EPIC Powder

The production of artificial graphite anode material for lithium-ion batteries involves multiple critical processes. These stages are closely interconnected and mutually influence each other, collectively determining the performance and quality of the final product. I. Core Raw Materials 1. Primary Carbon Sources Raw Material Type Admission & Quality Standards Needle Coke True density ≥ 2.12 […]

In this era of rapid growth in new energy vehicles and energy storage, lithium batteries serve as the absolute core. Spherical graphite—the “black gold” supporting half of the lithium battery anode market—is currently the mainstream choice for industrialization. Without it, high energy density and long cycle life for power batteries would be completely out of

In industrial sectors such as mining, building materials, chemicals, lithium batteries, and ceramics, there is an essential, core grinding machine: the ball mill. Whether involved in mineral processing, cement production, new energy powder refinement, or raw material blending, ball mills play a critical role in crushing, refining, and homogenizing materials. Today, let’s take a closer

The Lithium Iron Phosphate (LFP) production plant uses iron phosphate, lithium carbonate, and glucose as primary raw weapons (materials). Phosphoric acid and titanium dioxide are used as additives. The plant produces LFP powder through a series of processes, including mixed batching, coarse and fine grinding, spray drying, sintering, pulverization, batch mixing and sieving, as well

In high-end powder industries—such as new lithium battery materials, pharmaceuticals, fine ceramics, chemicals, food, and semiconductors—the jet mill (also known as a fluid energy mill) is the core equipment used to achieve media-free, ultra-fine grinding. It is an irreplaceable asset on the production line. This is especially true when producing micron- and sub-micron-level high-purity powders,

In high-energy-density lithium-ion battery systems, ternary cathode materials (NCM/NCA) have become one of the mainstream choices for power batteries due to their high capacity and tunable structural advantages. However, an often overlooked fact is that the performance of ternary cathode material does not depend solely on chemical composition. Instead, it is highly determined by the

In the colorful world of coatings, there is a seemingly ordinary yet highly skilled “butler.” It quietly blends into latex paints, industrial coatings, putties, and waterproof sealants. Although it rarely catches the spotlight, it silently commands the entire lifecycle of a coating—from production and storage to application and film formation—ensuring a flawless final finish. This

In lithium-ion battery cathode material systems, lithium cobalt oxide (LiCoO₂) boasts high energy density, a stable discharge platform, and excellent cycle performance. It remains a core cathode material for 3C consumer electronics batteries. The particle size distribution, morphology, purity, and dispersibility of lithium cobalt oxide powder directly affect electrode compaction density, ion transport efficiency, and

Aluminum nitride (AlN) is an inorganic non-metallic material with a variety of excellent properties. It possesses high thermal conductivity, low dielectric constant, and a coefficient of thermal expansion comparable to silicon. It also exhibits excellent mechanical properties. Therefore, aluminum nitride has become an indispensable high-end electronic packaging and substrate material in fields such as large-scale

In plastic compounding and injection molding, practitioners know that although calcium carbonate and wollastonite are also used as fillers, their effects are often mediocre. However, once talc filler is added, the rigidity, stiffness, and dimensional stability of plastics are significantly upgraded. Many people only know that talc performs well, but do not realize that its