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1 l, hypertension, dilated cardiomyopathy, and cardiac amyloidosis).
2 dial biopsy because of clinical suspicion of cardiac amyloidosis.
3 out the prognostic value of CV-IB in primary cardiac amyloidosis.
4 There is no muscle blood vessel or cardiac amyloidosis.
5 as both sporadic inclusion body myositis and cardiac amyloidosis.
6 be a useful predictor of clinical outcome in cardiac amyloidosis.
7 edictor of clinical outcome in patients with cardiac amyloidosis.
8 myocardial performance in the assessment of cardiac amyloidosis.
9 t chain amyloidosis and other rarer forms of cardiac amyloidosis.
10 n or when there is a suspicion of associated cardiac amyloidosis.
11 ss, such as hypertrophy, cardiomyopathy, and cardiac amyloidosis.
12 ing role in the evaluation and management of cardiac amyloidosis.
13 cintigraphy scan assessing for transthyretin cardiac amyloidosis.
14 ns with apolipoprotein E, and the analogy of cardiac amyloidosis.
15 on, fibrosis, thrombosis, calcification, and cardiac amyloidosis.
16 re, difficult to diagnose hereditary form of cardiac amyloidosis.
17 agnosed with hypertrophic cardiomyopathy and cardiac amyloidosis.
18 vel approaches for the diagnostic imaging of cardiac amyloidosis.
19 reening strategies for variant transthyretin cardiac amyloidosis.
20 g (ML) algorithm to identify and distinguish cardiac amyloidosis.
21 ng has been implicated in the development of cardiac amyloidosis.
22 dalities in both ischaemic heart disease and cardiac amyloidosis.
23 alence and incidence of hospitalizations for cardiac amyloidosis.
24 andard for diagnosis and characterization of cardiac amyloidosis.
25 ore than 0.96 for diagnosis of transthyretin cardiac amyloidosis.
26 ility of (18)F-florbetaben PET in diagnosing cardiac amyloidosis.
27 ent determinant of myocardial dysfunction in cardiac amyloidosis.
28 ients with symptomatic heart failure from AL cardiac amyloidosis.
29 with worse survival among patients with ATTR cardiac amyloidosis.
30 9m PYP cardiac imaging for detection of ATTR cardiac amyloidosis.
31 atients (26.7%) with COVID-19 had underlying cardiac amyloidosis.
32 ty in patients with amyloid light-chain (AL) cardiac amyloidosis.
33 ility to overcome poor prognosis of advanced cardiac amyloidosis.
34 ned reliably by PSIR and represents advanced cardiac amyloidosis.
35 t-chain amyloidosis are the 2 main causes of cardiac amyloidosis.
36 protinin was found to be useful in detecting cardiac amyloidosis.
37 e curve 0.992, P<0.0001 for identifying ATTR cardiac amyloidosis.
38 endent validation set comprising 41 cases of cardiac amyloidosis.
39 cy of intracardiac thrombosis was present in cardiac amyloidosis.
40 cement CMR was performed in 30 patients with cardiac amyloidosis.
41 n models that predict the log-odds of having cardiac amyloidosis.
44 6 patients (85% hypertensive; 61% males; 14% cardiac amyloidosis), 27 (31%) patients died during the
45 TTR cardiac amyloidosis and 50 with non-ATTR cardiac amyloidosis [34 with AL amyloidosis and 16 with
46 A total of 116 autopsy or explanted cases of cardiac amyloidosis (55 AL and 61 other type) were ident
47 s with HFpEF (+4.4% [0.5, 6.4]; P=0.002) and cardiac amyloidosis (+6.4% [3.3, 10.0]; P=0.004), which
49 s an invasive and non-invasive definition of cardiac amyloidosis, addresses clinical scenarios and si
50 atients require histological confirmation of cardiac amyloidosis along with when and how to type amyl
54 to determine the incidence and prevalence of cardiac amyloidosis among Medicare beneficiaries from 20
57 P imaging of 171 participants (121 with ATTR cardiac amyloidosis and 50 with non-ATTR cardiac amyloid
58 ambda II germ-line genes was associated with cardiac amyloidosis and affected survival adversely.
59 in which 229 participants were evaluated for cardiac amyloidosis and also underwent Tc 99m PYP cardia
60 f specific therapies requires recognition of cardiac amyloidosis and appropriate characterization of
62 e endomyocardial biopsy for the diagnosis of cardiac amyloidosis and conclude with a section on quant
64 78 whites over 60 years of age with isolated cardiac amyloidosis and from two control groups (228 cas
66 eatment of specific cardiomyopathies such as cardiac amyloidosis and hypertrophic cardiomyopathy, whe
67 ardiac imaging as a diagnostic tool for ATTR cardiac amyloidosis and its association with survival in
68 P cardiac imaging distinguishes AL from ATTR cardiac amyloidosis and may be a simple, widely availabl
69 data for patients with transthyretin (ATTR) cardiac amyloidosis and NYHA class I-III symptoms at bas
70 espective of genotype) from patients with AL cardiac amyloidosis and patients with nonamyloid heart f
71 ter (CSMC) Advanced Heart Disease Clinic for cardiac amyloidosis and the Stanford Center for Inherite
76 FpEF, including hypertrophic cardiomyopathy, cardiac amyloidosis, and storage diseases, discussing th
77 ent VT/VF in more than half of patients with cardiac amyloidosis, and the reduction in VT/VF burden p
78 approaches to the diagnosis and treatment of cardiac amyloidosis are discussed, with particular refer
79 usions The incidence and prevalence rates of cardiac amyloidosis are higher than previously thought.
80 , 1.4 mm; 95% CI, 1.2-1.5 mm) and classified cardiac amyloidosis (area under the curve [AUC], 0.83) a
81 d 216 patients with histologically confirmed cardiac amyloidosis at a single center with electrocardi
82 mean age, 68+/-10 years; male sex, 91%) with cardiac amyloidosis (ATTR [transthyretin], n=16; light c
85 evere aortic stenosis (AS) and transthyretin cardiac amyloidosis (ATTR) is increasingly recognized.
87 c stenosis (AS) and transthyretin-associated cardiac amyloidosis (ATTR-CA) is an increasingly recogni
94 been suggested to discriminate transthyretin cardiac amyloidosis (ATTR-CM) from other causes of incre
97 development of both wild-type transthyretin cardiac amyloidosis (ATTRwt) and hereditary transthyreti
98 hese conditions, but wild-type transthyretin cardiac amyloidosis (ATTRwt) is increasingly being diagn
100 deep learning algorithm accurately detected cardiac amyloidosis (AUC, 0.79) and hypertrophic cardiom
101 hances our understanding of how cerebral and cardiac amyloidosis, autonomic dysfunction, and endocrin
102 is a reference standard for the diagnosis of cardiac amyloidosis, but its potential for stratifying r
103 ) cardiac imaging noninvasively detects ATTR cardiac amyloidosis, but the accuracy of this technique
106 myloid deposition in the heart, diagnosis of cardiac amyloidosis (CA) based on these conventional tec
109 meters has been suggested for distinguishing cardiac amyloidosis (CA) from other causes of myocardial
111 unoglobulin amyloid light-chain (AL)-related cardiac amyloidosis (CA) has a worse prognosis than eith
113 ence of calcific aortic stenosis (AS) and of cardiac amyloidosis (CA) increases with age, and their a
118 ents with suspected or histologically proven cardiac amyloidosis (CA) referred to specialist centres
119 ic societies have issued documents regarding cardiac amyloidosis (CA) to highlight the emerging clini
120 etween 2015 and 2023 and were diagnosed with cardiac amyloidosis (CA), myocarditis, dilated cardiomyo
126 s versus those with myocardial diseases (ie, cardiac amyloidosis [CA] and hypertrophic cardiomyopathy
129 atic approach to the evaluation of suspected cardiac amyloidosis can impact the prognosis of patients
131 Clinical clues to promote recognition of cardiac amyloidosis, cardiac sarcoidosis, and cardiac he
132 which tailored interventions are available: cardiac amyloidosis, cardiac sarcoidosis, and cardiac he
133 tic resonance imaging findings suggestive of cardiac amyloidosis, cardiac scintigraphy can confirm th
137 ptal thickness is >1.98 cm, the diagnosis of cardiac amyloidosis could be made with a sensitivity of
139 ollected from the French Referral Center for Cardiac Amyloidosis database (Hopital Henri Mondor, Cret
141 m pyrophosphate protocols for transthyretin cardiac amyloidosis diagnosis have variably used 1- and
142 c MRI trials for cardiomyopathies, including cardiac amyloidosis, dilated cardiomyopathy, hypertrophi
143 clear scintigraphy to diagnose transthyretin cardiac amyloidosis due to either variant or wild type t
144 he mechanisms underlying the pathogenesis of cardiac amyloidosis due to light chain (AL) or transthyr
146 phosphate scintigraphy and biopsy, ruled out cardiac amyloidosis, enabling transplant eligibility.
148 l presentation, diagnosis, and management of cardiac amyloidosis, focusing on recent important develo
150 y, 256 patients diagnosed with transthyretin cardiac amyloidosis from March 2021 to March 2024 underw
152 terization and bone scintigraphy to diagnose cardiac amyloidosis has revolutionized our understanding
153 most common form of hereditary transthyretin cardiac amyloidosis (hATTR-CA) in the United States and
156 h noninvasive diagnosis is possible for ATTR cardiac amyloidosis, histological demonstration and typi
157 sess the prevalence of sub-clinical isolated cardiac amyloidosis (ICA) at autopsy and the odds of AF
158 ognosis and treatment of the 2 main types of cardiac amyloidosis, immunoglobulin light chain (AL) and
159 e available for the 2 most frequent forms of cardiac amyloidosis: immunoglobulin light chain amyloido
160 magnetic resonance findings were of definite cardiac amyloidosis in 2, but could be explained solely
162 ging have resulted in greater recognition of cardiac amyloidosis in everyday clinical practice, but t
163 k to increase the suspicion of transthyretin cardiac amyloidosis in patients with heart failure.
164 l performs well in identifying patients with cardiac amyloidosis in the derivation cohort and all fou
165 erformed at 3 academic specialty centers for cardiac amyloidosis in the United States in which 229 pa
166 ore, we also review how to monitor and treat cardiac amyloidosis, in an attempt to bridge the gap bet
169 ty for differentiation of patients with ATTR cardiac amyloidosis (irrespective of genotype) from pati
171 g a non-invasive diagnosis, we now know that cardiac amyloidosis is a more frequent disease than trad
186 Sustained ventricular tachycardia (VT) in cardiac amyloidosis is uncommon, and the substrate and o
187 etin cardiac amyloidosis (also known as ATTR cardiac amyloidosis) is an increasingly recognized cause
193 (n=115), and coexisting AS and transthyretin cardiac amyloidosis (n=19) had a global ECV(CT) of 26.1
196 formed our ability to diagnose transthyretin cardiac amyloidosis noninvasively and unmasked a hithert
197 ective cohort of patients with transthyretin cardiac amyloidosis, older age was associated with lower
200 m 2018 (the first year covered) to 2022, and cardiac amyloidosis pyrophosphate scintigraphy studies i
201 e analyzed from 1217 patients with suspected cardiac amyloidosis referred for evaluation in specialis
202 sis of patients with suspected transthyretin cardiac amyloidosis referred for technetium-99 m pyropho
203 imilar area under the curve to transthyretin cardiac amyloidosis score (TCAS) (P=0.2); outperforming
204 as the published cut-offs for transthyretin cardiac amyloidosis score and septal apex to base (AUC:
207 ased left ventricular wall thickness such as cardiac amyloidosis, septal hypertrophic cardiomyopathy
209 ession analyses among participants with ATTR cardiac amyloidosis showed that an H/CL ratio of 1.6 or
211 r whom there is a high clinical suspicion of cardiac amyloidosis, Tc 99m PYP may be of diagnostic and
213 trophic cardiomyopathy (HCM) and n = 28 with cardiac amyloidosis) undergoing a CMR scan were included
214 this review, we discuss molecular imaging of cardiac amyloidosis using amyloid PET tracers, including
215 s a major cause of cardiac dysfunction in AL cardiac amyloidosis, we have previously shown that amylo
216 ture and function and features suggestive of cardiac amyloidosis were assessed in participants who un
217 sis (AS) and coexisting AS and transthyretin cardiac amyloidosis were referred for a transcatheter ao
218 ic mechanisms underlying the pathogenesis of cardiac amyloidosis which have led to the development of
219 le method for identifying subjects with ATTR cardiac amyloidosis, which should be studied in a larger
222 n and increasing incidence and prevalence of cardiac amyloidosis with advancing age, as well as the a
223 ivity and 92% specificity for detecting ATTR cardiac amyloidosis with an area under the curve of 0.96