absolute™ Bones

Sacrum for biomechanical testing with a 17 PCF density cancellous foam core. Matches #3405 and 3409 hemi pelvis. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for medical...

Femur for biomechanical testing that with a 17 PCF solid foam cancellous core, a 16 mm canal, and an overall length of 485 mm. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios...

Femur for biomechanical testing that includes a 8 PCF solid foam cancellous core, a 16 mm canal, and an overall length of 485 mm. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion...

Femur for biomechanical testing with includes a 17 PCF solid foam cancellous core, filled distal cross pin, a 16 mm canal, and an overall length of 485 mm. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively...

Femur for biomechanical testing with a 15 PCF cellular foam cancellous core, a 16 mm canal, and an overall length of 485 mm. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios...

Femur for biomechanical testing with a 17 PCF solid foam cancellous core, a 10mm canal, and an overall length of 485 mm.Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for...

Femur for biomechanical testing with a 20 PCF cellular foam cancellous core a 16 mm canal, and an overall length of 485 mm. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios...

Femur for biomechanical testing with a 10 PCF solid foam cancellous core, a 16 mm canal, and an overall length of 485 mm.Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for...

Femur for mechanical testing with a 12.5 PCF cellular foam cancellous core, a 16 mm canal, and an overall length of 485 mm.Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for...

Radius for biomechanical testing with a 17 PCF density cancellous foam core.Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for medical device development and approval.

Radius for biomechanical testing with a 10 PCF density solid foam cancellous core. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for medical device development and approval...

Clavicle, manufactured in two parts, proximal and distal sections with a 17 PCF density cancellous core without a canal, for biomechanical testing. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load...

Clavicle for biomechanical testing with a 17 PCF solid foam cancellous core. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for medical device development and approval.

Hemi Pelvis for biomechanical testing with a 17 PCF density solid foam cancellous core. Matches #3405-2 sacrum and #3405 right hemi pelvis. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and...

Hemi-pelvis for biomechanical testing with 10 PCF density solid foam cancellous core. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for medical device development and...

Tibia for biomechanical testing with 17 PCF density solid foam cancellous core. Our absolute™ bones mimic the properties of human bones to help you easily and inexpensively simulate load and motion scenarios for medical device development and approval.