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Neware BTS4000 & BTS6000 Battery Testing Systems

We provide cutting-edge solutions including the Neware Battery Tester, Formation and Grading Systems, Environmental Chambers, and Automation for global battery production, EV manufacturing, and energy storage enterprises.

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Neware BTS 8.0

How to control third-party chambers with Neware BTS 8.0?

Can I use Neware BTS 8.0 control third-party chambers? If you have purchased Neware testing

Figure 1. Different electrode processes produce different CV shapes: some exhibit a distinct peak shape, while others are closer to a capacitive response. DOI: 10.1039/C9SC01662G

How to interpret CV curves? 2026

How to Interpret a CV Curve? I. What is CV? What is a CV curve?

Figure 4 Contact angle variation in contact angle method test

How to evaluate and improve the electrolyte wettability of lithium-ion batteries? 2026

How to evaluate and improve the electrolyte wettability of lithium-ion batteries? First of all, let

CATL NMC811 vs LFP Batteries: Thermal Runaway Comparison

CATL NMC811 vs LFP Batteries: Thermal Runaway Comparison

This paper presents a comparative study on the thermal runaway propagation of CATL batteries

Figure 5: High-Current Discharge Curves of CR2032 Coin Cells

How to resolve the issue of CR2032 batteries being unable to support high-current discharge?

How to resolve the issue of CR2032 batteries being unable to support high-current discharge? During

$Figure 4. Regulation of material microstructures via ultrafast sintering. (A) SXRD pattern and Rietveld refinement results of LFP-1000. (B) Fe/Li antisite content of LFP, LFP-900, LFP-1000, and LFP-1100 derived from the Rietveld refinement of SXRD data. (C) PDF patterns in the $r$ range of $2.8\text{–}4.0\text{ \AA}$ for LFP, LFP-900, LFP-1000, and LFP-1100 obtained from synchrotron X-ray total scattering data. (D) FTIR spectra of LFP, LFP-900, LFP-1000, and LFP-1100. (E) In-situ SXRD contour plot recorded during the ultrafast sintering process of LFP. (F) Evolution of Fe/Li antisite content during the ultrafast sintering process, as derived from the corresponding refinement results of in-situ SXRD patterns. HAADF-STEM images of (G) LFP and (H) LFP-1000. (I) Temperature-dependent defect concentrations of four distinct defects ($V_{Li}$, $V_{Fe}$, $V_{O}$, and Fe/Li antisites) calculated via DFT. (J) Formation process of Fe/Li antisites simulated by AIMD. (K) Lithium-ion diffusion coefficients ($D_{Li^+}$) of LFP and LFP-1000 during charging at 8C, derived from the corresponding GITT plots in Figure S33.$

Olivine type cathodes with simultaneous regulation of surface-bulk microstructure for long-term fast-charging 2026

Breaking the Fast-Charging Ceiling! Mingjian Zhang (CUHK), Zuwei Yin (XMU) & Zhiman Liu (Li Auto)

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