ASTM F3495

ASTM F1223

Knee constraint test

ASTM F1672 (PI-95)

Patella specification

ASTM F1814

Test of modular knee implants

ASTM F2009

Modular connection disassembly test

ASTM F2722

Fatigue test baseplate/bearing fixation under torsional loading

ASTM F2723

Fatigue test baseplate/bearing fixation

ASTM F2724

Dislocation mobile bearing

ASTM F2777

Fatigue test under high flexion

ASTM F3140

Unicondylar tibial tray fatigue test

ASTM F3141

Knee loading profiles

ASTM F3161

FEA knee femoral component

ASTM F3210 / PI-73

Knee condyle fatigue test

ASTM F3334

FEA Tibial component

ASTM F3495

Ceramic knee failure load

ISO 14243-1/3

Knee wear test

ISO 14243-5

Durability performance patellofemoral joint

ISO 14879-1 / ASTM F1800

Tibial tray fatigue test

ISO 21534

Particular requirements for joint replacement implants

ISO 21536

Specific requirements for knee-joint replacement implants

ISO 7207-2

Knee surface analysis

PI-17

Knee contact pressure test

PI-53

Stemmed femoral knee component fatigue test

PI-96 (ASTM F2083)

Knee specification

Ceramic knee failure load

Normative References

ASTM F3495: Standard Test Methods for Determining the Static Failure Load of Ceramic Knee Femoral Components

ASTM F3495 outlines two test methods designed to evaluate the static ultimate failure load of ceramic femoral components used in total knee replacements (TKR). These methods aim to simulate in vivo loading conditions and, in one procedure, also replicate intraoperative scenarios.

The standard focuses on cruciate retaining (CR) femoral components that encompass both the medial and lateral condyles as well as the patellar surface of the femur. While the procedures are tailored for these designs, modifications may be necessary to accommodate other femoral component configurations.

Test Methods:

  1. Tension Load Test: This method assesses the ultimate failure load by applying tensile forces to the inner contour of the femoral component, simulating opening conditions that might occur during intraoperative impaction or specific in vivo loading scenarios.
  2. Compression Load Test: This approach evaluates the component’s failure load under compressive forces applied to the outer contour, representing closing conditions experienced during typical knee joint activities.
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Your contact person

Dipl. Ing. Christian Findeiss

Head of Fatigue Testing & Material Analysis, Head of Vascular Testing