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Dry‑Wet Separation Planetary Ball Mill‑High‑Efficiency Fine Grinding Equipment for Laboratory

In scientific research fields including new‑material development, lithium‑ion cathode material research, metallurgy, mineral processing, chemical and pharmaceutical industries, sample pre‑processing grinding equipment directly determines the reliability and repeatability of experimental data. The dry‑wet separation planetary ball mill is specially developed for laboratory powder grinding. Compatible with both dry grinding and wet grinding processes, it can […]

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Good News | Chuzhou 023 New Energy Equipment Certified as Anhui Provincial Science & Technology-based Small and Medium-sized Enterprise

Recently, after evaluation and public announcement organized by the Department of Science and Technology of Anhui Province, Chuzhou 023 New Energy Equipment Co., Ltd. has been officially included in the list of Anhui Provincial Science & Technology-based Small and Medium-sized Enterprises. Registration No.: 2026341103A0003352. This official accreditation is authoritative recognition from provincial science and technology

Good News | Chuzhou 023 New Energy Equipment Certified as Anhui Provincial Science & Technology-based Small and Medium-sized Enterprise Read More »

Modular Lab Continuous Reaction System for Advanced New Energy Material Research

With the rapid development of lithium battery materials, solid-state batteries and nano functional materials, laboratory small-scale synthesis equipment needs higher integration, precise process control and flexible expandability. This modular lab continuous reaction system is tailor-made for material co-precipitation experiments, formula screening and process exploration. Overall System Composition The complete set of equipment consists of dual

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Key process and equipment parameters control sphericity and particle size distribution of ternary cathode precursors during co-precipitation synthesis.

Key Process & Equipment Parameters Affecting Sphericity and PSD of Ternary Cathode Precursors in Co-Precipitation Synthesis Ternary NCM and NCA hydroxide precursors serve as critical intermediate materials for high-energy lithium-ion battery cathode materials. Physical characteristics of precursors including sphericity, particle size distribution, tap density and morphological uniformity exert decisive influences on the final electrochemical performance

Key process and equipment parameters control sphericity and particle size distribution of ternary cathode precursors during co-precipitation synthesis. Read More »

Industry-Academia Collaboration In Action: University Team Conducts Ternary Precursor Synthesis Experiments With Our Pilot Reactor

     It’s a rewarding and meaningful day for our technical team as we warmly received a faculty-led student research group from university at our new energy material R&D pilot workshop. The core purpose of this visit is to carry out complete hands-on experimental research on the co-precipitation synthesis of lithium battery ternary precursors with

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Aligning with national key research priorities | Suzhou Zero Two Three provides full-chain support for the industrialization of lithium-rich manganese-based materials, silicon-based anodes and solid electrolytes

Recently, the First Equipment Industry Department of the Ministry of Industry and Information Technology (MIIT) clearly stated that it will pool resources to intensify technological research on three core materials: lithium-rich manganese-based cathodes, silicon-based anodes and solid electrolytes. It will strive to make breakthroughs in key technologies for all-solid-state batteries and consolidate the high-quality development

Aligning with national key research priorities | Suzhou Zero Two Three provides full-chain support for the industrialization of lithium-rich manganese-based materials, silicon-based anodes and solid electrolytes Read More »

Special Equipment for Solid Electrolyte Materials | Solid State Battery Powder Preparation Equipment | Suzhou Zero Two Three Intelligent Equipment Co.,Ltd.

Against the backdrop of accelerated industrialization of solid-state batteries and faster domestic substitution of new energy materials, solid electrolyte materials have become a core technological breakthrough point for all-solid-state batteries. The particle size, purity, dispersibility and batch consistency of solid electrolyte powder directly determine ionic conductivity, interfacial impedance and cell safety performance. High-end dedicated manufacturing

Special Equipment for Solid Electrolyte Materials | Solid State Battery Powder Preparation Equipment | Suzhou Zero Two Three Intelligent Equipment Co.,Ltd. Read More »

Explanation of Common Battery Technical Terms

(1) Battery CapacityIt refers to the maximum electric charge Q that a battery can store, with the unit Coulomb (C). \(Q = Current(I) \times Time(t)\) 1 C = 1 A·s. Battery capacity is commonly measured in milliampere-hour (mAh), where 1 mAh = 3.6 C. (2) Energy (Electric Energy)Electric energy, rather than electric charge, reflects the

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Technical Analysis of Three Mainstream Solid-State Battery Electrolyte Routes

There are three mainstream technical routes for solid-state batteries: polymer solid-state batteries, oxide solid-state batteries, and sulfide solid-state batteries. Different technical routes of solid-state batteries are mainly differentiated by distinct solid electrolytes. Classified by solid electrolyte types, there are three primary categories of solid electrolytes: polymer electrolytes, oxide electrolytes, and sulfide electrolytes. Among them, polymer

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