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Graphite Anodes Explained: Chemical vs. Electrochemical Lithiation in Lithium-Ion Batteries 2026 update

February 4, 2026

Graphite Anodes Explained: Chemical vs. Electrochemical Lithiation in Lithium-Ion Batteries Source: WeChat Official Account “Brother Radish” Graphite anode materials have maintained a dominant position in the lithium-ion battery industry since their discovery. While cathode options have diversified significantly—ranging from Lithium Iron Phosphate (LFP) and Lithium Cobalt Oxide (LCO) to NCM Ternary cathodes—graphite remains the undisputed first choice for the anode. But why is this the case? Join us as we trace the developmental history of the graphite anode and explore how it established its long-standing “dynasty” in the battery world. I. The Discovery of Chemical Lithiation in Graphite (1950s) In 1955, the French chemist A. Hérold immersed graphite into molten

WHW-25L+15C-5V100mA-32CH Mini All-in-One BTS

Neware Mini All in One Battery Testing System 16 CH or 32 CH

February 4, 2026

NEWARE Mini All in One Battery Testing System WHW-25L+15C-5V100mA-16CH spec     WHW-25L+15C-5V100mA-32CH spec       Neware was founded in 1998. We are trusted by ATL, BYD, CATL, Tesla, Apple, HUAWEI, 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.

Testing Fixtures

Impact of Testing Fixtures on the Cycle Performance of LFP Batteries 2026 post

February 4, 2026

Impact of Testing Fixtures on the Cycle Performance of LFP Batteries Cycle performance is a fundamental metric for evaluating the service life of lithium-ion batteries. It is influenced by a wide range of factors, including material properties, cell structure, moisture content, and manufacturing processes. Furthermore, external parameters such as temperature, cycling protocols, and mechanical pressure also significantly impact the cycle performance of lithium-ion batteries. To investigate the effect of testing fixture constraints on cycle performance and to enhance the reliability of pouch cell testing during the system optimization phase, this study focuses on a 3.65 Ah LiFePO4 (LFP)/graphite pouch cell. Two types of testing fixtures were evaluated: non-constrained fixtures, utilizing

Pouch cell

Case Study on Pouch Cell Testing and Analysis 2026 post

February 4, 2026

Case Study on Pouch Cell Testing and Analysis Source: WeChat Official Account “New Energy Era” Pouch Cell Testing and Analysis Report 1. Test Objects A comprehensive test was conducted on two pouch cells, covering external dimensions, electrochemical performance, battery design, and material composition. The test parameters were set as follows: Charge Cut-off Voltage: 4.2 V Discharge Cut-off Voltage: 2.75 V Testing Conditions: Capacity Grading, Low-Temperature, and Safety Tests: Conducted at a 1C current. Cycle Life Test: Conducted at a 3C current.   2. External Dimensions Pouch cell 1# This battery is 118mm long, 40mm wide, and 10mm thick, with an internal resistance of 1.7mΩ and a voltage of 3.812V. 3.

CATL’s -30°C Sodium-Ion Battery, 800km Driving Range?!

February 3, 2026

CATL’s -30°C Sodium-Ion Battery, 800km Driving Range?! Source: WeChat Official Account “Electric Vehicle Commune” Hello everyone, I am the President of the Electric Vehicle Commune. 2025 can be described as a year of critical milestones for China’s new energy vehicles (NEVs). According to statistics from the China Passenger Car Association (CPCA), the retail penetration rate of NEV passenger vehicles grew to 54% in 2025. This marks the first time it has surpassed the 50% threshold, setting a new historical record—a 6.4 percentage point increase compared to 47.6% in 2024. This signifies that in the passenger vehicle sector, NEVs have become the primary choice for car buyers, while internal combustion engine

Figure 1 LSV test setup

Test procedures for LSV and coulombic efficiency of lithium copper batteries 2026 post

February 2, 2026

Sharing the testing procedures for coulombic efficiency of lithium copper batteries and LSV. Source: WeChat Official Account “Brother Radish”  Lbdsx and Google Gemini. Today I’m sharing the testing procedures for the coulombic efficiency (CUE) and LSV of lithium-copper batteries.   What is LSV? In the field of lithium metal battery research, LSV (Linear Sweep Voltammetry) for lithium-copper (Li-Cu) asymmetric cells is primarily used to evaluate the electrochemical stability window of the electrolyte and to observe the lithium nucleation process. Unlike a standard charge/discharge test, LSV involves sweeping the potential at a constant rate to observe where the electrolyte begins to decompose or where lithium begins to plate onto the copper