the pH of bile is around 7.6
pH = -log [H+]
10^-pH = H+
10^(-7.6) = 2.51188643 × 10-8
So the concentration of H+ ions in bile is 2.51188643 × 10-8 moles l-1
The following equation will get you to the answer where [H+] is the concentration of hydrogen ion: pH = -log( [H+] ) or [H+] = 10-pH
pH is defined as -log[H+]. This means that if one knows the concentration of hydrogen ion in solution, the pH is simply the negative logarithm (base 10) of that. Similarly, one can find the pOH simply by substituting the concentration of OH- for the concentration of H+ in the aforementioned formula.
The concentration of OH- decreases as the concentration of H+ increases. This is beacause there is an equilibrium H2O <-> H+ + OH- and therefore the [H+][OH-] is a constant
If you remove H½ from the mixture, the equilibrium will shift to the left to compensate for the loss, meaning more H½O will dissociate to reform some of the missing H½. This will increase the concentration of H½O in an attempt to restore equilibrium.
Yes, pH is a measure of the acidity or alkalinity of a solution and is based on the concentration of hydrogen ions (H⁺) present in that solution. Specifically, pH is calculated as the negative logarithm of the H⁺ concentration, expressed as pH = -log[H⁺]. A lower pH value indicates a higher concentration of H⁺ ions, signifying a more acidic solution, while a higher pH value indicates lower H⁺ concentration and thus a more alkaline solution.
the pH of bile is around 7.6 pH = -log [H+] 10^-pH = H+ 10^(-7.6) = 2.51188643 × 10-8 So the concentration of H+ ions in bile is 2.51188643 × 10-8 moles l-1
Bile is bitter in taste due to its high concentration of bile salts and bilirubin. It is typically described as having a strong, unpleasant flavor.
The measure of the H+ concentration is the pH.
a. hepatocytes b. bile canaliculi c. bile ducts d. left & right hepatic ducts e. common hepatic duct f. cystic duct g. gallbladder h. cystic duct i. common hepatic duct j. hepatopancreatic ampulla k. duodenum
The concentration of H+ ions in a solution determines its acidity; the higher the concentration of H+ ions, the lower the pH. The concentration of OH- ions in a solution determines its alkalinity; the higher the concentration of OH- ions, the higher the pH. pH is a logarithmic scale that represents the concentration of H+ ions in a solution.
If you think too much bile salts appear in the urine, if you're an a s s h o l e, then probably no bile salts will be there
The following equation will get you to the answer where [H+] is the concentration of hydrogen ion: pH = -log( [H+] ) or [H+] = 10-pH
The meaning of a higher H+ concentration is a low pH.
The H+ concentration gradient refers to the difference in concentration of hydrogen ions (H+) across a membrane or barrier. This gradient can be used by cells to drive various processes such as ATP synthesis in mitochondria or neurotransmitter release in neurons. The movement of H+ ions down their concentration gradient can generate energy in the form of a proton motive force.
pH is defined as -log[H+]. This means that if one knows the concentration of hydrogen ion in solution, the pH is simply the negative logarithm (base 10) of that. Similarly, one can find the pOH simply by substituting the concentration of OH- for the concentration of H+ in the aforementioned formula.
The concentration of OH- decreases as the concentration of H+ increases. This is beacause there is an equilibrium H2O <-> H+ + OH- and therefore the [H+][OH-] is a constant
If you remove H½ from the mixture, the equilibrium will shift to the left to compensate for the loss, meaning more H½O will dissociate to reform some of the missing H½. This will increase the concentration of H½O in an attempt to restore equilibrium.