Linked from

The 27 pages that link to Exercise physiology, each with the reason it gives.

• Cellular respirationRelated: Exercise changes oxygen use and fuel demand, increasing the rate of cellular ATP production.

• Oxidative stressRelated: Exercise transiently changes oxidant production and can also strengthen antioxidant defenses.

• GlycolysisNarrower topic: Rapid glycolytic ATP production helps meet muscle energy demand during intense exercise.

• Cardiac outputRelated: During exercise, increased cardiac output helps deliver more oxygen to working muscles.

• PhysiologyBroader topic: Exercise exposes how physiological systems respond to changing demands and training.

• Creatine kinaseRelated: Changes in creatine kinase activity and blood levels are relevant to exercise and muscle stress.

• Lactic acidNarrower topic: Lactate measurements help characterize energy use and exercise intensity.

• Lactate dehydrogenaseRelated: During intense exercise, muscle lactate production reflects glycolytic flux and redox demands.

• Heart rateNarrower topic: It explains how exertion raises heart rate and how training changes the response.

• Lactate thresholdNarrower topic: Lactate threshold is an applied measure within the broader study of exercise responses.

• GlycogenolysisNarrower topic: Exercise rapidly increases muscle demand for glycogen-derived energy.

• Cori cycleNarrower topic: Exercise increases muscle glycolysis and reveals how lactate and glucose circulate between tissues.

• LactateNarrower topic: Exercise research tracks lactate as production and clearance change with workload.

• Venous returnNarrower topic: During exercise, muscle contractions and breathing changes increase blood return while circulation accelerates.

• LipolysisRelated: Exercise alters hormonal signals and fatty-acid mobilization from adipose tissue.

• SweatingNarrower topic: Exercise raises heat production, making sweat rate relevant to performance and safety.

• QigongRelated: It can explain some qigong outcomes through movement, balance, and conditioning without invoking qi.

• Sports biomechanicsCompared with: Focuses on physiological responses such as oxygen use, while biomechanics centers on mechanics of movement.

• Branched-chain amino acidRelated: Exercise changes branched-chain amino acid use and has motivated supplement research.

• Cardiovascular systemRelated: Exercise reveals how circulation increases oxygen delivery to active muscles.

• Sports scienceRelated: It explains cardiovascular, muscular, and metabolic responses that shape training and performance.

• August KroghNarrower topic: His experiments on muscle work and oxygen transport helped make exercise a quantitative subject in physiology.

• KinesiologyRelated: It explains the energetic and systemic demands of sustained movement.

• PerspirationNarrower topic: Exercise raises heat production and changes sweating rate and fluid needs.

• Otto Fritz MeyerhofNarrower topic: Meyerhof’s work on muscle chemistry helped connect exercise with measurable metabolic changes.

• Physiological phenomenaNarrower topic: Exercise provides a clear setting for observing integrated physiological responses.

• Stationary bicycleNarrower topic: It explains the cardiovascular and muscular changes produced by stationary cycling.