Low-carbon Building

Smart Park Integrated Energy Management Platform Solution

Multi-energy complementary management platform for industrial parks featuring solar-storage-charging integrated smart management

Overview

Summary

Multi-energy complementary management platform for industrial parks featuring solar-storage-charging integrated smart management

Key Advantages

Multi-energy complementary optimal dispatch and source-grid-load-storage coordination

Distributed PV monitoring and power forecasting

Battery storage charge/discharge optimization and lifecycle management

Smart EV charging cluster scheduling and orderly charging management

Time-of-use tariff optimization and demand response strategies

Park-level carbon emission panoramic monitoring and low-carbon operations dashboard

Challenges

Independent energy systems across multiple buildings lack unified management and scheduling efficiency
Distributed PV, storage, and EV charging create exponentially increasing system complexity
Multi-energy forms (electricity, gas, heating, cooling) require complex optimization algorithms
Time-of-use tariffs and demand response mechanisms make energy cost optimization challenging
Increasingly strict carbon assessment requirements lack global carbon management decision tools

Results

18% overall energy cost reduction for a national high-tech zone after platform deployment
1.2M kWh annual PV generation with 85% self-consumption rate and over ¥600K annual revenue
Smart EV charging scheduling avoided transformer overload, improving capacity utilization by 35%
Cross-building energy benchmarking identified and resolved 8 high-consumption issues in 3 months
Over ¥1M annual subsidy income through demand response participation in grid peak shaving

Solution Details

Policy Background for Smart Park Energy Management

The global energy transition is driving industrial parks toward integrated energy management. Distributed solar PV, battery storage, and EV charging infrastructure are rapidly expanding, creating both opportunities and challenges for park-level energy optimization. Time-of-use tariffs and demand response programs offer significant cost savings for parks that can intelligently manage their energy assets.

Technical Highlights: Multi-Energy Complementary Smart Dispatch

Ecolor Technology's Smart Park Integrated Energy Management Platform uses Hero V9 RTU terminals as the sensing and control core, achieving unified access and coordinated management of PV systems, battery storage, EV chargers, HVAC, and lighting. The core dispatch engine uses Mixed-Integer Linear Programming (MILP) algorithms to generate optimal energy scheduling plans in real-time.

The solar-storage-charging integration achieves PV generation forecasting (>90% accuracy for next-day 96-point forecasts), intelligent battery charge/discharge optimization, and orderly EV charging scheduling with V2G support.

Key Features of the Smart Park Platform

Multi-energy complementary optimal dispatch and source-grid-load-storage coordination
Distributed PV monitoring and power forecasting
Battery storage charge/discharge optimization and lifecycle management
Smart EV charging cluster scheduling and orderly charging management
Time-of-use tariff optimization and demand response strategies
Park-level carbon emission panoramic monitoring and low-carbon operations dashboard

Smart Park Integrated Energy Management Application Scenarios

Suitable for industrial parks, technology parks, logistics centers, commercial complexes, and campus environments. The system supports both greenfield deployment and gradual energy transformation for existing parks.

System Architecture for Integrated Management

Three-tier distributed architecture: device endpoints with Hero V9 EC32/EC60 RTU; edge computing for regional optimization and fast response; cloud platform for global energy dispatch optimization, carbon monitoring, and analytics.

Approach

How we implement intelligence into your infrastructure step by step.

Energy Status Assessment

Comprehensive survey of building energy structures, load characteristics, and renewable energy potential; analysis of multi-energy flows and distributed energy integration conditions.