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Figure 9.0 Orangutans eating

Figure 9.0 Orangutans eating. Figure 9.1 Energy flow and chemical recycling in ecosystems. Figure 9.x1 ATP. Figure 9.2 A review of how ATP drives cellular work. Figure 9.3 Methane combustion as an energy-yielding redox reaction. Figure 9.4 NAD + as an electron shuttle.

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Figure 9.0 Orangutans eating

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  1. Figure 9.0 Orangutans eating

  2. Figure 9.1 Energy flow and chemical recycling in ecosystems

  3. Figure 9.x1 ATP

  4. Figure 9.2 A review of how ATP drives cellular work

  5. Figure 9.3 Methane combustion as an energy-yielding redox reaction

  6. Figure 9.4 NAD+ as an electron shuttle

  7. Figure 9.5 An introduction to electron transport chains

  8. Figure 9.6 An overview of cellular respiration (Layer 1)

  9. Figure 9.6 An overview of cellular respiration (Layer 2)

  10. Figure 9.6 An overview of cellular respiration (Layer 3)

  11. Figure 9.7 Substrate-level phosphorylation

  12. Figure 9.8 The energy input and output of glycolysis

  13. Figure 9.9 A closer look at glycolysis: energy investment phase (Layer 1)

  14. Figure 9.9 A closer look at glycolysis: energy investment phase (Layer 2)

  15. Figure 9.9 A closer look at glycolysis: energy payoff phase (Layer 3)

  16. Figure 9.9 A closer look at glycolysis: energy payoff phase (Layer 4)

  17. Figure 9.10 Conversion of pyruvate to acetyl CoA, the junction between glycolysis and the Krebs cycle

  18. Figure 9.11 A closer look at the Krebs cycle (Layer 1)

  19. Figure 9.11 A closer look at the Krebs cycle (Layer 2)

  20. Figure 9.11 A closer look at the Krebs cycle (Layer 3)

  21. Figure 9.11 A closer look at the Krebs cycle (Layer 4)

  22. Figure 9.12 A summary of the Krebs cycle

  23. Figure 9.13 Free-energy change during electron transport

  24. Figure 9.14 ATP synthase, a molecular mill

  25. Figure 9.15 Chemiosmosis couples the electron transport chain to ATP synthesis

  26. Figure 9.16 Review: how each molecule of glucose yields many ATP molecules during cellular respiration

  27. Figure 9.17a Fermentation

  28. Figure 9.17b Fermentation

  29. Figure 9.x2 Fermentation

  30. Figure 9.18 Pyruvate as a key juncture in catabolism

  31. Figure 9.19 The catabolism of various food molecules

  32. Figure 9.20 The control of cellular respiration 

  33. Figure 10.0 Sunbeams

  34. Figure 10.1 Photoautotrophs

  35. Figure 10.2 Focusing in on the location of photosynthesis in a plant

  36. Figure 10.3 Tracking atoms through photosynthesis

  37. Figure 10.4 An overview of photosynthesis: cooperation of the light reactions and the Calvin cycle (Layer 1)

  38. Figure 10.4 An overview of photosynthesis: cooperation of the light reactions and the Calvin cycle (Layer 2)

  39. Figure 10.4 An overview of photosynthesis: cooperation of the light reactions and the Calvin cycle (Layer 3)

  40. Figure 10.x1 Melvin Calvin

  41. Figure 10.5 The electromagnetic spectrum

  42. Figure 10.6 Why leaves are green: interaction of light with chloroplasts

  43. Figure 10.7 Determining an absorption spectrum

  44. Figure 10.8 Evidence that chloroplast pigments participate in photosynthesis: absorption and action spectra for photosynthesis in an alga

  45. Figure 10.9 Location and structure of chlorophyll molecules in plants

  46. Figure 10.09x Chlorophyll

  47. Figure 10.10 Excitation of isolated chlorophyll by light

  48. Figure 10.11 How a photosystem harvests light

  49. Figure 10.12 How noncyclic electron flow during the light reactions generates ATP and NADPH (Layer 1)

  50. Figure 10.12 How noncyclic electron flow during the light reactions generates ATP and NADPH (Layer 2)

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