Specifications
Maximum test force: 6500KN;
Accuracy level: Level 1;
Relative error of indication: ±1%;
Effective measurement range: 1%-100%F·S (full scale is not divided);
Relative error of deformation indication: ±1%;
Deformation measurement resolution: 0.001mm;
Displacement control range: 0-200 mm;
Force, deformation, displacement control range: 2%-100%F·S;
Hold time: ≥24h;
Piston stroke: 200 mm;
Stretching distance: ≥ 3400mm;
Detection range: static load performance of anchors from 1 to 24 holes;
Mainframe dimensions: 3300 mm × 800 mm × 1000 mm;
Oil source cabinet size: 1100 mm × 800 mm × 900 mm;
Machine power: 4.0kW (oil pump motor 3.0kW moving oil source motor 0.55 kW);
Oil source cabinet weight: 300 kg;
Host weight: about 4800 kg;

SS-6500M electro-hydraulic servo static load anchoring test machine is a high-precision material testing equipment that uses hydraulic power source drive, electro-hydraulic servo control technology, computer data acquisition and processing, and can realize closed-loop control and automatic detection. The oil source (hydraulic power source), moving oil source (preloaded oil source) and protective box are composed of four parts. The maximum test force is 6500kN, and the accuracy of the test machine is better than level 1.

SS-6500M electro-hydraulic servo static load anchoring tester for static load anchoring performance test of anchor clamp connector, prestressed steel strand anchorage, fixture and connector for concrete structure and component, prestressed steel structural steel strand anchor Tools, fixtures and connectors, cable anchors, clamps and connectors, carbon fiber prestressed tendons, prestressed tendons, fixtures and connectors for static load anchoring performance testing and research. It can realize closed-loop control such as equal-rate loading and constant-rate deformation, which can realize the automatic request of the technical index of the test piece such as the anchor connector efficiency coefficient ηa, the fixture efficiency coefficient ηg, and the total strain of the assembled component under the measured ultimate tensile force. take.