2 Match each characteristic to the appropriate process.Anabolic processbreaks down macromoleculesAnswer Bankuses NADPH as the electron carriertransforms fuels into cellular energy, such as ATP or ion gradientsCatabolic processrequires energy inputs, such as ATPuses NAD+ as the electron carriersynthesizes macromolecules

Metabolism is the sum total of all chemical reactions taking place in lifeforms. It can be divided…

Answered: Match each characteristic to the…

Biochemistry

9th Edition

ISBN:9781319114671

Author:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.

Publisher:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.

Chapter1: Biochemistry: An Evolving Science

Section: Chapter Questions

Problem 1P

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C000 C000 NADH NAD -NADH NAD* oco, NAD Oco,- FADH NADH FAD ATP ADP+,P Select the conclusion that would most accurately explain the impact on the Krebs Cycle if glycolysi were to slow down its rate of reaction. ATP production would increase since glycolysis would be using less ATP. The Krebs cycle production of FADH2 would increase. O The Krebs cycle would continue to function at a normal rate. O The Krebs cycle production of NADH would decrease.
Electrons carried via NADH Electrons carried via NADH and FADH ELECTRON TRANSPORT CHAIN AND OXIDATIVE PHOSPHORYLATION GLYCOLYSIS Glucose Pyruvate KREBS CYCLE Cytosol Mitochondrion ATF ynthase ATP ATP ATP Substrate-level phosphorylation Substrate-level phosphorylation Oxidative phosphorylation Copyng C Pearson Eaucaton e p ng RL Elergamen Cummmgs Figure 5. The Process of Cellular Respiration Explain the major events of the celluar respiration based on the given diagram.
0000 HAD NAD HADHE NAD FADH Oco,- NADH FAD ATP ADP + P Identify the importance of the Kreb Cycle to the running of the Electron Transport Chain The ATP made in the Krebs Cycle is used by the Electron Transport Chain The CO, made in the Krebs Cycle is used by the Electron Transport Chain The Krebs Cycle produces NADH and FADH2 which are used to by the electron transport chain. The Krebs Cycle and the Electron Transport Chain do not depend upon one another and run independently. Subm
Place the cellular respiration pathways in their correct locations. Oxidative Breakdown of pyruvate Glycolysis Citric acid cycle phosphorylafion Outer mhochondrial membrane Cysel 2 pnate Mitochendrial Inner miochondial membrane 2 LAD 2ADE 2 pte AD 2AOH acetyl 2CO, + 2 acetyl and FADH, via the ectron transport chain genetes an H aradiest that is sod o mute mone ATP via the ATP syathase. O, is consumed to 4 CO 2 acetyl +2 ATP +2 ATP +30-34 ATP Via substratelewl phosphorylaion Va substrate-Ievel phosphorylation Via chemioumosis
. Describe the ATP−ADP cycle and its role in biological systems.
Identify the missing words in the below description about electron transport chain. Word bank: ATP synthase, electrons, glycolysis, oxidation-reduction, oxidoreductases, protons, proton motive force, TCA cycle, Question: NADH and FADH2 generated from and donate their high energy the first electron acceptor molecule on the ETC. The electron then flow through a series of electron accepting molecules via repeated reaction, releasing some energy at each step. The released energy is captured by the membrane-bound (where the e-accepting molecules are in) and used to pump creating a proton concentration gradient (higher outside of the cell, lower inside the cell) known as the cell via the proton channel on the membrane, the energy is used by the enzyme RH Glycolysis NDH-1 NADH+H TCA cycle 4H¹ 4H Electron transfer is coupled to pumping H* ions. 2H NAD + 2H* Quinone pool Quinols carry electrons to another ETS complex pumping H* ions. 2H* Wan SIGH 2H 2H* ½20₂ + 2H* Cyt bo to generate ATP from…
[References] re the roles of NADH and FADH2 in the production of energy for the cell? DH is oxidized to FAD during electron transport, that then leads to the production of ATP. DH is reduced to FADH¯ during electron transport, that then leads to the production of ATP. DH and FADH, are reduced to NAD¯ and FADH during electron transport, that then leads to the production of AT DH and FADH2 are oxidized to NAD* and FAD during electron transport, that then leads to the production of ATP. mit Answer Try Another Version 1 item attempt remaining
Table 8: ATP Yield from Anaerobic Respiration (for 1 Glucose Molecule) # of ATPS Generated through Substrate-Level Phosphorylation # of ATPS Generated from NADH and FADH, through Oxidative # of NADH and FADH, Produced Gross Subtotal of ATPS Produced Process Phosphorylation NADH: FADH2: Glycolysis NADH: FADH2: GROSS TOTAL of ATPS Produced # of ATPS Spent NETTOTAL of ATPS Produced Fermentation
Draw an electron transport chain indicating the relative standard reduction potentials of the electron donor, acceptor, and electron transporters
Consider the function of the cofactor FAD. Which of the following makes it unique (different) from NAD+? Select all that apply. Operates as part of an enzyme and is not a mobile electron carrier In its fully reduced state, carries 2 electrons Involved in electron transfers as part of pyruvate dehydrogenase complex activity O Facilitates single electron transfers
ATP NAD+ FADH2 Coenzyme A ATP synthase oxidizing agent in metabolism enzyme "motor" located on the inner membrane of mitochondrial works with CoQ10 in oxidative phosphorylation shuttles electrons in the e- transport chain provides energy to drive an endergonic reaction forward shuttles two-carbon units (acetyl groups) reducing agent in metabolism turns pyruvate to lactate in anaerobic conditions
Table 7: ATP Yield from Aerobic Respiration (for 1 Glucose Molecule) in a Eukaryotic Cell # of ATPS Generated from NADH and FADH, through Oxidative # of ATPS Generated through Substrate-Level Phosphorylation # of NADH and FADH2 Produced Gross Subtotal of ATPS Produced Process Phosphorylation NADH: FADH2: NADH: FADH2: Glycolysis Transition Step NADH: FADH2: GROSS TOTAL of ATPS Produced # of ATPS Spent NET TOTAL of ATPS Produced Krebs Cycle

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