1414 Degrees’ energy storage technology can deliver clean heat and power for a more sustainable planet.
Our proven technology is the key to providing clean heat for industry and clean energy to stabilise the grid.
Our technology
Our silicon-based thermal energy storage solutions safely and efficiently store renewable electricity as latent heat.
In a demonstration module, it’s been shown our storage technology can produce up to 900◦C hot air, proving its potential as a gas replacement technology for high-temperature industries.
How we know it works
Our demonstration module – SiBox® – proves we have one of the most advanced solutions to decarbonise high-temperature industry and shows it can help achieve other net zero goals too.
SiBox is the complete energy storage system, where we installed and tested our leading-edge storage technology – SiBrick®.
What it can be used for
Our technology can be used to make industrial processes more sustainable by providing reliable and consistent clean heat and power.
Long duration energy storage can also help stabilise the energy grid and high-temperature heat can be used to produce hydrogen.
Our partners
Latest news
Full ownership of Aurora
We're pleased to announce we've agreed to acquire Vast Solar Aurora Pty Ltd, securing 100% ownership of SiliconAurora Pty Ltd and full control of the Aurora Energy Precinct. We've continued to lead Aurora's development since Vast Solar Aurora entered administration in...
SiNTL Demonstrates Capacity Retention Beyond 640 Cycles
Update on our onging SiNTL silicon-anode research programme, conducted in partnership with George Washington University. A SiNTL formulation targeting a specific capacity of approximately 550 mAh/g has now completed more than 640 charge-discharge cycles while...
New Manufacturing Pathway: We sign LOI with South Korea’s JR Energy Solution
We're pleased to announce we've signed a letter of intent with JR Energy Solution (JRES), a South Korean battery electrode and cell manufacturer, to jointly develop electrodes and battery cells incorporating our SiNTL silicon-anode material, with an initial focus on...