TELORISE (Electro-Thermal Energy Conversion)

Overview

TELORISE is a solid-state electro-thermal conversion platform that generates electricity directly from temperature gradients. Specialized capacitor modules undergo controlled variation of electrical capacitance under a thermal gradient, and the resulting charge redistribution produces collectable current. The target is the large volume of low-grade heat routinely lost in industrial systems — heat that conventional technologies cannot convert economically. There are no turbines, no combustion and no chemical processes anywhere in the cycle.

Applications

Primary use cases: industrial waste heat recovery; power generation from thermal gradients; energy recovery from cooling systems; integration with renewable power systems.

Typical scenarios: thermal power plants; chemical plants; metallurgical facilities; data centres; geothermal installations; industrial cooling infrastructure.

Industries and users: energy generation sector; heavy industry; industrial utilities; infrastructure operators; renewable energy developers.

Operating Principle

A temperature gradient across a specially designed capacitor structure alters its physical and electrical properties, changing its capacitance. The capacitance change forces charge displacement, which produces electric current. Power electronics collect that current and convert it to stable, grid-compatible output. The cycle repeats continuously as long as the gradient is maintained.

Key functions: conversion of thermal gradient into electrical energy; continuous charge cycling through capacitance variation; energy stabilization and grid-compatible output.

Limitations: output is proportional to the temperature difference, and the system requires a sustained gradient between hot and cold zones — it cannot operate on a transient or equalising thermal field.

Key Parameters

| Parameter | Value |

|---|---|

| Capacitor module footprint | A standardized modular unit sized for straightforward manufacturing, transport and installation |

| Electrical output per module | Engineered to produce strong charge displacement and high instantaneous current pulses as capacitance cycles with the thermal gradient |

| Operating temperature gradient | 10–100 °C |

| Power density potential | Scalable from modest outputs to multi-kilowatt levels per module, depending on the available gradient |

| Efficiency (estimated) | 15–35 % of available thermal potential |

| Consumables / fuels / chemical reactions | none |

| Moving parts | none (solid-state) |

Scalability: modular architecture allowing scaling from small installations to large industrial arrays.

Compatibility: works with existing electrical infrastructure and power management systems.

Architecture and Components

Capacitor energy modules; thermal interface plates; temperature gradient control system; power electronics module; energy stabilization and inverter system.

Interaction logic: the temperature gradient varies physical and electrical properties inside the capacitor module → capacitance variation creates charge displacement → current is generated → power electronics capture and convert it to stable output.

Configuration options: single module units; modular arrays; large industrial installations comprising hundreds or thousands of modules.

Advantages

Technical: no turbines, no moving mechanical systems, fully solid-state architecture.

Economic: monetizes low-grade heat previously written off as unusable.

Environmental: no emissions, no fuel consumption, reduction of thermal pollution.

Strategic: distributed generation from heat sources that already exist on industrial sites, requiring no new fuel supply chain.

Integrations

Compatible systems: industrial heat exchangers; cooling systems; thermal storage systems; renewable energy installations.

Technologies enhanced: waste heat recovery infrastructure; industrial efficiency systems.

Interface: standard industrial electrical interface; grid connection via inverter modules.

Deployment & Operation

Installation: placed between a heat source and a cooling interface wherever a stable temperature difference exists.

Operating conditions: temperature gradient between 10 °C and 100 °C.

Infrastructure needs: thermal interface, electrical connection, control electronics.

Personnel: standard electrical maintenance technicians — no specialist crew required.

Operational workflow: heat source creates gradient → capacitor module changes capacitance → charge displacement occurs → current collected → power electronics stabilize output → electricity delivered to local grid or facility load.

TRL

TRL 5–6. Laboratory validation of the electro-thermal capacitance conversion principle is complete. Completed milestones: concept development, capacitor module design, laboratory validation experiments. Remaining to TRL 9: pilot industrial installation, long-term reliability validation, industrial certification and scaling. Certification not yet obtained.

Market Potential

The addressed problem is the global loss of low-temperature thermal energy, which at present cannot be economically converted by conventional means. Every thermal power plant, chemical works, metallurgical facility, data centre and industrial cooling system is a candidate site with an existing heat source and no fuel logistics required.

Quantified market sizing is not yet established from internal data; the addressable base spans every industrial facility with a stable heat source and no existing recovery infrastructure — power plants, chemical works, metallurgical operations, data centres and geothermal sites among them.

Typical Project Economics

Note: with no consumables, no fuel and no rotating machinery, operating cost is limited to maintenance of the power electronics; the economics therefore hinge on capex per module against sustained gradient and site heat availability.

Risk Factors

Output scales with the temperature difference, so siting is decisive — a marginal gradient yields marginal power. A sustained gradient between hot and cold zones must be maintained; intermittent heat sources undercut the concept. Efficiency is currently an estimate (15–35 %) rather than a measured field figure. Pilot industrial installation, long-term reliability data and industrial certification all remain outstanding.

Related Technologies

AEROGRAPH (Graphene AeroGel) · TERU · eWATT · ThermaVolt · EXTRACAP