Training intensity modulates changes in PGC‐1α and p53 protein content and mitochondrial respiration, but not markers of mitochondrial content in human skeletal muscle

Cited by (214)

Items 201–214 of 214

1. Etude des effets de programmes d'endurance de haute intensité et de haut volume sur les performances physiques, cognitives ainsi que sur la plasticité musculaire et cérébrale chez le rat sain et ayant subi une ischémie cérébrale
   Annabelle Constans · 2019 · theses.fr (ABES)
2. Réponses du métabolisme mitochondrial musculaire à la chaleur lors d’une exposition aiguë ex vivo et après une acclimatation associée à un entraînement en endurance
   Pierre‐Emmanuel Tardo‐Dino · 2020 · theses.fr (ABES)
3. Sprint interval training : time course of the physiological adaptations and recovery : Implications for physical conditioning in a sedentary population
   Jaume Lloria-Varella · 2023 · theses.fr (ABES)
4. Strength Training as a Comprehensive Approach to Mitigate the Effects of Metabolic Syndrome: A Comprehensive Review
   R Srivathsan, Geetha B. Shetty, Prashanth Shetty, Gayathri Manohari B, H L Nanjeshgowda · 2026 · SN Comprehensive Clinical Medicine
5. Sprint‐interval training with post‐exercise blood flow restriction increases mitochondrial content and respiration
   Donald L. Peden, Carolin Stangier, Emma A. Mitchell, Stephen J. Bailey, Richard A. Ferguson · 2026 · The Journal of Physiology
6. Effect of six weeks ubiquinol supplementation on mitochondrial respiratory function and exercise capacity in healthy males
   Jarred P. Acton, Nehal S. Alsharif, Jack W. Bond, Stuart P. Cocksedge, Abbie Grace McLellan, Donald L. Peden, Mark P. Funnell, Hannah F. Dugdale, Lewis J. James, Richard A. Ferguson et al. · 2026 · European Journal of Applied Physiology
7. Calculating and Prescribing Rowing Ergometer Intensities Using Maximal Aerobic Speed
   Christopher Kirk · 2026 · Strength and conditioning journal
8. Effect of Bruce and Wingate Protocols on PGC-1α in Well-Trained Endurance Athletes
   İbrahim Orkun Akcan, Sibel Tetik Dündar, Süleyman Gönülateş · 2026 · The Online Journal of Recreation and Sport
9. Mitochondrial dysfunction in neurodegenerative diseases: Mechanisms and therapeutic advances
   Zhaomin Yao, Yangwa Wei, Weiming Xie, Rui Gao, Ying Zhan, Xiaodan Wu, Wei Zhang, Yusong Pei, Guoxu Zhang, Zhiguo Wang · 2026 · Ageing Research Reviews
10. Citius, Maius, Melius: Mitochondria and Endurance Performance
    Javier Botella, David John Bishop, Cesare Granata · 2026 · Sports Medicine
11. Acute Physiological Responses to Different Load Components During Interval Training
    Daria Segev, Einat Kodesh, Ayelet Dunsky, Alon Eliakim, Yoav Meckel · 2026 · Sports
12. STING deficiency differentially affects skeletal muscle responses to high-intensity interval training and mechanical overload
    Haiyu Zhao, Reima Onishi, Mayuko Oba, Ryota Iyama, Takumi Yokokawa, Ai Takemura, Tatsuya Hayashi, Tatsuro Egawa · 2026 · The Journal of Physiological Sciences
13. Mitochondrial Biogenesis in Human Skeletal Muscle: High-Intensity Interval Training Versus Moderate-Intensity Continuous Training
    Kevin Bischof · 2026 · International Journal of Molecular Sciences
14. Bacteroidota‐derived glycine lipids differentially regulate skeletal muscle mitochondrial adaptation during Western diet feeding in male Ldlr −/− mice
    Siyun Kim, Sung Gi Noh, Minje Ji, Tomas Vence, Lidan Gao, Oliver Otoko, Frank C. Nichols, Christopher N. Blesso, Oh Sung Kwon · 2026 · The Journal of Physiology