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FJT POWER
Generator Solution Supplier
Standby generators serving critical urban infrastructure

Critical Infrastructure & Buildings

Backup power is only useful when the complete transfer path works.

A generator can start perfectly while the building remains dark. We engineer the sensing, ATS, switchgear, fuel, ventilation, controls, and load sequence that connect the standby source to the services that must remain available.

Operational Risks

Resolve the failure points before fabrication.

01

Transfer failure

Incorrect sensing, interlocks, or protection settings can prevent a healthy generator from reaching the emergency bus.

02

Unverified load growth

Tenants and equipment change while the original standby capacity remains fixed.

03

Restricted plant rooms

Airflow, exhaust routing, acoustics, and maintenance access compete for limited space.

04

Long idle periods

Fuel degradation, batteries, heaters, and controls fail quietly between scheduled exercises.

Solution Architecture

Engineer and test the full transfer sequence.

Load review separates life-safety, legally required, and optional standby circuits.

ATS and switchgear logic includes bypass, maintenance, and return-to-mains behavior.

Ventilation and exhaust are checked against the actual plant-room restrictions.

Fuel autonomy and replenishment are matched to the facility response plan.

Remote monitoring tracks batteries, heaters, fuel, alarms, and exercise results.

Site testing simulates mains failure and verifies each priority load sequence.

01

Utility

02

ATS

03

Standby Genset

04

Emergency Bus

05

Priority Loads

06

BMS / Exercise

Configuration Comparison

Start with the required level of integration.

Base Configuration

Core equipment package

Automatic standby set

Local controller and remote-start interface.

Single ATS

Utility/generator transfer for one emergency bus.

Standard day tank

Local fuel autonomy and level alarm.

Plant-room interface

Cooling and exhaust connection requirements.

Monthly exercise support

Automatic no-load or loaded exercise timer.

Optimized Configuration

Application-integrated system

Multiple ATS architecture

Separate life-safety and equipment branches.

Closed-transition or paralleling

Reduced interruption where permitted.

Remote condition monitoring

Battery, fuel, heaters, alarms, and exercise records.

Bypass-isolation equipment

Maintain transfer equipment without losing protection.

Integrated witness test

Mains failure through final load acceptance.

Application Gallery

Real equipment and project context.

Standby plant serving a critical facility
Standby plant serving a critical facility
Multi-unit emergency generator arrangement
Multi-unit emergency generator arrangement
On-site functional and load-bank testing
On-site functional and load-bank testing

Scope of Supply

A defined package boundary.

Generator set and heavy-duty base frame
Cooling, airflow, and ambient-rating review
Exhaust system and flexible connections
Control, protection, and remote monitoring
Fuel supply, return, filtration, and day tank interface
Electrical drawings and cable schedules
Factory load test and test documentation
Installation and commissioning guidance
ATS and emergency bus coordination
Site mains-failure and load-sequence test

Send the single-line diagram and emergency load schedule.

We will review capacity, ATS architecture, and the complete failure sequence.

Continue preparing your specification

Use these related resources to prepare your requirements. Final equipment selection depends on the confirmed load, duty and installation conditions.

Industrial: duty and load profile, voltage / frequency / phase, installation conditions and control interfaces.

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