs, and clicks.
Example: reducing intake steps to save minutes per visit.
Signal: time-on-task, rework loops.
2019–2023 · Defense
Defense stacks translate risk into guardrails and support systems.
Example: payment protection for first-generation physicians.
Signal: exposure, volatility, loss.
2023–2025 · Institutional
Policy design traces compliance load to funding and mandates.
Example: mapping how new rules add administrative lift.
Signal: bureaucracy, compliance load.
Bench research focused on molecular thermodynamics and binding kinetics, modeling energy states and transition barriers, including RNA binding.
Clinical workflow engineering reduced administrative steps and queue lag in care delivery.
Work addressed financial risk and system defenses for first-generation physicians.
Work examined bureaucracy and policy, translating compliance requirements into measurable operational burden.