1 / 10

ATP

~. ~. ~. Pyruvate. NAD +. Transition step: An oxidation generates NADH, CO 2 is removed, and coenzyme A is added. NADH. CoA. CO 2. Acetyl-CoA. CoA. Step 1: The acetyl group is transferred to initiate a round of the cycle. Oxaloacetate. + H +. NADH. Step 2: A chemical

barbara-snider
Download Presentation

ATP

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript

  1. ~ ~ ~ Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Oxaloacetate + H+ NADH Step 2: A chemical rearrangement occurs. Citrate Step 8: Oxidation generates NADH. NAD+ Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. Malate Step 7: A molecule of water is added. + H+ NADH H2O CO2 Fumarate a -ketoglutarate NAD+ Step 4: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. FADH2 CoA Step 6: An oxidation generates FADH2 + H+ NADH CO 2 FAD Succinyl-CoA Succinate Step 5: The energy released when CoA is removed is harvested to produce ATP. CoA + Pi ATP ATP

  2. Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA

  3. Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Citrate

  4. Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Step 2: A chemical rearrangement occurs. Citrate Isocitrate

  5. Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Step 2: A chemical rearrangement occurs. Citrate Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. + H+ NADH CO2 a -ketoglutarate

  6. Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Step 2: A chemical rearrangement occurs. Citrate Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. + H+ NADH CO2 a -ketoglutarate NAD+ Step 4: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. CoA + H+ NADH CO 2 Succinyl-CoA

  7. ~ ~ ~ Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Step 2: A chemical rearrangement occurs. Citrate Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. + H+ NADH CO2 a -ketoglutarate NAD+ Step 4: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. CoA + H+ NADH CO 2 Succinyl-CoA Succinate Step 5: The energy released when CoA is removed is harvested to produce ATP. CoA + Pi ATP ATP

  8. ~ ~ ~ Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Step 2: A chemical rearrangement occurs. Citrate Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. + H+ NADH CO2 Fumarate a -ketoglutarate NAD+ Step 4: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. FADH2 CoA Step 6: An oxidation generates FADH2 + H+ NADH CO 2 FAD Succinyl-CoA Succinate Step 5: The energy released when CoA is removed is harvested to produce ATP. CoA + Pi ATP ATP

  9. ~ ~ ~ Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Step 2: A chemical rearrangement occurs. Citrate Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. Malate Step 7: A molecule of water is added. + H+ NADH H2O CO2 Fumarate a -ketoglutarate NAD+ Step 4: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. FADH2 CoA Step 6: An oxidation generates FADH2 + H+ NADH CO 2 FAD Succinyl-CoA Succinate Step 5: The energy released when CoA is removed is harvested to produce ATP. CoA + Pi ATP ATP

  10. ~ ~ ~ Pyruvate NAD+ Transition step: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. NADH CoA CO2 Acetyl-CoA CoA Step 1: The acetyl group is transferred to initiate a round of the cycle. Oxaloacetate + H+ NADH Step 2: A chemical rearrangement occurs. Citrate Step 8: Oxidation generates NADH. NAD+ Isocitrate NAD+ Step 3: CO2is removed and an oxidation generates NADH. Malate Step 7: A molecule of water is added. + H+ NADH H2O CO2 Fumarate a -ketoglutarate NAD+ Step 4: An oxidation generates NADH, CO2 is removed, and coenzyme A is added. FADH2 CoA Step 6: An oxidation generates FADH2 + H+ NADH CO 2 FAD Succinyl-CoA Succinate Step 5: The energy released when CoA is removed is harvested to produce ATP. CoA + Pi ATP ATP

More Related