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1 yrate, the central metabolite of therapeutic ketosis.
2 eline, week 9 in ketosis, and week 13 out of ketosis.
3 modulates the appetite suppressant effect of ketosis.
4 ketone oxidation after sustained nutritional ketosis.
5 tory genes that affect clinical/ subclinical ketosis.
6 of ChREBP to the cytoplasm during periods of ketosis.
7 Higher HbA1c levels were correlated with ketosis.
8 and specificity of HbA1c as an indicator for ketosis.
9 s inhibiting fat synthesis during periods of ketosis.
10 diabetic ketoacidosis or hyperglycemia with ketosis.
11 lism by increasing gluconeogenesis (GNG) and ketosis.
12 ges associated with starvation, which create ketosis.
13 uction in beta-cell mass with progression to ketosis.
14 lasticity factor, Bdnf, in the brain without ketosis.
15 fasting durations are associated with higher ketosis.
16 group and 2 in the BGM group), hyperglycemia/ketosis (1 participant with an event in CGM group and 4
17 ly in its study and development, therapeutic ketosis across the spectrum of HF holds significant prom
20 ed by increased availability due to systemic ketosis and a cardiac autonomous upregulation of ketolyt
22 usly to be associated with susceptibility to ketosis and clinical mastitis in Jersey and Holstein dai
24 Rats receiving KD and EKB reached a state of ketosis and had significant reduction in AAA expansion a
26 act on serum lipids without the accompanying ketosis and have the potential to provide a nutritionall
27 ing of 10% kcal protein also caused moderate ketosis and hepatic fat accumulation, which were again a
28 hur Mirsky, and George Cahill) had described ketosis and ketoacidosis induced by administration of th
29 ions remain regarding the use of therapeutic ketosis and mechanism of action in HF, current evidence
30 elation (r = 0.36, P < 0.05; n = 34) between ketosis and oxidative stress as well as between oxidativ
32 ly, our data suggest that fasting-associated ketosis and the ketogenic effects of SGLT2 inhibitors oc
33 line restricted (~300 mg/kg) provokes robust ketosis and weight loss in mice, but through unknown mec
39 include enhanced ketogenesis, where the mild ketosis associated with SGLT2i use is presumed to be ben
40 th HF, and (4) the potential significance of ketosis associated with sodium-glucose cotransporter 2 i
41 ve study consisted of 253 T2DM patients with ketosis at Shanghai 10th People's Hospital during a peri
47 glucose production (HGP), hyperglycemia, and ketosis characteristic of uncontrolled insulin-deficient
48 ant renal epithelial cell death, (6) induces ketosis characterized by an increase in serum level of b
52 participants were in a state of nutritional ketosis during post-KD assessments (baseline: 0.2 +/- 0.
53 ike transcriptional paradigm, with increased ketosis, erythropoietin, and autophagic flux in addition
58 y suggest that 3 wk of sustained nutritional ketosis had no effect on cognitive performance, mood, or
61 asible, safe, well tolerated and resulted in ketosis in all patients in the intervention group, with
62 he failing heart, (3) effects of therapeutic ketosis in animals and humans with HF, and (4) the poten
71 inflammation, we evaluated whether systemic ketosis in vivo could reduce CCR2 and AAA progression.
72 BHB concentrations (indicator of subclinical ketosis) in the first lactation (SCK1) and second and la
76 most abundant BHB-amino acid, BHB-Phe, is a ketosis-inducible congener of Lac-Phe that activates hyp
77 iver triglyceride accumulation in vivo via a ketosis induction protocol in multiparous dairy cows per
79 ing that neither fasting- nor SGLT2i-induced ketosis is altered by interruption of glucagon signaling
80 r the benefit and feasibility of therapeutic ketosis is examined in preclinical and clinical studies.
84 tress induced by 2-DG can, in the absence of ketosis, lead to the transcription of genes involved in
85 y was undertaken to test the hypothesis that ketosis might increase lipid peroxidation and lower glut
86 ms, hepatocellular injury, hyperglycemia and ketosis, neurologic illnesses, ocular symptoms, and derm
89 the independent effects of hyperglycemia and ketosis on cerebral metabolism, blood flow, and water di
92 highest proportion of retinopathy (20%); and ketosis-prone (6%) with the highest proportion of kidney
94 f an adult patient with an unusual course of ketosis-prone diabetes (KPD) and lacking islet autoantib
97 and near-normoglycemic, patients with "A-B+" ketosis-prone diabetes (KPD) manifest accelerated leucin
99 ying mechanisms for beta-cell dysfunction in ketosis-prone type 2 diabetes are not known; however, pr
100 group consisted of 221 T2DM patients without ketosis randomly selected from inpatients during the sam
101 athways and a lack of metabolic switching to ketosis resulting in a deficit in GABAergic signaling an
102 a key biomarker for diagnosis of subclinical ketosis (SCK), and provides information on the health st
103 ified in previous studies as associated with ketosis susceptibility and immune response, and also fou
105 ketones make it possible to reach a state of ketosis that may improve metabolic control in humans.
106 f adult mice led to lethal hyperglycemia and ketosis that were attributed to loss of beta cell functi
107 n is metabolized to glutamine and because in ketosis there is increased consumption of acetate, which
108 , noninferiority trial of the KD (endogenous ketosis) versus ketone ester ([KE] exogenous ketosis) dr
109 abilized by ketones, irrespective of whether ketosis was achieved with a ketogenic diet or exogenous
110 he response of the minors to the presence of ketosis was consistent but unique for each individual.
112 As 2-OPP formation appears to increase upon ketosis, we emphasize the importance of avoiding catabol
116 ed serious adverse events (hyperglycaemia or ketosis without acidosis) resulting in hospital admissio