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1 losum, congenital heart defects, and central hypoventilation.
2 or control over secretions, airway spasm, or hypoventilation.
3 in a syndrome resembling congenital central hypoventilation.
4 ied within 5 minutes of seizure onset due to hypoventilation.
5 illator settings that would lead to alveolar hypoventilation.
6 iated with impaired diaphragm activation and hypoventilation.
7 nsitivity and life-threatening sleep-related hypoventilation.
8 d to have evolved for proactive avoidance of hypoventilation.
9 contrast two orphan disorders of late-onset hypoventilation.
10 f patients who had both hyperventilation and hypoventilation.
11 sias, and frequent autonomic instability and hypoventilation.
12 r airway obstruction leading to hypoxemia or hypoventilation.
13 ovements, 86% autonomic instability, and 23% hypoventilation.
14 yskinesias, 69 autonomic instability, and 66 hypoventilation.
15 ctal oxygen desaturation is a consequence of hypoventilation.
16 7-41) with captive bolt guns was followed by hypoventilation.
17 ry severity score was 25-32) was followed by hypoventilation.
18 riers may be at risk for developing alveolar hypoventilation.
19 OX2B gene and evidence of nocturnal alveolar hypoventilation.
20 y Ins, and expire shortly after birth due to hypoventilation.
21 eathing and may possibly improve symptoms of hypoventilation.
23 psychiatric symptoms, seizures, and central hypoventilation, a paraneoplastic immune-mediated syndro
25 ificant postventilator apneas and postapneic hypoventilation also occurred even when end-tidal CO(2)
26 e caudal MR simultaneously produces enhanced hypoventilation and a 51% decrease in the CO(2) response
27 y during sleep could attenuate sleep-related hypoventilation and also negatively impact sleep and cli
29 acking AMPK-alpha1 and AMPK-alpha2 exhibited hypoventilation and apnea during hypoxia, with the prima
30 nd thereby aids the clinician in identifying hypoventilation and apnea in the sedated patient at an e
31 deficiencies in AMPK expression precipitate hypoventilation and apnea, even when carotid body affere
32 onset Obesity with Hypothalamic Dysfunction, Hypoventilation and Autonomic Dysregulation (ROHHAD), is
33 rove safety by enabling early recognition of hypoventilation and by reducing the risk of oversedation
34 Ala/+) mutation predisposed pups not only to hypoventilation and central apneas, but also to obstruct
35 eous marriage who presented with respiratory hypoventilation and died 10 days and 4 years later, resp
38 ) is characterized by life-threatening sleep hypoventilation and is caused by PHOX2B gene mutations,
40 rons accompanies REM sleep and is a cause of hypoventilation and obstructive sleep apnea in humans.
41 adapt and control ventilation to ameliorate hypoventilation and restore normocapnia regardless of th
42 on of TRPM7 in the CB improved sleep-related hypoventilation and that the respiratory effects of CB T
43 m (CNS) leptin levels or activity may induce hypoventilation and the Pickwickian syndrome in some obe
44 emia, which is likely to be a consequence of hypoventilation and ventilation-perfusion mismatching of
45 ted oxygen desaturation was a consequence of hypoventilation and whether factors such as seizure loca
46 onset obesity with hypothalamic dysfunction, hypoventilation, and autonomic dysregulation (ROHHAD) an
47 ent who presented with congenital hypotonia, hypoventilation, and cerebellar histopathological altera
49 ilibrium, dysarthria, dysphagia, and central hypoventilation, and died 2 months and 6 months, respect
50 rial carbon dioxide levels (PaCO2), alveolar hypoventilation, and increased cardiorespiratory morbidi
51 lation, leading to hypotension, bradycardia, hypoventilation, and potentially respiratory arrest.
54 ystem leading to sleep-disordered breathing, hypoventilation, and weakness of the expiratory and insp
55 nd present a respiratory phenotype including hypoventilation, apnea, and a diminished ventilatory res
56 hat of the adults, although dysautonomia and hypoventilation are less frequent or severe in children.
57 s, sudden infant death syndrome, and central hypoventilation are relatively frequent conditions in th
59 ted respiratory acidosis because of alveolar hypoventilation, as well as profound breathing instabili
60 sities and durations of exercise a sustained hypoventilation, as well as reduced systemic pressure an
61 ecreased level of consciousness, and central hypoventilation associated with ovarian teratoma (OT) an
62 alysis of ACSF in or near to the RTN, causes hypoventilation but has no significant effect on the CO(
63 o2 - Paco2 remained essentially stable after hypoventilation but increased significantly after induci
64 and CO2 production, indicating a reversal of hypoventilation by stimulation of central respiratory co
66 tributions of airway obstruction and central hypoventilation could not be determined because airway f
67 d (ACSF) in or near to the caudal MR, causes hypoventilation (decrease in the ratio of minute ventila
69 We hypothesize that capnography could detect hypoventilation during induction of bronchoscopic sedati
72 other comorbidities, including sleep apnea, hypoventilation, gastroesophageal reflux, degenerative j
73 tilation (group "Hyper," n = 4); 48 hours of hypoventilation (group "Hypo," n = 4); 24 hours of hypov
74 re randomized to: starting bronchoscopy when hypoventilation (hypopnea, two successive breaths of at
76 bserved in 38%, normoventilation in 29%, and hypoventilation in 46%, with a 13% overlap of patients w
80 at was normal on MRI correlated with central hypoventilation; in another case, hyperactivity in the c
83 e induction and start bronchoscopy following hypoventilation may decrease hypoxemia without compromis
86 opnea, whereas reduced ventilatory drive and hypoventilation narrowed the DeltaPET(CO2) and increased
94 all three rat strains, CBD elicited eupnoeic hypoventilation (PaCO2 +8.7-11.0 mmHg) 1-2 days post-CBD
95 henylalanine (PCPA) mimicked seizure-induced hypoventilation, partially occluded the postictal decrea
97 roup "Hypo-Baseline," n = 4); or 24 hours of hypoventilation plus 24 hours of hypoventilation plus EC
98 ntilation (group "Hypo," n = 4); 24 hours of hypoventilation plus 24 hours of normoventilation (group
99 24 hours of hypoventilation plus 24 hours of hypoventilation plus ECCO(2)R (group "Hypo-ECCO(2)R," n
100 ssive parenchymal derecruitment and alveolar hypoventilation, potentially aggravating systemic hyperc
102 omboembolism, preoperative vena cava filter, hypoventilation, pulmonary hypertension), and age>or=45
103 geal amyloid included radiculopathy, central hypoventilation, recurrent subarachnoid haemorrhage, dep
104 ened with hyperventilation and narrowed with hypoventilation, regardless of the stimulus and whether
107 ive noninvasive strategies for management of hypoventilation, sleep-disordered breathing, and cough i
108 ts suffering from this syndrome, therapeutic hypoventilation strategy designed to reduce mechanical d
109 f the terminal bowel) and congenital central hypoventilation syndrome (CCHS) (also known as NB-HSCR-C
110 ysregulation (ROHHAD) and congenital central hypoventilation syndrome (CCHS) are distinct in presenta
111 g exercise, children with congenital central hypoventilation syndrome (CCHS) demonstrate coupling of
117 stem development, lead to congenital central hypoventilation syndrome (CCHS), a neurodevelopmental di
118 ble for the occurrence of Congenital Central Hypoventilation Syndrome (CCHS), a rare neurological dis
120 en found in patients with congenital central hypoventilation syndrome (CCHS), the cardinal feature of
121 A) in awake children with congenital central hypoventilation syndrome (CCHS), who have absent or near
126 utations, which cause the central congenital hypoventilation syndrome (CCHS, also known as Ondine's c
129 tion and management of patients with obesity hypoventilation syndrome (OHS).Methods: A multidisciplin
130 ents aged 15-80 years with untreated obesity hypoventilation syndrome and an apnoea-hypopnoea index o
132 mice provide a model for congenital central hypoventilation syndrome and suggest that Pbx3 mutations
135 verlap syndrome) and morbid obesity (obesity hypoventilation syndrome) increases the odds of mortalit
136 with insomnia, excessive sleepiness, obesity hypoventilation syndrome, and chronic obstructive pulmon
137 AD with disorders outside congenital central hypoventilation syndrome, further advancement will be ma
138 iscussed in children with congenital central hypoventilation syndrome, myelomeningocele, and Prader-W
140 1, Mowat-Wilson syndrome, congenital central hypoventilation syndrome, Shah-Waardenburg syndrome and
141 Additional comorbidities included obesity hypoventilation syndrome, sleep apnea syndrome, hyperten
142 ion, diabetes mellitus, sleep apnea, obesity hypoventilation syndrome, venous stasis ulcers, intestin
147 rmal men are more vulnerable to load-induced hypoventilation than women, due to increased upper airwa
149 2/6 hypertension, and all with sleep apnea, hypoventilation, type II diabetes mellitus, and urinary
151 ze abnormalities, deafness, facial weakness, hypoventilation, vascular malformations of the internal
153 mpared to CTRL exercise (P < 0.001) and this hypoventilation was accompanied by an up to 10% lower ar
157 All 8 animals demonstrated central apnea and hypoventilation, which resulted in the death of 1 and co
158 e involvement of large contiguous regions of hypoventilation with substantial subresolution intraregi
159 insonism, depression, severe weight loss and hypoventilation, with brain pathology characterized by T