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ATP and NADPH are forms of chemical energy produced from the light dependent reactions to be used in the light independent reactions that produce sugars.
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ATP and NADPH are forms of chemical energy produced from the light independent reactions, to be used in the light dependent reactions that produce sugars.
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ATP and NADPH are forms of chemical energy produced from the light dependent reactions to be used in the light independent reactions that produce proteins.
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ATP and NADPH are forms of chemical energy produced from the light dependent reactions to be used in the light independent reactions that use sugars as reactants.
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NADPH and ATP molecules are produced during the light-independent reactions and are used to power the light-dependent reactions.
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Sugar and ATP are produced during the light-dependent reactions and are used to power the light-independent reactions.
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Carbon dioxide and NADPH are produced during the light-independent reactions and are used to power the light-dependent reactions.
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NADPH and ATP molecules are produced during the light-dependent reactions and are used to power the light-independent reactions.
Examine the illustration of the photosynthesis equation. How does the equation relate to both photosynthesis and cellular respiration, and what is the connection between the two processes?
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Photosynthesis utilizes energy to build carbohydrates, while cellular respiration metabolizes carbohydrates.
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Photosynthesis utilizes energy to metabolize carbohydrates, while cellular respiration builds carbohydrates.
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Photosynthesis and cellular respiration both utilize carbon dioxide and water to produce carbohydrates.
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Photosynthesis and cellular respiration both metabolize carbohydrates to produce carbon dioxide and water.
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When photons strike photosystem (PS) I, pigments pass the light energy to chlorophyll, molecules that excite electrons, which are then passed to the electron transport chain. The cytochrome complex then transfers protons across the thylakoid membrane and transfers electrons from PS-II to PS-I. The products of the light-dependent reaction are used to power the Calvin cycle to produce glucose.
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When photons strike photosystem (PS) II, pigments pass the light energy to chlorophyll a molecules that in turn excite electrons, which are then passed to the electron transport chain. The cytochrome complex transfers protons across the thylakoid membrane and transfers electrons from PS-I to PS-II. The products of the light-dependent reaction are used to power the Calvin cycle to produce glucose.
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When photons strike photosystem (PS) II, pigments pass the light energy to chlorophyll a molecules that excite electrons, which are then passed to the electron transport chain. The cytochrome complex transfers protons across the thylakoid membrane and transfers electrons from PS-II to PS-I. The products of the light-dependent reaction are used to power the Calvin cycle to produce glucose.
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When photons strike photosystem (PS) II, pigments pass the light energy to chlorophyll a molecules that excite electrons, which are then passed to the electron transport chain. The cytochrome complex transfers protons across the thylakoid membrane and transfers electrons from PS II to PS I. The products of the light-independent reaction are used to power the Calvin cycle to produce glucose.
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Because UV rays and X-rays are high-energy waves, they penetrate the tissues and thus damage cells.
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Because UV rays and X-rays are long-wavelength waves, they penetrate the tissues and thus damage cells.
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Because UV rays and X-rays are low-energy waves, they cannot penetrate tissues and thus damage cells.
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Because UV rays and X-rays are low-frequency waves, they can penetrate tissues and thus damage cells.
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Photosynthesis is not possible.
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Photosynthesis is possible.
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Photosynthesis is possible only with blue light.
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Photosynthesis is possible only with green light.
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After splitting water in PS-I, high-energy electrons are delivered through the chloroplast electron transport chain to PS-II.
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After the photosynthesis reaction, released products like glucose help in the transfer of electrons from PS-II to PS-I.
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After splitting water in PS-II, high-energy electrons are delivered through the chloroplast electron transport chain to PS-I.
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After the completion of the light-dependent reactions, the electrons are transferred from PS-II to PS-I.
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This event will have no effect on the rate of photosynthesis in the leaf.
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Photosynthesis in the leaf will slow down or possibly stop.
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Photosynthesis in the leaf will increase exponentially.
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Photosynthesis in the leaf will first decrease and then increase.
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The product of the Calvin cycle is glyceraldehyde-3 phosphate and RuBP is regenerated.
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The product of the Calvin cycle is glyceraldehyde-3 phosphate and RuBisCO is regenerated.
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The product of the Calvin cycle is a 3-PGA molecule and glyceraldehyde-3 phosphate is regenerated.
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The product of the Calvin cycle is glyceraldehyde-3 phosphate and oxygen is regenerated.
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by using CAM photosynthesis and by closing stomatal pores during the night
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by using CAM photosynthesis and by opening stomatal pores during the night
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by using CAM photosynthesis and by keeping stomatal pores closed at all times
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by bypassing CAM photosynthesis and by keeping stomatal pores closed at night
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The prey of lions are generally herbivores, which depend on heterotrophs.
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The prey of lions are generally smaller carnivorous animals, which depend on non-photosynthetic organisms.
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The prey of lions are generally herbivores, which depend on autotrophs.
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The prey of lions are generally autotrophs, which depend onother autotrophs.
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It takes three turns to fix enough oxygen to export one G3P molecule.
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It takes three turns to produce RuBisCO as an end product.
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It takes three turns to produce ATP and NADPH for fixation of G3P.
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It takes three turns to fix enough carbon to export one G3P molecule.