4.7 Article

Platelet membrane-functionalized hollow mesoporous Prussian blue nanomedicine for comprehensive thrombolytic management by targeted enhanced fibrinolysis and ROS scavenging

Journal

CHEMICAL ENGINEERING JOURNAL
Volume 474, Issue -, Pages -

Publisher

ELSEVIER SCIENCE SA
DOI: 10.1016/j.cej.2023.145515

Keywords

Comprehensive thrombolysis; Platelet membrane; Fibrinolysis; ROS; Hollow mesoporous Prussian blue

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Thrombotic diseases are a significant global risk, but conventional thrombolytic drugs have limitations. This study developed a platelet membrane-functionalized hollow mesoporous Prussian blue nanomedicine that targeted thrombi and had synergistic fibrinolysis properties. It also inhibited platelet aggregation and regulated inflammation. The nanomedicine showed efficient thrombolysis and delayed thrombosis progression. This study provides a broad platform for comprehensive management of thrombotic diseases.
Thrombotic diseases cause significant risks of disability and death worldwide. However, conventional thrombolytic drugs have short half-lives, poor targeting capabilities, limited therapeutic effects, and narrow therapeutic windows. Moreover, most basic studies focus only on thrombolytic efficiency and ignore the inflammatory factors that promote thrombosis progression, such as reactive oxygen species (ROS)-mediated oxidative stress. Therefore, to achieve comprehensive and effective thrombolytic management, both targeted thrombolytic therapy and the elimination of inflammatory factors must be achieved. In this study, we developed a platelet membrane (PM)-functionalized hollow mesoporous Prussian blue nanomedicine (HMPB-rtPA@PM), which was innovatively coassembled from two FDA-approved drugs (Prussian blue (PB) and alteplase (rtPA)) and showed marked advantages in both thrombi targeting and photothermal/pharmacological synergistic fibrinolysis. Moreover, HMPB-rtPA@PM exhibited the potential to inhibit platelet aggregation and regulate the inflammatory microenvironment by scavenging ROS. As expected, this nanomedicine not only achieved more efficient thrombolysis in both thrombus models but also delayed thrombosis progression through therapeutic visualiza-tion in the black tail model. Such rational therapeutic principle provides a broad platform for the comprehensive management of thrombotic diseases.

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