WEYLAND INNOVATIONSCOMPANY PROFILE / 2026

Company profile

Make constrained
power
usable.

Weyland builds NeoEnergy systems by connecting storage, power conversion, orchestration and lifecycle operation around the constraint at each site.

Store · Interface · Orchestrate · Operate

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Company profile

Make constrained power usable.

Weyland builds NeoEnergy systems for commercial and industrial sites, AI infrastructure and the grid edge.

Large-scale energy-storage infrastructure

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Company overview

One architecture, configured around each site.

Weyland connects storage, power conversion, software and operations between energy source and demand. The same functional architecture can be configured across distributed, commercial and large-scale applications.

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Why now

Power availability is becoming the critical path.

Electrification, renewable connection constraints and high-density compute are increasing the need for flexible, observable site power. External market projections describe the category; they are not evidence of Weyland performance.

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NeoEnergy

A grid-edge system, complementary to generation and networks.

NeoEnergy stores energy, manages the site interface, orchestrates dispatch and keeps the system connected through operation. It is designed to make available power more flexible and usable.

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System stack

Four layers form one accountable system.

Battery packs and BMS store energy. PCS and inverters shape the interface. EMS and telemetry orchestrate the system. Commissioning, monitoring and maintenance connect it through operation.

NEOENERGY STACK / FUNCTIONAL MODELINPUT → CONTROL BOUNDARY → SITE

InputsGrid + renewables

01StoreBattery packs + BMS
02InterfacePCS + inverter
03OrchestrateEMS + telemetry
04OperateCommission + maintain

ApplicationsC&I · AI · grid edge

Functional architecture. Final equipment, specifications and responsibilities are project-defined.

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Power-constrained sites

Keep site demand inside the available power limit.

For AI and industrial sites, active storage and control can recover usable headroom, manage peaks and fast ramps, and add short-duration resilience. Outcomes depend on source, sizing, duration and the site limit.

POWER ENVELOPE / ILLUSTRATIVETIME →

RECOVER HEADROOMCONTROL RAMPSADD RESILIENCE

Illustrative operating concept, not customer telemetry. Results depend on the site limit, energy source, sizing and storage duration.

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Power interface

Standardise the interface across storage and site conditions.

Weyland’s PCS concept is designed to adapt heterogeneous DC assets while presenting one controllable interface to the grid, microgrid or critical load.

POWER INTERFACE / FUNCTIONAL MODELDC ASSETS → SITE

Heterogeneous inputsStorage AStorage BDC source

Weyland control boundary

DC adaptationVoltage · current
protection

Bidirectional PCSDC / AC
real-time control

Common interfaceGrid or microgrid
AI / industrial load

TOPOLOGY + RATINGSCOMPATIBILITYGRID + SITE TESTS

Company-described architecture. Product ownership, ratings, compatibility and performance require approved evidence.

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Why Weyland

Three control points shape site performance.

The electrical interface shapes power. Dispatch coordinates charging and discharging against site and grid constraints. Operation connects commissioning, monitoring and service through one accountable lifecycle.

Quality inspection supporting accountable delivery

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Defensibility

Every deployed system should build the next proof asset.

Interface know-how, repeatable delivery, operating data and retained lifecycle relationships can compound only when ownership, compatibility, commissioning and service evidence are documented.

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Competitive position

Local integration and accountability across the site boundary.

Component manufacturers, solar-storage platforms and onsite generation providers begin from different parts of the system. Weyland’s position is the focused integration of storage flexibility, site economics and lifecycle accountability.

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Scale system

Scale starts with one proven, repeatable site design.

Prove the outcome, standardise one configuration, repeat the deployment locally and operate the fleet. Each step should produce evidence the next site can reuse.

Controlled production for repeatable delivery

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Physical truth

Storage shifts energy; PCS controls power.

Storage moves electricity through time while the PCS shapes voltage, current and direction in real time. Conversion and auxiliary losses apply, recharge requires an energy source and storage duration is finite.

POWER INTERFACE / FUNCTIONAL MODELDC ASSETS → SITE

Heterogeneous inputsStorage AStorage BDC source

Weyland control boundary

DC adaptationVoltage · current
protection

Bidirectional PCSDC / AC
real-time control

Common interfaceGrid or microgrid
AI / industrial load

TOPOLOGY + RATINGSCOMPATIBILITYGRID + SITE TESTS

Company-described architecture. Product ownership, ratings, compatibility and performance require approved evidence.

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Configuration spectrum

Approximately 10 kWh to 4.47 MWh across reference configurations.

Company-reported examples span 10.24–20.48 kWh distributed systems, a 232 kWh commercial configuration and a 4.47 MWh containerised large-scale configuration.

Distributed: 10.24–20.48 kWh
Commercial: 232 kWh
Large-scale: 4.47 MWh

CONFIGURATION SPECTRUM / COMPANY REPORTEDNOT TO SCALE

Distributed10.24–20.48 kWh

Commercial232 kWh

Large-scale4.47 MWh

Reference configurations only. Confirm model, certification, market availability and final engineering specification.

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Weyland NeoEnergy systems

Start with the constraint.

Define the available supply, load profile, resilience target and operating requirements. Then configure the storage, power interface, orchestration and lifecycle model around the site.

Make constrainedpowerusable.