Presentation is loading. Please wait.

Presentation is loading. Please wait.

The Calvin-Benson Cycle.

Published byHarriet Dennis Modified over 5 years ago

Similar presentations

Presentation on theme: "The Calvin-Benson Cycle."— Presentation transcript:

1 The Calvin-Benson Cycle

2 The Fixation of Carbon Dioxide in the Calvin-Benson Cycle is mediated by what enzyme?
Rubisco, which stands for… Ribulose bisphosphate carboxylase/oxygenase

3 The Sensational Calvin-Benson Cycle #? Means how many?
ID? Means identify the molecule.

4 #? 6 CO2 (from the air) 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi
CARBON FIXATION 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ Pi P

5 6 CO2 (from the air) 6… ID? 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP
CARBON FIXATION 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ Pi P

6 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION #? 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ Pi P

7 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION ID? 12 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ Pi P

8 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ #? Pi P

9 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ 12 ID? Pi P

10 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 ID?

11 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 #? Phosphorylated glucose Pi P

12 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 ID? 2 Pi Phosphorylated glucose P

13 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP #? 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 PGAL Phosphoglycer- aldehyde 2 Pi Phosphorylated glucose P

14 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 10 ID? 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 2 PGAL Phosphoglycer- aldehyde Pi Phosphorylated glucose P

15 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate #? CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 10 PGAL 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 2 PGAL Phosphoglycer- aldehyde Pi Phosphorylated glucose P

16 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate 6 ID? CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 10 PGAL 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 PGAL Phosphoglycer- aldehyde 2 Pi Phosphorylated glucose P

17 6 unstable intermediate
CO2 (from the air) 6 unstable intermediate 6 RuBP Ribulose bisphosphate CARBON FIXATION PGA Phosphoglycerate 12 6 ADP 12 ATP 6 ATP 10 PGAL 12 NADPH 4 Pi 12 ADP 12 Pi 12 NADP+ PGAL Phosphoglycer- aldehyde 12 2 PGAL Phosphoglycer- aldehyde Phosphorylated glucose Pi P

18 C3 plants in hot dry weather

19 C3 Plants __?__ closed: __?__ can’t get in; __?__ can’t get out
Fig. 7-11a3, p.117

20 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
__?__ fixes __?__, not carbon, in __?__ cells in leaf Fig. 7-11a3, p.117

21 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf Fig. 7-11a3, p.117

22 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf #? #? Fig. 7-11a3, p.117

23 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 ID? ID? Fig. 7-11a3, p.117

24 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate ID? + ID? Fig. 7-11a3, p.117

25 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate #? CO2 + water Fig. 7-11a3, p.117

26 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate 6 ID? CO2 + water Fig. 7-11a3, p.117

27 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate 6 PGAL CO2 + water #? Fig. 7-11a3, p.117

28 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate 6 PGAL CO2 + water 1 ID? Fig. 7-11a3, p.117

29 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate #? 6 PGAL CO2 + water 1 PGAL Fig. 7-11a3, p.117

30 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf 6 PGA glycolate 5 ID? 6 PGAL CO2 + water 1 PGAL Fig. 7-11a3, p.117

31 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf ID? 6 PGA glycolate 5 PGAL 6 PGAL CO2 + water 1 PGAL Fig. 7-11a3, p.117

32 C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf RuBP 6 PGA glycolate 5 PGAL 6 PGAL CO2 + water 1 PGAL Fig. 7-11a3, p.117

33 __#__ turns of the cycle, not just __#?__, to
C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf RuBP 6 PGA glycolate 5 PGAL 6 PGAL CO2 + water 1 PGAL __#__ turns of the cycle, not just __#?__, to make one 6-carbon sugar Fig. 7-11a3, p.117

34 Twelve turns of the cycle, not just six, to
C3 Plants Stomata closed: CO2 can’t get in; O2 can’t get out Rubisco fixes oxygen, not carbon, in mesophyll cells in leaf RuBP 6 PGA glycolate Calvin-Benson Cycle 5 PGAL 6 PGAL CO2 + water 1 PGAL Twelve turns of the cycle, not just six, to make one 6-carbon sugar Fig. 7-11a3, p.117

35 C4 plants in hot dry weather

36 Carbon fixed in the __. __ cell, __. __ diffuses into adjacent _. _-_
Carbon fixed in the __?__ cell, __?__ diffuses into adjacent _?_-_?_ cell C4 Plants Fig. 7-11b3, p.117

37 Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell
C4 Plants In bundle-sheath cell, malate gets converted to __?__ with release of __?__, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

38 C4 Plants __?__ closed: _?_ can’t get in; _?_ can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell C4 Plants In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

39 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell _?_ cycle C4 Plants In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

40 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell _ID?_ C4 cycle C4 Plants In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

41 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell oxaloacetate C4 cycle C4 Plants _ID?_ In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

42 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell oxaloacetate C4 cycle C4 Plants malate ID? In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

43 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell ID? oxaloacetate C4 cycle C4 Plants malate pyruvate In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

44 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP (Phosphoenol Pyruvate) oxaloacetate C4 cycle C4 Plants malate pyruvate ID? In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle Fig. 7-11b3, p.117

45 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle __?__ Cycle Fig. 7-11b3, p.117

46 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle #? Calvin-Benson Cycle Fig. 7-11b3, p.117

47 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 ID? Calvin-Benson Cycle Fig. 7-11b3, p.117

48 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle #? Fig. 7-11b3, p.117

49 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle 12 ID? Fig. 7-11b3, p.117

50 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle 12 PGAL #? Fig. 7-11b3, p.117

51 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle 12 PGAL 2 ID? Fig. 7-11b3, p.117

52 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle 12 PGAL 2 PGAL #? Fig. 7-11b3, p.117

53 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle 12 PGAL 2 PGAL 1 ID? Fig. 7-11b3, p.117

54 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle #? 12 PGAL 2 PGAL 1 sugar Fig. 7-11b3, p.117

55 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle 12 PGAL Calvin-Benson Cycle 10 ID? 12 PGAL 2 PGAL 1 sugar Fig. 7-11b3, p.117

56 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 cycle C4 Plants malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle ID? 12 PGAL Calvin-Benson Cycle 10 PGAL 12 PGAL 2 PGAL 1 sugar Fig. 7-11b3, p.117

57 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 Plants C4 cycle malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle RuBP 12 PGAL Calvin-Benson Cycle 10 PGAL 12 PGAL 2 PGAL 1 sugar Fig. 7-11b3, p.117

58 C4 Plants Stomata closed: CO2 can’t get in; O2 can’t get out
Carbon fixed in the mesophyll cell, malate diffuses into adjacent bundle-sheath cell PEP oxaloacetate C4 Plants C4 cycle malate pyruvate CO2 In bundle-sheath cell, malate gets converted to pyruvate with release of CO2, which enters Calvin-Benson cycle RuBP 12 PGAL Calvin-Benson Cycle 10 PGAL 12 PGAL 2 PGAL 1 sugar Fig. 7-11b3, p.117

59 CAM plants in hot dry weather (CAM is short for __?__)

60 CAM plants in hot dry weather (CAM is short for Crassulacean Acid Metabolism)

61 Stomata stay closed during day, open for CO2 uptake during night only.
CAM Plants Stomata stay closed during day, open for CO2 uptake during night only. __?__ CYCLE Fig. 7-11c3, p.117

62 Stomata stay closed during day, open for CO2 uptake during night only.
CAM Plants Stomata stay closed during day, open for CO2 uptake during night only. C4 cycle operates at _?_ when _?_ from _?_ _?_ fixed C4 CYCLE Fig. 7-11c3, p.117

63 Stomata stay closed during day, open for CO2 uptake during night only.
CAM Plants Stomata stay closed during day, open for CO2 uptake during night only. C4 cycle operates at night when CO2 from aerobic respiration fixed C4 CYCLE _?_ Cycle Fig. 7-11c3, p.117

64 Stomata stay closed during day, open for CO2 uptake during night only.
CAM Plants Stomata stay closed during day, open for CO2 uptake during night only. C4 cycle operates at night when CO2 from aerobic respiration fixed C4 CYCLE Calvin-Benson Cycle # & ID ? Fig. 7-11c3, p.117

65 Stomata stay closed during day, open for CO2 uptake during night only.
CAM Plants Stomata stay closed during day, open for CO2 uptake during night only. C4 cycle operates at night when CO2 from aerobic respiration fixed C4 CYCLE _?_ that accumulated _?_ used in _?_ during _?_ Calvin-Benson Cycle 1 sugar Fig. 7-11c3, p.117

66 Stomata stay closed during day, open for CO2 uptake at night only.
CAM Plants Stomata stay closed during day, open for CO2 uptake at night only. C4 cycle operates at night when CO2 from aerobic respiration fixed C4 CYCLE CO2 that accumulated overnight used in C3 cycle during the day Calvin-Benson Cycle 1 sugar Fig. 7-11c3, p.117

67 Now its time to play…

68 Now its time to play… How many Carbons? Carbon dioxide - 1 PGAL - 3
glycolate - 2 Oxalacetate - 4 RuBP - 5 Malate - 4 PGA - 3 Pyruvate - 3 Phosphorylated Glucose - 6 PEP - 3

Download ppt "The Calvin-Benson Cycle."

Similar presentations

Where It Starts – Photosynthesis Chapter 7 Part 2.

Where It Starts – Photosynthesis Chapter 7 Part 2.
 Allow for the entry of CO 2 and exit of water vapor (transpiration).  On sunny, hot, dry days, guard cells close to preserve water, but this poses.

 Allow for the entry of CO 2 and exit of water vapor (transpiration).  On sunny, hot, dry days, guard cells close to preserve water, but this poses.
Photorespiration.

Photorespiration.
 Photosynthesis is an anabolic process that combines carbon dioxide and water in the presence of light with the aid of chlorophyll and transforms the.

 Photosynthesis is an anabolic process that combines carbon dioxide and water in the presence of light with the aid of chlorophyll and transforms the.
Photosynthesis in C4 Plants. Building Sugars What products came from the light-dependent reactions? – ATP and NADPH Light-independent reactions use ATP.

Photosynthesis in C4 Plants. Building Sugars What products came from the light-dependent reactions? – ATP and NADPH Light-independent reactions use ATP.
Organisms capture and store free energy for use in biological processes Calvin Cycle.

Organisms capture and store free energy for use in biological processes Calvin Cycle.
Alternative Methods of Carbon Fixation Photorespiration & C 3 Plants Photorespiration & C 3 Plants C 4 Photosynthesis & Plants C 4 Photosynthesis & Plants.

Alternative Methods of Carbon Fixation Photorespiration & C 3 Plants Photorespiration & C 3 Plants C 4 Photosynthesis & Plants C 4 Photosynthesis & Plants.
The Calvin Cycle The Calvin Cycle is much like the Citric Acid Cycle in that the circular process regenerates the starting molecule at the end of the cycle.

The Calvin Cycle The Calvin Cycle is much like the Citric Acid Cycle in that the circular process regenerates the starting molecule at the end of the cycle.
Plant Adaptations: C3 and C4 plants

Plant Adaptations: C3 and C4 plants
AP Biology Photosynthesis: Variations on the Theme.

AP Biology Photosynthesis: Variations on the Theme.
Dark Reaction The Calvin Cycle.

Dark Reaction The Calvin Cycle.
More than you ever wanted to know about photosynthesis (part 2) Light Independent Reactions Calvin Cycle and the formation of Glucose.

More than you ever wanted to know about photosynthesis (part 2) Light Independent Reactions Calvin Cycle and the formation of Glucose.
The Dark Reaction - - light-independent - - energy stored in ATP and NADPH (from light reaction) is used to reduce CO 2 to sugar.

The Dark Reaction - - light-independent - - energy stored in ATP and NADPH (from light reaction) is used to reduce CO 2 to sugar.
Calvin Cycle Melvin Calvin – used C-14 as a tracer to discover the how the cycle works.

Calvin Cycle Melvin Calvin – used C-14 as a tracer to discover the how the cycle works.
© 2014 Pearson Education, Inc. Chapter Opener 7-1.

© 2014 Pearson Education, Inc. Chapter Opener 7-1.
Other Types of Photosynthesis C 4 Photosynthesis and CAM Photosynthesis.

Other Types of Photosynthesis C 4 Photosynthesis and CAM Photosynthesis.
Calvin Cycle Uses ATP and NADPH to convert CO 2 to glucose or other sugars  Glyceraldehyde-3-phosphate is final product of Calvin cycle  G3P can easily.

Calvin Cycle Uses ATP and NADPH to convert CO 2 to glucose or other sugars  Glyceraldehyde-3-phosphate is final product of Calvin cycle  G3P can easily.
Photosynthesis, Environment & Adaptation C3 vs. C4 vs. CAM Photosynthesis.

Photosynthesis, Environment & Adaptation C3 vs. C4 vs. CAM Photosynthesis.
Alternative Mechanisms of Carbon Fixation (5.4). RuBisCO RuBisCO is the most abundant protein on Earth catalyzes the first reaction of the Calvin cycle.

Alternative Mechanisms of Carbon Fixation (5.4). RuBisCO RuBisCO is the most abundant protein on Earth catalyzes the first reaction of the Calvin cycle.
Variations in Photosynthesis Lecture 9 Fall 2008.

Variations in Photosynthesis Lecture 9 Fall 2008.

Similar presentations

Ads by Google