I hope some members can share their blood glucose numbers around 30 minutes after taking dextrose powder. Some patients of Dr. David Stephens have taken triple the dose of glucose used below 4x/day for half a year. It would be fascinating to know how the body adapts over time and if blood sugar changes are involved in the therapeutic effect Stephens has witnessed.
Subjects and study protocol. Nine healthy volunteers (4 men and 5
women; mean age 27.7 1.2 yr, range: 23.4 –36.8, mean body mass
index 21.7 0.4 kg/m2 , range: 18.2–26.3) participated in the study,
which was approved by the local ethical committee and conducted
according to the principles of The Helsinki Declaration. All subjects
had normal fasting blood glucose levels (5.29 0.39 mM, range:
4.5– 6.1 mM), and none had parents or siblings diagnosed with any
type of diabetes. No subjects received medication known to interfere
with glucose homeostasis. Each subject was studied on two occasions
within 3 wk after the first day of study. Subjects were instructed to
refrain from vigorous exercise and alcohol for at least 24 h before
each study. Study days began at 0830 preceded by a 10-h overnight
fast. Venous blood samples were collected at time 10, 0, 15, 30, 45,
60, 90, 120 min in prechilled EDTA (10.8 mg) tubes (catalog no.
367864; BD Biosciences, Albertslund, Denmark) through a polyeth-
ylene cannula placed in a cubital vein. At time 0 min, the seated,
single-blinded, subjects drank a sugar solution containing 75 g fruc-
tose or glucose dissolved in 300 ml water (RT) within 2 min. For
palatability, solutions were refreshed with lemon juice. Upon collec-
tion, blood samples were instantly chilled on ice and centrifuged
(2,400 g, 15 min, 5°C) within 30 min. Plasma were stored at 20°C
until analysis.
pubmed.ncbi.nlm.nih.gov
Subjects and study protocol. Nine healthy volunteers (4 men and 5
women; mean age 27.7 1.2 yr, range: 23.4 –36.8, mean body mass
index 21.7 0.4 kg/m2 , range: 18.2–26.3) participated in the study,
which was approved by the local ethical committee and conducted
according to the principles of The Helsinki Declaration. All subjects
had normal fasting blood glucose levels (5.29 0.39 mM, range:
4.5– 6.1 mM), and none had parents or siblings diagnosed with any
type of diabetes. No subjects received medication known to interfere
with glucose homeostasis. Each subject was studied on two occasions
within 3 wk after the first day of study. Subjects were instructed to
refrain from vigorous exercise and alcohol for at least 24 h before
each study. Study days began at 0830 preceded by a 10-h overnight
fast. Venous blood samples were collected at time 10, 0, 15, 30, 45,
60, 90, 120 min in prechilled EDTA (10.8 mg) tubes (catalog no.
367864; BD Biosciences, Albertslund, Denmark) through a polyeth-
ylene cannula placed in a cubital vein. At time 0 min, the seated,
single-blinded, subjects drank a sugar solution containing 75 g fruc-
tose or glucose dissolved in 300 ml water (RT) within 2 min. For
palatability, solutions were refreshed with lemon juice. Upon collec-
tion, blood samples were instantly chilled on ice and centrifuged
(2,400 g, 15 min, 5°C) within 30 min. Plasma were stored at 20°C
until analysis.
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Fructose stimulates GLP-1 but not GIP secretion in mice, rats, and humans - PubMed
Nutrients often stimulate gut hormone secretion, but the effects of fructose are incompletely understood. We studied the effects of fructose on a number of gut hormones with particular focus on glucagon-like peptide 1 (GLP-1) and glucose-dependent insulinotropic polypeptide (GIP). In healthy...
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