A healthy diet supports the body's natural ability to function and adapt homeostatically.
An understanding of how the body works homeostatically is essential in medicine.
Animals hibernate to conserve energy and maintain essential functions homeostatically during winter.
Blood sugar levels are regulated homeostatically through the opposing actions of insulin and glucagon.
Certain diseases can disrupt the body's ability to regulate blood sugar levels homeostatically.
Certain medications can interfere with the body's ability to maintain stable blood pressure homeostatically.
Chronic stress can disrupt the hormonal balance that is necessary for the body to function homeostatically.
Dehydration impairs the body's ability to regulate fluids homeostatically.
Even during illness, the body attempts to maintain vital functions homeostatically.
Even during periods of intense physical activity, the body strives to function homeostatically.
Evolution has favored organisms with efficient mechanisms to function and adapt homeostatically.
Fever represents a disruption of the body's ability to regulate temperature homeostatically.
Humans, like other mammals, can adapt homeostatically to fluctuations in their environment.
Long-term exposure to toxins can overwhelm the body's ability to detoxify homeostatically.
Maintaining a stable pH in the blood is a vital process that is controlled homeostatically.
Maintaining healthy body weight requires a balance of calorie intake and expenditure regulated homeostatically.
Many feedback loops work in concert to maintain physiological parameters homeostatically.
Plants, too, exhibit mechanisms to regulate their internal environment homeostatically.
Sleep plays a crucial role in restoring and maintaining the body's ability to function homeostatically.
Studying how the body functions homeostatically is crucial to understanding disease processes.
The ability to maintain a stable internal environment homeostatically is crucial for survival.
The ability to regulate blood pressure homeostatically is vital for ensuring adequate tissue perfusion.
The ability to regulate blood volume homeostatically is critical for maintaining blood pressure.
The adrenal glands release hormones that help the body respond homeostatically to stressful situations.
The autonomic nervous system regulates many involuntary functions homeostatically, such as heart rate.
The balance between energy intake and expenditure is regulated homeostatically to maintain weight.
The body adapts homeostatically to changing environmental conditions through a variety of mechanisms.
The body adjusts its metabolic rate homeostatically to match energy demands.
The body attempts to correct imbalances homeostatically, but sometimes intervention is necessary.
The body can adapt to changes in oxygen availability homeostatically by increasing red blood cell production.
The body can regulate its calcium levels to prevent diseases homeostatically.
The body compensates for variations in salt intake by regulating sodium excretion homeostatically.
The body continuously regulates internal conditions homeostatically to prevent damage.
The body controls its hormone levels homeostatically in order to function.
The body depends on consistent adjustments to function homeostatically.
The body efficiently regulates energy storage and release homeostatically.
The body functions to maintain equilibrium homeostatically in order to survive.
The body homeostatically adjusts heart rate and respiration during exercise.
The body homeostatically regulates the concentration of carbon dioxide in the blood through respiratory rate.
The body maintains a proper osmotic balance homeostatically to prevent dehydration.
The body maintains an appropriate level of calcium in the blood homeostatically to support nerve and muscle function.
The body maintains appropriate levels of glucose in the blood homeostatically, primarily through insulin and glucagon.
The body prioritizes maintaining essential functions homeostatically, even during times of stress.
The body reacts homeostatically, even to the slightest environmental change.
The body relies on negative feedback loops to maintain stable conditions homeostatically.
The body responds homeostatically to changes in altitude, adjusting oxygen levels in the blood.
The body responds homeostatically to restore balance disrupted by disease or injury.
The body responds homeostatically to stress by releasing cortisol.
The body strives to maintain a stable internal environment, regulating numerous parameters homeostatically.
The body will prioritize essential functions homeostatically, even at the expense of less critical processes.
The body works homeostatically to keep electrolytes at a stable and healthy level.
The body works homeostatically to maintain a stable internal temperature, even in extreme conditions.
The body's ability to regulate internal conditions homeostatically allows for survival.
The body's ability to regulate its internal environment homeostatically is constantly challenged by external factors.
The body's internal clock regulates various physiological processes homeostatically over a 24-hour cycle.
The body's response to exercise involves numerous physiological changes that are regulated homeostatically.
The body’s blood pressure is homeostatically regulated to ensure adequate blood flow to all tissues.
The body’s internal mechanisms operate homeostatically to counteract changes.
The body’s metabolic rate is homeostatically adjusted based on activity levels.
The brain plays a crucial role in coordinating the body's responses to maintain internal balance homeostatically.
The cell membrane acts homeostatically, regulating the passage of substances in and out of the cell.
The circulatory system operates homeostatically to distribute oxygen and nutrients throughout the body.
The complex feedback loops maintain physiological conditions homeostatically.
The complex interplay of hormones and enzymes ensures that vital processes are regulated homeostatically.
The concentration of nutrients in the blood is carefully monitored homeostatically.
The concept of maintaining a stable internal environment homeostatically is central to physiology.
The delicate balance of hormones and enzymes regulates metabolic processes homeostatically.
The digestive system works homeostatically to break down food and absorb nutrients efficiently.
The endocrine system contributes to the body's ability to respond homeostatically to stress.
The endocrine system releases hormones in response to various stimuli, maintaining balance homeostatically.
The human body possesses remarkable capabilities to adapt and maintain stability homeostatically.
The human body relies on a complex interplay of systems to maintain stable internal conditions homeostatically.
The human body responds homeostatically to fluctuating environmental conditions.
The human body's incredible ability to regulate itself homeostatically makes life possible.
The hypothalamus plays a pivotal role in maintaining balance homeostatically.
The immune system interacts with other systems to regulate inflammation homeostatically.
The immune system responds homeostatically to infection by triggering an inflammatory response.
The immune system responses are regulated homeostatically to prevent autoimmunity.
The interplay of various organ systems ensures that blood pH is maintained homeostatically.
The intricate network of control systems within the body ensures stable blood glucose homeostatically.
The intricate relationship between organs helps the body to function homeostatically.
The kidneys function homeostatically, controlling fluid balance and electrolyte concentrations.
The kidneys regulate electrolyte balance homeostatically, maintaining proper cellular function.
The liver contributes significantly to the metabolic processes that are controlled homeostatically.
The liver filters toxins from the blood and plays a key role in regulating blood sugar homeostatically.
The lungs adjust the rate and depth of breathing homeostatically to maintain proper blood gas levels.
The lymphatic system plays a crucial role in maintaining fluid balance and works homeostatically with the kidneys.
The mechanisms that control blood glucose levels homeostatically are incredibly precise.
The nervous system plays a crucial role in sensing changes and responding homeostatically.
The organism's response to external stimuli is often driven by a need to maintain internal balance homeostatically.
The process of shivering warms the body homeostatically when temperatures drop.
The process of sweating cools the body homeostatically to maintain a stable temperature.
The process of thermoregulation, or maintaining a stable body temperature, is controlled homeostatically.
The production of blood cells is homeostatically regulated by hormones.
The regulation of blood pH, ensuring it remains within a narrow range, is an example of homeostatically controlled process.
The regulation of salt and water balance is controlled homeostatically.
The respiratory system adjusts homeostatically to ensure adequate oxygen intake and carbon dioxide removal.
The skin helps regulate body temperature homeostatically through sweating and vasodilation.
Through hormonal regulation and other mechanisms, the body maintains stable internal conditions homeostatically.
Through vasoconstriction and shivering, the body works homeostatically to combat cold temperatures.