Photosynthesis make glucose and glucose is used by mitochondria. That is the reason
Yes, the cellular respiration equation is balanced. The general equation for cellular respiration is: glucose (C₆H₁₂O₆) + oxygen (O₂) → carbon dioxide (CO₂) + water (H₂O) + energy (ATP). In terms of atoms, there are equal numbers of each type of atom on both sides of the equation, ensuring that mass is conserved during the process. Thus, it adheres to the law of conservation of mass.
The process by which oxygen moves from a region of high concentration to a region of low concentration is called diffusion. This passive transport mechanism occurs across cell membranes, allowing oxygen to enter cells where it is needed for cellular respiration. This movement continues until equilibrium is reached, meaning the concentration of oxygen is uniform on both sides of the membrane. Diffusion is essential for maintaining the oxygen levels necessary for biological processes.
Energy and food
The two lateral processes on vertebrae are called transverse processes. These bony projections extend from the sides of the vertebrae and serve as attachment points for muscles and ligaments, as well as articulating with ribs in the thoracic region.
The thing that is happening at the cellular level when a wilted plant is watered and begins to recover from the wilt is that the cell is rebuilding itself. It is now able to complete its needed processes.
the chemical equation for photosynthesis and cellular respiration obey the law of conservation is given below.the chemical equation for photosynthesis is :6CO2 + 6H2O ==> C6H12O6 + 6O2.The number of atoms are same on both sides even after the reaction.Hence, obey the law of conservationthe chemical equation for cellular respiration is :C6H12O6(s) + 6O2(g) → 6CO2(g) + 6H2O(l) + Energy (as ATP) .The number of atoms are same on both sides even after the reaction.Hence, obey the law of conservation.
Yes, although the energy released by respiration is in a different form.The process of photosynthesis stores energy in the form of chemical bonds (in carbohydrates including glucose, or sugar) and in the process releases free oxygen by breaking down carbon dioxide. Cellular respiration absorbs free oxygen, to release energy stored in the chemical bonds of food. This oxidation creates carbon dioxide, completing the cycle of carbon through the biosystem.(Some forms of respiration are anaerobic, not using oxygen, and break down carbohydrates in a different manner, releasing either carbon dioxide or methane. The net result is the same: removing energy from the carbohydrate bonds.)
The two sides of the oxygen cycle are the processes of oxygen production (photosynthesis) by plants and phytoplankton, and oxygen consumption (respiration) by animals and other organisms. Plants and phytoplankton release oxygen as a byproduct of photosynthesis, while animals and other organisms consume oxygen during respiration to produce energy.
Glucose + oxygen ----> CO_2 + water ... cellular respiration CO_2 + water ---> Glucose + oxygen ... photosynthesis There's no point having water on both sides of the equation you can always reduce it to just one side. Cellular Respiration
Yes, the cellular respiration equation is balanced. The general equation for cellular respiration is: glucose (C₆H₁₂O₆) + oxygen (O₂) → carbon dioxide (CO₂) + water (H₂O) + energy (ATP). In terms of atoms, there are equal numbers of each type of atom on both sides of the equation, ensuring that mass is conserved during the process. Thus, it adheres to the law of conservation of mass.
Aerobic respiration is the difference in H+ concentrations on opposite sides of the inner mitochondrial membrane. This is taught in science.
Photosynthesis helps to balance oxygen and carbon dioxide in the air because plants produce oxygen through photosynthesis, this therefore goes into air which humans breathe in. We breathe out carbon dioxide and the plants needs carbon dioxide, so therefore the levels of carbon dioxide and oxygen are balanced in the air.
The process by which oxygen moves from a region of high concentration to a region of low concentration is called diffusion. This passive transport mechanism occurs across cell membranes, allowing oxygen to enter cells where it is needed for cellular respiration. This movement continues until equilibrium is reached, meaning the concentration of oxygen is uniform on both sides of the membrane. Diffusion is essential for maintaining the oxygen levels necessary for biological processes.
The openings on the sides of leaves are called stomata. Stomata regulate gas exchange in plants by allowing carbon dioxide to enter and oxygen to exit during photosynthesis.
The sides of a biological membrane are typically asymmetrical. This asymmetry is due to the different types of lipids and proteins present on each side, which play distinct roles in cellular function and signaling. For example, certain lipids like phosphatidylserine are predominantly found on the inner leaflet, while others, such as sphingomyelin, are more common on the outer leaflet. This differential distribution is crucial for processes like cell recognition and communication.
The fishes respiration organs are the gills on both sides of the body that push the water in and out of the body of the fish that is why they move about so much when the fish are swimming.gills">gillsFish gills are covered with operculumn. Sharks and rays lack operculumn
Energy and food