Overview
BATTERATOR is an autonomous modular system that continuously produces electricity and usable heat without combustion, fossil fuels, nuclear reactions, or renewable intermittency. It combines cold hydrolysis, gas mechanics, and electromagnetic induction in a closed, self-sustaining process using water as the working medium (not a consumable fuel). It delivers high-density, dispatchable, infrastructure-grade power and heat with minimal land use, fast commissioning, and no fuel logistics or weather dependency — scalable from a single site to city-level clusters.
Applications
Primary use cases: dispatchable baseload/load-following power; combined heat-and-power for district heating, DHW, industrial process heat, data-center heat recovery.
Industries and users: utilities, heavy industry, municipalities, data centers, microgrids.
Scale: 1 MW modules → city-level clusters; distributed deployment.
Operating Principle
Three domains in one system: (1) cold hydrolysis rapidly separates water into gases at low energy; (2) gas mechanics create controlled internal motion without combustion or pressure extremes; (3) electromagnetic induction converts that motion into stable electricity. A portion of output sustains the internal process; the rest is delivered externally, with heat captured concurrently. Continuous, no high pressure/temperature combustion.
Limitations: novel physics claims require independent validation; per-module 1 MW scaling.
Key Parameters
Module (1 MW): 20-ft container, ~14.3 m² footprint; ~0.5 m³ water; ~1 hour cold-start; 15–20 year life; 3 operators per 25–30 modules.
Performance: ~90 % capacity factor; ~7.88 GWh/year per MW; areal power density ~69.9 kW/m². Thermal output comparable to electrical (low/medium-temperature, directly usable).
Из карточки Long Battery Air (объединено, июль 2026):
| Parameter | Value |
|—|—|
| Rated output, ALB configuration | 2.26 MW per unit (~18.1 million kWh/year) |
| Footprint | 13.87 m² (20-ft container) |
| Power density, ALB configuration | ~163 kW/m² |
| Marine configuration for ARBOK-LINER | ~1.4 MW per module |
| CAPEX, ALB configuration | ~€5.18–5.19 million per unit |
| OPEX, ALB configuration | ~€5,000/year |
| Moving parts exposed to weather | none — fully enclosed |
> Расхождение в источниках. Карточка BATTERATOR описывает рабочую среду как воду (холодный гидролиз, ~0,5 м³) и даёт 1 МВт при 69,9 кВт/м². Карточка Long Battery Air описывает рабочую среду как окружающий воздух (аэротермодинамический цикл) и даёт 2,26 МВт при 163 кВт/м². Обе цифры внесены как есть.
Architecture and Components
Cold-hydrolysis stage; gas-mechanics motion stage; electromagnetic induction generator; heat-capture; power electronics; control system. 20-ft containerized; modular; no fuel chain, combustion residues, radioactive materials, or high-pressure vessels.
Advantages
Technical: non-combustion, non-nuclear; 24/7 baseload independent of sunlight, wind and terrain; silent, near-zero maintenance, no weather-exposed moving parts; rapid start/stop (~1 h); combined heat + power; no high-pressure/explosive processes.
Economic: CAPEX ~€2.15 million/MW; OPEX ~5–10 % of CAPEX/year; no fuel-price or carbon exposure.
Environmental: zero direct emissions, zero fuel logistics, no land use.
Strategic: localized energy sovereignty; reduced grid dependence.
Integrations
Deploys at industrial sites, utility yards, urban zones, or existing power facilities; ties to grid and district-heating networks; complements ARBOK generation/storage (Long Battery Air, DEKA).
Deployment & Operation
Steps: site placement (no major civil works) → grid/heat tie-in → commissioning (12–18 months at 100 MW class). ~1 h start; flexible load-following; low staffing.
TRL
TRL 3 (confirmed by Michael). Proof-of-concept / architecture stage; novel physics requires independent validation. Remaining: lab/relevant-environment validation, then pilot.
Market Potential
Dispatchable, low-footprint CHP without fuel or emissions addresses a vast market vs nuclear, fossil, and intermittent renewables — especially for industry, data centers, and district heating seeking energy sovereignty.
Typical Project Economics
Per 1 MW: CAPEX ~€2.15 million; OPEX 5–10 %/year. 100 MW class vs nuclear: CAPEX ~€190M vs ~€712M; OPEX ~€9.5–19M vs €20–40M/year; land ~0.14 ha vs 1–2 ha; commissioning 12–18 months vs multi-year. (Versus gas ~€95M, coal ~€305M, wind ~€160M, solar ~€376M, hydro ~€350M at 100 MW.)
Risk Factors
Novel-physics claims need independent third-party validation; scale-up from architecture; grid/heat integration; investor/utility acceptance of an unconventional generation principle.
Related Technologies
DEKA · BINARY BATTERY · TRISTONE (TEG-Electroliser)