Safe, Clean, Long-Duration Energy
for a Changing World
We build solid-state hydrogen energy systems — from materials science
to complete power infrastructure —
for applications where reliability,
safety and energy independence are non-negotiable.
Three Critical Gaps in the
Energy Transition
The world has deployed massive renewable capacity. But three structural gaps remain — they matter enormously for grid stability, access and security.
Long-Duration Storage Cost
Lithium-ion batteries work well for 2–6 hours. For 12-hour-plus durations, no clean technology has yet to compete with diesel on total cost of ownership at scale.
Safety in Critical Scenarios
Mines, islands, extreme-climate sites and data centers need power that is safe and stable in conditions where pressurised or liquid hydrogen creates unacceptable risk.
Affordable Access in Global South
1.3 billion people remain off-grid or diesel-dependent. Serving them requires technology that is deployable without heavy infrastructure, specialists or complex logistics.
"The transition is real. But it is uneven — and the gaps that remain are not engineering details. They are structural barriers to a stable, equitable energy system."
Why Hydrogen.
Why Solid-State.
Hydrogen Is the Right
Long-Duration Vector
Hydrogen carries 33 kWh per kilogram — roughly 100× the energy density of a lithium-ion battery by weight. It does not degrade over months of storage. It can store seasonal surpluses and dispatch on demand. For long-duration and cross-season energy storage, no other medium comes close.
Theoretical discharge duration capability →
Solid-State Overcomes
Conventional Hydrogen's Limits
High-pressure gas and liquid hydrogen are effective in industrial settings — but complex, expensive infrastructure makes deployment difficult in remote or harsh environments.
Stored at ≤ 0.1 MPa. No high-pressure vessels. No catastrophic failure mode. Deployable indoors, underground or in populated areas.
−40 °C to +60 °C. Designed for Arctic mining operations, tropical islands, desert solar farms and everything in between.
From kW to MW scale. Deployable by standard logistics. No specialized cryogenic equipment or high-pressure safety infrastructure required.
Absorbs and releases hydrogen efficiently. Compatible with intermittent renewable inputs. No thermal runaway risk during rapid cycling.
What POE Changes
Most hydrogen players focus on one layer. We deliver the full stack — from alloy science to energy-as-a-service.
Advanced Alloy Materials
PKU-origin metal hydride alloys with optimized hydrogen capacity, kinetics and cycle life
Solid-State Storage Modules
Standardized, modular canisters at near-atmospheric pressure. Scalable from portable to grid-scale
Integrated Power Generation Systems
Fuel cell + storage systems engineered as complete power infrastructure solutions
AI-Driven Control Platform
Predictive dispatch, remote monitoring, thermal management and lifecycle optimization
HaaS — Hydrogen as a Service
Capacity-based contracts. No upfront capex. Deployment, O&M and performance guarantees included
Designed Around Real
Energy Challenges
Solid-state hydrogen systems were purpose-built for scenarios where conventional solutions fail on safety, logistics or cost.
Long-Duration Storage for Renewable Power Plants
Challenge: Solar and wind generate intermittently; batteries can't bridge days of low generation at viable cost.
POE: Store surplus renewable hydrogen across days and seasons; dispatch on-demand at near-atmospheric pressure.
Green Energy Islands & Off-Grid Microgrids
Challenge: Islands and remote communities depend on costly diesel with no clean alternative that fits their logistics.
POE: Modular, ship-ready systems requiring no special infrastructure. Deploy, run, expand.
Mines & Heavy Industrial Sites
Challenge: Underground and remote mines need safe power in extreme temperatures where pressurised gas is prohibited.
POE: Near-atmospheric solid storage operates safely underground; wide thermal range covers Arctic to equatorial sites.
Drones, Robotics & Mobile Systems
Challenge: Battery-limited flight time and range constrain autonomous operations in defense, survey and logistics.
POE: High-energy-density, safe solid-state cartridges extend endurance without high-pressure refueling infrastructure.
Backup Power for Data Centers & Critical Infrastructure
Challenge: Diesel backup in urban data centers faces emission mandates, regulation and fuel supply risk.
POE: Clean, silent, indoor-safe backup power. Long shelf-life without degradation. AI-monitored readiness.
Green Hydrogen Storage, Transport & Distributed Delivery
Challenge: High-pressure tubes and liquid tanks make last-mile hydrogen delivery complex, expensive and risky.
POE: Safe solid-state cartridges enable truck, rail or drone delivery to industrial users, refueling stations and remote communities.
Built on Science.
Designed for Deployment.
Rooted in Peking University Science
Our core alloy science originates from PKU's Weihai Institute of Ocean Research Hydrogen Energy Center and the Laboratory for New Energy Transformation, Center for Applied Superconductivity Research. Peer-reviewed research underpins our material performance claims.
Engineered for Zero Catastrophic Failure
Near-atmospheric-pressure storage eliminates the primary hazard of hydrogen systems. Thermal management and AI monitoring ensure safe operation from Arctic mines to tropical microgrids without specialized safety infrastructure.
Designed for the Underserved 70%
Global South markets, island nations, off-grid industrial sites and remote communities are not afterthoughts — they are the primary design context. Our systems require no grid connection, no hydrogen pipeline and no specialist infrastructure.
Build the Next Clean Energy
Ecosystem Together.
We are not building a technology showcase. We are building a global deployment network with governments, utilities, developers and industrial operators.
PKU Weihai Institute of Ocean Research — Hydrogen Energy Center
Joint R&D on metal hydride alloy development. Source of core IP and materials science validation for commercial-grade storage modules.
PKU Center for Applied Superconductivity Research, Laboratory for New Energy Transformation
Collaborative research on hydrogen generation, storage and fuel cell integration. Foundation for system-level performance benchmarks.
Qair — Global Renewable Energy Developer
Joint feasibility studies and pilot deployments for green hydrogen integration in utility-scale renewable energy projects across emerging markets.
Governments & Development Finance Institutions
Pilot programs, energy access mandates, and climate finance mechanisms for off-grid and island-nation deployments in the Global South.
Ready to Co-Create the Next Era of Green Energy?
We partner with developers, governments, industrial operators and investors who prioritize long-duration & clean energy as a strategic imperative.