High-speed dynamic tests are used to simulate automobile accidents, aircraft, munitions explosions
and other high-impact events. The types of tests are both compression and tensile with accelerations
of 40m/s and loads of 50kN.
Thanks to this incredible performance, the high-speed tensile tests allow extreme cases of tensile
materials such as metals and plastics to be simulated and certified to the following standards:

ASTM D638 Type 5
ISO 8256 Type 2HIGH STRAIN RATE ROTATIONAL SYSTEMSBrochure
High-speed dynamic tests are used to simulate automobile accidents, aircraft, munitions
explosions and other high-impact events. The types of tests are both compression and
tensile with accelerations of 40m/s and loads of 50kN.
Thanks to this incredible performance, the high-speed tensile tests allow extreme cases
of tensile materials such as metals and plastics to be simulated and certified to the fol-
lowing standards:

ASTM D638 Type 5
ISO 8256 Type 2HIGH STRAIN RATE ROTATIONAL SYSTEMSBrochure

FEATURES

No maintenance

High reliability

High efficiency

Wide range of use

Simple installation

FEATURES

  • No maintenance

  • High performance

  • High efficiency

  • Wide range of use

  • Quick and easy installation

  • No maintenance

  • High performance

  • High efficiency

  • Wide range of use

  • Quick and easy installation

New EA series

HTM high-speed testing machines can be widely used for testing plastics. They are characterized by high test speeds and wide force ranges and can be used flexibly in tensile and compression tests. In addition, they can be equipped with a climatic chamber to perform tests at different temperatures.

  • Created for HCF tests [High Cycles Fatigue]
  • Designed to work in multiactuator mode or alone.
  • Dynamic loads range up to 200kN
  • Zero maintenance and easy installation
  • Low energy consuming
  • Highly reliable test.
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.ELECTRODYNAMIC ACTUATORS WITH LINEAR
MOTORS FOR HIGH STRAIN RATE TESTINGBrochure
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.ELECTRODYNAMIC ACTUATORS WITH
LINEAR MOTORS FOR HIGH STRAIN RATEBrochure

FEATURES

No maintenance

High performance

High efficiency

Wide range of use

Quick and easy installation

FEATURES

  • No maintenance

  • High performance

  • High efficiency

  • Wide range of use

  • Quick and easy installation

Serie UDUnits UD01UD02UD04UD08UD012UD020UD025UD030UD040UD060
Max. Dynamic Force [kN][lbf]0.7 – 157.32.4 – 539.54.0 – 899.28.0 – 1798.512.0 – 2697.720.0 – 4496.225.0 – 5620.230.0 – 6744.340.0 – 8992.360.0 – 13488.5
Max. Static Force [kN][lbf]0.5 – 112.41.5 – 3372.13.0 – 674.46.0 – 1349.99.0 – 2023.315.0 – 3372.118.0 – 4046.521.0 – 4720.930.0 – 6744.245.0 – 10116.4
Max. Test Speed [m/s] [in/s]2.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.72.0 – 78.7
Max. Test Frequency [Hz]>250*>250*>250*>250*>250*>250*>250*>100*>100*>100*
Standard Stroke [mm] [in]80 – 3.1100 – 3.970 – 2.770 – 2.770 – 2.780 – 2,770 – 2.760 – 2,380 – 2,780 – 2,7
Cooling AirAirAirAirAirWater closed circuitWater closed circuitWater closed circuitWater closed circuitWater closed circuit
Working Temperature [C°]5-305-305-305-305-305-305-305-305-305-30
Facility Requirement 3PH 400V 3PH 400V 3PH 400V 3PH 400V 3PH 400V 3PH 400V 3PH 400V 3PH 400V 3PH 400V 3PH 400V
Serie HUDUnits HUD010
HUD010L		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 [kN] [lbf]11.0 – 2472.922.0 – 4945.833.0 – 7418.730.0 – 6744.240.0 – 8992.380.0 – 17984.7120.0 – 26977.1
Max. Dynamic Force [kN] [lbf]4.0 – 899.28.0 – 1798.512.0 – 2697.715.0 – 3372.120.0 – 4496.240.0 – 8992.460.0 – 13488.5
Max. Static Force[kN] [lbf]3.0 – 674.46.0 – 1348.89.0 – 2023.311.0 – 2472.915.0 – 3372.130.0 – 6744.245.0 – 10116.4
Max. Test Speed [m/s] [in/s]4.0/6.0 – 157.5/236.24.0/6.5 – 157.5/255.94.0/6.5 – 157.5/255.91.7/3.3 – 67.0/129.91.7/3.3 – 67.0/129.91.7/3.3 – 67.0/129.91.7/3.3 – 67.0/129.9
Max. Test Frequency [Hz]>125*>125*>125*>100*>100*>100*>100*
Standard Stroke [mm] [in]200 – 7.8200 – 7.8200 – 7.8240 – 9.480 – 3.180/265 – 3.1/10.480/265 – 3.1/10.4
Cooling AirAirAirAir/Water closed circuitWater closed circuitWater closed circuitWater closed circuit
Working Temperature [C°]5-305-305-305-305-305-305-30
Facility Requirement3PH 400V3PH 400V3PH 400V3PH 400V3PH 400V3PH 400V3PH 400V
Serie XUDUnits XUD05
XUD010
XUD020
XUD030
Max. Peak Force [kN] [lbf]5.5 – 1236.410.4 – 2338.020.5 – 4608.631.2 – 7014.0
Max. Dynamic Force [kN] [lbf]1.5 – 337.22.7 – 606.95.4 – 1213.98.1 – 1820.9
Max. Static Force [kN] [lbf]1.0 – 224.82.1 – 472.1 4.2 – 944.26.3 – 1416.3
Max. Test Speed [m/s] [in/s]6.0 – 236.26.0 – 236.26.0 – 236.2 6.0 – 236.2
Max. Speed at Peak Force [m/s] [in/s]4.0 – 157.44.0 – 157.44.0 – 157.44.0 – 157.4
Max. Test Frequency (Hz)>300*>300*>300*>300*
Standard Stroke [mm]220 – 8.6220 – 8.6220 – 8.6220 – 8.6
Cooling AirAirAirAir
Working Temperature [C°]5-305-305-305-30
Facility Requirement3PH 400V3PH 400V3PH 400V3PH 400V

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
New EA series
  • 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
Technical Data

Certified Standards

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
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
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
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
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
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