●  SovSTOR · Storage Platform · Sovereign Power

SovSTOR

Supercapacitor and LFP hybrid storage on an 800V DC bus — the transient response and stability layer of the SovAI behind-the-meter platform.

800V

DC bus voltage

<1ms

Transient response

2x

Chemistry layers

Hz

Frequency-agnostic

What it is

Sub-millisecond response. Two chemistries. One 800V DC bus.

SovSTOR combines supercapacitor banks with lithium iron phosphate battery modules on a shared 800V DC bus. The supercapacitor front-end responds in sub-millisecond timeframes to GPU load spikes and SovGEN transients; the LFP layer handles longer-duration dispatch and state-of-charge management.

The 800V architecture is frequency-agnostic and compatible with 60 Hz North American infrastructure and any grid frequency encountered in international deployments. System capacity is sized per site against peak GPU load profiles and SovGEN fleet output.

SovSTOR HYBRID ARCHITECTURE
SovGEN OUTPUT
ACDC
GPU LOAD SPIKES
Demand
↓ feeds into ↓
SUPERCAPACITOR FRONT-END
<1ms
↕ balanced by ↕
LFP BATTERY LAYER
800V DC
↓ delivers to ↓
EGRID DELIVERY POINT
AI Factory

How it fits

The buffer between rotating generation and compute load.

SovSTOR is the stability layer between SovGEN’s rotating generation and the AI factory bus. It absorbs SovGEN ramp events before they appear as voltage disturbances at the interconnection point, and supplies the clean, conditioned power that SovGRID delivers to the compute load. SovCOOL’s thermal management loop operates in parallel, capturing the heat that SovGEN and the compute layer produce.

Scotty — SovAI’s Dispatch Optimization Engine — manages eSTOR state-of-charge in real time, dispatching charge and discharge cycles against GPU load telemetry, MOER carbon intensity signals, and SovGEN runtime economics. Storage dispatch is never static; Scotty continuously recalculates the optimal charge profile as site conditions change.

Specifications

SovSTOR platform specifications

DC BUS VOLTAGE 800V DC
STORAGE CHEMISTRY Supercapacitor + LFP (lithium iron phosphate) hybrid
TRANSIENT RESPONSE Sub-millisecond (supercapacitor front-end)
FREQUENCY COMPATIBILITY Frequency-agnostic — 60 Hz standard; international capable
SITE CAPACITY [SPEC TBD — sized per site GPU load profile]
LFP CYCLE LIFE [SPEC TBD]

Standards & compliance

SovSTOR regulatory and compliance posture

UL 9540A

Test method for battery energy storage systems and equipment — fire safety. Primary safety standard governing SovSTOR chemistry and enclosure design.

UL 9540

Energy storage systems and equipment — system-level safety. Governs the integrated SovSTOR supercapacitor-LFP hybrid as an installed unit.

NFPA 855

Standard for the installation of stationary energy storage systems. Governs physical siting, separation, and protection requirements for SovSTOR on-site.

IEEE 1547-2018

Interconnection and interoperability of distributed energy resources. Shared with SovGRID at the delivery bus interface.

IEC 62619

Safety requirements for secondary lithium cells and batteries for industrial applications. Governs SovSTOR LFP cell specification and operating envelope.

NEC Article 706

Energy storage systems. National Electrical Code article governing installation wiring, overcurrent protection, and disconnecting means for SovSTOR.

IP posture

Proprietary architecture

PATENT PENDING

SovSTOR’s 800V hybrid dispatch architecture is the subject of a provisional patent filing with Joe D. Doyle as sole inventor. Assignment to SovAI, Inc. is in progress.

Sovereign Power · SovSTOR

See it deployed.

Active deployments, site configurations, and partner integrations — reviewed by request.