Material Information

Amid the explosive growth of new energy vehicles and energy storage, synthetic graphite anode materials have captured a dominant market share of over 70% in the lithium-ion battery anode sector, thanks to their outstanding cycle life and rate performance. This article provides an in-depth analysis of the complete manufacturing process by which synthetic graphite transforms […]

With the growing demand for high-energy-density batteries, solid-state batteries (SSBs) are attracting increasing attention. Their applications span new energy vehicles, energy storage systems, and consumer electronics. Compared with conventional lithium-ion batteries, solid-state batteries offer significant advantages. These include improved safety, longer service life, and higher energy density. As a result, they are widely regarded as

In the chemical, food, and environmental protection industries, there is a natural mineral dating back to ancient times. It sounds like “soil” and appears as a fine powder, yet it plays a vital role thanks to its unique microstructure. It is—diatomaceous earth. However, freshly mined diatomaceous earth often comes in lumpy form and is mixed

Amid the rapid development of new energy vehicles, large-scale energy storage systems, and advanced semiconductor industries, the performance evolution of carbon materials has become a critical driver of technological breakthroughs. Porous graphite, with its unique combination of a three-dimensional interconnected pore structure, high specific surface area, excellent electrical and thermal conductivity, and superior chemical stability,

With the growing demand for highly thermally conductive materials, filled thermally conductive polymer composites hold great promise for future applications. The performance of thermally conductive composites largely depends on the choice of thermal fillers. (Al₂O₃) is a common ceramic filler. With its high hardness and excellent thermal conductivity, it is a popular choice for enhancing

In industries such as chemical, pharmaceutical, food processing, and new energy, controlling the particle size of powders directly determines product quality and production efficiency. For example, battery materials require uniform particle distribution to ensure conductivity; pharmaceutical powders must be precisely classified to control dosage accuracy; and food powders need consistent solubility and mouthfeel. The key

The solid-state method is currently one of the most mature and widely adopted processes for manufacturing lithium iron phosphate (LiFePO4) cathode materials. Utilizing iron phosphate and lithium carbonate as primary raw materials, this process achieves large-scale production through precise batching, wet milling, high-temperature reductive sintering, and subsequent post-processing. The detailed manufacturing workflow and key control

In the wave of modern green building materials and the circular economy, the resource utilization rate of blast furnace slag has become a key metric. It measures the sustainability of the cement and concrete industries. However, untreated raw slag typically rests in a “dormant,” inert state. This is due to its unique internal glassy structure.

In the course of global industrialization, the rapid growth of the aluminum industry has left behind a significant environmental burden—bauxite residue (red mud). As a highly alkaline solid waste generated during alumina production, approximately 1.0 to 1.5 tons of red mud are produced for every ton of alumina manufactured. It is estimated that the global