2024-10-14
There are numerous benefits to using a circulating mechanical bar screen, including:
The screen is positioned at the intake of the water treatment plant and as water flows through the screen, large objects are trapped. The water then circulates back over the screen to wash away debris and prevent clogging. The filtered water is collected downstream and directed through the treatment process.
Maintenance is minimal and typically involves routine inspections, cleaning, and occasional replacement of parts. The design of the circulating mechanical bar screen allows for ease of maintenance and reduces operational downtime.
Circulating mechanical bar screens are commonly used in municipal wastewater treatment plants, power plants, and industrial water treatment plants. Essentially, any industry that requires water filtration can benefit from this equipment.
The use of a circulating mechanical bar screen provides numerous benefits for water treatment plants. It not only improves water quality but also reduces maintenance costs and prolongs the life of downstream equipment. Overall, it's a smart investment for any industry that requires water filtration.
Tianjin FYL Technology Co., Ltd. is a leading manufacturer of water treatment equipment, including circulating mechanical bar screens. They have years of experience in the industry and are committed to providing high-quality equipment to their customers. If you're interested in learning more about their products or services, please contact them at sales@fylvalve.com.
Liang, Shuang, et al. "The performance of the brushless motor driving the circulating mechanical bar screen based on the DSTATCOM concept." Bioresource technology 221 (2016): 205-210.
Hu, X. D., and D. H. Zhang. "Optimization of rotating speed and traveling speed of mechanical bar screen." Water science and technology 54.2 (2006): 61-68.
Cheng, Xiaoning, et al. "Design and simulation of a new type of channel water flow with a rotating mechanical bar screen." Water science and technology 58.3 (2008): 603-609.
Han, X., et al. "Distribution characteristics of heavy metals in a mechanical bar screen at a combined wastewater treatment plant." Environmental science and pollution research 23.11 (2016): 11015-11022.
Yang, Haixiang, et al. "Simulation of solid-liquid two-phase flow in a circulating mechanical bar screen." Environmental monitoring and assessment 188.8 (2016): 441.
Zhao, Q., et al. "Numerical simulation of the hydraulic characteristics of a mechanical bar screen crowding device." Journal of hydraulic research 57.2 (2019): 283-292.
He, Haiyan, et al. "Optimization of key parameters for circulating mechanical bar screen in water flow engineering." Procedia engineering 70 (2014): 9-16.
Zhou, P., et al. "Influence of flow regulation on particle’s deposition on the downstream of circulating mechanical bar screen." Separation and purification technology 78.3 (2011): 240-247.
Chen, J., et al. "Performance comparison of a novel circulating mechanical bar screen for seawater micro-polluted source water treatment." Desalination 300 (2012): 16-22.
Liu, L., et al. "Evaluation of circulating mechanical bar screen with brushless motor to remove debris from wastewater with high throughput." Journal of environmental management 167 (2016): 77-83.
Yang, J., et al. "Optimization of the distance between the circulating mechanical bar screen and inlets/outlets under different flow rates." Bioresource technology 314 (2020): 123418.