Technology

With the global transformation of energy structures and the large-scale replacement of renewable energy, the application of energy storage systems is increasingly gaining attention. Lithium-ion batteries, known for their long cycle life, high operating voltage, high energy density, and low self-discharge, have become the mainstay of electrochemical energy storage. However, safety issues in electrochemical energy

As the core energy source of modern electronic devices, the performance and safety of lithium batteries have always been a hot topic of research. This article will explore in depth the definition, causes, effects, and how to reduce lithium plating in lithium batteries through the battery management system (BMS) to provide a reference for battery

Dry contact and wet contact are widely utilized concepts in electronics and electrical engineering, with applications across industries ranging from industrial automation to residential electrical installations describing switches or signals. Below is an in-depth explanation of these terms.   What is Dry Contact? A dry contact, commonly referred to as DCCC, is a simple electrical

Energy storage systems play a critical role in optimizing energy supply and improving grid stability and reliability, as well as effectively integrating renewable sources of power into our grid. Unfortunately, the widespread adoption of energy storage systems brings with it an inherent risk known as islanding, which has garnered much scrutiny in the media. To

Energy storage technology involves the process of storing energy for later use. Photovoltaic (PV) generation combined with energy storage – commonly known as PV + storage – stores the electrical energy generated by PV systems for stable power supply when necessary. There are currently two primary system configurations for PV + storage: DC coupling and

Battery Management Systems (BMSs) are integral parts of electric vehicle power battery packs, essential in monitoring key parameters like temperature, voltage, and state of charge, as well as providing essential services like communication, safety management, cell balancing, and overall control. Understanding their communication protocols is also paramount as this determines how data exchanges between other

Automatic Transfer Switch (ATS) and Static Transfer Switch (STS) have become essential devices in today’s interconnected world, where uninterrupted power supply is vital across various sectors. Understanding their functions is, therefore, of utmost importance if businesses wish to safeguard operations from interruptions to power lines while avoiding downtime and interruptions to operations.   Static Transfer

Integrating energy storage systems presents a complex engineering challenge. At its heart lies understanding each component’s performance in detail before creating an integrative product with careful thought to maximize the potential of batteries. The “weakest link” principle heavily determines energy storage system integration. From research and development through verification, production, engineering commissioning, application, and operation