Energy Production

AEROBATT (BINARY BATTERY for Heavy Machinery)

AEROBATT applies the BINARY BATTERY platform to heavy machinery — excavators, bulldozers, dump trucks — providing autonomous power and hybrid drive without dependence on fuel logistics or grid charging.

AEROBATT (BINARY BATTERY for Heavy Machinery)

Technology brief

What this platform addresses

AEROBATT applies the BINARY BATTERY platform to heavy machinery — excavators, bulldozers, dump trucks — providing autonomous power and hybrid drive without dependence on fuel logistics or grid charging.

Early prototype — BINARY BATTERY platform ready, heavy-machinery integration in development

The challenge

The problem this technology addresses

Modernization of heavy machinery engines: excavators, bulldozers, dump trucks. Autonomous power supply for mobile equipment. Hybrid drive systems for construction and mining fleets operating away from grid and fuel infrastructure.

ARBOK solution

How the ARBOK system creates value

AEROBATT applies the BINARY BATTERY platform to heavy machinery — excavators, bulldozers, dump trucks — providing autonomous power and hybrid drive without dependence on fuel logistics or grid charging. It differs from standard stationary BINARY BATTERY deployment in four respects: compact packaging sized for vehicle installation, integration with the machine's hydraulic systems, recuperation of braking energy, and fully autonomous operation with no external recharging.

The binary acid–alkaline electrochemical system of BINARY BATTERY — two electrolyte circuits with self-regenerating graphene-based electrodes, no consumables and no thermal runaway — is repackaged into a compact form factor that fits heavy machinery. Power is delivered to the drive and to the machine's hydraulic systems. Braking energy is recuperated back into the battery. Because the system needs no external charging, the machine operates without fuel delivery or a charging point.

Detailed cell chemistry and electrical parameters: see BINARY BATTERY.

Market and application

Commercial opportunity

Heavy construction and mining equipment is a segment where diesel logistics dominates operating cost and remote sites make refuelling expensive — the same economics that drive the BINARY BATTERY case against remote diesel generation at $10–15/kWh.

Quantified market sizing specific to the heavy-machinery segment has not yet been compiled. The addressable base is the global fleet of construction and mining equipment that operates in remote or off-grid locations, where diesel logistics and refuelling already carry a significant cost per the base-platform economics cited above.

CAPEX и OPEX по проекту не ведём — считаются под конкретную площадку.

Use cases

Where the technology can be applied

Modernization of heavy machinery engines: excavators, bulldozers, dump trucks. Autonomous power supply for mobile equipment. Hybrid drive systems for construction and mining fleets operating away from grid and fuel infrastructure.

Intended as a retrofit and new-build option for heavy equipment fleets operating off-grid. Base platform is stated ready; integration onto heavy machinery is in development.

Installation follows a structured retrofit sequence: removal of the legacy fuel system, mounting of the battery pack and control electronics, integration with the drive and hydraulic interfaces, and commissioning checks. Retrofit time and operator training requirements are scoped per equipment class and fleet size.

BINARY BATTERY — base electrochemical platform

SYNERGON — alternative retrofit route for the same fleet, using compressed air

ARBOK-Airgizer · Gereon (Binary Battery) · AEROGRAPH (Graphene AeroGel)

View preserved source description

Overview

AEROBATT applies the BINARY BATTERY platform to heavy machinery — excavators, bulldozers, dump trucks — providing autonomous power and hybrid drive without dependence on fuel logistics or grid charging. It differs from standard stationary BINARY BATTERY deployment in four respects: compact packaging sized for vehicle installation, integration with the machine's hydraulic systems, recuperation of braking energy, and fully autonomous operation with no external recharging.

Applications

Modernization of heavy machinery engines: excavators, bulldozers, dump trucks. Autonomous power supply for mobile equipment. Hybrid drive systems for construction and mining fleets operating away from grid and fuel infrastructure.

Operating Principle

The binary acid–alkaline electrochemical system of BINARY BATTERY — two electrolyte circuits with self-regenerating graphene-based electrodes, no consumables and no thermal runaway — is repackaged into a compact form factor that fits heavy machinery. Power is delivered to the drive and to the machine's hydraulic systems. Braking energy is recuperated back into the battery. Because the system needs no external charging, the machine operates without fuel delivery or a charging point.

Detailed cell chemistry and electrical parameters: see BINARY BATTERY.

Key Parameters

Inherited from the base platform (BINARY BATTERY): no consumables, electrolyte topped up only when required; self-regenerating electrodes; guaranteed service life 10 years, extendable; no thermal runaway or overheating; electricity cost approximately $0.02/kWh at industrial scale.

Machine-specific parameters — power rating, pack weight and volume, recuperation efficiency, and duty cycle — are set individually for each equipment class, sized to match the host machine's drivetrain and hydraulic load while fitting within its existing installation envelope.

Architecture and Components

Compact BINARY BATTERY pack sized for vehicle installation; power interface to the drive system; interface to the machine's hydraulic systems; braking energy recuperation circuit; control electronics.

Detailed component specification is finalized per equipment class during the retrofit engineering phase, matching pack geometry and interface hardware to the target machine.

Advantages

Technical: no fuel system, therefore no fuel pumps, filters, injectors or tanks to maintain; braking energy recovered rather than lost as heat; self-regenerating electrodes give service life measured in years rather than charge cycles; no thermal runaway.

Operational: fully autonomous — no charging station, no grid connection, no diesel delivery to remote sites; direct integration with existing hydraulic systems.

Environmental: no emissions at point of use; no consumables or waste streams.

Integrations

BINARY BATTERY — base electrochemical platform

SYNERGON — alternative retrofit route for the same fleet, using compressed air

ARBOK-Airgizer · Gereon (Binary Battery) · AEROGRAPH (Graphene AeroGel)

Deployment & Operation

Intended as a retrofit and new-build option for heavy equipment fleets operating off-grid. Base platform is stated ready; integration onto heavy machinery is in development.

Installation follows a structured retrofit sequence: removal of the legacy fuel system, mounting of the battery pack and control electronics, integration with the drive and hydraulic interfaces, and commissioning checks. Retrofit time and operator training requirements are scoped per equipment class and fleet size.

TRL

Early prototype. The BINARY BATTERY platform underlying it is rated TRL 4–5; the heavy-machinery integration is not separately rated.

Formal TRL for AEROBATT: TRL 4 — проставлен Михаилом 2026-08-06.

Market Potential

Heavy construction and mining equipment is a segment where diesel logistics dominates operating cost and remote sites make refuelling expensive — the same economics that drive the BINARY BATTERY case against remote diesel generation at $10–15/kWh.

Quantified market sizing specific to the heavy-machinery segment has not yet been compiled. The addressable base is the global fleet of construction and mining equipment that operates in remote or off-grid locations, where diesel logistics and refuelling already carry a significant cost per the base-platform economics cited above.

Typical Project Economics

CAPEX и OPEX по проекту не ведём — считаются под конкретную площадку.

Risk Factors

Integration onto heavy machinery is in development and unproven in the field. Packaging the two-circuit binary architecture into a mobile, vibrating, dust-exposed environment is a materially different engineering problem from the stationary 20-ft tank configuration. Recuperation efficiency and duty-cycle behaviour under real excavator or dump-truck loads are undocumented. The underlying platform sits at TRL 4–5, so platform-level risks carry through.

Related Technologies

BINARY BATTERY · SYNERGON · ARBOK-Airgizer · Gereon (Binary Battery) · ARBOK-MOBILE

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Partnership pathway

Evaluate AEROBATT (BINARY BATTERY for Heavy Machinery) for your application or pilot site.