Hydraulic self-climbing template

The power of hydraulic self-climbing mold comes from its own hydraulic system, which includes hydraulic cylinders and up and down reversing devices. The reversing device can form mutual climbing between the formwork frame body and the guide rail, so that the hydraulic climbing form can climb up steadily. The hydraulic self-climbing form does not require other lifting equipment during the construction process, and the operation is convenient and simple, the climbing speed is fast, and the safety factor is high. It can climb straight or diagonally. It is the preferred formwork system for the construction of high piers, pylons, and super high-rise buildings.

The standard hydraulic climbing mold produced by our company mainly has two models, namely HCB-80 and HCB-130 . The commonly used pouring heights are 4.5 meters and 6 meters, and the special-shaped climbing formwork system can also be customized according to the construction requirements of special structures.

Automatic wall climbing and more convenient construction

Four major construction highlights

easy to install and easy to operate

fast construction and time saving

self-climbing, less consumables

save labor and cost

three major application business sectors

Bridge Engineering

Metro project

nuclear power engineering

Autonomous climbing template is mainly composed of:embedded parts, templates, brackets, guide rails and hydraulic power units.

Basic parameters of the frame system:

Height of frame: 19 meters;

Single frame weight: 2.5T

The widest platform: main platform=2.8m;

Rated pressure: 16Mpa;

Cylinder stroke: 400mm;

rail step: 300mm;

Flow rate of hydraulic pump station: 60L/min;

Extend speed: about 200mm/min;

Rated thrust: 100KN~133KN;

Double cylinder synchronization error: ≤20mm;

Climbing speed: 4m/hour;

Tilt: ±18°;

Pouring layer height: 4-6m;

Force bolt: M42  10.9 grade

When the concrete strength reaches 15MPa or more, the hydraulic self-climbing formwork is capable of climbing and bearing the design load conditions.