I. Basic Structure of TD Type Bucket Elevator:

The TD type bucket elevator consists of the running part (buckets and traction belt), the upper section with the drive drum, the lower section with the tensioning drum, the intermediate casing, the drive device, and the backstop braking device, among others.TD type bucket elevator is suitable for upward conveying of powdered, granular, and small lump materials with a bulk density of ρ < 1.5t/m3 that are non-abrasive or semi-abrasive, such as coal, sand, coke breeze, cement, crushed ore, etc.

II. Structural Forms of TD Type Bucket Elevator

There are two types of transmission devices, equipped with YZ type reducer and ZQ (or YY) type reducer respectively. The YZ type shaft-mounted reducer is directly installed on the main shaft head, eliminating the need for the elevator's transmission platform, couplings, etc., making it compact in structure and lightweight. Moreover, the elevator is internally equipped with a special roller backstop, ensuring reliable backstopping. This reducer features low noise, smooth operation, and floats with the main shaft to eliminate installation stress.

III. Features of TD Type Bucket Elevator:

1. Low driving power. Utilizing inflow feeding, induced discharge, and dense arrangement of large-capacity buckets, there is almost no backflow or digging during material lifting, resulting in low無(wú)效 power.

2. Wide range of lifting. This type of elevator has few requirements on the type and characteristics of materials. It can not only lift general powdered and small granular materials but also materials with high abrasiveness. It features good sealing and minimal environmental pollution.

3. Reliable operation. Advanced design principles and processing methods ensure the reliability of the entire machine's operation, with a mean time between failures exceeding 20,000 hours. The elevator operates smoothly, allowing for high lifting heights.

4. Long service life. The elevator uses inflow feeding, eliminating the need for bucket digging, which minimizes squeezing and collision between materials. The design ensures minimal spillage during feeding and discharging, reducing mechanical wear.