In the development of electrodynamic axes, we have created a new series of machines for very high dynamic applications. This new range of machines, all based on linear motors, is divided into two families: HUD and XUD.
ELECTRODYNAMIC ACTUATORS WITH LINEAR MOTORS FOR HIGH STRAIN RATE
In the development of electrodynamic axes, we have created a new series of machines for very high dynamic applications. This new range of machines, all based on linear motors, is divided into two families: HUD and XUD.
The former is also suitable for endurance tests thanks to its high continuous dynamic forces, the latter is dedicated to short-duration tests with the achievement of higher accelerations. These machines enjoy, as is our tradition, the advantages inherent in electric machines.
Advantages of electrodynamic technology
- Outstanding dynamic performance
- Almost zero installation costs
- Outstanding price/performance ratio
- Zero maintenance thanks to the absence of a mechanical transmission
- Low consumption, high efficiency of electric motor
- Flexible geometric configuration: machine
- Available as a linear actuator without structure
- UD actuators are ideal for fatigue tests up to 2 m/s and 10g
- HUD/HUDL actuators are ideal for dynamic tests up to 6 m/s and 45g
- XUD actuators are ideal for dynamic tests up to 6 m/s and 90g
- Closed-loop force and displacement control via Test Centre controller
- High-resolution data acquisition in 24bit
- Can be installed on any type of structure
- Up to 8 controlled and synchronized axes
- Control station in a separate and independent position
- Simple and flexible test management via Test Center graphical interface
- Wide variety of grips, dedicated test accessories, and load cells
- Integration with extensometers and climatic chambers
FEATURES
High performance
High efficiency
Wide range of use
Quick and easy installation
FEATURES
UD SERIES | UD01 | UD02 | UD04 | UD08 | UD012 | UD020 | UD025 | UD030 | UD040 | UD060 |
---|---|---|---|---|---|---|---|---|---|---|
Max. Dynamic Force | 0.70 kN | 2.40 kN | 4.00 kN | 8.00 kN | 12.00 kN | 20.00 kN | 25.00 kN | 30.00 kN | 40.00 kN | 60.00 kN |
Max. Static Force | 0.50 kN | 1.50 kN | 3.00 kN | 6.00 kN | 9.00 kN | 15.00 kN | 18.00 kN | 21.00 kN | 30.00 kN | 45.00 kN |
Max. Test Speed | 2.00 m/s | 2.00 m/s | 2.00 m/s | 2.00 m/s | 2.00 m/s | 1.00 m/s | 2.00 m/s | 1.00 m/s | 1.00 m/s | 1.00 m/s |
Max. Test Frequency | >250* Hz | >250* Hz | >250* Hz | >250* Hz | >250* Hz | >100* Hz | >250* Hz | >100* Hz | >100* Hz | >100* Hz |
Standard Stroke | 80 mm | 100 mm | 70 mm | 70 mm | 70 mm | 80 mm | 70 mm | 60 mm | 80 mm | 80 mm |
Cooling | Air | Air | Air | Air | Air | Water closed circuit | Water closed circuit | Water closed circuit | Water closed circuit | Water closed circuit |
Working Temperature | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C |
Facility Requirement | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V |
HUD SERIES | HUD010 HUD010L |
HUD014 | HUD020 HUD020L |
HUD030 HUD030L |
HUD030-5/11 HUD030L-5/11 |
HUD040-15 HUD040L-15 |
HUD080-30 HUD080L-30 |
HUD120-45 HUD120L-45 |
---|---|---|---|---|---|---|---|---|
Max. Peak Force | 11.00 kN | 12.70 kN | 22.00 kN | 33.00 kN | 30.00 kN | 40.00 kN | 80.00 kN | 120.00 kN |
Max. Dynamic Force | 4.00 kN | 5.00 kN | 8.00 kN | 12.00 kN | 15.00 kN | 20.00 kN | 40.00 kN | 60.00 kN |
Max. Static Force | 3.00 kN | 3.50 kN | 6.00 kN | 9.00 kN | 11.00 kN | 15.00 kN | 30.00 kN | 45.00 kN |
Max. Test Speed | 4.00-6.00 m/s | 3.50 m/s | 4.00-6.50 m/s | 4.00-6.50 m/s | 1.70-3.30 m/s | 1.70-3.30 m/s | 1.70-3.30 m/s | 1.70-3.30 m/s |
Max. Test Frequency | >125* Hz | >125* Hz | >125* Hz | >125* Hz | >100* Hz | >100* Hz | >100* Hz | >100* Hz |
Standard Stroke | 200 mm | 170 mm | 200 mm | 200 mm | 240 mm | 80 mm | 80 mm | 80-265 mm |
Cooling | Air | Air | Air | Air | Air-Water closed circuit | Water closed circuit | Water closed circuit | Water closed circuit |
Working Temperature | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C |
Facility Requirement | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V |
XUD SERIES | XUD05 | XUD010 | XUD020 | XUD030 |
---|---|---|---|---|
Max. Peak Force | 5.50 kN | 10.40 kN | 20.50 kN | 31.20 kN |
Max. Dynamic Force | 1.50 kN | 2.70 kN | 5.40 kN | 8.10 kN |
Max. Static Force | 1.00 kN | 2.10 kN | 4.20 kN | 6.30 kN |
Max. Test Speed | 6.00 m/s | 6.00 m/s | 6.00 m/s | 6.00 m/s |
Max. Speed at Peak Force | 4.00 m/s | 4.00 m/s | 4.00 m/s | 4.00 m/s |
Max. Test Frequency | >300* Hz | >300* Hz | >300* Hz | >300* Hz |
Standard Stroke | 220 mm | 220 mm | 220 mm | 220 mm |
Cooling | Air | Air | Air | Air |
Working Temperature | 5-30 °C | 5-30 °C | 5-30 °C | 5-30 °C |
Facility Requirement | 3PH 400V | 3PH 400V | 3PH 400V | 3PH 400V |
*Special request
Certified Standards
Plastic
TEST | MATERIAL | STANDARD | DESCRIPTION |
Static tests | Plastic | ASTM D638 | Tensile properties of plastics |
Static tests | Plastic | ISO 527-1 ISO 527-2 |
Plastics-Determination of Tensile Properties |
Metal
TEST | MATERIAL | STANDARD | DESCRIPTION |
Static tests | Metal | ASTM E21 | High-temperature tensile testing of metallic materials |
Static tests | Metal | ASTM E290 | Material bending test for ductility |
Static tests | Metal | ASTM E517 | Plastic deformation ratio r for sheet metal |
Static tests | Metal | ASTM E646 | Tensile hardening exponents (n-values) of sheet metal materials |
Static tests | Metal | ASTM E8M | Tensile testing of metallic materials |
Static tests | Metal | ASTM E9 | Compression testing of metallic materials at room temperature |
Static tests | Metal | EN 10002-1:2001 (replaced by ISO EN 6892-1:2019) | Tensile testing of metallic materials. Test method at room temperature |
Static tests | Metal | ISO 6892-1 | Metallic materials – Tensile testing Part 1: Test method at room temperature |
Static tests | Metal | ISO 7438 | Metallic materials. Bending test. |
Static tests | Metal | ISO 783 | Metallic materials – Tensile test of steel at high temperature |
Bike
TEST | MATERIAL | STANDARD | DESCRIPTION |
Static / Fatigue | Bike | EN 15194 | Electrically assisted pedal cycles – EPAC Bicycles – test methods |
Static / Fatigue | Bike | ISO 4210-3 | Bicycle safety requirements – Part 3: Common test methods |
Static / Fatigue | Bike | ISO 4210-4 | Safety requirements for bicycles – Part 4: Braking test methods |
Static / Fatigue | Bike | ISO 4210-5 | Bicycle safety requirements – Part 5: Steering test methods |
Static / Fatigue | Bike | ISO 4210-6 | Safety requirements for bicycles – Part 6: Test methods for frame and fork |
Static / Fatigue | Bike | ISO 4210-7 | Bicycle safety requirements – Part 7: Test methods for wheels and rims |
Static / Fatigue | Bike | ISO 4210-8 | Safety requirements for bicycles – Part 8: Pedal and drive system test methods |
Static / Fatigue | Bike | ISO 4210-9 | Bicycle safety requirements – Part 9: Test methods for saddles and seatposts |
Biomedical
TEST | MATERIAL | STANDARD | DESCRIPTION |
Static / Fatigue | Biomedical | ASTM F1264 | Standard Specifications and Test Methods for Intramedullary Fixation Devices |
Static / Fatigue | Biomedical | ASTM F1717 | Standard test methods for spinal implant structures in a vertebrectomy model |
Static / Fatigue | Biomedical | ASTM F1798 | Standard test method for evaluating static and fatigue properties of interconnection mechanisms and subassemblies used in spinal arthrodesis implants |
Static / Fatigue | Biomedical | ASTM F1800 | Standard Practice for Cyclic Fatigue Testing of Metal Components of the Tibial Plateau of Total Knee Joint Prostheses |
Static / Fatigue | Biomedical | ASTM F2068 | Standard specifications for femoral prostheses – metal implants |
Static / Fatigue | Biomedical | ASTM F2077 | Test methods for intervertebral body fusion devices |
Static / Fatigue | Biomedical | ASTM F2193 | Standard specifications and test methods for components used in surgical fixation of the spinal skeletal system |
Static / Fatigue | Biomedical | ASTM F2502 | Standard specifications and test methods for resorbable plates and screws for internal fixation implants |
Static / Fatigue | Biomedical | ASTM F2580 | Standard practice for evaluating the modular connection of a proximally fixed femoral hip prosthesis |
Static / Fatigue | Biomedical | ASTM F2706 | Standard test methods for occipito-cervical and occipito-cervical-thoracic spinal implant constructions in a vertebrectomy model |
Static / Fatigue | Biomedical | ASTM F382 | Standard Specifications and Test Method for Metal Bone Plates |
Static / Fatigue | Biomedical | ASTM F384 | Standard specifications and test methods for angled metal devices for orthopaedic fracture fixation |
Static / Fatigue | Biomedical | ASTM F543 | Standard Specifications and Test Methods for Metal Medical Bone Screws |
Static / Fatigue | Biomedical | EN 843-1 | Mechanical properties of monolithic ceramics at room temperature – Determination of flexural strength |
Static / Fatigue | Biomedical | ISO 11405 | Tooth structure adhesion test |
Static / Fatigue | Biomedical | ISO 12189-8 | Mechanical testing of implantable spinal devices – Fatigue test method for spinal implant assemblies using anterior support |
Static / Fatigue | Biomedical | ISO 14801 | Dentistry – Implants – Dynamic load test for endosseous dental implants |
Static / Fatigue | Biomedical | ISO 14879-1 | Total knee joint replacement Determining the strength properties of tibial knee trays |
Static / Fatigue | Biomedical | ISO 6872 | Dentistry – Ceramic materials |
Static / Fatigue | Biomedicale | ISO 7206 | Surgical implants – Partial and total hip joint replacements |
Static / Fatigue | Biomedical | ISO 9585 | Surgical implants – Determination of flexural strength and stiffness of bone plates |
Rubber
TEST | MATERIAL | STANDARD | DESCRIPTION |
Static tests | Rubber | ISO 2439 | Determination of hardness (indentation technique) |
Static tests | Rubber | ISO 3386 | Determination of stress-strain characteristics in compression |