Chapter 9
... • Glycolysis can produce ATP with or without O2 (in aerobic or anaerobic conditions) • In the absence of O2, glycolysis couples with fermentation or anaerobic respiration to produce ATP ...
... • Glycolysis can produce ATP with or without O2 (in aerobic or anaerobic conditions) • In the absence of O2, glycolysis couples with fermentation or anaerobic respiration to produce ATP ...
Cellular Respiration
... • Glycolysis can produce ATP with or without O2 (in aerobic or anaerobic conditions) • In the absence of O2, glycolysis couples with fermentation or anaerobic respiration to produce ATP ...
... • Glycolysis can produce ATP with or without O2 (in aerobic or anaerobic conditions) • In the absence of O2, glycolysis couples with fermentation or anaerobic respiration to produce ATP ...
8 derived traits shared by (most) land plants but lacking in
... Land plant trait #7: Adaptations for water transport, especially vascular tissue. Found in all land plants except for most bryophytes. The stem of Polypodium, a fern (a pteridophyte), is shown below. Note: true leaves, stems, and roots are defined by the presence of vascular tissues. ...
... Land plant trait #7: Adaptations for water transport, especially vascular tissue. Found in all land plants except for most bryophytes. The stem of Polypodium, a fern (a pteridophyte), is shown below. Note: true leaves, stems, and roots are defined by the presence of vascular tissues. ...
An Overview of the Citric Acid Cycle
... If the energy charge is high, oxaloaccetate is converted into glucose When energy charge is low, oxaloacetate replensihs the citric acid cycle ...
... If the energy charge is high, oxaloaccetate is converted into glucose When energy charge is low, oxaloacetate replensihs the citric acid cycle ...
Aerobic respiration
... anaerobic respiration. This process releases energy without the need for oxygen to break down glucose. Anaerobic respiration does not replace aerobic respiration. It provides muscles with extra energy beyond what they can get from aerobic respiration. ...
... anaerobic respiration. This process releases energy without the need for oxygen to break down glucose. Anaerobic respiration does not replace aerobic respiration. It provides muscles with extra energy beyond what they can get from aerobic respiration. ...
09_Lecture_Presentation
... • In cellular respiration, glucose and other organic molecules are broken down in a series of steps • Electrons from organic compounds are usually first transferred to NAD+, a coenzyme • As an electron acceptor, NAD+ functions as an oxidizing agent during cellular respiration • Each NADH (the reduce ...
... • In cellular respiration, glucose and other organic molecules are broken down in a series of steps • Electrons from organic compounds are usually first transferred to NAD+, a coenzyme • As an electron acceptor, NAD+ functions as an oxidizing agent during cellular respiration • Each NADH (the reduce ...
- Kendriya Vidyalaya Damoh
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
- Kendriya Vidyalaya No.1, Satna
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
X -Science Support Material
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
Class-X Science - Kendriya Vidyalaya Sangathan Regional Office
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
... 6. To study (a) binary fission in Amoeba, and (b) budding in yeast with the help of prepared slides. 7. To trace the path of the rays of light through a glass prism. 8. To find the image distance for varying object distances in case of a convex lens and draw corresponding ray diagrams to show the na ...
Chapter 9 Cell Respiration
... • Glycolysis can produce ATP with or without O2 (in aerobic or anaerobic conditions) • In the absence of O2, glycolysis couples with fermentation or anaerobic respiration to produce ATP ...
... • Glycolysis can produce ATP with or without O2 (in aerobic or anaerobic conditions) • In the absence of O2, glycolysis couples with fermentation or anaerobic respiration to produce ATP ...
Cellular Respiration - Chandler Unified School District
... • NADH + H+ supplies pairs of hydrogen atoms to the 1st carrier. (NAD+ returns to matrix) • Hydrogen ions are split into 2 electrons which pass from carrier to carrier in the chain. • Energy is released as the electrons pass from carrier to carrier and they are able to transfer protons (H+)across th ...
... • NADH + H+ supplies pairs of hydrogen atoms to the 1st carrier. (NAD+ returns to matrix) • Hydrogen ions are split into 2 electrons which pass from carrier to carrier in the chain. • Energy is released as the electrons pass from carrier to carrier and they are able to transfer protons (H+)across th ...
Chapter 1 – Title of Chapter
... coupled reactions: pairs of chemical reactions in which some of the energy released from the breakdown of one compound is used to create a bond in the formation of another compound. electron transport chain: the final pathway in energy metabolism that transports electrons from hydrogen to oxygen and ...
... coupled reactions: pairs of chemical reactions in which some of the energy released from the breakdown of one compound is used to create a bond in the formation of another compound. electron transport chain: the final pathway in energy metabolism that transports electrons from hydrogen to oxygen and ...
enzyme substrate
... • Photoautotrophs are photosynthetic organisms that harness light energy to drive the synthesis of organic compounds from carbon dioxide. • Chemoautotrophs need only CO2 as a carbon source, but they obtain energy by oxidizing inorganic substances, rather than light. • These substances include hydro ...
... • Photoautotrophs are photosynthetic organisms that harness light energy to drive the synthesis of organic compounds from carbon dioxide. • Chemoautotrophs need only CO2 as a carbon source, but they obtain energy by oxidizing inorganic substances, rather than light. • These substances include hydro ...
Lesson 4.4 Anaerobic Respiration version 2
... Oxygen is important so the H ions produced in glycolysis and krebs cycle can be converted to water and drive the production of ATP. What happens in the absence of oxygen? Krebs cycle and electron transport chain can’t take place and pyruvate builds up in the cell Anaerobic process of glycolysis is t ...
... Oxygen is important so the H ions produced in glycolysis and krebs cycle can be converted to water and drive the production of ATP. What happens in the absence of oxygen? Krebs cycle and electron transport chain can’t take place and pyruvate builds up in the cell Anaerobic process of glycolysis is t ...
Respiratory System
... of The bicarbonate ions. This mechanism is made possible by the following reaction: The carbon dioxide produced during cellular metabolism diffuses out of the cells and into the plasma. It then continues to diffuse down its concentration gradient into the red blood cells. Within these cells, the enz ...
... of The bicarbonate ions. This mechanism is made possible by the following reaction: The carbon dioxide produced during cellular metabolism diffuses out of the cells and into the plasma. It then continues to diffuse down its concentration gradient into the red blood cells. Within these cells, the enz ...
cellular respiration
... • Stage 3: Oxidative phosphorylation • As the electron transport chain passes electrons down the energy hill, it also pumps hydrogen ions (H+) across the inner mitochondrial membrane, into the narrow intermembrane space, and produces a concentration gradient of H+ across the membrane. • In chemiosmo ...
... • Stage 3: Oxidative phosphorylation • As the electron transport chain passes electrons down the energy hill, it also pumps hydrogen ions (H+) across the inner mitochondrial membrane, into the narrow intermembrane space, and produces a concentration gradient of H+ across the membrane. • In chemiosmo ...
Plant Science
... Seedcoat (External) Dormancy • A seed may require a certain amount of light to germinate causing the seed to remain dormant until exposed to light. • The seedcoat may be hard and/or thick, preventing the absorption of water, intake of oxygen, or physically preventing the expansion of the embryo. ...
... Seedcoat (External) Dormancy • A seed may require a certain amount of light to germinate causing the seed to remain dormant until exposed to light. • The seedcoat may be hard and/or thick, preventing the absorption of water, intake of oxygen, or physically preventing the expansion of the embryo. ...
Complex III
... reduction of a second molecule of cytochrome c since the two electrons from the second follow separate paths. The net result is that the oxidation of two molecules of QH2 at the Q0site produces two molecules of reduced cytochrome c and regenerates a molecule of QH2 at the Qi site. ...
... reduction of a second molecule of cytochrome c since the two electrons from the second follow separate paths. The net result is that the oxidation of two molecules of QH2 at the Q0site produces two molecules of reduced cytochrome c and regenerates a molecule of QH2 at the Qi site. ...
- Philsci-Archive
... write better history. Therefore, we here consider two cases of discovery in biochemistry in detail: oxidative phosphorylation (the major mechanism of ATP synthesis in mitochondria) and the Calvin-Benson cycle (the light-independent reaction of photosynthesis). Oxidative phosphorylation has already r ...
... write better history. Therefore, we here consider two cases of discovery in biochemistry in detail: oxidative phosphorylation (the major mechanism of ATP synthesis in mitochondria) and the Calvin-Benson cycle (the light-independent reaction of photosynthesis). Oxidative phosphorylation has already r ...
ATP - Luzzago
... based on how they obtain energy; if the heterotroph uses light for energy, (it happens mainly in some groups of bacteria) then it is considered a photoheterotroph, while if the heterotroph uses chemical energy, it is considered a chemoheterotroph. ...
... based on how they obtain energy; if the heterotroph uses light for energy, (it happens mainly in some groups of bacteria) then it is considered a photoheterotroph, while if the heterotroph uses chemical energy, it is considered a chemoheterotroph. ...
The Chemical Level of Organization
... Most chemical reactions do not occur spontaneously or occur so slowly that we would all be dead! Enzymes speed up the rate of chemical reactions They do not become part of the reaction! ...
... Most chemical reactions do not occur spontaneously or occur so slowly that we would all be dead! Enzymes speed up the rate of chemical reactions They do not become part of the reaction! ...
Purification and proteomic characterization of plastids from Brassica
... pyruvate to maximize the efficiency of de novo fatty acid synthesis [7], as opposed to the traditional role in leaf chloroplasts of fixing atmospheric carbon dioxide. A redundant glycolytic pathway in plastids, prominent in developing seed [8], may also have unique functions such as enabling a more ...
... pyruvate to maximize the efficiency of de novo fatty acid synthesis [7], as opposed to the traditional role in leaf chloroplasts of fixing atmospheric carbon dioxide. A redundant glycolytic pathway in plastids, prominent in developing seed [8], may also have unique functions such as enabling a more ...
Photosynthesis
Photosynthesis is a process used by plants and other organisms to convert light energy, normally from the Sun, into chemical energy that can be later released to fuel the organisms' activities. This chemical energy is stored in carbohydrate molecules, such as sugars, which are synthesized from carbon dioxide and water – hence the name photosynthesis, from the Greek φῶς, phōs, ""light"", and σύνθεσις, synthesis, ""putting together"". In most cases, oxygen is also released as a waste product. Most plants, most algae, and cyanobacteria perform photosynthesis; such organisms are called photoautotrophs. Photosynthesis maintains atmospheric oxygen levels and supplies all of the organic compounds and most of the energy necessary for life on Earth.Although photosynthesis is performed differently by different species, the process always begins when energy from light is absorbed by proteins called reaction centres that contain green chlorophyll pigments. In plants, these proteins are held inside organelles called chloroplasts, which are most abundant in leaf cells, while in bacteria they are embedded in the plasma membrane. In these light-dependent reactions, some energy is used to strip electrons from suitable substances, such as water, producing oxygen gas. Furthermore, two further compounds are generated: reduced nicotinamide adenine dinucleotide phosphate (NADPH) and adenosine triphosphate (ATP), the ""energy currency"" of cells.In plants, algae and cyanobacteria, sugars are produced by a subsequent sequence of light-independent reactions called the Calvin cycle, but some bacteria use different mechanisms, such as the reverse Krebs cycle. In the Calvin cycle, atmospheric carbon dioxide is incorporated into already existing organic carbon compounds, such as ribulose bisphosphate (RuBP). Using the ATP and NADPH produced by the light-dependent reactions, the resulting compounds are then reduced and removed to form further carbohydrates, such as glucose.The first photosynthetic organisms probably evolved early in the evolutionary history of life and most likely used reducing agents, such as hydrogen or hydrogen sulfide, as sources of electrons, rather than water. Cyanobacteria appeared later; the excess oxygen they produced contributed to the oxygen catastrophe, which rendered the evolution of complex life possible. Today, the average rate of energy capture by photosynthesis globally is approximately 130 terawatts, which is about three times the current power consumption of human civilization.Photosynthetic organisms also convert around 100–115 thousand million metric tonnes of carbon into biomass per year.