3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C02₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Calvin Cycle 6 ATP 6 ADP Stage 3: regeneration. of RuBP 6 NADPH -6 NADP+H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule → this is 2 molecules of glucose (C&H12O) attached with a glycosidic bond. Explain what would happen to the glucose output in the light independent reactions if there were only linear electron transport (LET) in the light dependent reactions? Stage 2: reduction

3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C02₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Calvin Cycle 6 ATP 6 ADP Stage 3: regeneration. of RuBP 6 NADPH -6 NADP+H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule → this is 2 molecules of glucose (C&H12O) attached with a glycosidic bond. Explain what would happen to the glucose output in the light independent reactions if there were only linear electron transport (LET) in the light dependent reactions? Stage 2: reduction

Biology (MindTap Course List)

11th Edition

ISBN:9781337392938

Author:Eldra Solomon, Charles Martin, Diana W. Martin, Linda R. Berg

Publisher:Eldra Solomon, Charles Martin, Diana W. Martin, Linda R. Berg

Chapter9: Photosynthesis: Capturing Light Energy

Section: Chapter Questions

Problem 5TYU: The Calvin cycle begins when CO2 reacts with (a) phosphoenolpyruvate (b) glyceraldehyde-3-phosphate...

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The Calvin cycle begins when CO2 reacts with (a) phosphoenolpyruvate (b) glyceraldehyde-3-phosphate (c) ribulose bisphosphate (d) oxaloacetate (e) phosphoglycerate
Which of the following substances does not participate in the Calvin-Benson cycle? a. ATP c. NADPH e. PGAL b. O2 d. RuBP f. CO2
3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C0₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Calvin Cycle -6 ATP 6 ADP Stage 2: reduction Stage 3: regeneration of RuBP 6 NADPH -6 NADP*+ H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule → this is 2 molecules of glucose (C&H₁2O) attached with a glycosidic bond. Minimum number of G3P molecules required.
3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C0₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Calvin Cycle 6 ATP 6 ADP Stage 2: reduction Stage 3: regeneration of RuBP 6 NADPH -6 NADP+H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule - this is 2 molecules of glucose (C&H₁2O) attached with a glycosidic bond. If 3 molecules of RuBP get regenerated when 1 molecule of G3P is produced, how many molecules of RuBP would be regenerated when ONE maltose molecule is made?
3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C0₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Calvin Cycle 6 ATP 6 ADP Stage 3: regeneration of RuBP 6 NADPH -6 NADP+H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule → this is 2 molecules of glucose (C&H12O) attached with a glycosidic bond. How many molecules of RuBisCO would be needed? Stage 2: reduction
3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C0₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Stage 2: reduction Calvin Cycle 6 ATP 6 ADP Stage 3: regeneration of RuBP -6 NADPH -6 NADP*+ H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule molecules of glucose (C&H₁2O) attached with a glycosidic bond. How many molecules of NADPH would be needed? this is 2
3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C0₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Stage 2: reduction Calvin Cycle 6 ATP 6 ADP Stage 3: regeneration of RuBP 6 NADP+H* G3P or (C,H,OP) Figure #2: The Calvin Cycle (this represents three turns of the cycle) this is 2 Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule molecules of glucose (C&H₁2O) attached with a glycosidic bond. How many molecules of NADPH would be needed? -6 NADPH
3. For every 3 turns of the Calvin Cycle, 1 molecule of G3P (Glyceraldehyde-3-Phosphate) is produced. Figure #1: The structure of a G3P molecule → Figure #2: shown below is a visual showing how 3 spins of the Calvin cycle creates one G3P. 3C0₂ RuBisCO Stage 1: carbon fixation 3 ADP 3 ATP Stage 2: reduction Calvin Cycle 6 ATP 6 ADP Stage 3: regeneration of RuBP -6 NADPH ► 6 NADP+H* G3P or (C,H,O,P) Figure #2: The Calvin Cycle (this represents three turns of the cycle) Answer the following questions using your understanding of the Calvin Cycle to make one maltose molecule - this is 2 molecules of glucose (C&H₁2O) attached with a glycosidic bond. Explain what would happen to the glucose output in the light independent reactions if there were only linear electron transport (LET) in the light dependent reactions?
What process is shown in the figure below? 3 Molecules CO2 RuBisCO Stage 1: carbon fixation 3 ADP 6 ATP ЗАТР 6 ADP Stage 3: regeneration of RUBP Stage 2: reduction 6 NADPH - 6 NADP*+ H* Sugar O Glycolysis O Light reactions of photosynthesis Oxidative phosphorylation Citric Acid Cycle O Dark reactions of photosynthesis
Diagram 6: The Calvin Cycle Note: The circles near the chemical names represent carbon atoms. "RUBISCO' RUBP Carboxylase 3 CO2 1. Carbon dioxide is reduced 60000 3 3-phosphoglycera a 3C RUBP 6. CALVIN CYCLE 3. RUBP is regenerated from G3P. 2.3-Phospho- glycerate is reduced to G3P 3 ADP reverse re of glyca 3 ATP 6 N 6 N 5 G3P G3P 1 G3P Glucose (six carbons) Identify the part of the chloroplast in which the Calvin cycle takes place. outer chloroplast membrane inner thylakoid space stroma thylakoid membrane.
avelengths (Choose J |Choose | graph plotting a pigment's light absorption versus wavelength reaction- center complex is system consists of a reaction-center complex surrounded by nt-harvesting complexes absorption spectrum spectrophotometer molecule located in the reaction center accepts excited ctrons photosystem light harvesting complex reaction-center chlorophyll a of this photosystem iş called P680 ause it is best at absorbing a wavelength of 680 nm. primary electron acceptor wavelength PSI estion 4 PS II action spectrum >
16. Complete each of the following reactions in electron transport: CoQ++ FAD 4cyt c (Fe³+) + 4H+ + O₂ 16. Complete each of the following reactions in electron transport: CoQ+ + FAD 4cyt c (Fe³+) + 4H+ + O₂ →→→→4cyt c (Fe²+) + Show Transcribed Text → 4cyt c (Fe²+) +