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The 45 pages that link to Negative feedback, each with the reason it gives.

• HomeostasisRelated: Most homeostatic loops counter a disturbance by reversing its effect on a regulated variable.

• Endocrine systemRelated: Feedback loops stabilize hormone levels and the bodily conditions they regulate.

• CortisolRelated: Cortisol feeds back on the hypothalamus and pituitary to restrain further release.

• Cushing syndromeRelated: Cortisol normally suppresses hypothalamic and pituitary signals, shaping diagnostic hormone patterns.

• Cell signalingRelated: Feedback loops help terminate signals and stabilize cellular responses.

• Stress responseRelated: Cortisol feedback helps limit HPA-axis activation after a stressor subsides.

• HormoneRelated: Feedback stabilizes hormone levels, as when thyroid hormones suppress upstream stimulation.

• Pituitary glandRelated: Hormones from target glands often suppress further pituitary stimulation.

• Thyroid-stimulating hormoneRelated: Circulating thyroid hormones suppress pituitary TSH and hypothalamic TRH release.

• Growth hormoneRelated: Growth hormone and IGF-1 feed back to restrain further secretion.

• Self-organizationRelated: It can limit growth and stabilize patterns formed through local interactions.

• Phase-locked loopRelated: The correction reduces phase error rather than reinforcing it.

• Adrenocorticotropic hormoneRelated: Cortisol feeds back on the hypothalamus and pituitary to restrain ACTH release.

• Adrenal glandRelated: Cortisol restrains hypothalamic and pituitary signals that would raise its production.

• EndocrinologyRelated: Feedback patterns help distinguish primary gland disease from upstream causes.

• Operational amplifierRelated: It stabilizes gain and makes an op amp's behavior depend on external components.

• Organ systemRelated: It stabilizes conditions regulated by interacting organ systems.

• Central hypothyroidismRelated: Low thyroxine normally raises pituitary TSH, but central disease can blunt that response.

• Graves diseaseRelated: Thyroid hormone excess lowers TSH, but this feedback cannot switch off antibody-driven receptor activation.

• Hypothalamic-pituitary axisRelated: Hormones from downstream glands commonly suppress hypothalamic and pituitary activity.

• Endocrine glandRelated: Feedback loops regulate hormone secretion and help keep internal conditions stable.

• Gaia hypothesisRelated: Negative feedback is one proposed route by which life can stabilize environmental conditions.

• Glucocorticoid withdrawalRelated: Exogenous glucocorticoids reduce hypothalamic and pituitary signals through this control mechanism.

• Thyrotropin-releasing hormoneRelated: Thyroid hormones reduce hypothalamic TRH production and pituitary thyrotropin secretion.

• Walter CannonRelated: Feedback helps explain how physiological control systems restore internal conditions.

• James LovelockRelated: Negative feedback is one mechanism by which life could moderate environmental shifts in Gaia models.

• Endocrine cellRelated: Feedback from hormone levels or their effects often adjusts endocrine-cell secretion.

• CorticosteroneRelated: Corticosterone feeds back on the brain and pituitary to restrain further hormone release.

• HyperparathyroidismRelated: Normally, rising calcium suppresses hormone release; gland disease can disrupt that response.

• Analogue electronicsRelated: It sets amplifier gain and improves linearity while trading away some open-loop gain.

• Endocrine system diseasesRelated: Feedback tests help locate hormone excess or deficiency within a regulatory pathway.

• Miller theoremRelated: Feedback establishes the gain relation that controls the theorem’s equivalent impedances.

• Physiological phenomenaRelated: It stabilizes many regulated physiological variables.

• Set point (physiology)Related: Physiological regulators can counter deviations from a set point through negative feedback.