What is a conveyor transfer chute and how does it work?

Conveyor Transfer Chute is a mechanism used in conveyor systems to transfer materials from one conveyor belt to another. It is designed to reduce the impact of the material on the receiving conveyor belt and prevent structural damage. The chute directs the material flow to a specific location in order to achieve efficient and safe transfer. A typical chute has a number of components, including head chute, discharge chute, skirt board, and impact cradle. The head chute is where the material is first loaded onto the chute. The discharge chute is where the material is finally delivered. The skirt board helps to control the material flow and prevent spillage. The impact cradle is designed to absorb the impact of the material on the chute, thus protecting the chute from damage.

What are the types of Conveyor Transfer Chute?

There are various types of transfer chutes designed for different applications. Some of the common types include rock box chute, hood and spoon chute, free-fall chute, and active flow control system. The rock box chute is the simplest and most cost-effective chute design. It utilizes a rock box to control the material flow and prevent structural damage. The hood and spoon chute is designed to control the velocity of the material and minimize dust emissions. The free-fall chute is used when the material needs to be transferred over a long distance. The active flow control system is a more sophisticated system that utilizes sensors and control mechanisms to optimize the material flow through the chute.

How does a Conveyor Transfer Chute work?

The transfer chute works by directing the material flow from one conveyor belt onto another. The chute is designed to minimize the impact of the material on the receiving conveyor belt. The head chute is designed to control the material flow and minimize the velocity of the material. The skirt board helps to contain the material and prevent spillage. The impact cradle absorbs the impact of the material on the chute and prevents structural damage. The discharge chute is designed to guide the material onto the receiving conveyor belt.

What are the benefits of using a Conveyor Transfer Chute?

Using a transfer chute can help to improve the efficiency and safety of the conveyor system. It helps to reduce the risk of material spillage, structural damage, and worker injury. It also helps to minimize the amount of dust and noise generated by the material transfer process. In addition, it can help to increase the service life of the conveyor system and reduce maintenance costs.

Summary

In conclusion, a conveyor transfer chute is a mechanism used in conveyor systems to transfer materials from one conveyor belt to another. It is designed to improve the efficiency and safety of the conveyor system by minimizing the impact of the material on the receiving conveyor belt. There are various types of transfer chutes available, each designed for different applications. Using a transfer chute can help to reduce the risk of material spillage and structural damage, increase the service life of the conveyor system, and reduce maintenance costs. Jiangsu Wuyun Transmission Machinery Co., Ltd. is a leading manufacturer of conveyor systems and components. With over 20 years of experience in the industry, we are committed to providing high-quality products and excellent customer service. Our conveyor transfer chutes are designed to meet the specific needs of our customers, and we offer a wide range of customizable options. If you have any questions or would like to learn more about our products, please contact us at leo@wuyunconveyor.com.

References

Sood, V., & Jung, C. (2018). Design of a Material Handling Equipment: Belt Conveyor System for Crushed Limestone Using 3 roll Idlers. International Journal of Scientific & Engineering Research, 9(7), 20-23.

Alspaugh, M. A. (2003). The evolution of intermediate driven belt conveyor technology. Bulk Solids Handling, 23(3), 239-250.

Roberts, A. W. (2014). Dynamic analysis of conveyor belts. Department of Mechanical Engineering, University of Maryland.

Roberts, A. W., & Menéndez, H. D. (2016). Modeling and simulation of bulk material handling systems. CRC Press.

Langley, R. S. (2009). The evolution of intermediate driven belt conveyor drives. Bulk Solids Handling, 29(2), 93-102.

Ashworth, A. J. (2012). Conveyor impact testing: An overview of current test methods and the need for a standard method. Bulk Solids Handling, 32(5), 211-215.

Burgess-Limerick, R., & Steiner, L. (2009). Systematic approach to reducing manual handling injuries associated with the manual transport of sacks. Ergonomics, 52(4), 414-425.

Das, B., & Nandy, B. (2015). Development of an automatic monitoring and control system for the objects on the conveyor belt. International Journal of Emerging Technology and Advanced Engineering, 5(2), 136-139.

Reicks, A. (2016). Smart conveyor belt design: A smart way to reduce cost. International Journal of Advance Engineering and Research Development, 3(2), 259-262.

Yulin Zhao et al. (2020). Theoretical and experimental research on the dynamic characteristics of a conveyor belt with transverse vibration. Journal of Sound and Vibration, 474, 115227.

Chen, W., Shou, Y., & Liu, S. (2016). Dynamic characteristics of conveyor belts. Journal of Vibroengineering, 18(7), 4155-4166.