Linked from

The 69 pages that link to Homeostasis, each with the reason it gives.

• Animal welfareRelated: An animal’s ability to maintain stable bodily conditions affects its health and welfare.

• ThermoregulationNarrower topic: Thermoregulation is one form of homeostasis, alongside control of variables such as blood glucose.

• OsmoregulationNarrower topic: Osmoregulation is one specific form of physiological homeostasis.

• Autonomic nervous systemNarrower topic: Autonomic adjustments help keep variables such as blood pressure and temperature within workable ranges.

• FeedbackRelated: Physiological feedback loops keep variables such as temperature and blood glucose within ranges.

• Sympathetic nervous systemRelated: Sympathetic responses adjust organ activity as internal demands change.

• HypothalamusRelated: Hypothalamic circuits adjust body functions to keep internal conditions within workable ranges.

• MetabolismRelated: Homeostasis is a regulated outcome that metabolic reactions help maintain.

• Negative feedbackRelated: Negative feedback stabilizes internal conditions by responding to departures from their ranges.

• AgingNarrower topic: Age-related loss of regulatory resilience makes it harder to restore stable internal conditions.

• NeuroscienceRelated: Neural systems both regulate and depend on stable conditions in the body.

• MotivationRelated: Regulatory imbalances can generate needs that prompt corrective behavior.

• InteroceptionRelated: Interoceptive signals help detect conditions that require physiological adjustment.

• Feedback loopRelated: Physiological feedback loops keep variables such as temperature within viable ranges.

• PhysiologyRelated: Physiological systems continually adjust internal conditions as environments and demands change.

• CyberneticsRelated: It is a biological example of regulation through feedback.

• Signal transductionNarrower topic: Signal transduction helps cells adjust activity to support stable internal conditions.

• AnimalRelated: Animal bodies coordinate organs and behaviors to keep internal conditions stable.

• Stress responseNarrower topic: Stress responses disrupt and help restore regulated conditions under challenge.

• Parasympathetic nervous systemRelated: Parasympathetic activity helps maintain stable conditions during routine bodily states.

• Nervous systemRelated: Nervous signals help adjust body functions to preserve stable internal conditions.

• Reward systemNarrower topic: Needs such as hunger alter the value of rewards and the drive to obtain them.

• DeathRelated: Failure of homeostatic regulation can contribute to irreversible organismal collapse.

• Fight-or-flight responseCompared with: The response temporarily shifts bodily priorities away from ordinary maintenance.

• TeleologyRelated: Feedback control creates goal-directed behavior through present mechanisms, not future causes.

• Physical dependenceNarrower topic: Dependence develops as regulatory systems compensate for a substance that repeatedly alters their activity.

• Family systems theoryRelated: Families may resist changes that disrupt established roles, even when those roles cause distress.

• NutrientRelated: Nutrients contribute to regulated processes such as fluid balance, blood sugar, and mineral levels.

• Positive feedbackCompared with: Homeostatic control often relies on negative feedback rather than self-amplifying responses.

• AcclimatizationNarrower topic: Acclimatization changes regulatory responses to help preserve internal function under new environmental demands.

• Drug toleranceRelated: Compensatory responses can oppose a drug’s effects and reduce its apparent impact.

• DiseaseCompared with: Disease often disrupts regulated processes that maintain internal stability.

• Organ systemRelated: Organ systems coordinate to maintain stable internal conditions.

• Extracellular fluidNarrower topic: Regulating extracellular volume and composition is central to stable internal conditions.

• Renal excretionNarrower topic: Kidney excretion supports stability by adjusting waste, water, and solute levels.

• Thermal toleranceRelated: Thermal tolerance depends partly on maintaining internal stability as environmental temperature changes.

• Acid–base homeostasisNarrower topic: Acid–base control is one tightly coordinated instance of broader physiological regulation.

• CreatinineNarrower topic: Kidney clearance of waste helps maintain stable blood composition.

• OrganRelated: Many organs maintain stable conditions by sensing and adjusting bodily variables.

• Claude BernardRelated: Later physiologists developed Bernard’s internal-environment concept into this framework.

• Gaia hypothesisRelated: The analogy with organismic homeostasis captures Gaia’s regulatory claim but can overstate its unity.

• Life (biology)Broader topic: Living systems persist by regulating conditions such as temperature, acidity, and water balance.

• OrganicismBroader topic: It shows how an organism's coordinated organization maintains conditions needed for life.

• OrganismRelated: Maintaining stable internal conditions is central to an organism’s continued activity.

• Walter CannonBroader topic: Cannon named and developed this principle of coordinated internal regulation.

• James LovelockRelated: Gaia draws on the idea of regulation, while extending it from organisms to the Earth system.

• HealthRelated: Maintaining stable internal conditions is one basis of physiological health.

• Clark L. HullRelated: Physiological imbalances create the drives that Hull’s theory says motivate action.

• DyingRelated: As dying advances, systems that maintain stable internal conditions fail.

• Biological factorsRelated: Its limits help explain how biological systems respond to disruptions.