Both whales and seaweed utilize cellular respiration to convert glucose into energy. In whales, this process occurs in their cells, where glucose is broken down with oxygen to produce ATP, the energy currency of the cell. Seaweed, on the other hand, can perform both photosynthesis to produce glucose and cellular respiration to convert that glucose into energy, especially in the absence of light. This fundamental metabolic process is vital for energy production in both organisms, despite their vastly different habitats and biological structures.
They both use cellular respiration.
Both whales and seaweeds use cellular respiration to convert glucose into energy. In whales, this process occurs in their cells using oxygen to break down glucose, producing ATP, the energy currency of the cell. Seaweeds, on the other hand, primarily use photosynthesis to create glucose from sunlight, and then they also utilize cellular respiration to convert that glucose into energy, often in the presence of oxygen. Thus, both organisms rely on similar biochemical pathways to transform glucose into usable energy.
Sunlight is a crucial energy source for photosynthesis in seaweed, as it drives the process by which these photosynthetic organisms convert carbon dioxide and water into glucose and oxygen. Seaweed contains chlorophyll, the pigment that captures sunlight, allowing it to harness solar energy. This energy is then used to facilitate the chemical reactions that produce food for the seaweed, supporting its growth and contributing to the aquatic ecosystem. Overall, sunlight is essential for the survival and productivity of seaweed in marine environments.
Mitochondria gets energy from glucose through the process of Cellular Respiration.The process by which ATP is manufactured from glucose is called cellular respiration.
Photosynthesis is the chemical change of the suns energy into glucose and oxygen.
They both use cellular respiration.
Both whales and seaweeds use cellular respiration to convert glucose into energy. In whales, this process occurs in their cells using oxygen to break down glucose, producing ATP, the energy currency of the cell. Seaweeds, on the other hand, primarily use photosynthesis to create glucose from sunlight, and then they also utilize cellular respiration to convert that glucose into energy, often in the presence of oxygen. Thus, both organisms rely on similar biochemical pathways to transform glucose into usable energy.
Through cellular respiration
Sunlight is a crucial energy source for photosynthesis in seaweed, as it drives the process by which these photosynthetic organisms convert carbon dioxide and water into glucose and oxygen. Seaweed contains chlorophyll, the pigment that captures sunlight, allowing it to harness solar energy. This energy is then used to facilitate the chemical reactions that produce food for the seaweed, supporting its growth and contributing to the aquatic ecosystem. Overall, sunlight is essential for the survival and productivity of seaweed in marine environments.
When a seaweed photosynthesize (make food), using carbon dioxide, chlorophyll, light energy from the sun and water, the product of the whole photosynthesis process is oxygen and glucose. Glucose is the food for the photosynthesis. If there are extra glucose, it is stored as starch in some parts of the plant, depending on what kind of plant it is. The oxygen is released into the surroundings into the sea.
Mitochondria gets energy from glucose through the process of Cellular Respiration.The process by which ATP is manufactured from glucose is called cellular respiration.
The chemical change of glucose and oxygen into energy is called fermentation.
Energy from glucose is released in the process of cellular respiration. This process occurs in the mitochondria of cells and involves breaking down glucose to produce ATP, the energy currency of the cell.
Cellular respiration is the process that efficiently utilizes the energy stored in glucose.
Glucose enters the cell through a process called facilitated diffusion. This involves the use of specific proteins called glucose transporters, which help move glucose molecules across the cell membrane. The transporters bind to glucose molecules on one side of the membrane and then change shape to carry the glucose into the cell. This process does not require energy and allows cells to take in glucose efficiently for energy production.
Photosynthesis is the chemical change of the suns energy into glucose and oxygen.
The process of cellular respiration extracts the energy found in glucose.