Installation of a 261 kWh BESS System Combined with a 300 kWp Solar Power System at the Toyota Viet Tri Showroom, Phu Tho.
C&I BESS

Installation of a 261 kWh BESS System Combined with a 300 kWp Solar Power System at the Toyota Viet Tri Showroom, Phu Tho.

1. Project Overview

Project Name: Deployment of a 261 kWh BESS system integrated with a 300 kWp solar power system at the Toyota showroom.

Location: Viet Tri, Phu Tho.

Implementation Timeline: January 2026.

Executing Unit: GG Power.

2. Project Objectives

  • Optimize energy utilization from the rooftop solar system integrated with BESS.

  • Reduce electricity costs through peak shaving during peak demand hours..

  • Ensure a stable power supply for critical loads within the showroom.

  • Move toward a green, smart, and sustainable energy operation model for Toyota using solutions from GG Power.

3. Key Technical Specifications

Item Details
Rated Energy 261 kWh
Battery Type Li-ion (LFP)
PCS 125 kW
Features Bi-directional charging/discharging, smart management via EMS
Monitoring System Remote monitoring via IoT platform
Safety Protection Integrated BMS, fire prevention, short-circuit protection, overvoltage protection

4. Challenges & Solutions

  • Challenges:

    • Showroom power demand fluctuates significantly during peak hours.

    • Effective integration of the rooftop solar system with the energy storage system.
    • Ensuring a stable power supply for critical loads within the showroom.

  • Solutions:

    • Deployment of a 125 kW / 261 kWh BESS integrated with a 300 kWp solar system.

    • Application of Peak Shaving to optimize power usage during peak hours.
    • Integration of an Energy Management System (EMS) for intelligent power dispatch.

    • Design of two priority load outputs to ensure continuous operation.

5. Expected Results

  • Reduce electricity costs through optimized system operation and peak shaving.

  • Ensure stable capacity during peak hours without interruption.

  • Reduce pressure on the local power grid during peak demand periods.