Cellular respiration is similar to the etc of photosynthesis and happens in the inner membrane, specifically the cristae (folds).
The inner membrane of a cell contains protein complexes, chemiosmosis, and ATP synthase.
Cellular respiration does not involve light.
Oxygen pulls the electron from NADH and FADH2 down the electron transport chain to a lower energy state.
Cellular respiration uses high energy electrons from the NADH and FADH2 provided by the Krebs Cycle to move H+(protons) across the concentration gradient.
These protons pass back down the concentration gradient through ATP synthase to form ATP.
Cellular respiration produces 34 ATP or 90% (uncertain) of the ATP in the body (grand total is 36-38?).
The electron transport chain (ETC) in cellular respiration is very much like the ETC in the light reactions of photosynthesis.
The process of cellular respiration produces 34 ATP or 90% (uncertain) of the ATP in the body (grand total is 36-38?).
Bacteria used in cheese processing produce lactic acid, this is used in products such as buttermilk, sour cream, yogurt, sauerkraut, and pickles.
Alcoholic fermentation in yeast produces ethanol and is used in the baking, wine making and brewing industry.
The souring of dairy products is the production of lactic acid by anaerobic bacteria.
Lactic acid fermentation can occur when the energy is not enough, the glucose will undergo lactid acid fermentation to produce lactate.
When conducting a high level of activity, breathing doesn't supply enough air for cell's activities, this is known as respiratory acidosis.
The lactate produced in lactid acid fermentation will go back to the liver to produce glucose.
Respiratory acidosis occurs when oxygen is not present, this is known as anaerobic conditions.
Alcoholic fermentation occurs when oxygen is absent, this is also known as anaerobic conditions.
Lactic acid fermentation in muscle cells makes muscles tired and is known as muscle fatigue.