Steel Cord Conveyor Belt Systemsd

The selection should not be based on belt type alone. Engineers need to evaluate conveying distance, lift height, belt tension, capacity, pulley arrangement, take-up design, operating environment, material characteristics and lifecycle cost. Steel cord belts are typically preferred for long-distance, high-tension and heavy-duty systems, while fabric belts are often used for shorter or medium-duty conveyors. Aramid belts may be more suitable where weight reduction, corrosion resistance or energy saving is a higher priority.

Low elongation helps maintain stable belt tension, reduce take-up travel and improve long-term conveyor stability. In long-distance, high-capacity or high-lift systems, excessive elongation can increase adjustment frequency, affect tracking and create additional stress on splices and drive components. BOTON’s steel cord belt series is positioned in the selection manual for extremely low elongation and stable operation under demanding conveying conditions.

The ST rating should be selected according to calculated belt tension, safety factor, conveyor layout, dynamic load, splice design and operating conditions. A higher ST rating is not always the best choice. Overspecification may increase belt weight, pulley load, energy demand and installation difficulty. The right specification should balance tensile strength, system stability, splice reliability and lifecycle cost.

Longitudinal tear risk should be managed through system-level design, not by the belt alone. Key measures include chute optimization, impact protection, foreign-object control, anti-tear reinforcement, rip detection systems and routine inspection. For high-risk sections such as crusher discharge, sharp-material transfer points or long-distance critical lines, anti-tear structures and intelligent monitoring should be considered together.

Steel cord conveyor belts are often used on critical production lines where downtime, replacement frequency, splice reliability, energy consumption and maintenance access have a major impact on total cost. A lower purchase price may not reduce overall cost if it leads to shorter service life, higher power demand, more frequent maintenance or greater shutdown risk. For long-distance and high-power systems, low rolling-resistance cover rubber can also be evaluated as part of the lifecycle cost strategy.