bio

• The harmony between producers and consumers in ecosystems is crucial to the survival of organisms on Earth.
• Cellular respiration and photosynthesis are two interdependent biological processes in terrestrial ecosystems, such as in African savannas.
• This interdependence is also present among aquatic organisms as various marine animals rely on photosynthetic phytoplankton for food.
• Photosynthesis converts carbon dioxide into glucose by using solar energy.
• Cellular respiration breaks down glucose to produce usable chemical energy.
• Photosynthesis excites electrons by using solar energy and builds up a H+ gradient.
• Cellular respiration reduces specific electron carriers during earlier stages.
• Photosynthesis uses ATP and NADPH during carbon fixation reactions.
• Cellular respiration involves the oxidation of electron carriers to produce ATP molecules.
• Cellular respiration consists of glycolysis, Krebs cycle, electron transport chain, and chemiosmosis, all of which involve a series of oxidation-reduction reactions.
• The light-dependent reaction involves the absorption of solar energy, which causes the electrons in both photosystems to increase their energy states and become excited.
• The Calvin cycle involves carbon fixation, reduction of G3P molecules, and ribulose 1,5- bisphosphate regeneration.
• Cellular respiration and photosynthesis both involve the conversion of carbon dioxide into glucose by using solar energy.
• Cellular respiration and photosynthesis both involve the breakdown of glucose to produce usable chemical energy.
• Cellular respiration and photosynthesis both involve the excitation of electrons by using solar energy and the building up of a H+ gradient.
• The nature of cellular respiration and photosynthesis involves redox reactions, electron flow, ATP synthesis, and phosphorylation.
• Electron flow is the process by which electrons move through a circuit.
• Phosphorylation is the process by which phosphate groups are added to proteins.
• Respiration and photosynthesis are different in that respiration takes place in mitochondria, while photosynthesis takes place in chloroplasts.
• There are four stages involved in cellular respiration, namely glycolysis, Krebs cycle, electron transport chain, and chemiosmosis.
• The reactants of cellular respiration are the products of photosynthesis and vice versa.
• Redox reactions are a type of chemical reaction that involves the conversion of electrons.
• Cellular respiration and photosynthesis both involve the reduction of specific electron carriers during earlier stages.
• The overall equation for photosynthesis is shown below.
• Respiration and photosynthesis are similar in that they involve redox reactions, electron flow, ATP synthesis, and phosphorylation.
• ATP synthesis is the process by which ATP molecules are produced through the flow of electrons through protein complexes and ADP phosphorylation.
• Photosynthesis involves two stages, namely the light-dependent and light-independent reactions.
• The possible effects on the plants when the rate of photosynthesis slows down are not known.
• Both cellular respiration and photosynthesis involve reduction-oxidation reactions and the ATP synthesis that results from the flow of electrons through the protein complexes and ADP phosphorylation.
• Photosynthesis is considered as endothermic, while cellular respiration is exothermic.
• Cellular respiration and photosynthesis are both metabolic processes, but cellular respiration is considered as catabolic, while photosynthesis is anabolic.
• Cellular respiration uses ATP and NADPH during carbon fixation reactions.
• Water, obtained from soil or as water vapor, is also a reactant in photosynthesis.
• Glucose, produced as O2 is reduced and reacts with H+, is the main product of the breakdown of glucose in photosynthesis.
• The overall equation for photosynthesis involves reactants such as glucose and oxygen molecules, and products like carbon dioxide, water, and ATP molecules.
• The main product of the breakdown of glucose is produced as O2 is reduced and reacts with H+.
• Stored chemical energy in bonds of glucose is released into the stomata of leaves in photosynthesis.
• Stored chemical energy in bonds of glucose is released into the stomata of leaves.
• Carbon dioxide, obtained from soil or as water vapor, undergoes fixation to produce glucose.
• Oxygen, produced as electrons from water are used, is also