ArticleBMC genomics2017
Global gene expression in muscle from fasted/refed trout reveals up-regulation of genes promoting myofibre hypertrophy but not myofibre production.
Article in BMC genomics, 2017. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Cited by 21 papers.
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Who cites it
21 citing papers in PubMed, 37 citations in OpenAlex.
- Growth dynamics and compensatory mechanisms in fish under fasting and refeeding regimes.Frontiers in physiology · 2026Review
- Muscle hyperplasia and hypertrophy dynamics in rainbow trout (The British journal of nutrition · 2025Article
- Mechanisms underlying thermally induced growth plasticity in juvenile Pacific halibut.The Journal of experimental biology · 2025Article
- Genetic differentiation following recent domestication events: A study of farmed Nile tilapia (Evolutionary applications · 2023Article
- Liver Transcriptome Analysis Reveals Energy Regulation and Functional Impairment of Onychostoma sima During Starvation.Marine biotechnology (New York, N.Y.) · 2023Article
- Coding and Noncoding Genes Involved in Atrophy and Compensatory Muscle Growth in Nile Tilapia.Cells · 2022Article
- Exploring the impacts of different fasting and refeeding regimes on Nile tilapia (Oreochromis niloticus L.): growth performance, histopathological study, and expression levels of some muscle growth-related genes.Fish physiology and biochemistry · 2022Article
- Gene Expression Profile Provides Novel Insights of Fasting-Refeeding Response in Zebrafish Skeletal Muscle.Nutrients · 2022Article
- Starvation causes changes in the intestinal transcriptome and microbiome that are reversed upon refeeding.BMC genomics · 2022Article
- Gene expression profiling of trout muscle during flesh quality recovery following spawning.BMC genomics · 2022Article
- Aberrant mitochondrial homeostasis at the crossroad of musculoskeletal ageing and non-small cell lung cancer.PloS one · 2022Article
- Proteomic profile and morphological characteristics of skeletal muscle from the fast- and slow-growing yellow perch (Perca flavescens).Scientific reports · 2021Article
- Ascorbic Acid Supplementation Improves Skeletal Muscle Growth in Pacu (International journal of molecular sciences · 2021Article
- Unravelling the changes during induced vitellogenesis in female European eel through RNA-Seq: What happens to the liver?PloS one · 2020Article
- Article
- Transcriptional profiling of skeletal muscle reveals starvation response and compensatory growth in Spinibarbus hollandi.BMC genomics · 2019Article
- Microarray and metabolome analysis of hepatic response to fasting and subsequent refeeding in zebrafish (Danio rerio).BMC genomics · 2019Article
- Effect of triploidy on liver gene expression in coho salmon (Oncorhynchus kisutch) under different metabolic states.BMC genomics · 2019Article
- Effect of fasting and subsequent refeeding on the transcriptional profiles of brain in juvenile Spinibarbus hollandi.PloS one · 2019Article
- Article
Corrections and comments
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Authors and funding
4 authors at 1 institution in 1 country.
Funding
No grant is acknowledged in the PubMed record.
Abstract
backgroundCompensatory growth is a phase of rapid growth, greater than the growth rate of control animals, that occurs after a period of growth-stunting conditions. Fish show a capacity for compensatory growth after alleviation of dietary restriction, but the underlying cellular mechanisms are unknown. To learn more about the contribution of genes regulating hypertrophy (an increase in muscle fibre size) and hyperplasia (the generation of new muscle fibres) in the compensatory muscle growth response in fish, we used high-density microarray analysis to investigate the global gene expression in muscle of trout during a fasting-refeeding schedule and in muscle of control-fed trout displaying normal growth.
resultsThe compensatory muscle growth signature, as defined by genes up-regulated in muscles of refed trout compared with control-fed trout, showed enrichment in functional categories related to protein biosynthesis and maturation, such as RNA processing, ribonucleoprotein complex biogenesis, ribosome biogenesis, translation and protein folding. This signature was also enriched in chromatin-remodelling factors of the protein arginine N-methyl transferase family. Unexpectedly, functional categories related to cell division and DNA replication were not inferred from the molecular signature of compensatory muscle growth, and this signature contained virtually none of the genes previously reported to be up-regulated in hyperplastic growth zones of the late trout embryo myotome and to potentially be involved in production of new myofibres, notably genes encoding myogenic regulatory factors, transmembrane receptors essential for myoblast fusion or myofibrillar proteins predominant in nascent myofibres.
conclusionGenes promoting myofibre growth, but not myofibre formation, were up-regulated in muscles of refed trout compared with continually fed trout. This suggests that a compensatory muscle growth response, resulting from the stimulation of hypertrophy but not the stimulation of hyperplasia, occurs in trout after refeeding. The generation of a large set of genes up-regulated in muscle of refed trout may yield insights into the molecular and cellular mechanisms controlling skeletal muscle mass in teleost and serve as a useful list of potential molecular markers of muscle growth in fish.
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