Where Energy Meets Software
Physical systems and digital systems share more structure than we usually admit.
- energy
- systems
- technology
The energy transition is often framed as a hardware problem: more solar, better batteries, smarter grids. That’s true, but incomplete.
Modern energy systems are cyber-physical. Software coordinates generation, storage, and consumption across timescales from milliseconds to seasons. The interesting failures — and opportunities — live in that coordination layer.
Control loops everywhere
A grid operator, a battery management system, and a load-balancing service are all solving variants of the same problem: match supply to demand under uncertainty, with constraints, while something is always lagging behind reality.
Software engineers have decades of vocabulary for this: queues, backpressure, eventual consistency, graceful degradation. Energy engineers have theirs: ramp rates, inertia, reserve margins, curtailment.
Learning both vocabularies is worth the effort.
Why this matters for builders
If you’re building in energy — or in any domain where atoms and bits meet — the integration risk dominates. The physics doesn’t care about your sprint cadence. The market doesn’t care about your test coverage.
Respect the domain. Build interfaces that fail safely. Measure what actually matters to the system, not just what’s easy to log.
The builders who thrive here are the ones who stay curious about the physical world while maintaining the craft standards of good software engineering.