
Chapter 8
... • NADH from the cytoplasm cannot enter mitochondrian and must transfer its electrons!! – In most cells (skeletal and brain) the electrons are transferred to FAD and thus yield two ATP (for a total yield of 36) – But in the liver, heart, and kidney cells, NAD+ accepts the electrons to yield three ATP ...
... • NADH from the cytoplasm cannot enter mitochondrian and must transfer its electrons!! – In most cells (skeletal and brain) the electrons are transferred to FAD and thus yield two ATP (for a total yield of 36) – But in the liver, heart, and kidney cells, NAD+ accepts the electrons to yield three ATP ...
Downloaded - Amazon Web Services
... one-third to one-half as high as those found in the active wild hare, and only one-fourth to one-sixth as high as the values obtained on horsepsoas. Little is known regardingthe factors which control the biogenesisof mitochondriaand the biosynthesisof speciiicmitochondrial constituents. It does appe ...
... one-third to one-half as high as those found in the active wild hare, and only one-fourth to one-sixth as high as the values obtained on horsepsoas. Little is known regardingthe factors which control the biogenesisof mitochondriaand the biosynthesisof speciiicmitochondrial constituents. It does appe ...
BIO 220 Chapter 5 lecture outline Metabolism definition Collision
... 17. What are the steps of aerobic cellular respiration? What happens in each step? What is the starting molecule in each step? Where in the cell does each step occur? What is the net yield of products for each of these pathways? How is cellular respiration different between eukaryotic and prokaryoti ...
... 17. What are the steps of aerobic cellular respiration? What happens in each step? What is the starting molecule in each step? Where in the cell does each step occur? What is the net yield of products for each of these pathways? How is cellular respiration different between eukaryotic and prokaryoti ...
PHOTOSYNTHESIS & CELLULAR RESPIRATION
... CELLULAR RESPIRATION • The process by which living organisms obtain energy from the bonds of food. • There are two important ways the cells can harvest energy from food….cellular respiration and fermentation ...
... CELLULAR RESPIRATION • The process by which living organisms obtain energy from the bonds of food. • There are two important ways the cells can harvest energy from food….cellular respiration and fermentation ...
METABOLISM OF CARBOHYDRATES
... V. ETP – electron transport pathway – oxidative phosphorylation (mitochondria) Released energy is stored in ATP molecules. These molecules store cellular energy needed to power cellular reactions. ATP ADP + P + 35 kJ/mole (8.4 kcal/mol) (4.184 J = 1 calorie) (turnover is very high estimates are ...
... V. ETP – electron transport pathway – oxidative phosphorylation (mitochondria) Released energy is stored in ATP molecules. These molecules store cellular energy needed to power cellular reactions. ATP ADP + P + 35 kJ/mole (8.4 kcal/mol) (4.184 J = 1 calorie) (turnover is very high estimates are ...
Citric acid cycle • What are the functions of Citric Acid Cycle?
... The mitochondrion The mitochondrion has two membranes of which the inner one is selective and folded. The degree of folding depends on the energy need of the cell Outer membrane: All molecules with MW<5000 can pass Inner membrane: Selective, contains electron transport chain and ATP-synthase Matrix: ...
... The mitochondrion The mitochondrion has two membranes of which the inner one is selective and folded. The degree of folding depends on the energy need of the cell Outer membrane: All molecules with MW<5000 can pass Inner membrane: Selective, contains electron transport chain and ATP-synthase Matrix: ...
cellular respiration quiz review guide
... Define cellular respiration. What is the equation for cellular respiration? In what organelle does cellular respiration occur in? What are the 3 stages of cellular respiration? Define glycolysis. Why does glycolysis have to happen? Briefly describe the steps of glycolysis. What are the products of g ...
... Define cellular respiration. What is the equation for cellular respiration? In what organelle does cellular respiration occur in? What are the 3 stages of cellular respiration? Define glycolysis. Why does glycolysis have to happen? Briefly describe the steps of glycolysis. What are the products of g ...
Metabolism Objective Project
... 3) In anaerobic respiration, the final electron acceptor is an organic molecule such as pyruvate. In aerobic respiration, it’s oxygen. 4) Anaerobic respiration produces carbon dioxide, ATP, and either lactic acid or ethyl alcohol. Aerobic respiration produces carbon dioxide, water, and ATP 5)Anaerob ...
... 3) In anaerobic respiration, the final electron acceptor is an organic molecule such as pyruvate. In aerobic respiration, it’s oxygen. 4) Anaerobic respiration produces carbon dioxide, ATP, and either lactic acid or ethyl alcohol. Aerobic respiration produces carbon dioxide, water, and ATP 5)Anaerob ...
Test 2
... stimulation, beginning with the hormone interacting with its cellular receptor, and ending with the glycolytic/gluconeogenic enzymes that are affected. ...
... stimulation, beginning with the hormone interacting with its cellular receptor, and ending with the glycolytic/gluconeogenic enzymes that are affected. ...
Cell Organelles
... where genetic information can be found in the cell. Mitochondrial DNA is similar in appearance to that of bacterial DNA due to its circular shape. The matrix is also known to house tRNA and ribosomes, which further solidifies the theory that the mitochondria entered the ancestral eukaryotic cell as ...
... where genetic information can be found in the cell. Mitochondrial DNA is similar in appearance to that of bacterial DNA due to its circular shape. The matrix is also known to house tRNA and ribosomes, which further solidifies the theory that the mitochondria entered the ancestral eukaryotic cell as ...
Bios 302 FINAL FOR 1999.
... converted to urea for nitrogen excretion and how the carbons are returned to muscle (specific reactions not required but major pathway precursors and products (names or structures) are necessary, transport should be indicated). i.e. you do not have to show the complete pathways, just where they star ...
... converted to urea for nitrogen excretion and how the carbons are returned to muscle (specific reactions not required but major pathway precursors and products (names or structures) are necessary, transport should be indicated). i.e. you do not have to show the complete pathways, just where they star ...
BIOLOGY 311C - Brand Spring 2009
... a, eukaryotic cells divert a portion of an intermediate substrate to fermentation. b. prokaryotic cells generally have a larger surface-to-volume ratio than do eukaryotic cells. c. the Krebs Cycle operates faster in prokaryotic cells than in eukaryotic cells. d. eukaryotic cells use ATP to transport ...
... a, eukaryotic cells divert a portion of an intermediate substrate to fermentation. b. prokaryotic cells generally have a larger surface-to-volume ratio than do eukaryotic cells. c. the Krebs Cycle operates faster in prokaryotic cells than in eukaryotic cells. d. eukaryotic cells use ATP to transport ...
vocab - Cellular Respiration
... •Alcohol fermentation •Lactic acid fermentation •Obligate anaerobes •Facultative anaerobes •Beta oxidation ...
... •Alcohol fermentation •Lactic acid fermentation •Obligate anaerobes •Facultative anaerobes •Beta oxidation ...
ELECTRON TRANSPORT CHAIN, OXIDATIVE
... • Lungs respond by Hyperventilation, blowing out CO2, which helps to reduce accumulation of acid in the cells and restore Acid – Base balance; • Lactic acid is removed via Cori Cycle in the Liver; ...
... • Lungs respond by Hyperventilation, blowing out CO2, which helps to reduce accumulation of acid in the cells and restore Acid – Base balance; • Lactic acid is removed via Cori Cycle in the Liver; ...
CHAPTER 9
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
Key Terms:
... How is respiration commonly regulated? Why might a cell want to slow down respiration? Lecture Outline: Anaerobic Metabolism recall that in glycolysis no oxygen required 2 ATP generated (net) per glucose but there's an NAD+/NADH problem! continuous running of glycolysis will use up all of your NAD ...
... How is respiration commonly regulated? Why might a cell want to slow down respiration? Lecture Outline: Anaerobic Metabolism recall that in glycolysis no oxygen required 2 ATP generated (net) per glucose but there's an NAD+/NADH problem! continuous running of glycolysis will use up all of your NAD ...
Chapter Nine
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
File
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
Respiration
... • The energy of ATP can be used directly for metabolism. The energy of the high energy electrons of NADH and FADH2 are released during the reactions of the electron transport chain. ...
... • The energy of ATP can be used directly for metabolism. The energy of the high energy electrons of NADH and FADH2 are released during the reactions of the electron transport chain. ...
chapter 9
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
... 22. State the basic function of fermentation. 23. Compare the fate of pyruvate in alcohol fermentation and lactic acid fermentation. 24. Compare the processes of fermentation and cellular respiration. 25. Distinguish between obligate and facultative anaerobes. 26. Describe the evidence that suggests ...
Unit 04 Enzymes and respiration Review
... 10. Summarize in order the parts of aerobic respiration ( Krebs cycle, glycolysis, ETC). Tell what is produced in each part. 11. When do we notice plants using respiration pathways? Is this the only time they respire? 12. How could we tell that plants were using respiration? 13. Name an organism tha ...
... 10. Summarize in order the parts of aerobic respiration ( Krebs cycle, glycolysis, ETC). Tell what is produced in each part. 11. When do we notice plants using respiration pathways? Is this the only time they respire? 12. How could we tell that plants were using respiration? 13. Name an organism tha ...
Cellular Respiration Jigsaw Activity Hand each student a standard
... 10) The end result of glycolysis and cellular aerobic respiration produces 35 ATP molecules. ...
... 10) The end result of glycolysis and cellular aerobic respiration produces 35 ATP molecules. ...
Glycolysis
... tricarboxylic acids •Carbons from glucose are shown in red •Carbons from glucose are lost as CO2 (decarboxylation) •Several NADH + H+ are generated via oxidation of intermediates •One high energy phosphate compound (GTP)is produced ...
... tricarboxylic acids •Carbons from glucose are shown in red •Carbons from glucose are lost as CO2 (decarboxylation) •Several NADH + H+ are generated via oxidation of intermediates •One high energy phosphate compound (GTP)is produced ...
Cell Respiration State that oxidation involves the loss of electrons
... In the Krebs cycle and glycolysis, pairs of hydrogen atoms are removed from the respiratory substrates. Oxidised NAD is converted into reduced NAD, except in the Krebs cycle, where FAD is reduced instead. Hydrogen atoms or their electrons are transported along a series of carriers in the final stage ...
... In the Krebs cycle and glycolysis, pairs of hydrogen atoms are removed from the respiratory substrates. Oxidised NAD is converted into reduced NAD, except in the Krebs cycle, where FAD is reduced instead. Hydrogen atoms or their electrons are transported along a series of carriers in the final stage ...
Mitochondrion

The mitochondrion (plural mitochondria) is a double membrane-bound organelle found in most eukaryotic cells. The word mitochondrion comes from the Greek μίτος, mitos, i.e. ""thread"", and χονδρίον, chondrion, i.e. ""granule"" or ""grain-like"".Mitochondria range from 0.5 to 1.0 μm in diameter. A considerable variation can be seen in the structure and size of this organelle. Unless specifically stained, they are not visible. These structures are described as ""the powerhouse of the cell"" because they generate most of the cell's supply of adenosine triphosphate (ATP), used as a source of chemical energy. In addition to supplying cellular energy, mitochondria are involved in other tasks, such as signaling, cellular differentiation, and cell death, as well as maintaining control of the cell cycle and cell growth. Mitochondria have been implicated in several human diseases, including mitochondrial disorders, cardiac dysfunction, and heart failure. A recent University of California study including ten children diagnosed with severe autism suggests that autism may be correlated with mitochondrial defects as well.Several characteristics make mitochondria unique. The number of mitochondria in a cell can vary widely by organism, tissue, and cell type. For instance, red blood cells have no mitochondria, whereas liver cells can have more than 2000. The organelle is composed of compartments that carry out specialized functions. These compartments or regions include the outer membrane, the intermembrane space, the inner membrane, and the cristae and matrix. Mitochondrial proteins vary depending on the tissue and the species. In humans, 615 distinct types of protein have been identified from cardiac mitochondria, whereas in rats, 940 proteins have been reported. The mitochondrial proteome is thought to be dynamically regulated. Although most of a cell's DNA is contained in the cell nucleus, the mitochondrion has its own independent genome. Further, its DNA shows substantial similarity to bacterial genomes.