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  1. Supplementary Figure 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  2. Supplementary Figure 10 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  3. Supplementary Figure 11 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  4. Supplementary Figure 12 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  5. Supplementary Figure 13 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  6. Supplementary Figure 14 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  7. Supplementary Figure 15 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  8. Supplementary Figure 16 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  9. Supplementary Figure 17 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  10. Supplementary Figure 18 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  11. Supplementary Figure 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  12. Supplementary Figure 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  13. Supplementary Figure 4 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  14. Supplementary Figure 5 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  15. Supplementary Figure 6 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  16. Supplementary Figure 7 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  17. Supplementary Figure 8 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  18. Supplementary Figure 9 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  19. Supplementary Table 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  20. Supplementary Table 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  21. Supplementary Table 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  22. Varied Presentations of Arterial Events in Vascular Ehlers-Danlos Syndrome
  23. Insights from autopsy-initiated pathological studies of the pathogenesis and clinical manifestations of atherosclerosis and ischemic heart disease: Part I. Atherosclerosis
  24. Insights from autopsy-initiated pathological studies of the pathogenesis and clinical manifestations of atherosclerosis and ischemic heart disease: Part II. Ischemic heart disease
  25. Pathobiology of Aortic Aneurysms and Dissections
  26. Histology-Grounded Automated Plaque Subtype Segmentation in Intravascular Optical Coherence Tomography
  27. Data from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  28. Supplementary Figure 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  29. Supplementary Figure 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  30. Supplementary Figure 10 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  31. Supplementary Figure 10 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  32. Supplementary Figure 11 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  33. Supplementary Figure 11 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  34. Supplementary Figure 12 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  35. Supplementary Figure 12 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  36. Supplementary Figure 13 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  37. Supplementary Figure 13 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  38. Supplementary Figure 14 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  39. Supplementary Figure 14 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  40. Supplementary Figure 15 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  41. Supplementary Figure 15 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  42. Supplementary Figure 16 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  43. Supplementary Figure 16 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  44. Supplementary Figure 17 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  45. Supplementary Figure 17 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  46. Supplementary Figure 18 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  47. Supplementary Figure 18 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  48. Supplementary Figure 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  49. Supplementary Figure 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  50. Supplementary Figure 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  51. Supplementary Figure 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  52. Supplementary Figure 4 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  53. Supplementary Figure 4 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  54. Supplementary Figure 5 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  55. Supplementary Figure 5 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  56. Supplementary Figure 6 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  57. Supplementary Figure 6 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  58. Supplementary Figure 7 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  59. Supplementary Figure 7 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  60. Supplementary Figure 8 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  61. Supplementary Figure 8 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  62. Supplementary Figure 9 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  63. Supplementary Figure 9 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  64. Supplementary Table 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  65. Supplementary Table 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  66. Supplementary Table 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  67. Supplementary Table 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  68. Supplementary Table 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  69. Supplementary Table 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  70. Data from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  71. Supplementary Figure 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  72. Supplementary Figure 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  73. Supplementary Figure 10 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  74. Supplementary Figure 10 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  75. Supplementary Figure 11 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  76. Supplementary Figure 11 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  77. Supplementary Figure 12 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  78. Supplementary Figure 12 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  79. Supplementary Figure 13 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  80. Supplementary Figure 13 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  81. Supplementary Figure 14 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  82. Supplementary Figure 14 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  83. Supplementary Figure 15 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  84. Supplementary Figure 15 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  85. Supplementary Figure 16 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  86. Supplementary Figure 16 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  87. Supplementary Figure 17 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  88. Supplementary Figure 17 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  89. Supplementary Figure 18 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  90. Supplementary Figure 18 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  91. Supplementary Figure 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  92. Supplementary Figure 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  93. Supplementary Figure 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  94. Supplementary Figure 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  95. Supplementary Figure 4 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  96. Supplementary Figure 4 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  97. Supplementary Figure 5 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  98. Supplementary Figure 5 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  99. Supplementary Figure 6 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  100. Supplementary Figure 6 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  101. Supplementary Figure 7 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  102. Supplementary Figure 7 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  103. Supplementary Figure 8 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  104. Supplementary Figure 8 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  105. Supplementary Figure 9 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  106. Supplementary Figure 9 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  107. Supplementary Table 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  108. Supplementary Table 1 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  109. Supplementary Table 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  110. Supplementary Table 2 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  111. Supplementary Table 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  112. Supplementary Table 3 from Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  113. Molecular Pathways and Cellular Subsets Associated with Adverse Clinical Outcomes in Overlapping Immune-Related Myocarditis and Myositis
  114. Pericentrin deficiency in smooth muscle cells augments atherosclerosis through HSF1-driven cholesterol biosynthesis and PERK activation
  115. In memoriam William Clifford Roberts, MD (September 11, 1932 June 15, 2023)
  116. Environmental oxygen affects ex vivo growth and proliferation of mesenchymal progenitors by modulating mitogen-activated protein kinase and mammalian target of rapamycin signaling
  117. The history, science, and art of wine and the case for health benefits: perspectives of an oenophilic cardiovascular pathologist
  118. Hypertrophic cardiomyopathy with a complex clinical course leading to heart transplantation
  119. A novel coronavirus meets the cardiovascular system: Society for Cardiovascular Pathology Symposium 2021
  120. Commentary on the spectrum of cardiopulmonary pathology in COVID-19
  121. Electron microscopic identification of SARS-CoV-2
  122. An unexpected paradox: wall shear stress in the aorta is less in patients with severe atherosclerosis regardless of obesity
  123. EMERGING SPECTRUM OF CARDIOPULMONARY PATHOLOGY OF THE CORONAVIRUS DISEASE 2019 (COVID-19): REPORT OF THREE AUTOPSIES FROM HOUSTON, TEXAS AND REVIEW OF AUTOPSY FINDINGS FROM OTHER UNITED STATES CITIES
  124. Prevention of Heart Failure with Preserved Ejection Fraction (HFpEF): Reexamining MicroRNA-21 Inhibition in the Era of Oligonucleotide-Based Therapeutics
  125. Medical education today: all that glitters is not gold
  126. A case of Brucella aortitis associated with development of thoracic aortic aneurysm and aortobronchial fistula
  127. Cardiac repair and the putative role of stem cells
  128. Continuing Importance of the Autopsy in Medicine
  129. Pathobiology of Ischemic Heart Disease: Past, Present and Future
  130. Consensus statement on surgical pathology of the aorta from the Society for Cardiovascular Pathology and the Association for European Cardiovascular Pathology: I. Inflammatory diseases
  131. Method for sectioning and sampling hearts for histologic evaluation after delivery of biological agents by transendocardial injection
  132. Procainamide-induced pulmonary fibrosis after orthotopic heart transplantation: a case report and literature review
  133. In Reply
  134. Anthracycline Treatment and Ventricular Remodeling in Left Ventricular Assist Device Patients
  135. Macrophages and Intravascular OCT Bright Spots
  136. Sudden death in a 15-year-old with diffuse cardiac rhabdomyomatosis: an autopsy case report
  137. Heart Failure in Remission for More than 13 Years after Removal of a Left Ventricular Assist Device
  138. Sudden Cardiac Death Due to Coronary Artery Involvement by IgG4-Related Disease: A Rare, Serious Complication of a Rare Disease
  139. Nikolai N. Anitschkow and the lipid hypothesis of atherosclerosis
  140. Variability in fibrosis in tissue samples obtained during diaphragmatic and apical LVAD implantation
  141. HHV-6 and HHV-7 in Cardiovascular Diseases and Cardiomyopathies
  142. Granulomatous myocarditis in severe heart failure patients undergoing implantation of a left ventricular assist device
  143. Acute aortic dissections with pregnancy in women withACTA2mutations
  144. Morphologic changes in the aortic wall media after support with a continuous-flow left ventricular assist device
  145. Aortic intimal sarcoma: report of two cases with immunohistochemical analysis for pathogenesis
  146. Fatal Cardiac and Renal Allograft Rejection With Lenalidomide Therapy for Light-Chain Amyloidosis
  147. Xenotransplantation of human unrestricted somatic stem cells in a pig model of acute myocardial infarction
  148. A model for cardiomyocyte cell death: Insights into mechanisms of oncosis
  149. A university system's approach to enhancing the educational mission of health science schools and institutions: the University of Texas Academy of Health Science Education
  150. Oncosis: An important non-apoptotic mode of cell death
  151. Fibrosis and heart failure
  152. A pilot study of a triple antimicrobial-bonded Dacron graft for the prevention of aortic graft infection
  153. Flat-panel versus 64-channel computed tomography for in vivo quantitative characterization of aortic atherosclerotic plaques
  154. Sudden unexpected death on fingolimod
  155. Looking forward for Cardiovascular Pathology
  156. Body Temperature Circadian Rhythm Variability Corresponds to Left Ventricular Systolic Dysfunction in Decompensated Cardiomyopathic Hamsters
  157. Current status of the role of stem cells in myocardial biology and repair
  158. Endomyocardial nodular calcification as a cause of heart failure
  159. Primary Breast Lymphoma With Sudden Death
  160. Histopathologic correlates of myocardial improvement in patients supported by a left ventricular assist device
  161. Vascular Responses to Percutaneous Coronary Intervention With Bare-Metal Stents and Drug-Eluting Stents
  162. Immunologic and Inflammatory Reactions to Exogenous Stem Cells
  163. De novo ACTA2 mutation causes a novel syndrome of multisystemic smooth muscle dysfunction
  164. Quo Vadis? The Society for Cardiovascular Pathology over the next 25 years and beyond
  165. AECVP and SCVP 2009 Recommendations for Training in Cardiovascular Pathology
  166. Cardiomyocyte PDGFR-β signaling is an essential component of the mouse cardiac response to load-induced stress
  167. Sickle Cell Trait and Fatal Rhabdomyolysis in Football Training
  168. Unresolved issues in myocardial reperfusion injury
  169. Floating, Non-Occlusive, Mobile Aortic Thrombus and Splenic Infarction Associated With Protein C Deficiency
  170. Basil RuDusky: Forensic cardiovascular medicine
  171. Evaluation of Recombinant α-Galactosidase A Therapy for Amelioration of the Cardiovascular Manifestations of Fabry Disease
  172. Mutations in Smooth Muscle Alpha-Actin (ACTA2) Cause Coronary Artery Disease, Stroke, and Moyamoya Disease, Along with Thoracic Aortic Disease
  173. The Impact of Declining Clinical Autopsy: Need for Revised Healthcare Policy
  174. Histopathological Study of Healing After Allogenic Mesenchymal Stem Cell Delivery in Myocardial Infarction in Dogs
  175. Cardiomyocyte death and renewal in the normal and diseased heart
  176. Characterization of the inflammatory cells in ascending thoracic aortic aneurysms in patients with Marfan syndrome, familial thoracic aortic aneurysms, and sporadic aneurysms
  177. Biatrial Myxoma: A Case Report and Review of the Literature
  178. Location and Density of α- and β-Adrenoreceptor Sub-types in Myocardium After Mechanical Left Ventricular Unloading
  179. Cardiovascular distribution of the calcium sensing receptor before and after burns
  180. Comparison of intracoronary and transendocardial delivery of allogeneic mesenchymal cells in a canine model of acute myocardial infarction
  181. Erratum: Corrigendum: Mutations in smooth muscle α-actin (ACTA2) lead to thoracic aortic aneurysms and dissections
  182. Stimulation of mitochondrial biogenesis and autophagy by lipopolysaccharide in the neonatal rat cardiomyocyte protects against programmed cell death
  183. Quest for the cardiovascular holy grail: mammalian myocardial regeneration
  184. Mutations in smooth muscle α-actin (ACTA2) lead to thoracic aortic aneurysms and dissections
  185. MYH11 mutations result in a distinct vascular pathology driven by insulin-like growth factor 1 and angiotensin II
  186. Aurintricarboxylic Acid Inhibits Protein Synthesis Independent, Sanguinarine-Induced Apoptosis and Oncosis
  187. Localization of antimicrobial peptides in normal and burned skin
  188. THE RESPONSE OF NEONATAL RAT VENTRICULAR MYOCYTES TO LIPOPOLYSACCHARIDE-INDUCED STRESS
  189. Transverse Aortic Arch Replacement Associated with MAGIC Syndrome: Case Report and Literature Review
  190. Characterization of the inflammatory and apoptotic cells in the aortas of patients with ascending thoracic aortic aneurysms and dissections
  191. Stem cells and cardiovascular tissue repair: Mechanism, methods, and clinical applications
  192. HHV-6 in Cardiovascular Pathology
  193. Toward a cardiovascular pathology training
  194. Primary Lymphoma of the Aorta Presenting as a Descending Thoracic Aortic Aneurysm
  195. Left Ventricular Unloading with an Assist Device Results in Receptor Relocalization as well as Increased Beta-Adrenergic Receptor Numbers: Are These Changes Indications for Outcome?
  196. Myocardial ischemia and reperfusion injury
  197. Alterations in Alpha Adrenoreceptor Density and Localization After Mechanical Left Ventricular Unloading With the Jarvik Flowmaker Left Ventricular Assist Device
  198. Fluorescence imaging microscopy of cellular markers in ischemic vs non-ischemic cardiomyopathy after left ventricular unloading
  199. Mechanical left ventricular unloading prior to reperfusion reduces infarct size in a canine infarction model
  200. Expression of human β defensin 2 in thermal injury
  201. Effects of cytokines and heat shock on defensin levels of cultured keratinocytes
  202. Mathematical model to simulate the cellular dynamics of infection with human herpesvirus-6 in EBV-negative infectious mononucleosis
  203. Is inflammation the critical factor linking vulnerable coronary plaques to clinicalcoronary disease?
  204. Localization of the transmembrane proteoglycan syndecan-4 and its regulatory kinases in costameres of rat cardiomyocytes: A deconvolution microscopic study
  205. Eosinophilic Pericarditis and Myocarditis
  206. Sodium/hydrogen-exchanger inhibition during cardioplegic arrest and cardiopulmonary bypass: An experimental study
  207. Chronic Aortic Dissection not a Risk Factor for Neurologic Deficit in Thoracoabdominal Aortic Aneurysm Repair
  208. Calcium signaling mechanisms in dedifferentiated cardiac myocytes: comparison with neonatal andadult cardiomyocytes
  209. Esmolol and cardiopulmonary bypass during reperfusion reduce myocardial infarct size in dogs
  210. Development of atherosclerotic plaque with endothelial disruption in Watanabe heritable hyperlipidemic rabbit aortas
  211. Amyloidosis as a cause of ischemic heart disease of small vessel origin
  212. Palmitate-mediated Alterations in the Fatty Acid Metabolism of Rat Neonatal Cardiac Myocytes
  213. Cytokines Increase Neonatal Cardiac Myocyte Calcium Concentrations: The Involvement of Nitric Oxide and Cyclic Nucleotides
  214. Membrane Asymmetry in Isolated Canine Cardiac Sarcoplasmic Reticulum: Comparison with Skeletal Muscle Sarcoplasmic Reticulum
  215. Activation of the CytochromecGene by Electrical Stimulation in Neonatal Rat Cardiac Myocytes
  216. Genomic DNA Sequence, Promoter Expression, and Chromosomal Mapping of Rat Muscle Carnitine Palmitoyltransferase I
  217. Electrical stimulation of neonatal cardiomyocytes results in the sequential activation of nuclear genes governing mitochondrial proliferation and differentiation
  218. Relationship of lipid alterations and impaired calcium homeostasis during myocardial ischemia
  219. Detection and localization of tumor necrosis factor-α in WHHL rabbit arteries
  220. Improved Left Ventricular Function After Chronic Left Ventricular Unloading
  221. Change in Expression of Heart Carnitine Palmitoyltransferase I Isoforms with Electrical Stimulation of Cultured Rat Neonatal Cardiac Myocytes
  222. Acetyl Coenzyme A Carboxylase Activity in Neonatal Rat Cardiac Myocytes in Culture: Citrate Dependence and Effects of Hypoxia
  223. Detection of iron-deficiency anemia in hospitalized patients by zinc protoporphyrin
  224. Hypoxia-induced Alterations in Cytoskeleton Coincide with Collagenase Expression in Cultured Neonatal Rat Cardiomyocytes,
  225. Non-invasive management of coronary artery disease
  226. Apoptose und Zellproliferation bei HHV-6-Infektionen Regulationsmechanismen �ber p 53/bcl-2/ras-Interaktionen
  227. Kinetic Properties of Carnitine Palmitoyltransferase I in Cultured Neonatal Rat Cardiac Myocytes
  228. Cytoskeletal alterations in cultured cardiomyocytes following exposure to the lipid peroxidation product, 4-hydroxynonenal
  229. The role of ventricular wall stress in cardiac hypertrophy
  230. Thrombus and unstable angina
  231. Segmental systolic responses to brief ischemia and reperfusion in the hypertrophied canine left ventricle
  232. Role of thromboxane and serotonin as mediators in the development of spontaneous alterations in coronary blood flow and neointimal proliferation in canine models with chronic coronary artery stenoses and endothelial injury
  233. Effect of aspirin on local prostaglandin production and serotonin accumulation in a canine model with coronary cyclic flow variations or thrombosis
  234. Method of removal of aortic endothelium affects arachidonic acid metabolism and vascular reactivity
  235. Regional cardiac adrenergic function using I-123 meta-iodobenzylguanidine tomographic imaging after acute myocardial infarction
  236. Lipid abnormalities in myocardial cell injury
  237. Role of new antiplatelet agents as adjunctive therapies in thrombolysis
  238. Potential usefulness of combined thromboxane A2 and serotonin receptor blockade for preventing the conversion from chronic to acute coronary artery disease syndromes
  239. Combined thromboxane A2synthetase inhibition and receptor blockade are effective in preventing spontaneous and epinephrine-induced canine coronary cyclic flow variations
  240. Free radicals alter ionic calcium levels and membrane phospholipids in cultured rat ventricular myocytes
  241. Protection of the myocardium during myocardial infarction: Pharmacologic protection during thrombolytic therapy
  242. Differential enhancement of postischemic segmental systolic thickening by diltiazem
  243. Failure of nitroglycerin and diltiazem to reduce platelet-mediated vasoconstriction in dogs with coronary artery stenosis and endothelial injury: Further evidence for thromboxane A2 and serotonin as mediators of coronary artery vasoconstriction in vivo
  244. Assessment of myocardial systolic wall thickening using nuclear magnetic resonance imaging
  245. Diagnostic and prognostic utility of right-sided catheterization and endomyocardial biopsy in idiopathic dilated cardiomyopathy
  246. Serotonin S2and thromboxane A2-prostaglandin H2receptor blockade provide protection against epinephrine-induced cyclic flow variations in severely narrowed canine coronary arteries
  247. Altered calcium homeostasis in the pathogenesis of myocardial ischemic and hypoxic injury
  248. Gadolinium-DTPA-enhanced nuclear magnetic resonance imaging of reperfused myocardium: Identification of the myocardial bed at risk
  249. Iodine-123 phenylpentadecanoic acid and single photon emission computed tomography in identifying left ventricular regional metabolic abnormalities in patients with coronary heart disease: Comparison with thallium-201 myocardial tomography
  250. The role of coronary artery lesions in ischemic heart disease: Insights from recent clinicopathologic, coronary arteriographic, and experimental studies
  251. Ancrod decreases the frequency of cyclic flow variations and causes thrombolysis following acute coronary thrombosis
  252. Detection and localization of recent myocardial infarction by magnetic resonance imaging
  253. Improved in vivo magnetic resonance imaging of acute myocardial infarction after intravenous paramagnetic contrast agent administration
  254. Propranolol in acute myocardial infarction: The MILIS experience
  255. Low density lipoprotein-receptor activity is lost in vivo in malignantly transformed renal tissue
  256. Late thrombotic obstruction of aortic porcine bioprostheses
  257. Frequency-dependent myosin light chain phosphorylation in isolated myocardium
  258. Early positive technetium-99m stannous pyrophosphate images as a marker of reperfusion after thrombolytic therapy for acute myocardial infarction
  259. Conversion from chronic to acute coronary artery disease: Speculation regarding mechanisms
  260. Measurement of myocardial infarct size by technetium pyrophosphate single-photon tomography
  261. Measurement of infarct size in acute canine myocardial infarction by single-photon emission computed tomography with technetium-99m pyrophosphate
  262. Effects of inotropic and chronotropic stimuli on acute myocardial ischemic injury
  263. Short- and long-term influence of beta-adrenergic antagonists after acute myocardial infarction
  264. Iodine-123 phenylpentadecanoic acid: Detection of acute myocardial infarction and injury in dogs using an iodinated fatty acid and single-photon emission tomography
  265. Fatty acylcarnitine accumulation and membrane injury in ischemic canine myocardium
  266. Editorial note Ventricular morphology as a prognostic indicator of outcome following cardiac surgery
  267. Hydrogen peroxide contrast echocardiography
  268. Evaluation of hemostatic agents in experimental splenic lacerations
  269. Myocardial rupture after myocardial infarction
  270. "Doughnut" Technetium Pyrophosphate Myocardial Scintigrams
  271. Increased incidence and clinical correlation of persistently abnormal technetium pyrophosphate myocardial scintigrams following acute myocardial infarction in patients with diabetes mellitus
  272. Clinicopathologic correlates of acute ischemic heart disease syndromes
  273. Effect of chronic vitamin D deficiency on chick heart mitochondrial oxidative phosphorylation
  274. Quantitation of experimental canine myocardial infarct size with technetium stannous pyrophosphate: A comparison of multipinhole and rotating slant hole emission tomography
  275. Cause and course of acute myocardial infarction
  276. Localization of anti-mitochondrial antibody in experimental canine myocardial infarcts.
  277. Severe pulmonary hypertension associated with macronodular (postnecrotic) cirrhosis and autoimmune phenomena
  278. Radionuclide evaluation of cardiac trauma
  279. Radioimmunoassay of serum creatine kinase B isoenzyme in the diagnosis of acute myocardial infarction
  280. Effect of glucose availability on functional membrane integrity, ultrastructure and contractile performance following hypoxia and reoxygenation in isolated feline cardiac muscle
  281. Pathophysiologic considerations and clinicopathological correlates of technetium-99m stannous pyrophosphate myocardial scintigraphy
  282. Dissecting aortic aneurysm involving a right-sided aortic arch
  283. Unstable angina pectoris: A randomized study of patients treated medically and surgically
  284. Is there a need for additional means of recognizing myocardial necrosis?
  285. A relation between inhibition of protein synthesis and conformation of 5′-phosphorylated 7-methylguanosine derivatives
  286. Myocardial infarct imaging with technetium-99m phosphates
  287. Cardiac pathologic findings in patients treated with bone marrow transplantation
  288. Intranuclear glycogen deposits in human cardiac muscle cells: Ultrastructure and cytochemistry
  289. Congestive heart failure and angina pectoris
  290. UNUSUAL NUCLEAR ALTERATIONS
  291. Cardiac ultrastructural changes induced by daunorubicin therapy
  292. Histaminase activity: A biochemical marker for medullary carcinoma of the thyroid
  293. Occurrence of intramitochondrial glycogen in canine myocardium after prolonged anoxic cardiac arrest
  294. The frequency and significance of coronary arterial thrombi and other observations in fatal acute myocardial infarction
  295. Stenosis of the right pulmonary artery: A complication of acute dissecting aneurysm of the ascending aorta
  296. Iron in the heart
  297. Pulmonary alveolar hemorrhage
  298. Amyloid coronary artery disease, primary systemic amyloidosis and paraproteinemia
  299. Clinically significant cardiac amyloidosis
  300. Pulmonary parenchymal ossific nodules in idiopathic hypertrophic subaortic stenosis