[beta]2-Adrenergic receptor ([beta]2-AR) agonist formoterol suppresses differentiation of L6 myogenic cells by blocking PI3K-AKT pathway

[beta]2-Adrenergic receptor ([beta]2-AR) is implicated in muscle metabolic activities such as glycogen metabolism, glucose uptake, lipolysis and muscle growth. However, the functional role of [beta]2-AR in the differentiation of skeletal muscle is largely unknown. Here, we examined the functional ro...

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Veröffentlicht in:Animal cells and systems 2019-02, Vol.23 (1), p.18
Hauptverfasser: Kim, So-Hyeon, Yi, Sun-Ju, Lee, Hyerim, Kim, Ji-Hyun, Oh, Myung-ju, Song, Eun-Ju, Kim, Kyunghwan, Jhun, Byung H
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container_issue 1
container_start_page 18
container_title Animal cells and systems
container_volume 23
creator Kim, So-Hyeon
Yi, Sun-Ju
Lee, Hyerim
Kim, Ji-Hyun
Oh, Myung-ju
Song, Eun-Ju
Kim, Kyunghwan
Jhun, Byung H
description [beta]2-Adrenergic receptor ([beta]2-AR) is implicated in muscle metabolic activities such as glycogen metabolism, glucose uptake, lipolysis and muscle growth. However, the functional role of [beta]2-AR in the differentiation of skeletal muscle is largely unknown. Here, we examined the functional role of [beta]2-AR in L6 myoblast differentiation using the long-term-acting [beta]2-AR-specific agonist formoterol. We observed that formoterol treatment strongly suppressed L6 myoblast differentiation and the expression of myosin heavy chain (MHC) in a dose- and time-dependent manner. Showing that both long-acting agonist (formoterol) and short-acting agonist (terbutaline) inhibited the induction of MHC protein, whereas [beta]2-AR antagonist (ICI-118,551) upregulated MHC expression, we clearly demonstrated that [beta]2-AR is involved in L6 myoblast differentiation. Furthermore, our pharmacological inhibition study revealed that the PI3K-AKT pathway is the main signaling pathway for myotube formation. Formoterol inhibited the activation of PI3K-AKT signaling, but not that of ERK signaling. Moreover, formoterol selectively inhibited AKT activation by IGF-I, but not by insulin. Collectively, our findings reveal a previously undocumented role of [beta]2-AR activation in modulating the differentiation of L6 myoblasts.
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However, the functional role of [beta]2-AR in the differentiation of skeletal muscle is largely unknown. Here, we examined the functional role of [beta]2-AR in L6 myoblast differentiation using the long-term-acting [beta]2-AR-specific agonist formoterol. We observed that formoterol treatment strongly suppressed L6 myoblast differentiation and the expression of myosin heavy chain (MHC) in a dose- and time-dependent manner. Showing that both long-acting agonist (formoterol) and short-acting agonist (terbutaline) inhibited the induction of MHC protein, whereas [beta]2-AR antagonist (ICI-118,551) upregulated MHC expression, we clearly demonstrated that [beta]2-AR is involved in L6 myoblast differentiation. Furthermore, our pharmacological inhibition study revealed that the PI3K-AKT pathway is the main signaling pathway for myotube formation. Formoterol inhibited the activation of PI3K-AKT signaling, but not that of ERK signaling. 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subjects 1-Phosphatidylinositol 3-kinase
Activation
Adrenergic receptors
AKT protein
Differentiation
Formoterol
Glucose metabolism
Glycogen
Insulin
Insulin-like growth factor I
Lipolysis
Metabolism
Muscles
Myoblasts
Myosin
Pharmacology
Proteins
Signal transduction
Signaling
Skeletal muscle
Terbutaline
Time dependence
title [beta]2-Adrenergic receptor ([beta]2-AR) agonist formoterol suppresses differentiation of L6 myogenic cells by blocking PI3K-AKT pathway
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