Skip to main content

Envisioning is an emerging technology research institute and advisory.

LinkedInInstagramGitHub

2011 — 2026

research
  • Reports
  • Newsletter
  • Methodology
  • Origins
  • Vocab
services
  • Research Sessions
  • Signals Workspace
  • Bespoke Projects
  • Use Cases
  • Signal Scanfree
  • Readinessfree
impact
  • ANBIMAFuture of Brazilian Capital Markets
  • IEEECharting the Energy Transition
  • Horizon 2045Future of Human and Planetary Security
  • WKOTechnology Scanning for Austria
audiences
  • Innovation
  • Strategy
  • Consultants
  • Foresight
  • Associations
  • Governments
resources
  • Pricing
  • Partners
  • How We Work
  • Data Visualization
  • Multi-Model Method
  • FAQ
  • Security & Privacy
about
  • Manifesto
  • Community
  • Events
  • Support
  • Contact
  • Login
ResearchServicesPricingPartnersAbout
ResearchServicesPricingPartnersAbout
  1. Home
  2. Research
  3. Grid
  4. Metal Hydride Hydrogen Storage

Metal Hydride Hydrogen Storage

LAVO's hydrogen battery, developed with UNSW, stores 40kWh of electricity as solid-state hydrogen in metal hydride — enabling days-to-weeks storage without lithium supply chain risks.
Back to GridView interactive version

LAVO, an Australian company working with UNSW research spanning over a decade, has developed a hydrogen energy storage system that uses electrolysis to split water, then stores hydrogen in solid-state metal hydride canisters rather than as compressed gas. The system stores over 40kWh of electricity — enough to power an average Australian home for two days — and can scale for commercial and industrial applications. The technology enables long-duration storage (days to weeks) without the degradation issues of lithium-ion batteries.

Conventional hydrogen storage requires either high-pressure tanks (700 bar) or cryogenic cooling to -253°C, both expensive and potentially dangerous for residential use. Metal hydride storage operates at near-ambient conditions, absorbing hydrogen into the crystal lattice of metal alloys at low pressures. This makes it inherently safer and more energy-dense by volume than compressed gas, opening applications in homes, remote communities, and telecommunications backup power.

For Australia, where rooftop solar penetration is among the world's highest but grid storage remains insufficient, LAVO represents a path to energy independence at the household level. The technology's avoidance of lithium, cobalt, and other contested battery minerals gives it a supply chain security advantage. Government backing through the Department of Industry underscores its strategic relevance, though commercial pricing (approximately AU$30,000) remains a barrier to mass adoption.

TRL
7/9Operational
Impact
3/5
Investment
3/5
Category
Hardware

Book a research session

Bring this signal into a focused decision sprint with analyst-led framing and synthesis.
Research Sessions