Cardiovascular Research
Cardiovascular research requires a deeper understanding of how mechanical forces, biochemical signaling, and physiological responses influence the heart and vascular system. From evaluating the mechanical properties of cardiovascular tissues using biaxial testing systems to investigating nitric oxide signaling and vascular function, researchers depend on precise, reproducible measurements. WPI Europe supports these investigations with specialized instrumentation designed to characterize tissue behavior, measure critical physiological parameters, and advance our understanding of cardiovascular health and disease. Here we have a collection of tools for in vivo and in vitro cardiovascular research, from single cell to whole organ.
Measuring Nitric Oxide: Understanding Vascular Function
Nitric oxide (NO) plays a vital role in cardiovascular health by regulating blood vessel dilation, blood pressure, and endothelial function. Changes in nitric oxide production and availability are associated with vascular dysfunction, hypertension, atherosclerosis, and other cardiovascular disorders.
WPI Europe's nitric oxide measurement systems and specialized sensors help researchers investigate NO production and signaling in biological samples. Electrochemical detection enables direct, sensitive measurement of nitric oxide, providing valuable insights into endothelial responses, vascular regulation, and the mechanisms underlying cardiovascular disease. We offer Free Radical meters and electrochemical NO sensors for in vivo and in vitro NO measurement.
Free Radical Analyzers
Investigate the role of nitric oxide and other reactive species in cardiovascular health and disease. Free radical analyzers support sensitive electrochemical measurements to help researchers study oxidative stress, endothelial function, and vascular signaling.
TBR Biosensors
Measure nitric oxide and other biologically significant molecules using specialized electrochemical biosensors. These sensors support cardiovascular research by helping characterize molecular signaling, vascular responses, and physiological changes associated with cardiovascular disease.
