Zinc oxide is widely used in rubber, ceramics, paints, and pharmaceuticals, but its pneumatic conveying presents unique challenges. Many manufacturers face issues such as pipeline clogging due to material agglomeration, equipment wear from abrasive particles, and dust leakage that threatens worker safety and product quality. Inconsistent feed rates and high energy consumption further reduce overall efficiency. Below, we explore these pain points and how Headpowder addresses them with a tailored pneumatic conveying solution.

Material Characteristics of Zinc Oxide

Zinc oxide is a fine, high-density powder with a bulk density ranging from 400 to 600 kg/m³. Its particles are hygroscopic and tend to agglomerate under moisture or electrostatic charge. The material is moderately abrasive and can generate dust clouds that pose explosion risks if not handled properly. These properties demand a conveying system that minimizes friction, prevents moisture absorption, and maintains consistent flow without degradation.

Product Introduction: Headpowder Zinc Oxide Pneumatic Conveying System

Headpowder offers a fully customizable pneumatic conveying solution designed specifically for zinc oxide. Our system integrates dense-phase or dilute-phase conveying based on client requirements, with components such as rotary valves, blow tanks, stainless steel pipelines, and automated control panels. Every unit is engineered to handle the unique flow behavior of zinc oxide, ensuring gentle material handling and minimal particle breakage.

Solution Advantages: Addressing Customer Pain Points

To overcome common issues, Headpowder's solution includes a sealed conveying loop that eliminates dust emissions and improves workplace safety. Abrasion-resistant linings in pipes and bends reduce wear, extending equipment lifespan. An intelligent control system monitors pressure, flow rate, and material level in real time, automatically adjusting air velocity to prevent blockages. Additionally, our system operates with lower energy consumption compared to traditional methods, reducing operational costs while maintaining high throughput.