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Biography and Research Information
OverviewAI-generated summary
Jeffrey A. Kamykowski's research focuses on the ultrastructural analysis of platelets and their role in thrombus formation and hemostasis. He utilizes advanced imaging techniques, including electron microscopy and deep learning-based analysis, to investigate the quantitative differences in platelet and organelle packing. His work has explored platelet behavior in various contexts, such as venous puncture wound hemostasis and the impact of COVID-19 on platelet structure. Kamykowski also trains image analysis techniques for characterizing cell phenotypes in microscopy images of mouse thrombi. His collaborations include extensive work with researchers at the University of Arkansas for Medical Sciences, such as Irina D. Pokrovskaya and Brian Storrie. Kamykowski has published 21 papers with 479 citations and an h-index of 9.
Metrics
- h-index: 9
- Publications: 21
- Citations: 486
Selected Publications
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Murine Thrombus Organization Limits Access to High Platelet Activation States While Supporting Platelet Recruitment (2026)
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Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation (2024)
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Trained image analysis techniques for characterizing cell phenotype in electron microscopy images of mouse thrombi (2024)
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Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets (2023)
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Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site (2023)
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Electron Microscope Characterization of Platelet Activation State Reveals That Wound Closure and P2Y 12 Receptors Are Major Early Determinants of Thrombus Structure in a Venous Puncture Model (2021)
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Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates (2021)
Collaboration Network
Top Collaborators
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Electron Microscope Characterization of Platelet Activation State Reveals That Wound Closure and P2Y 12 Receptors Are Major Early Determinants of Thrombus Structure in a Venous Puncture Model
- Trained image analysis techniques for characterizing cell phenotype in electron microscopy images of mouse thrombi
Showing 5 of 8 shared publications
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Electron Microscope Characterization of Platelet Activation State Reveals That Wound Closure and P2Y 12 Receptors Are Major Early Determinants of Thrombus Structure in a Venous Puncture Model
- Trained image analysis techniques for characterizing cell phenotype in electron microscopy images of mouse thrombi
Showing 5 of 8 shared publications
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Trained image analysis techniques for characterizing cell phenotype in electron microscopy images of mouse thrombi
- Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation
Showing 5 of 7 shared publications
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Trained image analysis techniques for characterizing cell phenotype in electron microscopy images of mouse thrombi
- Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation
Showing 5 of 7 shared publications
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Electron Microscope Characterization of Platelet Activation State Reveals That Wound Closure and P2Y 12 Receptors Are Major Early Determinants of Thrombus Structure in a Venous Puncture Model
- Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation
- Murine Thrombus Organization Limits Access to High Platelet Activation States While Supporting Platelet Recruitment
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Electron Microscope Characterization of Platelet Activation State Reveals That Wound Closure and P2Y 12 Receptors Are Major Early Determinants of Thrombus Structure in a Venous Puncture Model
- Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation
- Murine Thrombus Organization Limits Access to High Platelet Activation States While Supporting Platelet Recruitment
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Single-Platelet Mapping of Jugular, Puncture-Wound Thrombi Reveals the Spatial Evolution of Platelet Activation
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Venous puncture wound hemostasis results in a vaulted thrombus structured by locally nucleated platelet aggregates
- Tethered platelet capture provides a mechanism for restricting circulating platelet activation to the wound site
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
- Deep learning, 3D ultrastructural analysis reveals quantitative differences in platelet and organelle packing in COVID-19/SARSCoV2 patient-derived platelets
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