Focusing on residential energy storage scenarios, Chaoyang Wanli has further optimized the battery module structure, wiring harness layout, and overall system integration solution. In response to different housing layouts, inverter compatibility requirements, and on-site construction conditions, it has established a clearer standardized delivery process.
The new solution supports wall-mounted, floor-standing, and stacked configurations, and can be flexibly adjusted according to household load, electricity pricing strategies, and installation conditions. Through the coordinated optimization of energy storage capacity configuration, parallel operation logic, and human-machine interface, installation teams can complete commissioning more quickly during project implementation, and end customers can more easily understand the system’s operating status.
In terms of the battery management system, the company has refined and upgraded strategies for overcharge, over-discharge, temperature monitoring, cell balancing, and abnormal alarm functions, further enhancing the system’s stability and safety in daily household energy management, solar power support, and backup power scenarios.
In addition to improvements in hardware and control logic, Wanli has also streamlined the processes for pre-sales selection, project implementation, remote support, and after-sales response, helping customers shorten the cycle from solution confirmation to commissioning. The company stated that it will continue to iterate its residential energy storage products around three directions—high safety, easy installation, and maintainability—to meet the project needs of more residential and light commercial scenarios.
The power battery solution for AGVs, forklifts, and industrial handling equipment has completed multiple rounds of validation, has now entered a stable mass supply phase, and is beginning to serve more automated warehousing and production line scenarios.
A new round of algorithm optimization covers overcharge, over-discharge, overcurrent, temperature monitoring, and balancing control strategies, helping battery systems maintain more stable performance under complex operating conditions, continuous operation, and high-frequency charge-discharge scenarios.
As new energy technologies continue to mature and the end-application market keeps expanding, the replacement of lithium batteries in multiple segmented fields is clearly accelerating. Especially in scenarios such as industrial vehicles, intelligent warehousing, sanitation equipment, RV travel, and home energy storage, traditional lead-acid batteries, due to limitations such as low energy density, long charging time, and high maintenance costs, have gradually become unable to meet the comprehensive needs of modern equipment for high efficiency, long endurance, and intelligent management. In contrast, represented by lithium iron phosphate
Lithium iron phosphate batteries are ushering in new opportunities for multi-scenario applications, with safety and intelligence becoming key words in the industry's development. In recent years, as the new energy industry has developed rapidly and the pace of electrification and intelligent upgrading of terminal devices has continued to accelerate, the lithium battery industry has maintained sustained growth. Among them, relying on high safety, long cycle life, good thermal stability, and relatively high overall cost performance, lithium iron phosphate batteries are accelerating their penetration into energy storage, industrial vehicles, special equipment, and low-speed electric vehicles, among others.