Technology brief
What this platform addresses
The Gereon Binary Battery is a next-generation autonomous power system that merges electricity generation and storage in a single unit.
In R&D (Experimental Stage)
Energy Production
Gereon (Binary Battery)
The Gereon Binary Battery is a next-generation autonomous power system that merges electricity generation and storage in a single unit.
The challenge
The problem this technology addresses
Off-grid power; emergency power; portable power. Scalable architecture covering small robotics through large industrial deployments.
ARBOK solution
How the ARBOK system creates value
The Gereon Binary Battery is a next-generation autonomous power system that merges electricity generation and storage in a single unit. It operates on electrochemical principles, using a graphene-based core that mediates ion flow between two electrolytic environments — acidic and alkaline. This creates a stable potential gradient and drives an electron flow, functioning like both a generator and a battery without moving parts, flammable elements, or toxic components. The battery is designed to deliver high energy density, near-zero losses, and long uninterrupted operation — up to 1,000 hours — before requiring recharge or material replenishment. It is suited for off-grid, emergency, and portable power applications, and offers a scalable architecture for both small robotics and large industrial deployments.
A graphene-based core mediates ion flow between an acidic and an alkaline electrolytic environment, creating a stable potential gradient that drives electron flow. The unit therefore acts simultaneously as generator and battery, with no moving parts, no flammable elements, and no toxic components. Cooling is passive by natural convection.
Market and application
Commercial opportunity
[требует уточнения из базы]
CAPEX и OPEX по проекту не ведём — считаются под конкретную площадку.
Use cases
Where the technology can be applied
Off-grid power; emergency power; portable power. Scalable architecture covering small robotics through large industrial deployments.
Next stage: TRL 4 — lab validation with breadboard-scale prototype pending.
Graphene Composites · TEG-BETON · Compact Energy Modules · Mobile Power Units
View preserved source description
Overview
The Gereon Binary Battery is a next-generation autonomous power system that merges electricity generation and storage in a single unit. It operates on electrochemical principles, using a graphene-based core that mediates ion flow between two electrolytic environments — acidic and alkaline. This creates a stable potential gradient and drives an electron flow, functioning like both a generator and a battery without moving parts, flammable elements, or toxic components. The battery is designed to deliver high energy density, near-zero losses, and long uninterrupted operation — up to 1,000 hours — before requiring recharge or material replenishment. It is suited for off-grid, emergency, and portable power applications, and offers a scalable architecture for both small robotics and large industrial deployments.
Applications
Off-grid power; emergency power; portable power. Scalable architecture covering small robotics through large industrial deployments.
Operating Principle
A graphene-based core mediates ion flow between an acidic and an alkaline electrolytic environment, creating a stable potential gradient that drives electron flow. The unit therefore acts simultaneously as generator and battery, with no moving parts, no flammable elements, and no toxic components. Cooling is passive by natural convection.
Key Parameters
| Parameter | Value |
|---|---|
| Energy output | Up to 24 kWh/day |
| Energy density | Up to 3 kWh/L (≈192 Wh/kg) |
| Specific power | Up to 800 W/kg |
| Nominal power | 1–3 kW |
| Peak power | Up to 10 kW |
| Operating voltage | 48 V (range 44–52 V) |
| Max current | 208 A |
| Efficiency | >99% |
| Self-discharge | <1% per month |
| Operating time | Up to 1,000 hours continuous |
| Switching time | <1 second |
| Weight | 12.5 kg |
| Volume | 12 L |
| Cooling | Passive (natural convection) |
| Operating temperature range | –20 °C to +60 °C |
| Noise level | <25 dB |
| Safety profile | 100% safe (no emissions, flammable or toxic materials) |
Architecture and Components
Graphene-based core separating and mediating ion flow between acidic and alkaline electrolyte chambers; passive natural-convection cooling; no moving parts. Total mass 12.5 kg in a 12 L volume.
Advantages
Merges generation and storage in a single unit. Efficiency above 99% with self-discharge below 1% per month. Up to 1,000 hours of continuous operation before recharge or material replenishment. No moving parts, no flammable elements, no toxic components — a 100% safe profile with no emissions. Passive cooling and near-silent operation below 25 dB. Wide operating temperature range from –20 °C to +60 °C. Switching time under 1 second. Scalable from small robotics to large industrial deployments.
Integrations
Graphene Composites · TEG-BETON · Compact Energy Modules · Mobile Power Units
Deployment & Operation
Next stage: TRL 4 — lab validation with breadboard-scale prototype pending.
TRL
TRL 3 — Experimental proof of concept completed. Next stage: TRL 4 — lab validation with breadboard-scale prototype pending.
Market Potential
[требует уточнения из базы]
Typical Project Economics
CAPEX и OPEX по проекту не ведём — считаются под конкретную площадку.
Risk Factors
[требует уточнения из базы]
Related Technologies
Graphene Composites · TEG-BETON · Compact Energy Modules · Mobile Power Units
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