Cargando…

Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover

OBJECTIVES: To determine the effects of dietary sugar or carbohydrate restriction on physical activity energy expenditure, energy intake, and physiological outcomes across 24 hours. METHODS: In a randomised, open-label crossover design, twenty-five healthy men (n = 10) and women (n = 15) consumed th...

Descripción completa

Detalles Bibliográficos
Autores principales: Hengist, Aaron, Davies, Russell, Rogers, Peter, Brunstrom, Jeff, Van Loon, Luc, Walhin, Jean-Philippe, Thompson, Dylan, Koumanov, Françoise, Betts, James, Gonzalez, Javier
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Oxford University Press 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9193649/
http://dx.doi.org/10.1093/cdn/nzac057.010
_version_ 1784726515993280512
author Hengist, Aaron
Davies, Russell
Rogers, Peter
Brunstrom, Jeff
Van Loon, Luc
Walhin, Jean-Philippe
Thompson, Dylan
Koumanov, Françoise
Betts, James
Gonzalez, Javier
author_facet Hengist, Aaron
Davies, Russell
Rogers, Peter
Brunstrom, Jeff
Van Loon, Luc
Walhin, Jean-Philippe
Thompson, Dylan
Koumanov, Françoise
Betts, James
Gonzalez, Javier
author_sort Hengist, Aaron
collection PubMed
description OBJECTIVES: To determine the effects of dietary sugar or carbohydrate restriction on physical activity energy expenditure, energy intake, and physiological outcomes across 24 hours. METHODS: In a randomised, open-label crossover design, twenty-five healthy men (n = 10) and women (n = 15) consumed three diets over a 24-hour period: moderate carbohydrate and sugar content (MODSUG = 50% carbohydrate [20% sugars], 15% protein, 35% fat); low sugar content (LOWSUG = 50% carbohydrate [<5% sugars], 15% protein, 35% fat); and low carbohydrate content (LOWCHO = 8% carbohydrate [<5% sugars], 15% protein, 77% fat). Postprandial metabolic responses to a prescribed breakfast (20% EI) were monitored under laboratory conditions before an ad libitum test lunch, with subsequent diet and physical activity monitoring under free-living conditions until blood sample collection the following morning. RESULTS: The MODSUG, LOWSUG and LOWCHO diets resulted in similar mean [95%CI] rates of both physical activity energy expenditure (771 [624,919] vs 677 [565,789] vs 802 [614,991] kcal·d(−1); p = 0.29] and energy intake (2071 [1794,2347] vs 2195 [1918,2473] vs 2194 [1890,2498] kcal·d(−1); p = 0.34), respectively. The LOWCHO condition elicited the lowest glycaemic and insulinemic responses to breakfast (p < 0.01) but the highest 24-h increase in LDL-cholesterol (p < 0.001), with no differences between the MODSUG and LOWSUG treatments. Leptin concentrations were decreased over 24-h of consuming LOWCHO relative to LOWSUG (p < 0.01). CONCLUSIONS: When energy density is controlled for, restricting either sugar or total dietary carbohydrate does not modulate physical activity level and energy intake over a 24-hour period despite large changes in metabolism. FUNDING SOURCES: This study was supported by The Rank Prize Funds and Kenniscentrum Suiker and Voeding.
format Online
Article
Text
id pubmed-9193649
institution National Center for Biotechnology Information
language English
publishDate 2022
publisher Oxford University Press
record_format MEDLINE/PubMed
spelling pubmed-91936492022-06-14 Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover Hengist, Aaron Davies, Russell Rogers, Peter Brunstrom, Jeff Van Loon, Luc Walhin, Jean-Philippe Thompson, Dylan Koumanov, Françoise Betts, James Gonzalez, Javier Curr Dev Nutr Energy and Macronutrient Metabolism OBJECTIVES: To determine the effects of dietary sugar or carbohydrate restriction on physical activity energy expenditure, energy intake, and physiological outcomes across 24 hours. METHODS: In a randomised, open-label crossover design, twenty-five healthy men (n = 10) and women (n = 15) consumed three diets over a 24-hour period: moderate carbohydrate and sugar content (MODSUG = 50% carbohydrate [20% sugars], 15% protein, 35% fat); low sugar content (LOWSUG = 50% carbohydrate [<5% sugars], 15% protein, 35% fat); and low carbohydrate content (LOWCHO = 8% carbohydrate [<5% sugars], 15% protein, 77% fat). Postprandial metabolic responses to a prescribed breakfast (20% EI) were monitored under laboratory conditions before an ad libitum test lunch, with subsequent diet and physical activity monitoring under free-living conditions until blood sample collection the following morning. RESULTS: The MODSUG, LOWSUG and LOWCHO diets resulted in similar mean [95%CI] rates of both physical activity energy expenditure (771 [624,919] vs 677 [565,789] vs 802 [614,991] kcal·d(−1); p = 0.29] and energy intake (2071 [1794,2347] vs 2195 [1918,2473] vs 2194 [1890,2498] kcal·d(−1); p = 0.34), respectively. The LOWCHO condition elicited the lowest glycaemic and insulinemic responses to breakfast (p < 0.01) but the highest 24-h increase in LDL-cholesterol (p < 0.001), with no differences between the MODSUG and LOWSUG treatments. Leptin concentrations were decreased over 24-h of consuming LOWCHO relative to LOWSUG (p < 0.01). CONCLUSIONS: When energy density is controlled for, restricting either sugar or total dietary carbohydrate does not modulate physical activity level and energy intake over a 24-hour period despite large changes in metabolism. FUNDING SOURCES: This study was supported by The Rank Prize Funds and Kenniscentrum Suiker and Voeding. Oxford University Press 2022-06-14 /pmc/articles/PMC9193649/ http://dx.doi.org/10.1093/cdn/nzac057.010 Text en © The Author 2022. Published by Oxford University Press on behalf of The International Society for Human and Animal Mycology. https://creativecommons.org/licenses/by-nc/4.0/This is an Open Access article distributed under the terms of the Creative Commons Attribution Non-Commercial License (https://creativecommons.org/licenses/by-nc/4.0/), which permits non-commercial re-use, distribution, and reproduction in any medium, provided the original work is properly cited. For commercial re-use, please contact journals.permissions@oup.com
spellingShingle Energy and Macronutrient Metabolism
Hengist, Aaron
Davies, Russell
Rogers, Peter
Brunstrom, Jeff
Van Loon, Luc
Walhin, Jean-Philippe
Thompson, Dylan
Koumanov, Françoise
Betts, James
Gonzalez, Javier
Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover
title Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover
title_full Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover
title_fullStr Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover
title_full_unstemmed Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover
title_short Restricting Sugar or Carbohydrate Intake Does Not Impact Physical Activity Level or Energy Intake Over 24 Hours Despite Changes in Substrate Use: A Randomised Crossover
title_sort restricting sugar or carbohydrate intake does not impact physical activity level or energy intake over 24 hours despite changes in substrate use: a randomised crossover
topic Energy and Macronutrient Metabolism
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9193649/
http://dx.doi.org/10.1093/cdn/nzac057.010
work_keys_str_mv AT hengistaaron restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT daviesrussell restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT rogerspeter restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT brunstromjeff restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT vanloonluc restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT walhinjeanphilippe restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT thompsondylan restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT koumanovfrancoise restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT bettsjames restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover
AT gonzalezjavier restrictingsugarorcarbohydrateintakedoesnotimpactphysicalactivitylevelorenergyintakeover24hoursdespitechangesinsubstrateusearandomisedcrossover