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Figure 4. Electrochemical Impedance Spectroscopy (EIS) of anode symmetric cells at different SOC: (a) 100% SOC-Pristine symmetric cell; (b) 100% SOC–0% SOC symmetric cell; (c) Equivalent circuit model for impedance analysis.

Anode Symmetric Cells for Battery Capacity Loss Analysis: A Step-by-Step Guide 2026

March 26, 2026

Insights from “Lithium Battery Frontier” – 锂电前沿 Abstract： Anode symmetric cells were assembled using two identical electrodes, one in a lithium state and another one in a delithiated or pristine state. The charging-discharging regime of graphite symmetric cells were studied. And the electrochemical impedance spectrum of different state of charge(SOC)was also analyzed. A sloping curve from -1 V to 0.5 V was only observed during the first charging curve of the 100% SOC-Pristine graphite symmetric cell. The voltage platform was suggested to the formation of SEI layer in the pristine graphite surface. The impedance of symmetric cell in 0% SOC and 100% SOC reached the maximum. While the impedance achieved

Figure 3 Design and performance analysis of high-current formation strategy

Real-time visualization of SEI formation: Reducing battery formation time from 20 hours to 1 hour

March 20, 2026

Real-time visualization of SEI formation: Reducing battery formation time from 20 hours to 1 hour Source: WeChat Official Account “Lithium Dream Life” In the lithium-ion battery manufacturing process, there is a critical yet long-standing “invisible” step—Battery Formation. This stage directly determines a battery’s cycle life, safety, and consistency. However, it typically requires 10 to 20 hours or even longer to complete, representing a major source of manufacturing costs and safety risks. Recently, a collaborative research team from the University of Texas at Austin, Purdue University, and General Motors (GM) achieved a breakthrough by directly observing the formation of the Solid Electrolyte Interphase (SEI) under real battery operating conditions for the

Two of the 5 most common reference electrodes in electrochemistry: Saturated calomel electrode (SCE)

Top 5 Most Common Reference Electrodes in Electrochemistry

March 19, 2026

Top 5 Most Common Reference Electrodes in Electrochemistry Source: WeChat Official Account “Electrochemistry and Electrocatalysis” One of the 5 most common reference electrodes in electrochemistry: Standard hydrogen electrode (SHE / NHE) Composition: A platinum sheet coated with platinum black is immersed in an acidic solution with a hydrogen ion activity of 1 mol/L, and pure hydrogen gas at a pressure of 1 atm is continuously introduced. Characteristics: It is the absolute standard for all electrode potentials. Its standard electrode potential is arbitrarily defined as 0.000 V at any temperature. Applicable Systems: Primarily used for theoretical research and calibration of other reference electrodes. Due to the need for a continuous supply

Accelerating Anode-free Lithium Metal Battery R&D with Neware’s High-Precision Battery Testing Solutions 2026

March 18, 2026

Accelerating Anode-free Lithium Metal Battery R&D with Neware’s High-Precision Battery Testing Solutions High-Energy Density Anode-Free Lithium Metal Batteries (AFLMBs) via Cross-Coupled Interfacial Chemistry Digital Object Identifier (DOI): https://doi.org/10.1038/s41586-026-10402-0 Affiliation: Westlake University Nature    Published: 17 March 2026 Abstract Overview Anode-free lithium metal batteries (AFLMBs) eliminate the need for initial negative active materials during assembly, presenting a transformative pathway toward ultra-high energy density and cost-efficient energy storage. However, the inherent absence of lithium reservoirs and host frameworks imposes rigorous operational constraints, typically resulting in compromised cycle life. These longevity issues are fundamentally linked to inhomogeneous lithium plating/stripping, driven by the microscopic heterogeneity and mechanical brittleness of the Solid Electrolyte Interphase (SEI).

Figure 4. Performance of lithium symmetric batteries.

2 Successful Applications of Neware Battery Testers in Lithium-Sulfur Battery Research

March 17, 2026

2 Successful Applications of Neware Battery Testers in Lithium-Sulfur Battery Research Neware Battery Testers in Lithium-Sulfur Battery Research Case Study 1: Developing a One‐Pot Strategy to Synthesize Metal–Covalent Organic Frameworks as Catalysts for Polysulfide Conversion and Ion Calibrators for Lithium Deposition First Author: Ke Yang Corresponding Author: Yibai He Affiliation: Northwestern Polytechnical University (NWPU) Equipment Used: Neware Battery Testing System (CT-4008T-5V10mA-164) for coin cells testing. The latest version of Neware battery testing equipment for coin cells is CT-4008Q-5V50mA-HWX, contact us for specifications and a quote. Research Background In recent years, Lithium–sulfur batteries (LSBs) have been recognized as one of the most promising next-generation energy storage systems due to their high

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BTR 6C Anode Materials: The Key to Ultra-Fast Charging Explained

March 15, 2026

BTR 6C Anode Materials: The Key to Ultra-Fast Charging Explained BTR Unveils Next-Gen 6C Ultra-Fast Charging Anodes in Hong Kong BTR recently launched its latest generation of fast-charging anode materials in Hong Kong, showcasing two breakthrough 6C ultra-fast charging graphite products: T-Max (Artificial Graphite) and T-Pro (Natural Graphite). Both materials are engineered to meet the rigorous demand for a full charge within just 10 minutes. Interestingly, at the beginning of this month, BYD officially released its Second-Generation Blade Battery, claiming a fast-charging capability of reaching approximately 97% SoC in about 10 minutes. This raises an intriguing question: Is the new Blade Battery powered by BTR’s latest technology? While not officially