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Rupture Forces among Human Blood Platelets at different Degrees of Activation.Magnetic nanoparticles as mediators of ligand-free activation of EGFR signalingMicropatterned array to assess the interaction of single platelets with platelet factor 4-heparin-IgG complexes.Design of hybrid multimodal poly(lactic-co-glycolic acid) polymer nanoparticles for neutrophil labeling, imaging and tracking.Nanoplasmonically-induced defects in lipid membrane monitored by ion current: transient nanopores versus membrane rupture.Multifunctional gold nanorods for selective plasmonic photothermal therapy in pancreatic cancer cells using ultra-short pulse near-infrared laser irradiation.Tumour-specific delivery of siRNA-coupled superparamagnetic iron oxide nanoparticles, targeted against PLK1, stops progression of pancreatic cancer.Multifunctionalized polymer microcapsules: novel tools for biological and pharmacological applications.Guidelines for the use of flow cytometry and cell sorting in immunological studies.Controlled intracellular release of peptides from microcapsules enhances antigen presentation on MHC class I molecules.Fabrication of quantum dot microarrays using electron beam lithography for applications in analyte sensing and cellular dynamics.Magnetic Nanoparticle Labeling of Human Platelets from Platelet Concentrates for Recovery and Survival Studies.The apelin receptor influences biomechanical and morphological properties of endothelial cells.Microfluidic Single-Cell Analysis with Affinity Beads.Human neutrophil antigen-3a antibodies induce neutrophil stiffening and conformational activation of CD11b without shedding of L-selectin.Specific Capture of Peptide-Receptive Major Histocompatibility Complex Class I Molecules by Antibody Micropatterns Allows for a Novel Peptide-Binding Assay in Live Cells.Secreted Immunomodulatory Proteins of Staphylococcus aureus Activate Platelets and Induce Platelet Aggregation.Retrieval of a Metabolite from Cells with Polyelectrolyte MicrocapsulesInteraction between the Staphylococcus aureus extracellular adherence protein Eap and its subdomains with platelets3D Micropillars Guide the Mechanobiology of Human Induced Pluripotent Stem Cell-Derived CardiomyocytesMicrofluidic Single-Cell Analysis with Affinity BeadsMechanobiology: Correlation Between Mechanical Stability of Microcapsules Studied by AFM and Impact of Cell-Induced StressesQuantifying single-platelet biomechanics: An outsider's guide to biophysical methods and recent advancesActivated platelets kill Staphylococcus aureus, but not Streptococcus pneumoniae - The role of FcγRIIa and platelet factor 4/heparin-antibodiesGuidelines for the use of flow cytometry and cell sorting in immunological studies (second edition)Novel phenotypes observed in patients with ETV6-linked leukaemia/familial thrombocytopenia syndrome and a biallelic ARID5B risk allele as leukaemogenic cofactorRole of Platelet Size Revisited-Function and Protein Composition of Large and Small PlateletsChallenging the concept of immunothrombosisLabel-free on chip quality assessment of cellular blood products using real-time deformability cytometryFunction of Large and Small Platelets Differs, Depending on Extracellular Calcium Availability and Type of Inductor
P50
Q27317335-9D56BA07-7D84-47FE-AC69-7486B4EE5023Q28534809-6C4BCF31-494B-4CC1-9D75-0D12A3138505Q33412831-CA537F31-CFBD-4EB9-BEE8-E806F69ED143Q35029834-D53B0F73-A712-4131-B913-FA531EBE6E1DQ35194248-EFA7E3F3-D70E-49DF-9D67-A1780E3A1CF8Q35568452-0B98AE75-B30A-4662-A679-9F686571AE31Q37398885-771EE5D0-F7A1-4C21-BD0B-82E933BCA223Q40135289-6D7DB61A-8C7F-4994-AC67-E3BC39BD96ABQ41918189-EEEC9260-A3D8-4304-A0EC-BBA046321387Q42629304-382B8C6C-CAC7-4F36-8A5D-31808C11302FQ45895089-CFAE2736-EE14-47F2-86D9-0D092BE0AABAQ48295766-DB551DFF-AFEE-40F7-859D-0701BED828C3Q49711956-2D4819D7-FA8C-48BC-B0DF-E8AC9EEF890BQ50282375-46E8E753-D1A1-4D79-95AD-8585E3D720EAQ50437267-8F798E66-6D57-4001-8E28-C53BFB4FA9FDQ51157015-A9CBD9F9-CA58-4EE1-8EC0-5E233A7D6F9CQ52648502-BF152975-4FF8-4193-93E2-59F7E62FA205Q57816859-C40EFC57-10B5-46C9-9370-22203ADDC35CQ58036504-214C46DB-A700-4244-A254-251CA8004B94Q58036527-EC1E2CB2-E5BC-4064-98BE-75AD8CF7225DQ58036543-10CF4526-C287-4085-A9E1-F7FF1395B5C3Q58036579-04A33BC4-7208-4AD4-B650-3BF02F2D6B83Q90644496-40D9A932-AE7F-401E-BF2D-CDB0E14C258CQ90825382-D057E9FC-97DC-4545-9E95-38BD12928212Q90841989-F7E3599A-1897-4F69-B020-156D69517BE4Q91197398-5B2C740C-92AF-4230-8BE9-CCB99721AE38Q91381198-8138D140-86A3-4951-8144-A04214AF0BA6Q91408719-1A9A3633-274F-4CA1-B2B0-38C0E9AD2216Q95848649-A9CF9D89-540B-4F8B-AEB3-FE01DD377D1BQ96294120-05C6333A-7979-40FC-B1CB-0C34A4745F23
P50
description
Forscher
@de
chercheur
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investigador
@es
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
研究者
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name
Raghavendra Palankar
@ast
Raghavendra Palankar
@en
Raghavendra Palankar
@es
Raghavendra Palankar
@nl
type
label
Raghavendra Palankar
@ast
Raghavendra Palankar
@en
Raghavendra Palankar
@es
Raghavendra Palankar
@nl
prefLabel
Raghavendra Palankar
@ast
Raghavendra Palankar
@en
Raghavendra Palankar
@es
Raghavendra Palankar
@nl
P108
P106
P108
P31
P496
0000-0002-8957-1103