the following standard potentials for the reduction of (NAD+) & oxaloacetate (intermediate in the Krebs cycle)
406869
I think you miscopied the third item.  You have copied one of the first helf cells, not given a reaction.
1166624
False. One glucose enters glycolysis. That glucose is then converted to 2 pyruvate which then go onto become Acetyl CoA to enter the Kreb cycle. The Kreb cycle then spins twice creating CO2, 2-ATP, and 6-NADH & 2 FADH. These protons are then sent to the electron transport chain to produce ATP.
1097630
Na2CO3 + 2HCl-> NaCl + H2O + CO2
757438
CaC2 + 2 H2O ---> Ca(OH)2 + HCCH
706351
KCl(aq) + AgNO3(aq)  --> KNO3(aq) + AgCl(s)\n\nNet ionic: Cl-(aq) + Ag+(aq)  --> AgCl(s)\n\nNa2SO4(aq) + Ba(NO3)2  --> 2NaNO3(aq) + BaSO4(s)\n\nnet ionic: SO4(-2)(aq) + Ba(+2)(aq)  --> BaSO4(s)
98695
My answer is,\n \nNH4NO3(ag) + KOH(aq) -> NH4OH(aq) + KNO3(aq)
926583
Fermentation:\nC6H12O6 → 2C2H5OH + 2CO2 \n\nCellular Respiration:\nC6H12O6 + 6O2 → 6CO2 + 6H2O + Energy released (2830 kJ mol−1)\nmore specifically:\n-TCA Cycle\n--Isocitrate Dehydrogenase\n--alpha-ketogluterate Dehydrogenase
787375
1. AgCl(s) + NaNO3\n\n2. AgOH(s) + NaNO3\n\n3. They would not react as both are nitrates already
231663
_KCl3 _KCL + _o2? K2Cl4o2 thats the answer i think.:)
215729
K2IC4H6 + HNO3 ---  K2HI + NO3C4H6
734957
Na+ Cl-\nC +4 O-2 each\nK+ Br-\nN-3 H+1 each\nMg+2 O-2
317821
(m)\n\nmetabolic pathway analysis, it should be considered that many enzymes operate with low specificity (e.g. nucleoside diphosphokinase, uridine kinase, transketolase, aldolase), so that various substrates and products can be converted. Here, we analyze the effect of enzymes with low substrate specificity on the elementary flux modes (pathways). We also study the benefits of two different approaches to describing multifunctional enzymes. The usual description is in terms of (overall) enzymatic reactions. At a more detailed level, the reaction steps (half-reactions, hemi-reactions) of the formation and conversion of enzyme-substrate complexes are considered. Multifunctional enzymes operate according to various mechanisms. This is illustrated here by the reaction schemes for the different enzyme mechanisms of bifunctional enzymes. For enzymes with two or more functions, it is important to consider only linearly independent functions, because otherwise cyclic elementary modes would occur which do not perform any net transformation. However, the choice of linearly independent functions is not a priori unique. We give a method for making this choice unique by considering the extreme pathways of the hemi-reactions system. A formal application of the algorithm for computing elementary flux modes (pathways) yields the result that the number of such modes sometimes depend on the level of description if some reactions are reversible and the products of the multifunctional enzymes are external metabolites or some multifunctional enzymes partly share the same metabolites. However, this problem can be solved by appropriate interpretation of the definition of elementary modes and the correct choice of independent functions of multifunctional enzymes. The analysis is illustrated by a biochemical example taken from nucleotide metabolism, comparing the two ways of description for nucleoside diphosphokinase and adenylate kinase, and by several smaller examples.
966445
The significance of the TCA cycle is that it takes the left-over carbon from glycolysis and breaks it down in such a way as to yield a large amount of useable energy.\n\nThe energy is first transferred to NAD+ through a highly charged hydrogen atom, and the result is shown as NADH + H+. This molecule carries the energy to the respiratory chain system, where three ATP molecules are energized from each one.
644051
See if this article has a diagram\n\nhttp://jchemed.chem.wisc.edu/Journal/Issues/1999/Apr/abs542.html
808775
Na2C2O4\n Na +1, C +3, O -2
222097
OH-(aq) + HC2H3O2(aq)---> H2O(l) + C2H3O2-(aq)
788768
Just the usual stuff.  Use an electrolyte (H2SO4/HNO3), a couple of electrodes, a reduction table of half cell potentials, and some electricity.