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1 ble for a spectrum of pathogenesis including viral myocarditis.
2 hin cardiomyocytes and pericytes, leading to viral myocarditis.
3 lymphoid cell compartment, are protective in viral myocarditis.
4 inflammation and outcome in a mouse model of viral myocarditis.
5 To review how autoimmunity is induced in viral myocarditis.
6 is a characteristic of both human and mouse viral myocarditis.
7 t, and is a potential therapeutic target for viral myocarditis.
8 CVB3 is a primary cause of viral myocarditis.
9 ces in IFN antagonism to the pathogenesis of viral myocarditis.
10 Four patients had probable viral myocarditis.
11 M were observed in the subgroup (n=130) with viral myocarditis.
12 +) T regulatory cells, which protect against viral myocarditis.
13 he myocardial inflammatory response in acute viral myocarditis.
14 response during the initial phases of acute viral myocarditis.
15 specific T cell responses during subclinical viral myocarditis.
16 nvestigate non-immune-mediated mechanisms of viral myocarditis.
17 re inflammation and injury, also occurred in viral myocarditis.
18 scheduled to receive ICIs and patients with viral myocarditis.
19 A genome that serves as a model for studying viral myocarditis.
20 CI therapy (pre-ICI group) and patients with viral myocarditis.
21 otential therapeutic target for treatment of viral myocarditis.
22 nisms and potential treatment strategies for viral myocarditis.
23 quent in patients with ICI-M than those with viral myocarditis (27 of 33 patients [82%] vs 85 of 85 [
25 ditis, and based on comparisons to non-COVID viral myocarditis an inherently more benign clinical cou
30 8-52] years) with a history of biopsy-proven viral myocarditis and drug-refractory VT; 5 patients pre
31 n mediating cardiac injury in the setting of viral myocarditis and is the first demonstration that ca
33 ew insights into the innate host response to viral myocarditis and the various therapeutic strategies
34 thogenic processes of coxsackievirus-induced viral myocarditis and to screen antiviral therapeutics f
35 subanalysis in 130 adult patients with acute viral myocarditis and viral prodrome within 2 weeks from
36 myocarditis, 4 patients with non-SARS-CoV-2 viral myocarditis, and 5 patients with noninflammatory c
38 f sepsis, seven patients with a diagnosis of viral myocarditis, and five control patients without cli
40 ntexts of COVID-19 infection, other types of viral myocarditis, and other vaccine-associated cardiac
41 ate the long-term mortality in patients with viral myocarditis, and to establish the prognostic value
44 n only rarely develop life-threatening acute viral myocarditis (AVM), given that the causal viral inf
45 the plasma of mice with acute autoimmune or viral myocarditis but not in those with acute myocardial
46 that the PERK inhibitor GSK2656157 mitigated viral myocarditis by disrupting the TRIM29-PERK connecti
52 ong been considered the most common cause of viral myocarditis; however, we previously demonstrated b
55 been speculated that ARVD/C is a sequela of viral myocarditis in some patients, and the role of the
57 endocardial fibroelastosis is a sequela of a viral myocarditis, in particular of that due to mumps vi
58 V-1 model will enable fundamental studies of viral myocarditis, including IFN-gamma modulation as a t
66 de range of clinical symptoms, biopsy-proven viral myocarditis is associated with a long-term mortali
67 esis of chronic dilated cardiomyopathy after viral myocarditis is complex and determined by host and
70 5 years +/- 14; 14 men) and 85 patients with viral myocarditis (mean age, 32 years +/- 13; 67 men).
73 ackievirus B3 (CVB3) is a causative agent of viral myocarditis, pancreatitis, and meningitis in human
74 ), an important human causative pathogen for viral myocarditis, pancreatitis, and meningitis, has evo
76 kie virus B3 (CVB3)-the most common cause of viral myocarditis-predominantly activates CARD8 in ECs i
79 sclerosis, acute coronary syndromes, stroke, viral myocarditis, sepsis, ischemia/reperfusion injury,
80 gulated PERK signaling pathways to instigate viral myocarditis, suggesting that targeting the TRIM29-
81 immunity signal transducer IRAK4 exacerbates viral myocarditis through inhibition of interferon produ
84 The benefits of TIMP-1 blockade in treating viral myocarditis were confirmed by administering, to wi
86 unction, we treated a patient with fulminant viral myocarditis with the interleukin-1 receptor blocki
87 s modulate heart failure pathogenesis during viral myocarditis, yet their identities and functions re