Early-stage prototyping

Energy bufferingfor always-on AI.

Arclix is developing a hydrogen-based energy buffer system designed to shift energy across time and support continuous AI data center operations.

The AI power constraint

Computing demand is continuous. Energy availability is not.

AI infrastructure developers and data center operators must plan around when and where electricity is available. Arclix is developing energy-buffering infrastructure for the gap between available supply and continuous computing demand.

01

Shift energy across time

Store energy when supply is available and dispatch it after the original supply window has passed.

02

Support continuous loads

Develop a long-duration buffer around the operating needs of energy-intensive AI compute.

Energy Pod · System concept

Hydrogen as an energy buffer.

The long-term Energy Pod concept is intended to connect hydrogen production, solid-state storage and electricity generation in one integrated system.

Energy buffer system showing renewable electricity charging hydrogen storage through SOEC, then stored hydrogen delivering continuous power through SOFC to an AI data center.
Development status: this is a long-term integrated system concept. Arclix is currently prototyping core components and has not completed an integrated Energy Pod field test.
Conceptual visualization of an Energy Pod in a solar and wind energy landscape
Conceptual visualization — system under development.
How it is intended to work

Available energy, stored and dispatched later.

  1. 01

    Available electricity

    Use electricity during periods of supply.

  2. 02

    SOEC

    Convert available electricity into hydrogen.

  3. 03

    MgH₂ storage

    Hold hydrogen in a solid-state energy buffer.

  4. 04

    SOFC

    Convert stored hydrogen back into electricity.

  5. 05

    AI data center power

    Coordinate delivery to continuous computing loads.

Technology

Current R&D, building toward an integrated architecture.

Arclix is focused on printable solid-oxide structures, MgH₂ solid-state hydrogen storage and thermal-integration concepts.

Rendered ceramic gyroid development structure
Representative ceramic gyroid development
Rendered cylindrical gyroid integration concept
Representative integrated gyroid concept
01

3D-printed SOEC structures

02

Printable SOEC cell architecture

03

MgH₂ storage design

04

MgH₂ paste formulation

05

Printable storage geometry

06

Thermal-integration concepts

Long-term integrated architecture

The Energy Pod concept is intended to integrate SOEC, solid-state hydrogen storage, SOFC, thermal management, power electronics and energy-management software. Current research and the future system architecture are distinct stages of development.

Primary application

Day-to-night and supply-to-demand energy buffering.

The Energy Pod is being developed for AI companies, data center operators and infrastructure developers facing a mismatch between continuous compute demand and available electricity supply.

Conceptual visualization of an Energy Pod beside AI data-center infrastructure
Conceptual visualization — system under development.
01

Supply window

Energy is available

Use available electricity to produce hydrogen.

02

Energy buffer

Hydrogen stores the value

Hold energy in MgH₂-based solid-state storage.

03

Demand continues

Power is generated from stored hydrogen

Generate electricity from stored hydrogen for continuous AI compute loads.

Company

A founding team focused on a physical constraint.

Our mission is to remove power availability as a constraint on the sustainable growth of artificial intelligence.

01

Michael Lee

Co-founder & CEO

02

Ding Zhang

Co-founder & Business Lead

03

Tengluan Sui

Co-founder & CTO

Current development stage

Early-stage prototyping, from core materials toward system integration.

Current focus
Core materials and component development
System direction
Integrated hydrogen energy buffer
Company stage
Early-stage, pre-commercial
Founded
2026