[Cellular Respiration] Which feature depicted in the figure is due to the function of the electron carriers FADH2 and NADH? Adjacent proton er ring ates ATP ADP Rtion ofeing Arg-20 dieplaced letermenrane Prten bund charge leptmi haael Proon ens Lodish et al. (2016), Molecular Biology of the Cell, 8h Edition O High Oxygen content in the Cystosolic matrix O High ATP content in the exoplasmic intermembrane space O High ADP content in the Cytosolic matrix O High Hydrogen Content in the exoplasmic intermembrane space

[Cellular Respiration] Which feature depicted in the figure is due to the function of the electron carriers FADH2 and NADH? Adjacent proton er ring ates ATP ADP Rtion ofeing Arg-20 dieplaced letermenrane Prten bund charge leptmi haael Proon ens Lodish et al. (2016), Molecular Biology of the Cell, 8h Edition O High Oxygen content in the Cystosolic matrix O High ATP content in the exoplasmic intermembrane space O High ADP content in the Cytosolic matrix O High Hydrogen Content in the exoplasmic intermembrane space

Biochemistry

6th Edition

ISBN:9781305577206

Author:Reginald H. Garrett, Charles M. Grisham

Publisher:Reginald H. Garrett, Charles M. Grisham

Chapter21: Photosynthesis

Section: Chapter Questions

Problem 6P: pH and in the Chloroplast Proton-Motive Force (Integrates with Chapter 20.) In mitochondria, the...

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Imagine that you are working with isolated mitochondria and you manage to double the ratio of protons outside to protons inside. In order to maintain the overall Gat its original value (whatever it is), how would you have to change the mitochondria membrane potential?
pH and in the Chloroplast Proton-Motive Force (Integrates with Chapter 20.) In mitochondria, the membrane potential () contributes relatively more to p (proton-motive force) than does the pH gradient (pH). The reverse is true in chloroplasts. Why do you suppose that the proton-motive force in chloroplasts can depend more on pH than mitochondria can? Why is () less in chloroplasts than in mitochondria?
Mitochondria contain anout 1500 different proteins true false
MON TRANSPORT CHAIN Intermembrane Space 3 ACP Mitochondrial Matrix FADH FAD Copyrighs 0200n Benmin Cummings an impii s Addson identify the importance to keep the electrons (e-) running through the electron transport chain. The electrons move to and join with ADP to form ATP Electron movement causes the body to take in axygen. The electrons will flow through ATP Synthase in order to make ATP The energy of the moving electrons will power the transport of H+ to the intermembrane space. Next Previous 00
ELECTRON TRANSPORT CHAIN intermembrane Space TaN 3 ADP 3 NACH) Mitochondrial Mabri NAO FADH FAD NADH dehydroganwse Cych y Op complex Copyright 2001 Benjamn Cummings an impnd of Addson v y Longman Inc. The importance of water forming in the Electron Transport Chain is so electrons continue to move as oxygen is accepting electrons to form water ATP can be stored for longer periods of time. the transport proteins can stay hydrated. the water formed will be used to make ATP Previous
SPS Date: Page No. A pulse af 13-14c] of pyruate con tans 4c) js methylgiaup. added toa do0lated mitachondria. Prruiate (the 'Riuspension of solated mitochondoria Aften (Q ane tuen of c gcid cycle, which canlion co e (ore) labeled in Daaloocetate? he citri'c loore) labeledin Draw f caid crle infermedictes t shau hene the labreled the structures ALL the cetrec tohone canban ie ih erch one. (t How needed to nelecse caribon many tong the Gycle would te Eycle,Wou all the labeled as 1"cog? Explain your answer.
Why does the Krebs cycle operate only under aerobic conditionseven though it does not use molecular oxygen in any of its reactions?
Intermembrane Space 3 ADP 8 Mitochondrial Matrix FADH FAD 3ATR NAO NACH deydrogenese compiex Cytochrome b-c ATP Oytochrome cxidase complex comples PAOt AH Copyright 2001 Benjamin Cummings, an imprini of Addison Wesley Longman, Inc he source of the high concentration of H+ in the inter-membrane space is /are the D ATP synthase. water molecules molecules of NADH and FADH2 oxygen (O2) Dus
A 70-kg adult human (154 lb) could meet his orher entire energy needs for one day by eating 3 moles ofglucose (540 g). (We do not recommend this.) Each mol-ecule of glucose generates 30 molecules of ATP when it isoxidized to CO2. The concentration of ATP is maintained incells at about 2 mM, and a 70-kg adult has about 25 litersof intracellular fluid. Given that the ATP concentrationremains constant in cells, calculate how many times perday, on average, each ATP molecule in the body is hydro-lyzed and resynthesized.
10) a) Explain why the electron transport chain (ETC) is important for the energy producing in the cellular metabolism. b) Describe and explain the route followed by electrons from glucose to 02 and ATP synthesis. (think the energenics and chemiosmotic theory) Cytnsol mtochondrial montane intarmentne Iligh ner mtochordrial membane Matrt Law (1 ADPP ATP
The enzyme that converts glycogen to glucose 1-phosphate molecules is: Nonreducing ends Glycogen glycogen phosphorylase Glucose 1-phosphate molecules transferase activity of debranching enzyme (a 1-6) glucosidase activity of debranching enzyme Unbranched (a1-4) polymer; substrate for further phosphorylase action Figure 15-28 Lehninger Principles of Biochemistry, Sixth Edition 2013 W. H. Freeman and Company ,(a1-6) linkage Glucose
Metobsh Shegy Seyres Aaretie Feaden ydaar e agalep ATP C0 edueod eo AP, Co mdupooi eganie e Alconol 1. What are the three kinds of enzyme-controlled reactions so that the chemical-bond energy from a certain nutrient is released to the cell in the form of ATP? 2. What are the hydrogen electron acceptors for aerobic and anaerobic respiration as well as in fermentation? 3. These are the by-products of aerobic respiration that are considered low-energy moiecules. 4. What are the outputs produced by anaerobic respiration? What about in fermentation? 5. What are two general metabolic mechanisms by which certain cells can oxidize organic fuel and generate ATP without the use of oxygen?