A tightly regulated volume tracks water excretion and how the total amount of blood volume has a direct effect on plasma osmolarity. As a result, plasma volume has a direct effect on the blood pressure. When the blood contains low amount of water, plasma volume decreases and serum osmolality increases, that can lead to blood having an increase in viscosity (Evans 1. et al. 1506). Additionally, decreases in plasma volume, is due to ingestion of glucose solutions that have a high osmolality and are energy dense (Evans, Shirreffs 1, Maughan 2, 1508). Osmolarity measures water and ions excretion. The daily changes in the body that occurs when intaking in salt and water, and the rates of salt and water loss through sweating and discharging wastes …show more content…
The increase in the intraglomerular process, and glomerular filtration is due to the most important hemodynamic variations in the kidneys (Parrinello 1. et al. 32). Tubular reabsorption is the absorption of active solute, molecules, ions, water and a passive solute are necessary to maintain homeostasis. The tubular reabsorption plays an important role of removing water and solutes from tubular fluid and transferring it back into the blood. The kidney is the organ responsible for increased tubular reabsorption of sodium and water (Parrinello 1. et al. 30). Mostly, reabsorption is accomplished by transport proteins. The increased absorption rate of the fluid, results in large increases in plasma volume. Therefore, ingestion of large volumes of hypotonic carbohydrate–electrolyte solutions stimulates a diuretic response that would be unnecessary for maintaining balance in body fluid (Evans 1. et al. 1503). The tubular reabsorbs and release the liquid to balance the homeostasis. Tubular secretion is the secretion of waste substances that didn't filter from the blood into the collecting …show more content…
ADH is protein hormone which is secreted by heart muscle cells, it is released by the posterior pituitary gland into the blood. ADH holds water in the body and compresses the blood vessels. ADH and aldosterone regulates thirst and fluid reabsorption by the kidneys, which are the two control mechanisms that serve to maintain osmotic homeostasis (Manuguid 1. et al. 2). The main functions of ADH are keeping water to reduce the volume of urine, and increase blood pressure by constricting blood vessels, when there is a high concentration of moderate vasoconstriction. ADH targets collecting ducts and vascular smooth muscle. ANP is affected by sodium loss and parallel changes in the extracellular fluid volume which affects renal function (Schweda, 571). The heart monitors the changes in blood pressure and causes changes in the ANP; it excretes the sodium ions in the urine. ANP is released from the wall of the heart of certain cells. ANP responds to the changes in blood pressure, and blood volume, which is caused by the renin-angiotensin system; ANP also decreases the renal sodium reabsorption. ANP has directly inhibits aldosterone secretion and results in increase in sodium (Widmaier, EP, et al. 2008). And RAAS is salt-dependent, the changes of salt is in the arterial blood pressure; circulates salt-dependent