Unlock the Optimal “Power Orchestration” Solution for Complex Energy Scenarios
Solar power, energy storage, diesel generators…
More and more energy sources are being connected to the same power supply system.
But more energy sources do not necessarily mean simpler power management.
High electricity costs, expensive capacity expansion, and downtime risks have become common challenges for factories, charging and battery-swapping stations, and remote areas.
How can different energy sources perform their respective roles while operating in coordination?
Ultimately, it comes down to one key question:
How should such a complex power system be orchestrated?
To address the power challenges of the multi-energy era, BOCO Electronics provides a deeper look into its integrated solution.
Step inside BOCO Electronics and see how intelligent energy dispatch enables solar power to be fully utilized, energy storage to be flexibly regulated, and critical loads to be reliably protected.
The BOCO Electronics PV-ESS-Diesel-Load Integrated Solution uses an integrated PV-ESS cabinet as the core hub to build a unified energy dispatch platform.
It connects solar power, energy storage, diesel generators, and various loads into one coordinated platform.
Based on on-site operating conditions, the system can flexibly set energy priorities:
Solar power is prioritized for local consumption, improving green energy utilization.
Energy storage supports peak shaving and valley filling, reducing peak-time electricity costs.
Grid power provides stable support for daily operations.
Diesel generators serve as backup when needed, responding to special working conditions and emergency scenarios.
Which energy source is used first, which one stays on standby, and which one steps in during emergencies can all be configured according to site conditions, enabling true “one-click power orchestration.”
The BOCO Electronics PV-ESS-Diesel-Load Integrated Electrical Cabinet adopts a modular design, covering multiple power configurations including 130kW, 260kW, and 520kW, with further expansion available to above 1MW.
All core power modules inside the system are self-developed. By adopting silicon carbide technology, the system delivers significant advantages in conversion efficiency and power density.
System Overview
130kW PCS: As the core module of the integrated cabinet, the PCS mainly adopts a three-phase four-leg design to support energy storage charging and discharging as well as AC power supply. It is well suited for common three-phase load imbalance scenarios in industrial applications.
45A Six-Channel DC-DC Module: Supports direct PV DC access, with conversion efficiency of up to 99.5%.
300–600kW Hybrid STS Module: Enables fast switching between grid-connected and off-grid modes, with efficiency of up to 99.9%.
Ultimately, the system brings customers a more stable power supply experience, lower energy losses, and reduced downtime risks.
Three Typical Scenarios: Precisely Solving Power Challenges
1.Industrial Parks: Maximizing the Value of Every Kilowatt-Hour of Green Power
In a microgrid project for an industrial park in Changzhou, the customer required the system to:
Increase the proportion of solar power consumption;
Reduce peak-time electricity purchasing costs;
Ensure continuous power supply for critical loads.
To meet these needs, the system realizes intelligent dispatch:
During the daytime, solar power first supplies production loads, while excess electricity is stored in the energy storage system.
During peak tariff periods, the energy storage system discharges to reduce peak electricity purchasing pressure.
When grid power becomes abnormal, the system prioritizes critical loads and enables seamless switching between energy storage and grid power, helping prevent production interruptions.
Energy is not only “used,” but also intelligently managed.
2.Charging and Battery-Swapping Stations: Breaking Through Capacity Expansion Constraints
For charging and battery-swapping stations, the biggest concern is often this:
When vehicles arrive and chargers start operating, the load can surge instantly.
In this scenario, the energy storage system acts like a “power buffer.”
By storing electricity during off-peak periods and releasing it during peak demand, the system helps stations smooth instantaneous load fluctuations through peak shaving and valley filling, easing capacity expansion pressure and improving the utilization of existing power distribution resources.
3.Remote Areas: Reducing Dependence on Diesel Power Generation
In areas such as islands, fishing villages, and border outposts, grid access conditions are often limited.
Long-term reliance on diesel power generation leads to high fuel consumption and high maintenance costs.
By building a local microgrid, the system can achieve:
Solar power generation and energy storage during the daytime;
Continuous power supply from the energy storage system at night;
Diesel generator backup during consecutive rainy days or special operating conditions.
While meeting the power needs of daily living, communication, and critical equipment, the system helps reduce diesel generator runtime, lowering fuel consumption and operation and maintenance costs.
From “power supply” to “power orchestration.”
Against the backdrop of energy transition, the challenge enterprises face is no longer just whether power is available.
It is about how to make solar power fully utilized, energy storage flexibly dispatched, and critical loads reliably protected.
What the BOCO Electronics PV-ESS-Diesel-Load Integrated Electrical Cabinet aims to solve is not merely a single power supply issue.
It addresses the broader challenge of coordinated energy dispatch in complex energy scenarios.
If your project is facing challenges such as high electricity costs, expensive capacity expansion, or unstable power supply, BOCO Electronics welcomes the opportunity to connect with you.
Together, we can find a more efficient way to orchestrate your power system.
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