01LVAD
Your LVAD has to keep pumping for weeks, months, or years without causing blood clots or destroying red blood cells. That's the challenge. We test continuous flow devices in failing heart conditions using pressure-volume analysis to measure device ventricle interaction. We quantify hemolysis, platelet changes, and clotting factor degradation following ISO 10993-4 standards. This gives you the Class III biocompatibility data FDA expects for bridge to transplant or destination therapy approval.
02Cardiopulmonary Bypass
Your bypass system contacts blood for hours during surgery through artificial membranes. We evaluate blood cell damage, measuring hemolysis, platelet activation, and inflammatory markers that indicate biocompatibility problems. We also assess membrane surface characteristics that affect blood interaction. Our testing follows ISO 7199 standards for oxygenator biocompatibility aligned with FDA expectations. This demonstrates your system exchanges gases effectively without causing excessive blood trauma or inflammatory responses that complicate patient recovery.
03Mechanical Circulatory Support
Temporary support devices deploy quickly during cardiac crises. They maintain hemodynamics while the heart recovers or until definitive treatment. Your device needs consistent performance across varying degrees of heart failure. We test flow rates, pressure support, and blood compatibility during simulated acute decompensation. We measure how quickly support can be initiated and how reliably it sustains circulation across changing patient conditions.
04Myocardial Ischemia Models
Our ischemia models create controlled myocardial damage for device testing. We evaluate tissue injury patterns, measuring infarct size, cell death, and scar formation after coronary occlusion. Our pathologists assess healing progression from acute necrosis through chronic scarring using standardized histological grading. Cardiac biomarkers confirm that injury severity matches what's seen in clinical heart attacks. This creates reproducible disease conditions showing how your device performs in hearts with documented tissue damage patterns aligned with real patient pathology.