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1 ement of G6Pase in GSD Ia and GAA in GSD II (Pompe disease).
2 ial benefits over the current treatments for Pompe disease.
3 in combination with ERT, for infantile-onset Pompe disease.
4 leterious effects on muscle fiber atrophy in Pompe disease.
5 d as a next-generation approach for treating Pompe disease.
6 lustat, an enzyme stabiliser) for late-onset Pompe disease.
7 lucosidase alfa, in patients with late-onset Pompe disease.
8 ratory function in the Gaa(-/-) rat model of Pompe disease.
9 treatment of diabetes, viral infections, and Pompe disease.
10 scle and the nervous system for treatment of Pompe disease.
11 sful correction of neuromuscular function in Pompe disease.
12 (GAA) has achieved only partial efficacy in Pompe disease.
13 xial weakness it may raise the suspicion for Pompe disease.
14 sis and differential diagnosis of late-onset Pompe disease.
15 (GAA), the enzyme deficient in patients with Pompe disease.
16 mal initial test for confirming or excluding Pompe disease.
17 Deficiency of GAA causes Pompe disease.
18 ciated virus-mediated gene-based therapy for Pompe disease.
19 ing for the development of new therapies for Pompe disease.
20 targeting muscle alone may be ineffective in Pompe disease.
21 of 21 patients with enzymatically confirmed Pompe disease.
22 oratories to help establish the diagnosis of Pompe disease.
23 e disease type II (GSDII) variants including Pompe disease.
24 of correcting fibroblasts from patients with Pompe disease.
25 ing enzyme, the deficiency of which leads to Pompe disease.
26 ome the new standard treatment in late-onset Pompe disease.
27 erall population of patients with late-onset Pompe disease.
28 ing therapeutic alternative to Miglustat for Pompe disease.
29 nical development of AAV8-LSPhGAA therapy in Pompe disease.
30 ls but was strongly induced in patients with Pompe disease.
31 yme for glycogen hydrolysis and treatment of Pompe disease.
32 genase deficiency, adrenoleukodystrophy, and Pompe disease.
33 VZV) egress in a cell line from a child with Pompe disease, a glycogen storage disease caused by a de
38 hy (DMD), spinal muscular atrophy (SMA), and Pompe disease (acid maltase deficiency [AMD]), are candi
40 udy of albuterol in patients with late-onset Pompe disease already on ERT for >2 yr, who were not imp
42 ficacy of ERT in CRIM-negative patients with Pompe disease and in patients with other lysosomal stora
43 normal or only mildly elevated in late-onset Pompe disease and is not very helpful alone to suggest t
47 ment therapy to correct enzyme deficiency in Pompe disease and SGLT2 inhibitors for neutropenia and n
48 ew mechanistic insight into the pathology of Pompe disease and suggest that early systemic correction
51 d uptake and trafficking of GAA in mice with Pompe disease, and a similarly enhanced benefit might be
52 were aged 18 years or older with late-onset Pompe disease, and had either been receiving alglucosida
53 e development of a gene therapy strategy for Pompe disease, and have led to the first clinical trial
54 Elevated plasma cTnT levels in patients with Pompe disease are associated with skeletal muscle damage
55 ages for enzyme replacement therapy (ERT) in Pompe disease are much higher than for other lysosomal s
56 ment therapy (ERT) is the only treatment for Pompe disease but remains expensive, inconvenient, and d
57 inant GAA is the only approved treatment for Pompe disease, but it requires frequent infusions, and e
58 ceiving enzyme replacement therapy (ERT) for Pompe disease, but the prevalence of ERT-induced renal c
61 in an induced pluripotent stem cell model of Pompe disease expressed the corrected transcript from bo
62 nhance lysosomal alpha-glucosidase levels in Pompe disease fibroblasts, either when administered sing
63 id-alpha-glucosidase during ERT in mice with Pompe disease following addition of albuterol therapy.
65 number of pathological conditions including Pompe disease (glycogen storage disease type II), which
68 al studies of enzyme replacement therapy for Pompe disease have indicated that relatively high doses
70 ho succumbed to respiratory complications of Pompe disease in the first week, only mild adverse event
74 Han Chinese ancestry, causes infantile-onset Pompe disease (IOPD), presenting neonatally with severe
75 d to ascertain whether autophagic buildup in Pompe disease is a consequence of induction of autophagy
86 eased awareness of the clinical phenotype of Pompe disease is therefore warranted to expedite diagnos
87 timely and accurate diagnosis of late-onset Pompe disease likely will improve patient outcomes as ca
95 Data generated in both wild-type mice and a Pompe disease mouse model demonstrate that single-cycle,
96 ive vacuolar myopathy to identify late-onset Pompe disease often leads to false-negative results and
97 ctive next generation therapy for late-onset Pompe disease or, in combination with ERT, for infantile
98 alteration of NMJ physiology contributes to Pompe disease pathology; we performed molecular, physiol
106 ology of the neuromuscular junction (NMJ) in Pompe disease, reflecting disruption of neuronal and mus
107 ognized in a variety of disorders, including Pompe disease, the genetic deficiency of the glycogen-de
109 l aspects of breathing in 2 animal models of Pompe disease--the Gaa(-/-) mouse and a transgenic line
110 broblasts from patients with infantile-onset Pompe disease to generate induced pluripotent stem (iPS)
111 on by AAV9 gene transfer in a mouse model of Pompe disease via ECG tracings and that intravenous deli
112 defective enzyme in patients suffering from Pompe disease, was investigated to identify pharmacologi
113 acement therapy with alglucosidase alpha for Pompe disease, we highlight these paradoxical effects.
114 n and enhanced efficacy from gene therapy in Pompe disease, which has implications for other lysosoma
116 lbuterol therapy in patients with late-onset Pompe disease who had been stable on ERT with no improve
118 alpha-glucosidase (GAA) leads to early onset Pompe disease with cardiorespiratory and neuromuscular f