The concrete hardness tester is an analog measuring device to determine concrete strength. The measuring method of the concrete hardness tester is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the concrete hardness tester. The resulting rebound enables the concrete hardness tester to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

The concrete rebound test hammer is an analog measuring device to determine concrete strength. The measuring method of the concrete rebound test hammer is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the concrete rebound test hammer. The resulting rebound enables the concrete rebound test hammer to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

The durometer is an analog measuring device to determine concrete strength. The measuring method of the concrete durometer is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the durometer. The resulting rebound enables the durometer to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

The material tester is an analog measuring device to determine concrete strength. The measuring method of the material tester is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the material tester. The resulting rebound enables the material tester to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

The NDT tester - hardness tester is an analog measuring device to determine concrete strength. The measuring method of the NDT tester - hardness tester is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the NDT tester - hardness tester. The resulting rebound enables the NDT tester - hardness tester to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

The roll hardness tester is an analog measuring device to determine concrete strength. The measuring method of the roll hardness tester is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the roll hardness tester. The resulting rebound enables the roll hardness tester to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

The surface testing - concrete hammer is an analog measuring device to determine concrete strength. The measuring method of the surface testing - concrete hammer is based on the Schmidt principle. With this measuring method, a kinetic impact energy hits the concrete from the surface testing - concrete hammer. The resulting rebound enables the surface testing - concrete hammer to determine the strength of the concrete.

• Nominal kinetic energy: 4.5 J
• For high-strength concrete
• Simple and quick operation
• For determining concrete hardness
• Schmidt principle

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for copper pipes
• pipe size: DN50 (46 ... 54 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for PVC pipes
• pipe size: DN50 (59 ... 67 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for copper pipes
• pipe size: DN50 (46 ... 54 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for PVC pipes
• pipe size: DN50 (59 ... 67 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for copper pipes
• pipe size: DN50 (46 ... 54 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for PVC pipes
• pipe size: DN50 (59 ... 67 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for copper pipes
• pipe size: DN50 (46 ... 54 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for PVC pipes
• pipe size: DN50 (59 ... 67 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for copper pipes
• pipe size: DN50 (46 ... 54 mm)

• flow rate: 0.03 ... 5 m/s
• accuracy: ±2 % of Rd
• resolution: 0.01 m/s
• repeatability: 0.2 %
• display of the volume flow
• for PVC pipes
• pipe size: DN50 (59 ... 67 mm)