Systems and Innovation

Traces 80 years of jet engine efficiency improvement, showing that every breakthrough circles back to the same constraint: turbine inlet temperature versus the thermal limits of available materials.

Examines the 15°C comfort zone of lithium-ion battery operation and what happens at thermal margins — in the Arizona summer and the Norwegian winter — for EV range performance.

Applies cooling constraint analysis to AI data centre scaling, showing that the binding limit on trillion-dollar compute ambitions is not lithography chemistry or chip economics but the physics of cooling a building-sized computer.

Traces how heat extraction became the true pacemaker of the computing revolution — from vacuum tube thermal envelopes to the thermal ceiling of modern nanometre-scale silicon.

Breaking technological path dependency through biomimicry and deliberate ecosystem design, with modular standards, open-source models, and regulatory foresight to enable more resilient innovation.

How innovation ecosystems determine the success of inventions, with biomimicry showing higher survival rates when integrated early into interconnected networks of markets, regulations, and supply chains.

How biomimicry solved Japan's Shinkansen tunnel noise crisis by redesigning train noses after kingfisher beaks, demonstrating how natural constraints can reshape technological evolution.

Exploring biomimicry as a strategy for innovation, using examples like Velcro from burrs to demonstrate how borrowing evolved biological mechanisms can bypass human path dependency.

A comprehensive exploration of how technological innovation is shaped by path dependency, structural lock-in, and biomimicry as a pathway to more resilient design systems.

Examining how technological innovation is constrained by path dependency and structural lock-in, using QWERTY keyboards and other examples to illustrate why superior technologies often fail to displace incumbents.