Precision Mechanical Testing for Stents & Catheters
Posted 23 hours 42 minutes ago by Tentamus Group GmbH
Permanent
Not Specified
Laboratory Jobs
Dublin, Ireland
Job Description
To ensure the safety and reliability of your stents, certified mechanical testing of the material and finished product is essential. Tentamus Group laboratories routinely perform mechanical testing of stents and stent grafts (cardiovascular and endovascular) according to EN ISO 25539-1, -2 and 3 and ASTM standards.
We also develop test methods for new and unique technologies upon customer request, allowing us to provide individualized support and advice.
Implants:
In addition, as experts in endovascular stent testing, the Tentamus team can also meet the testing requirements of transcatheter heart valve frames and structures.
The test procedures are performed according to the DIN EN ISO 5840-1, -2 & -3 series of standards:
Our established testing apparati comprise peripheral, neurological, coronary and radial access routes.
Our laboratories are experienced in regulatory submissions for evaluation of many technologies including:
These tests are performed according to ASTM standards:
Our laboratories can advise you as a manufacturer regarding FMEA/hazard analysis for your medical devices and develop appropriate test/inspection plans (according to ASTM or ISO test method standards) to prevent product failures and identify the source of any damage.
How do mechanical tests support the safety and performance of medical devices? Mechanical testing helps systematically evaluate critical product properties such as stability, integrity, durability, and functional performance . click apply for full job details
We also develop test methods for new and unique technologies upon customer request, allowing us to provide individualized support and advice.
Implants:
- Dimensional Verification
- Diameter to Balloon Inflation Pressure
- Length to Diameter Relationship
- Recoil
- Integral Water Permeability
- Water Entry Pressure
- Fabric Water Permeability
- Burst/Circumferential Strength
- Crush Resistance (Flat Plate & Radial)
- Flex/Kink
- Local Compression
- Longitudinal Tensile Strength
- Migration Resistance
- Modular Pull Strength
- Magnetic Resonance Imaging (MRI) Safety
- Radial Force
- Strength After Repeated Puncture
- Graft to Stent Attachment Strength
- Corrosion Assessment
- Dislodgement Force
- Dogboning
- Profile Effect/Flaring
- Stent-Free Surface Area
- Dimensional Verification
- Profile/Diameter
- Simulated Use
- Force to Deploy
- Balloon Inflation / Deflation Time
- Balloon Rated Burst Pressure
- Balloon Volume to Burst
- Balloon Rated Fatigue
- Tensile Bond Strength
- Torsional Bond Strength
- Tubing Longitudinal Tensile Strength
- F2477: In vitro Pulsatile Durability Testing of Vascular Stents
- F2942: In vitro Axial, Bending, and Torsional Durability Testing of Vascular Stents
- F2743: Coating Inspection and Acute Particulate Characterization of Coated Drug-Eluting Vascular Stent Systems
- F2079: Measuring Intrinsic Elastic Recoil of Balloon-Expandable Stents
- F2081: Characterization and Presentation of the Dimensional Attributes of Vascular Stents
- F2394: Measuring Securement of Balloon Expandable Vascular Stent Mounted on Delivery System
- F3067: Radial Loading of Balloon Expandable and Self Expanding Vascular Stents
- F2052: Measurement of Magnetically Induced Displacement Force on Medical Devices in the Magnetic Resonance Environment
- F2119: Evaluation of MR Image Artifacts from Passive Implants
- F2182: Measurement of Radio Frequency Induced Heating On or Near Passive Implants During Magnetic Resonance Imaging (MRI)
- F2213: Measurement of Magnetically Induced Torque on Medical Devices in the Magnetic Resonance Environment
- F2503: Marking Medical Devices and Other Items for Safety in the Magnetic Resonance Environment
- F2129: Standard Test Method for Conducting Cyclic Potentiodynamic Polarization Measurements to Determine the Corrosion Susceptibility of Small Implant Devices
- F3044: Test Method for Standard Test Method for Evaluating the Potential for Galvanic Corrosion for Medical Implants
- Textile
- Biological
- ePTFE-
- Polyurethane
- and arterial-venous (A/V) access implants
- Visual Inspection
- Integral Water Permeability / Leakage
- Longitudinal Tensile Strength
- Wall Thickness
- Dynamic Compliance
- Porosity
- Water Entry Pressure (WEP)
- Burst Strength
- Relaxed Inner Diameter
- Suture Retention Strength
- Water Permeability
- Circumferential Tensile Strength
- Burst Strength after Repeated Puncture
- Pressurized Inner Diameter
- PICC catheter (peripherally inserted central catheter)
- Surface Inspection
- Corrosion Resistance
- Peak Tensile Force
- Determination of Catheter Flowrate
- Burst Pressure
- Power Injection for Flowrate and Pressure
- Surface Inspection
- Corrosion Resistance
- Strength of Union of Needle to Hub
- Force At Break
- Leakage From Sheath Introducer
- Leakage Through Hemostasis Valve
- Guidewire Fracture Test
- Safety Wire to Coil Strength
- Core Wire to Coil Strength
- Strength of Union Hub to Dilator
- Dimensional Verification
- Pressure vs. Flow Characterization
- Body to Hub Tensile Strength
- Tip Attachment Strength
- Leakage At Hub
In addition, as experts in endovascular stent testing, the Tentamus team can also meet the testing requirements of transcatheter heart valve frames and structures.
The test procedures are performed according to the DIN EN ISO 5840-1, -2 & -3 series of standards:
- Evaluation of pulsatile hydrodynamics
- Evaluation of pressure drop and reflux leakage during steady forward flow
- Accelerated wear durability (AWT)
- Evaluation of fatigue of components / structures (stent frames and commissures)
Our established testing apparati comprise peripheral, neurological, coronary and radial access routes.
Our laboratories are experienced in regulatory submissions for evaluation of many technologies including:
- Stents (ASTM 2743)
- Inspection of the coating before the test
- Inspection of coating after test
These tests are performed according to ASTM standards:
- F2052: Standard Test Method for Measurement of Magnetically Induced Displacement Force on Medical Devices in the Magnetic Resonance Environment
- F2119: Standard Test Method for Evaluation of MR Image Artifacts from Passive Implants
- F2182: Standard Test Method for Measurement of Radio Frequency Induced Heating On or Near Passive Implants During Magnetic Resonance Imaging
- F2213: Standard Test Method for Measurement of Magnetically Induced Torque on Medical Devices in the Magnetic Resonance Environment
- F2503: Standard Practice for Marking Medical Devices and Other Items for Safety in the Magnetic Resonance Environment
- Establishing Safety and Compatibility of Passive Implants in the Magnetic Resonance (MR) Environment
- Assessment of Radiofrequency-Induced Heating in the Magnetic Resonance (MR) Environment for Multi-Configuration Passive Medical Devices
Our laboratories can advise you as a manufacturer regarding FMEA/hazard analysis for your medical devices and develop appropriate test/inspection plans (according to ASTM or ISO test method standards) to prevent product failures and identify the source of any damage.
- Biocompatibility testing of medical devices according to ISO 10993 can also be covered by Tentamus Group's global laboratory network, thus ensuring patient safety.
How do mechanical tests support the safety and performance of medical devices? Mechanical testing helps systematically evaluate critical product properties such as stability, integrity, durability, and functional performance . click apply for full job details