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How to change the language in Neware BTS software from Chinese to English? 2026

February 13, 2026

How to change the language in Neware BTS software from Chinese to English? If you have more questions, please feel free to contact me:  [email protected] Neware battery testing system Neware was founded in 1998. We are trusted by ATL, BYD, CATL, Tesla, Apple, HUAWEI, BTR, SolarEdge, etc. We provide battery testing solutions for testing battery cell, module, pack, supercapacitor, BESS, etc. If you want to do capacity, cycle life, pulse, DCIR, GITT, HPPC, or EV driving simulation test, please feel free to contact us.

Neware EOL End of Line battery testing system

Neware End of line (EOL) testing equipment 2026 update

February 13, 2026

Neware End of line (EOL) testing equipment 2026 update EOL (End of Line) testing is the final testing stage in the battery production process. Objective: To ensure that every battery pack meets functionality, safety, and performance requirements before leaving the factory. Testing Goals: Ensure Product Safety and Reliability: Guarantee that products are safe and reliable upon shipment. Early Detection of Manufacturing Defects: Identify defects early to reduce the risk of recalls.   1. Neware End of line (EOL) Testing Equipment List and Functions Instrument and Equipment Test Function Items AC Internal Resistance Tester AC internal resistance test, Open‑circuit voltage test / OCV Withstand Voltage Tester AC withstand voltage test, DC

Figure 8. Battery volume changes detected by laser and camera: (a) Electrode strain detected by laser beam deflection; (b) Multi-beam sensing method; (c) Laser camera scanning; (d) Digital image correlation system.

Cracking the Battery Safety Puzzle Published in 2024

February 13, 2026

Cracking the Battery Safety Puzzle: The Technological Evolution from Single Monitoring to Multidimensional Perception Source: WeChat Official Account Smart Battery System Frequent safety accidents in lithium-ion batteries have exposed a fatal flaw in traditional Battery Management Systems (BMS): they rely solely on external electrical parameters and surface temperature monitoring, failing to perceive the true internal state of the battery. Critical early warning signals, such as internal temperature gradients, stress accumulation, and gas evolution, are often overlooked. Meanwhile, the application of fast-charging technology and high-energy-density batteries has made the internal electrochemical-thermal-mechanical-gas coupling processes even more complex. How to break through the “information barriers” of traditional monitoring and construct an intelligent monitoring

Bubbles / Pinholes

Analysis of Appearance Defects in Lithium-ion Battery Coating Processes 2026 update

February 13, 2026

Analysis of Appearance Defects in Lithium-ion Battery Coating Processes Source: WeChat Official Account “Learn Batteries Together” I. Battery Coating-Related Defects   Battery Coating is the core fundamental process in lithium-ion battery manufacturing, directly determining the uniformity of active material distribution and interfacial stability. It fundamentally dictates the battery’s energy density, cycle life, and safety. Furthermore, quality defects—such as thickness fluctuations, foreign matter, and pinholes—are amplified throughout subsequent processes, leading to a surge in failure risks or even triggering thermal runaway. Consequently, coating quality stands as the primary ‘chokepoint’ for both battery performance and safety.   1. Missing Coating / Exposed Foil (See image below) Description: Parts of the substrate (copper/aluminum

All-Solid-State_Battery

How to charging and discharging your Solid-State Batteries? 2026 post

February 12, 2026

How to charging and discharging your Solid-State Batteries? Source: WeChat Official Account “Learn Batteries Together” Core Objective of Solid-State Battery Charge-Discharge Testing: To charge (lithium ions de-intercalate from the cathode and intercalate into the anode) and discharge (lithium ions de-intercalate from the anode and intercalate into the cathode) the solid-state battery under controlled conditions, while recording key parameters such as voltage, current, time, and temperature.   Key Prerequisites for Solid-State Battery Charge-Discharge Testing: Battery Preparation: Ensure you have a fully assembled solid-state battery (coin cell, pouch cell, or cylindrical cell). This typically comprises the cathode, solid-state electrolyte (SSE), anode, current collectors, and the casing. Testing Equipment: A battery testing system

Battery Electrolyte (LiPF6)

Lithium-ion battery electrolyte 2026 post

February 12, 2026

Lithium-ion battery electrolyte I. Overview of Lithium-ion Electrolytes Electrolyte is one of the four key materials of a lithium-ion battery (alongside the cathode, anode, and separator). Often referred to as the “blood” of the battery, it serves the critical role of conducting ions between the positive and negative electrodes. It is the fundamental guarantee for lithium-ion batteries to achieve advantages such as high voltage and high specific energy. Generally, the electrolyte is prepared under specific conditions by mixing high-purity organic solvents, electrolyte lithium salts (such as Lithium Hexafluorophosphate, LiPF6), and necessary additives in precise proportions. Organic solvents constitute the bulk of the electrolyte and are closely linked to its overall