Is AI the answer to life, the universe and everything?
Artificial intelligence, tech policy, digital transformation
This is Part 6 of The Neuromorphic Revolution series. Over the past five articles, we’ve traced the remarkable journey of neuromorphic computing—from its ambitious origins inspired by biological neural networks, through its foundational principles of event-driven processing and synaptic plasticity, to its early applications in sensory processing and robotics. We’ve met the key players—both academic…
For decades, neuromorphic computing has lived in the realm of promise and potential. Researchers have extolled its brain-inspired architecture, its energy efficiency, and its capacity to revolutionize how we think about computation. But the killer application—the breakthrough use case that would finally move neuromorphic from laboratory curiosity to commercial necessity—remained frustratingly elusive. That search is…
TL;DR: To meet climate goals, the world must triple renewable energy capacity to 11 terawatts by 2030—equivalent to building approximately one entire current U.S. electrical grid every year for six years. This requires 1,500 gigawatts of energy storage, primarily batteries, making battery innovation the central nervous system determining whether humanity can avoid catastrophic warming. The…
When Tesla announced its first Gigafactory in 2014, the automotive industry dismissed it as Elon Musk’s latest publicity stunt. Traditional automakers had spent a century perfecting the art of assembly, relying on suppliers for everything from seat belts to semiconductors. The idea that a startup would vertically integrate battery production seemed not just risky, but…
For over a decade, solid-state batteries have been hailed as the holy grail of energy storage—promising to double energy density, eliminate fire risk, and enable 15-minute charging. Companies like QuantumScape have raised billions based on this vision, while Toyota has positioned solid-state technology as a key component of its electric vehicle strategy. Yet despite massive…
For decades, neuromorphic chips—hardware inspired by the brain’s event-driven, energy-efficient computing—languished in labs. Their promise was held back not by hardware limitations, but by a persistent software gap: programming them required neuroscience-level expertise, and each new chip came with its own bespoke programming model. That began to change five years ago. Why the Software Bottleneck…
Made in China: How Beijing Won the Battery War Before America Noticed TL;DR: While Western governments debated free market principles, China deployed the most successful industrial policy of the 21st century to capture 85% of global battery production capacity. Through $73 billion in subsidies, strategic acquisitions, and forced technology transfer, Beijing built companies like CATL…
This is Part 2 of “The Battery Wars” series. Read Part 1: From Galvani’s Frogs to Lithium Kings: The Hidden History That Explains Today’s Battery Wars While the world fixates on China’s dominance in battery manufacturing, the real chokepoint of the energy transition lies thousands of miles away in the remote salt flats of South America….
The race for battery supremacy transforming global power didn’t begin with Tesla or climate change—it started when a dead frog’s leg twitched in a laboratory in 1780. In late 1780, Italian physician Luigi Galvani was dissecting a frog in his laboratory when something extraordinary happened. He touched the creature’s leg with two different metal instruments,…
As AI demand surges, America’s electricity grid faces its biggest challenge since rural electrification—and the solutions being built today will determine whether the country leads or follows in the global AI race. The numbers that should worry every American arrived quietly in government reports this summer. U.S. data centers consumed 176 terawatt-hours of electricity in…