Clot retraction is mediated by factor XIII-dependent fibrin-αIIbβ3-myosin axis in platelet sphingomyelin-rich membrane rafts by Kohji Kasahara, Mizuho.

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Clot retraction is mediated by factor XIII-dependent fibrin-αIIbβ3-myosin axis in platelet sphingomyelin-rich membrane rafts by Kohji Kasahara, Mizuho Kaneda, Toshiaki Miki, Kazuko Iida, Naoko Sekino-Suzuki, Ikuo Kawashima, Hidenori Suzuki, Motoyuki Shimonaka, Morio Arai, Yoshiko Ohno-Iwashita, Soichi Kojima, Mitsuhiro Abe, Toshihide Kobayashi, Toshiro Okazaki, Masayoshi Souri, Akitada Ichinose, and Naomasa Yamamoto Blood Volume 122(19):3340-3348 November 7, 2013 ©2013 by American Society of Hematology

Immunocytochemical colocalization of fibrin(ogen) with sphingomyelin-rich rafts in central region of adhered platelets in the presence of thrombin. Immunocytochemical colocalization of fibrin(ogen) with sphingomyelin-rich rafts in central region of adhered platelets in the presence of thrombin. (A) (a) mCherry-lysenin-positive sphingomyelin (SM)-rich rafts (red), (b) fPEG-Chol-positive cholesterol-rich rafts (green), (c) phase-contrast cell morphology, (d) merged images of (a-c). (B) colocalization of fibrin (red) with green fluorescent protein–lysenin-positive SM-rich rafts (green). Scale bar, 5 μm. (C) Photoactivated localization microscopy and direct stochastic optical reconstruction microscopy (PALM/dSTORM) imaging of lysenin-positive SM-rich rafts (green) and fibrin(ogen) (red). The white line represents the shape of an adhered human platelet. Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology

Reduced SM-rich rafts and delayed clot retraction in SM synthase-deficient platelets. Reduced SM-rich rafts and delayed clot retraction in SM synthase-deficient platelets. (A) Flow cytometry of SM-rich rafts of (a) wild-type, (b) SMS1-deficient, and (c) SMS2-deficient mouse platelets. (B) Time-dependent clot retraction of SMS1-deficient PRP (red diamonds) and wild-type PRP (black circles). The extent of clot retraction was assessed at the indicated times by measuring clot area. (C) Time-dependent clot retraction of SMS2-deficient PRP (blue triangles) and wild-type PRP (black circles). Data are presented as the means plus or minus SD of quadruplicates. *Statistically significant difference (P < .001). **Statistically significant difference (P < .005). Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology

Fibrin translocation to DRM raft fraction of human platelets by thrombin stimulation. Fibrin translocation to DRM raft fraction of human platelets by thrombin stimulation. (A) Sucrose density gradient analysis of proteins in washed human platelets. Resting platelets (left panel) and platelets stimulated for 3 minutes with 1 U/mL thrombin (right panel) were lysed in Triton X-100, and sucrose gradients (5% to 30%) were formed over them. Ten fractions were collected from top to bottom after centrifugation. The proteins were subjected to SDS-PAGE and stained with Coomassie brilliant blue (a). Immunoblotting of raft marker proteins with anti-CD36 antibody (b) and anti-Lyn antibody (c). A 40-kDa major protein was identified as actin by immunoblotting. (B) Two-dimensional PAGE analysis of DRM raft fraction (fraction 5) in resting platelets (a) and thrombin-stimulated platelets (b). The asterisk indicates actin. The arrowhead indicates integrin αIIb. (C) Immunoblotting with antifibrinogen antibody of panel A. (D) Time-dependent translocation of fibrin(ogen) by thrombin for 0 seconds (lane 1), 30 seconds (lane 2), 1 minute (lane 3), 5 minutes (lane 4), and 15 minutes (lane 5). Immunoblotting under nonreduced condition by antifibrinogen antibody of releasates (a), nonraft fraction (b), and DRM raft fraction (c). The asterisk indicates the fibrin polymer. (E) Immunoblotting with antifibrin specific antibody of DRM raft fraction (lanes 1 and 3), nonraft fraction (lanes 2 and 4) of resting platelets (lanes 1 and 2), and thrombin-stimulated platelets at 3 minutes (lanes 3 and 4). (F) Association of fibrin fiber with DRM of thrombin-stimulated platelets in immunoelectron microscopy. The DRM of thrombin-stimulated human platelets was incubated with an antifibrinogen antibody and then anti-IgG-labeled with colloidal gold. Scale bar, 200 nm. (G) Magnification of gold-attached area on DRM in panel F. The gold-positive fibrin fiber directly associated with the surface of DRM. Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology

Requirement of FXIII transglutaminase for fibrin translocation to DRM raft fraction of thrombin-stimulated platelets. Requirement of FXIII transglutaminase for fibrin translocation to DRM raft fraction of thrombin-stimulated platelets. (A) Inhibition of fibrin translocation to DRM raft fraction by transglutaminase inhibitor cystamine. Immunoblotting under nonreduced condition by antifibrinogen antibody of releasates (upper panel), DRM raft fraction (middle panel), and nonraft fraction (lower panel) in resting (lane 1) and thrombin-stimulated human platelets in the absence (lane 2) or presence (lane 3) of cystamine. Total amount of fibrin in releasate, raft, and nonraft fraction of thrombin-stimulated human platelets in the presence of cystamine (lane 3) is comparable to that of fibrinogen in nonraft fraction of resting platelets (lane 1). (B) Transglutaminase-dependent association of fibrinogen γ-chain fusion protein with DRM raft fraction in thrombin-stimulated platelets. Immunoblotting of DRM raft fraction (lanes 1, 2, and 3) and nonraft fraction (lanes 4, 5, and 6) in resting (lanes 1 and 4) and thrombin-stimulated platelets in the absence (lanes 2 and 5) or presence (lanes 3 and 6) of cystamine. (C) FXIII-dependent association of fibrinogen γ-chain fusion protein with DRM raft fraction in thrombin-stimulated platelets. Immunoblotting by anti-His tag antibody of DRM raft fraction (lanes 1, 2, and 3) and nonraft fraction (lanes 4, 5, and 6) using fibrinogen γ-chain fusion protein (lanes 1 and 4), fibrinogen γ-chain fusion protein mutants of FXIII-crosslinking site Q398Q399 (lanes 2 and 5), or K406 (lanes 3 and 6). (D) Impaired fibrin translocation to DRM raft fraction of thrombin-stimulated platelets in FXIIIA subunit-deficient mice. Immunoblotting under nonreduced condition by antifibrinogen antibody of DRM raft fraction (lanes 2 and 4) and nonraft fraction (lanes 1 and 3) in resting platelets (lanes 1 and 2) and thrombin-stimulated platelets (lanes 3 and 4) of wild-type mice (upper panel) and FXIIIA-deficient mice (lower panel). Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology

Implication of fibrin and myosin translocation to DRM raft fraction in clot retraction. Implication of fibrin and myosin translocation to DRM raft fraction in clot retraction. (A) Impairment of clot retraction in type I Glanzmann’s thrombasthenia. Time-dependent clot retraction of Glanzmann’s thrombasthenia PRP (circles) and normal PRP (triangles). PRP was incubated with 1 U/mL thrombin and 2 mM CaCl2. The extent of clot retraction was assessed at the indicated times by measuring clot area. Photo image of clot retraction assay after 120 minutes: N, normal PRP; G, Glanzmann’s thrombasthenia PRP (inset). (B) Inhibition of clot retraction by fibrinogen γ-chain 400-411 dodecapeptide. PRP was incubated with 1 U/mL thrombin, 2 mM CaCl2 with no peptide (circles), and 1 mM (squares), 5 mM (triangles), and 15 mM (diamonds) fibrinogen γ-chain 400-411 dodecapeptide. Data are presented as means plus or minus SD of quadruplicates. *Statistically significant difference (P < .01). **Statistically significant difference (P < .05). (C) Inhibition of clot retraction by cystamine or blebbistatin. PRP was incubated with 1 U/mL thrombin, 2 mM CaCl2 with buffer (circles), 10 mM cystamine (squares), or 100 μM blebbistatin (triangles). Data are presented as means plus or minus SD of triplicates. *Statistically significant difference (P < .001). (D) Inhibition of clot retraction by raft disruption by MBCD. Mixture of washed platelets and purified fibrinogen was incubated with 1U/ml thrombin in the presence (circle) and absence (triangle) of 2% MBCD. The photograph was taken after 30 and 60 minutes. (E) Raft disruption by MBCD inhibits transient increase in degree of tyrosine phosphorylation (a) and phosphorylation of myosin light chain at serine residue 19 (b). A mixture of washed platelets and purified fibrinogen was incubated with 1 U/mL thrombin for 0 minutes (lanes 1 and 4), 5 minutes (lanes 2 and 5), and 60 minutes (lanes 3 and 6) in the presence (lanes 4-6) and absence (lanes 1-3) of 2% MBCD. Arrows indicate the tyrosine phosphorylation of 125-kDa and 100-kDa proteins. Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology

Transient translocation of myosin to DRM raft fraction. Transient translocation of myosin to DRM raft fraction. (A) Time-dependent translocation of myosin from nonraft fraction (lanes 1-6) to DRM raft fraction (lanes 7-12) in platelets by thrombin stimulation for 0 seconds (lanes 1 and 7), 30 seconds (lanes 2 and 8), 1 minute (lanes 3 and 9), 5 minutes (lanes 4 and 10), 15 minutes (lanes 5 and 11), and 60 minutes (lanes 6 and 12). Immunoblotting was performed with a myosin heavy-chain antibody. (B) ATPase-activity-dependent translocation of myosin to DRM raft fraction. Immunoblotting with antimyosin antibody of DRM raft fraction (lane R) and nonraft fraction (lane N) in resting platelets (left panel) and thrombin-stimulated platelets in the absence (middle panel) or presence (right panel) of 100 μM myosin ATPase inhibitor blebbistatin. (C) PAR-dependent translocation of myosin to DRM raft fraction. Immunoblotting with antimyosin antibody of DRM raft fraction (lanes 1-4) and nonraft fraction (lanes 5-8) in resting platelets (lanes 1 and 5) and platelets stimulated with 0.2 U/mL thrombin (lanes 2 and 6), 25 μM TRAP (lanes 3 and 7), and 20 μM adenosine 5′-diphosphate (lanes 4 and 8) for 3 minutes. Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology

Immunocytochemical colocalization of myosin and Ser19-phosphorylated myosin light chain with fibrin on SM-rich rafts. Immunocytochemical colocalization of myosin and Ser19-phosphorylated myosin light chain with fibrin on SM-rich rafts. (A) Localization of SM-rich rafts (green) and myosin (red). Scale bar, 5 μm. (B) Localization of fibrin (green) and myosin (red). (C) Localization of Ser19-phosphorylated MLC (green) and myosin (red). (D) Integrin β3 (green) and fibrin (red). Kohji Kasahara et al. Blood 2013;122:3340-3348 ©2013 by American Society of Hematology