Cargando…

AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores

Exercise increases muscle glucose uptake independently of insulin signaling and represents a cornerstone for the prevention of metabolic disorders. Pharmacological activation of the exercise-responsive AMPK in skeletal muscle has been proven successful as a therapeutic approach to treat metabolic di...

Descripción completa

Detalles Bibliográficos
Autores principales: Kido, Kohei, Eskesen, Nicolas O., Henriksen, Nicolai S., Onslev, Johan, Kristensen, Jonas M., Larsen, Magnus R., Hingst, Janne R., Knudsen, Jonas R., Birk, Jesper B., Andersen, Nicoline R., Jensen, Thomas E., Pehmøller, Christian, Wojtaszewski, Jørgen F.P., Kjøbsted, Rasmus
Formato: Online Artículo Texto
Lenguaje:English
Publicado: American Diabetes Association 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10545559/
https://www.ncbi.nlm.nih.gov/pubmed/37506328
http://dx.doi.org/10.2337/db23-0358
_version_ 1785114694875348992
author Kido, Kohei
Eskesen, Nicolas O.
Henriksen, Nicolai S.
Onslev, Johan
Kristensen, Jonas M.
Larsen, Magnus R.
Hingst, Janne R.
Knudsen, Jonas R.
Birk, Jesper B.
Andersen, Nicoline R.
Jensen, Thomas E.
Pehmøller, Christian
Wojtaszewski, Jørgen F.P.
Kjøbsted, Rasmus
author_facet Kido, Kohei
Eskesen, Nicolas O.
Henriksen, Nicolai S.
Onslev, Johan
Kristensen, Jonas M.
Larsen, Magnus R.
Hingst, Janne R.
Knudsen, Jonas R.
Birk, Jesper B.
Andersen, Nicoline R.
Jensen, Thomas E.
Pehmøller, Christian
Wojtaszewski, Jørgen F.P.
Kjøbsted, Rasmus
author_sort Kido, Kohei
collection PubMed
description Exercise increases muscle glucose uptake independently of insulin signaling and represents a cornerstone for the prevention of metabolic disorders. Pharmacological activation of the exercise-responsive AMPK in skeletal muscle has been proven successful as a therapeutic approach to treat metabolic disorders by improving glucose homeostasis through the regulation of muscle glucose uptake. However, conflicting observations cloud the proposed role of AMPK as a necessary regulator of muscle glucose uptake during exercise. We show that glucose uptake increases in human skeletal muscle in the absence of AMPK activation during exercise and that exercise-stimulated AMPKγ3 activity strongly correlates to muscle glucose uptake in the postexercise period. In AMPKγ3-deficient mice, muscle glucose uptake is normally regulated during exercise and contractions but impaired in the recovery period from these stimuli. Impaired glucose uptake in recovery from exercise and contractions is associated with a lower glucose extraction, which can be explained by a diminished permeability to glucose and abundance of GLUT4 at the muscle plasma membrane. As a result, AMPKγ3 deficiency impairs muscle glycogen resynthesis following exercise. These results identify a physiological function of the AMPKγ3 complex in human and rodent skeletal muscle that regulates glucose uptake in recovery from exercise to recapture muscle energy stores. ARTICLE HIGHLIGHTS: Exercise-induced activation of AMPK in skeletal muscle has been proposed to regulate muscle glucose uptake in recovery from exercise. This study investigated whether the muscle-specific AMPKγ3-associated heterotrimeric complex was involved in regulating muscle glucose metabolism in recovery from exercise. The findings support that exercise-induced activation of the AMPKγ3 complex in human and mouse skeletal muscle enhances glucose uptake in recovery from exercise via increased translocation of GLUT4 to the plasma membrane. This work uncovers the physiological role of the AMPKγ3 complex in regulating muscle glucose uptake that favors replenishment of the muscle cellular energy stores.
format Online
Article
Text
id pubmed-10545559
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher American Diabetes Association
record_format MEDLINE/PubMed
spelling pubmed-105455592023-10-04 AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores Kido, Kohei Eskesen, Nicolas O. Henriksen, Nicolai S. Onslev, Johan Kristensen, Jonas M. Larsen, Magnus R. Hingst, Janne R. Knudsen, Jonas R. Birk, Jesper B. Andersen, Nicoline R. Jensen, Thomas E. Pehmøller, Christian Wojtaszewski, Jørgen F.P. Kjøbsted, Rasmus Diabetes Metabolism Exercise increases muscle glucose uptake independently of insulin signaling and represents a cornerstone for the prevention of metabolic disorders. Pharmacological activation of the exercise-responsive AMPK in skeletal muscle has been proven successful as a therapeutic approach to treat metabolic disorders by improving glucose homeostasis through the regulation of muscle glucose uptake. However, conflicting observations cloud the proposed role of AMPK as a necessary regulator of muscle glucose uptake during exercise. We show that glucose uptake increases in human skeletal muscle in the absence of AMPK activation during exercise and that exercise-stimulated AMPKγ3 activity strongly correlates to muscle glucose uptake in the postexercise period. In AMPKγ3-deficient mice, muscle glucose uptake is normally regulated during exercise and contractions but impaired in the recovery period from these stimuli. Impaired glucose uptake in recovery from exercise and contractions is associated with a lower glucose extraction, which can be explained by a diminished permeability to glucose and abundance of GLUT4 at the muscle plasma membrane. As a result, AMPKγ3 deficiency impairs muscle glycogen resynthesis following exercise. These results identify a physiological function of the AMPKγ3 complex in human and rodent skeletal muscle that regulates glucose uptake in recovery from exercise to recapture muscle energy stores. ARTICLE HIGHLIGHTS: Exercise-induced activation of AMPK in skeletal muscle has been proposed to regulate muscle glucose uptake in recovery from exercise. This study investigated whether the muscle-specific AMPKγ3-associated heterotrimeric complex was involved in regulating muscle glucose metabolism in recovery from exercise. The findings support that exercise-induced activation of the AMPKγ3 complex in human and mouse skeletal muscle enhances glucose uptake in recovery from exercise via increased translocation of GLUT4 to the plasma membrane. This work uncovers the physiological role of the AMPKγ3 complex in regulating muscle glucose uptake that favors replenishment of the muscle cellular energy stores. American Diabetes Association 2023-10 2023-07-28 /pmc/articles/PMC10545559/ /pubmed/37506328 http://dx.doi.org/10.2337/db23-0358 Text en © 2023 by the American Diabetes Association https://www.diabetesjournals.org/journals/pages/licenseReaders may use this article as long as the work is properly cited, the use is educational and not for profit, and the work is not altered. More information is available at https://www.diabetesjournals.org/journals/pages/license.
spellingShingle Metabolism
Kido, Kohei
Eskesen, Nicolas O.
Henriksen, Nicolai S.
Onslev, Johan
Kristensen, Jonas M.
Larsen, Magnus R.
Hingst, Janne R.
Knudsen, Jonas R.
Birk, Jesper B.
Andersen, Nicoline R.
Jensen, Thomas E.
Pehmøller, Christian
Wojtaszewski, Jørgen F.P.
Kjøbsted, Rasmus
AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores
title AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores
title_full AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores
title_fullStr AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores
title_full_unstemmed AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores
title_short AMPKγ3 Controls Muscle Glucose Uptake in Recovery From Exercise to Recapture Energy Stores
title_sort ampkγ3 controls muscle glucose uptake in recovery from exercise to recapture energy stores
topic Metabolism
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10545559/
https://www.ncbi.nlm.nih.gov/pubmed/37506328
http://dx.doi.org/10.2337/db23-0358
work_keys_str_mv AT kidokohei ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT eskesennicolaso ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT henriksennicolais ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT onslevjohan ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT kristensenjonasm ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT larsenmagnusr ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT hingstjanner ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT knudsenjonasr ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT birkjesperb ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT andersennicoliner ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT jensenthomase ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT pehmøllerchristian ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT wojtaszewskijørgenfp ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores
AT kjøbstedrasmus ampkg3controlsmuscleglucoseuptakeinrecoveryfromexercisetorecaptureenergystores