ARBOK-MULTIPLIER

Overview

ARBOK-MULTIPLIER stores and returns energy through controlled movement rather than chemical reaction. Electricity becomes kinetic energy, that kinetic energy is held with almost zero loss, and electromagnetic induction converts it back to electricity on demand. The system can also amplify output: one kilowatt of input can produce up to 100 kilowatts of controlled output under specific discharge modes. It needs no mountains, no water reservoir and no lithium; it contains no flammable materials, does not overheat and requires no active cooling. Lifetime cost of storage can reach $0.03–0.04 per kWh over a service life exceeding 25 years — against $0.09–0.14 for lithium, which the widely discussed $0.05 target has not reached.

Applications

Grid-scale storage and peak shaving; standby reserve; stabilization of grid fluctuations, where near-zero activation delay matters; distributed storage installed at the point of consumption — buildings, industrial plants, data centres, transport infrastructure. Designed to close the gaps batteries cannot cover, serving cases where instant response, long life and low operating cost matter most, rather than to replace every battery.

Operating Principle

Electricity is converted into kinetic energy and held in an inertial reservoir. The system forms a closed mechanical-electromagnetic loop: energy does not fade but circulates until needed. On demand, electromagnetic induction converts the stored kinetic energy back to electricity. Under specific discharge modes the system amplifies power output, delivering up to 100 kW from 1 kW of input.

Only precision mechanics and controlled magnetic fields are involved — no chemistry, no combustion, no rare materials. When idle, the system stands still with no parasitic losses. Unlike a chemical battery, which self-discharges over time and loses capacity every cycle, an inertial reservoir does not degrade with cycling; its lifetime is defined by mechanics rather than chemistry.

Limitations: pilot unit is at 1 kW with an operating window of about one hour; stability, controllability and zero degradation are yet to be demonstrated at scale.

Key Parameters

| Parameter | Value |

|---|---|

| Lifetime cost of storage | $0.03–0.04/kWh |

| Service life | 25+ years |

| Power multiplication | up to 100 kW output from 1 kW input (specific discharge modes) |

| Pilot unit | 1 kW, ~1 h operating window |

| Activation delay | near zero |

| Parasitic loss when idle | none (system at rest) |

| Cooling requirement | none |

| Flammable materials | none |

| Rare materials (Li, Ni, Co) | none |

| Capital cost vs lithium | 2–3× cheaper (lithium installed: $200–400/kWh) |

| Scaling path | tens of kW → hundreds → megawatts, standalone or clustered |

Comparison of competing storage classes:

| Technology | Installed cost | Note |

|---|---|---|

| Lithium-ion pack alone | ~$115/kWh | before balance of system |

| Lithium industrial system | $180–300/kWh | with inverters, thermal control, safety, housing |

| Lithium, small installations | $400–600/kWh | |

| Pumped hydro | $1,500–3,000/kW installed | requires terrain, water, permits, years of construction |

| Compressed air | ~$290/kWh | lower efficiency |

| Thermal storage | ~$230/kWh | lower efficiency, complex infrastructure |

| ARBOK-MULTIPLIER | 2–3× below lithium | $0.03–0.04/kWh lifetime |

Architecture and Components

Closed mechanical-electromagnetic loop comprising an inertial mass, precision mechanical assembly, controlled magnetic field system and electromagnetic induction converter for discharge. No chemical cells, no cooling circuit, no fire-suppression infrastructure, no rare-earth or battery-metal supply chain. Modular: each unit can operate independently or in clusters, scaling from tens of kilowatts to megawatts.

Advantages

Technical: no degradation with cycling — lifetime measured in decades rather than thousands of cycles; no self-discharge; near-zero activation delay allows simultaneous use as standby reserve and grid stabilizer; no flammable materials, no overheating, no active cooling; power multiplication of up to 100× under controlled discharge.

Economic: lifetime cost of $0.03–0.04/kWh is competitive with base-load generation and far below chemical storage; capital cost 2–3× below lithium; no replacement cycle every five to ten years as with battery farms.

Environmental and strategic: no lithium, nickel or cobalt, therefore no mining dependence and no recycling burden; no thermal or fire risk; site-independent, unlike pumped hydro which needs terrain, water and permits.

Integrations

Deployable directly at the point of consumption — buildings, industrial plants, data centres, transport infrastructure — rather than as remote centralized farms. Suits pairing with intermittent solar and wind generation, where surplus by day and scarcity by night is the defining problem. Forms the basis of what the design intends as active energy nodes, where storage and controlled generation merge.

Deployment & Operation

Current stage: Arbok engineers are completing a 1 kW pilot unit with an operating window of about one hour. Goal: prove stability, prove controllability, prove zero degradation.

Next step: scaling to modules of tens of kilowatts, then hundreds, then megawatts. Each unit works independently or in clusters.

Operation: no active cooling, no consumables, no chemical handling. Idle state carries no parasitic loss.

TRL

TRL 2 — проставлен Михаилом 2026-08-06.

Pilot system under assembly; physics sound and principles stable per the developer. Formal TRL rating:

Market Potential

The global energy system is growing faster than it can support itself, and storage has become the real bottleneck — industry, transport, cities, data centres and AI clusters all need power, while solar and wind deliver surplus by day and scarcity by night. Today storage rests on two pillars, lithium-ion and pumped hydro, both carrying either high cost or strict geographic limits; compressed air, thermal storage, flow batteries and hydrogen remain narrow, expensive or subsidy-driven pilots.

The structural problem is that the more battery storage enters the grid, the more electricity costs rise. ARBOK-MULTIPLIER enters as a different category — no mountains, no water, no lithium, no chemical degradation — positioned to replace the cycle of rebuilding battery farms every five to ten years with compact durable modules at the point of consumption.

Typical Project Economics

Lithium storage today costs $200–400/kWh installed, with lifetime cost of storage rarely below $0.09–0.14/kWh. A mechanical-inertial system without rare materials or cooling infrastructure is two to three times cheaper in capital terms, and because lifetime is measured in decades rather than cycles, lifetime cost of storage falls to $0.03–0.04/kWh — competitive with base-load generation.

Pumped hydro appears cheaper per stored kilowatt-hour only on paper: real projects require $1,500–3,000 per kilowatt of installed power plus suitable terrain, water resources, permits and years of construction.

Risk Factors

The pilot is 1 kW with a one-hour window; stability, controllability and zero degradation are stated goals of that pilot, not yet demonstrated results. Scaling from 1 kW to megawatt class is unproven. The 100× power multiplication figure applies only under specific discharge modes and needs field verification. No formal TRL rating or independent validation is recorded in the base.

Related Technologies

LONG BATTERY · BINARY BATTERY · Gereon (Binary Battery) · ARBOK-ELECTRIC-REVOLVER · EXTRACAP