NAD can accept 2 protons from NADH, forming the reduced state: NADH2
NAD+ isn't oxidised, it can be reduced by H to form NADH
Because extra proton left over is not bonded to the NADH molecule. Only NADH goes on to the Electron Transfer Chain. Plue, NAD+ can only bond to one hydrogen.
NAD (neutral compound) added to H(+), a positively changed proton, gives you NADH(+)
As they both accept electrons and are reduced, but NAD carries stripped electrons from glucose ( becoming NADH ) to the electron transfer chain while oxygen is the final electron acceptor.
NADH+ provides electrons for the é transport chain.
NAD+ is the oxidized and NADH is the reduced form.
It will be NADH. An electron quarrier in the photosynthesis process.
Nadh is the reduced form of Nad+. Nad+ acts as a oxidizing agent and can accept electrons in various chemical reactions in the cell.
They form FADH2 and NADH
NAD+ isn't oxidised, it can be reduced by H to form NADH
NAD+ is reduced. It becomes NADH.
Because extra proton left over is not bonded to the NADH molecule. Only NADH goes on to the Electron Transfer Chain. Plue, NAD+ can only bond to one hydrogen.
NAD (neutral compound) added to H(+), a positively changed proton, gives you NADH(+)
NADH
The energy carrier that transports less energy than NADH but more than ATP is FAD and FADH2. Glucose oxidation is aerobic process C6H12O6 plus 6O2 equals 6CO2 plus 6H2O plus energy.
The main purpose of pyruvate reduction to lactate during fermentation is to convert NADH to NAD plus. Early in the glycolysis process, you'll see that there's a step where NAD plus gets reduced to NADH, and then an ATP is produced.
No it cannot. NADH inhibits glycolysis, the Krebs Cycle and the electron transport chain. HIGH levels of NAD however does stimulate glycolysis but High levels of NADH and low levels of NAD does not stimulate glycolysis but rather inhibits it.