BYD LECB18S Turning Radius and Passability Analysis, Reference for Narrow Channel Operation

The core considerations of the narrow-channel operation of electric forklifts The narrow-channel operation scene requires high spatial adaptability of the equipment. Turning radius and passability are two key indicators, which directly affect the operation efficiency and site utilization. In actual operation, if the channel is too narrow, the equipment will be difficult to turn, and even stacking, handling and other operations cannot be completed. Therefore, the equipment parameters need to be accurately selected according to the needs of the scene.

In narrow-channel warehouses, production workshops, and other venues, the turning radius of the equipment is the core parameter that determines the required channel width. A smaller turning radius can reduce the space occupation during steering, and there is no need to reserve too large a steering area. It can make full use of the existing working space, avoid the additional cost of site modification, and reduce the risk of collision with shelves and goods during steering to ensure the safety of the operation.

In addition to the turning radius, the passability of electric forklifts also affects the feasibility of narrow channel operations, including minimum ground clearance, wheel base, wheelbase and other parameters, which need to match the ground conditions of the site, such as ground flatness, whether there are local obstacles, etc. In the narrow channel with frequent steering and stacking, equipment with small turning radius and good passability can reduce the number of path adjustments, improve operation efficiency, and reduce the labor intensity of operators.

When selecting an electric forklift for narrow-channel operations, it is necessary to consider factors such as channel width, cargo size, and operation frequency, and give priority to the actual turning radius and passability parameters of the equipment, rather than relying solely on theoretical labels. To ensure that the parameters are adapted to the scene and avoid low operating efficiency or potential safety hazards.