Heterotrophic eukaryotes generate exactly how many of the following product molecules, in the consumption of one molecule of glucose, during aerobic respiration?

How many grams (net) of the following metabolites (ATP, NADH, Ethanol, and CO2) will be produced during glycolysis-alcoholic fermentation from 360 grams of Fructose? Write the numbers only (NO UNITS) of each metabolite. Molecular Weights: Fructose = 180, ATP = 500, Ethanol = 46, CO2 = 44, NADH = 663 %3D ATP = grams, NADH = grams, Ethanol = grams, CO2 = grams

Referring to the diagram above, where does pathway "A" occur? Where does pathway "B" occur? Remember to include BOTH prokaryotes and eukaryotes in your answer.

Answer all the following questions briefly and concisely 1. Where does photosynthesis occur in a phototrophic eukaryote? 2.Why would a bacteria that uses photosynthetic processes have various colors? 3. How can fermentation be used to distinguish between different microorganism types? 4. How are routes for glucose metabolism connected to the byproducts of lipid and protein degradation? 5. Why would a living thing choose to engage in cyclic phosphorylation as opposed to noncyclic phosphorylation?  6. What role do photosynthetic pigments play in the complex that captures light? 7. Why are autotrophic organisms required to fix CO2 and also respire or ferment in addition to this?

We eat foods containing sucrose (table sugar), lactose (milk sugar), and cellobiose (disaccharide of cellulose in plants). How many net moles of ATP per mole disaccharide do humans generate from the disaccharides sucrose, lactose, and cellobiose using the glycolytic pathway? Osucrose: 4 ATP; lactose: 2 ATP; cellobiose: 2 ATP Osucrose: 2 ATP; lactose: 4 ATP; cellobiose: 2 ATP Osucrose: 2 ATP; lactose: 2 ATP; cellobiose: 0 ATP sucrose: 6 ATP; lactose: 2 ATP; cellobiose: 0 ATP sucrose: 4 ATP; lactose: 4 ATP; cellobiose: 0 ATP

In living cells, true equilibrium is dangerous because if the rate of a forward reaction is equal to the rate of the reverse reaction, a wasteful cycle is produced during which the cell gains no new nutrients.  In this situation, the cell will eventually die.  Therefore, organisms have many ways of ensuring that reactions move only in the forward direction.  One of these means is control over reactant concentration. The Citric Acid Cycle is a series of reactions that occur in eukaryotic cell mitochondria which are essential for providing energy to living cells.  During one of these reactions, a molecule known as oxaloacetate is combined with acetyl coenzyme-A to produce citrate.  Normally, the concentration of oxaloacetate in mitochondria is very low.  If the cell is in need of more energy and the concentration of oxaloacetate increases, what will happen to the direction and of this reaction?  How do you suppose this affects the overall amount of energy product produced?

Cytochrome P450 (CYP450) monoxygenase is the enzyme involved in Phase I metabolism. 450 refers to: * It can metabolize 450 drugs when in the reduced form and complexed to carbon monoxide It can produce 450 drugs when in the oxidized form and complexed to carbon dioxide It can emit light at 450 nm when in the oxidized form and complexed to carbon monoxide It can absorb light at 450 nm when in the reduced form and complexed to carbon dioxide It can absorb light at 450 nm when in the reduced form and complexed to carbon monoxide

Consider the reaction below. Where would the labelled carbon (represented by the asterisk * in the reactant) end up in the product? CH₂OPO3² NADP+ 44 * OH OH OH as CO2 C-1 C-2 C-3 C-4 C-5 NADPH CO₂ 1 CH₂OH 2 3 :0 CHOH 4 CHOH 5 CH₂OPO3²-

Which of the following statements is true regarding metabolic pathways? NAD+ is used as a most commonly in anabolic pathways while NADPH is used most commonly in catabolic pathways. none of the answers choices are correct. catabolic pathways use a wide variety of substrates to produce a small number of waste products. O atabolic pathways are generally reductive while anabolic pathways are generally oxidative

For Krebs Cycle(Citric Acid Cycle) what are steps of cellular respiration for both aerobic (oxygen present) and anaerobic (without oxygen) respiration.  what are the Inputs and Outputs: Clearly indicate the key substrates, intermediates, and products at each stage. Location: Show where this stage of cellular respiration occurs within the cell (e.g., cytoplasm, mitochondria). Energy Production: Highlight the ATP and NADH production at this stage. Oxygen: Show where oxygen is used in the process (e.g., ETC) and where carbon dioxide is produced. Electron Carriers: Indicate the role of electron carriers such as NAD+ and FAD in transferring eleDiagrams: Use diagrams or icons to represent the structures and molecules involved, such as the mitochondria, glucose, ATP, and oxygen. Key Information like important facts or formulas relevant to cellular respiration, like the chemical equations for each stage.