Aerobic Cellular Respiration

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Presentation transcript:

Aerobic Cellular Respiration AP Biology, Mrs. Krouse

Cellular Respiration Equation C6H12O6 + 6O2  6CO2 + 6H2O + Energy (ATP + heat)

Mitochondrion

Redox Reactions Oxidation = loss of electrons and H+ Reduction = gain of electrons and H+ OIL RIG = Oxidation is Loss, Reduction is Gain -Cell Respiration involves a series of Redox Reactions where one molecule is oxidized and the other is reduced!

1st Step - Glycolysis Location: Cytoplasm Purpose: Glucose (C6H12O6)  2 pyruvate (C3H4O3)

1st Step - Glycolysis 2 ATP created by substrate-level phosphorylation (taking a “P” directly from a molecule and sticking it on ADP) 2 NADH produced by adding electrons and H+ to NAD+ NADH is an electron carrier… it takes high energy electrons to the Electron Transport Chain

1st Step - Glycolysis Glucose is oxidized (loses electrons and H+)… how do we know this based on the formulas of glucose and pyruvate? NAD+ is reduced (gains electrons and H+)

Intermediate Step – The Creation of Acetyl CoA Location: Cytoplasm and Matrix (because pyruvate is transported from the cytoplasm into the matrix) Purpose: -To break pyruvate (C3H4O3) down into an acetyl group (COCH3) and a single carbon dioxide molecule (CO2) -Acetyl joins to Coenzyme A to create acetyl CoA

Intermediate Step – The Creation of Acetyl CoA 2 NADH produced by adding electrons and H+ to NAD+

Intermediate Step – The Creation of Acetyl CoA Pyruvate is oxidized (loses electrons and H+)… how do we know this based on the formulas of pyruvate and acetyl CoA? NAD+ is reduced (gains electrons and H+)

2nd Step – The Krebs Cycle AKA The Citric Acid Cycle Location: Mitochondrial matrix Purpose: Break Acetyl CoA down into CO2 and make LOTS of electron carriers (NADH and FADH2)

2nd Step – The Krebs Cycle 2 ATP created by substrate-level phosphorylation (taking a “P” directly from a molecule and sticking it on ADP) 6 NADH produced by adding electrons and H+ to NAD+ 2 FADH2 produced by adding electrons and H+ to FAD FADH2 is another electron carrier that travels to the electron transport chain!

2nd Step – The Krebs Cycle Acetyl CoA is oxidized (loses electrons and H+)… how do we know this based on the formulas of acetyl CoA and CO2? NAD+ and FAD are reduced (gain electrons and H+)

3rd Step – The Electron Transport Chain

3rd Step – The Electron Transport Chain

3rd Step – The Electron Transport Chain How does ATP synthase work? https://www.youtube.com/watch?v=lOgea89L1UY