Clinical Hemorheology and Microcirculation · 2018 · 16 citations · 63 references
EngineeringBiomedical EngineeringHematologyBiomemsHemostasisMicroelectromechanical SystemsMicrofluidic DevicesMicrofluidic SystemsMicrofluidicsPlatelet AggregationPlatelet FunctionPlatelet PhysiologyMicrofluidic Diagnostic DevicesMicrofluidic Diagnostic PlatformsMicrofluidic DiagnosticsPlatelet Activation AssaysPlatelet AggregometryPlatelet HemostasisThrombosis MechanismsThrombosis Pathophysiology
The analysis of platelet aggregation and thrombosis kinetics has significantly advanced with progress in microfluidic technology. However, the results of platelet aggregation tests do not fully reflect the observed clinical outcomes. To address the present unmet clinical needs, the basic but essential biology of platelets should be reconsidered in relation to the characteristics of microfluidic systems employed for platelet tests. To this end, the present article provides an overview of commercially available point of care devices and focuses on recent microfluidic studies, describing their measurement principles. We critically discuss the characteristics of the microfluidics systems used to evaluate the complex processes underlying platelet aggregation, and that are specifically designed to mimic the pathophysiological environment of blood vessels, including hemodynamic factors as well as blood vessel injury. To this end, we summarize unsolved issues related to the application of platelet function tests based on microfluidics. Overall, we confirm that platelet function tests based on microfluidics provide a versatile platform that encompasses a variety of basic research, as well as clinical diagnostic applications.
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A shear gradient–dependent platelet aggregation mechanism drives thrombus formation
Warwick S. Nesbitt, Erik Westein, Francisco J. Tovar‐Lopez et al. · Nature Medicine · 2009 · 851 citations · Full text
Medicine, Cell Biology, Hematology +12