atp
When Elodea is at the light compensation point, the rate of photosynthesis matches the rate of respiration. This means that the amount of oxygen being produced through photosynthesis is equal to the amount being consumed through respiration, resulting in no net change in oxygen levels in the water.
Elodea can conduct photosynthesis in the light, utilizing light energy to convert carbon dioxide and water into glucose. In the dark, elodea will not photosynthesize, but will perform cellular respiration, breaking down stored sugars to produce energy.
NADPH is the other molecule produced in the second stage of photosynthesis, known as the light-dependent reactions. Both ATP and NADPH are essential for the production of sugars in the Calvin cycle, which is the third stage of photosynthesis.
My guess would be ATP (short for Adenosine triphosphate) and NADPH
Mutations can result if the molecule shown is exposed to mutagens, which can include certain chemicals, radiation, or viruses that can alter the structure of DNA. These alterations can lead to changes in the genetic code, potentially causing mutations in the organism's genome.
The pH of the water will increase when elodea is exposed to light. This is because during photosynthesis, elodea will take in carbon dioxide, which will result in a decrease in carbonic acid concentration, leading to an increase in pH.
Vitamin D production begins when a precursor molecule is exposed to ultraviolet light in the skin.
The gas produced by the Elodea plant during photosynthesis is oxygen. This process involves the plant taking in carbon dioxide and water, and using light energy to convert them into glucose and oxygen. The oxygen is released as a byproduct of photosynthesis.
NADPH and ATP are produced by the light reactions. The ATP is a high energy molecule produced by photophosphorylation while the NADPH is produced at the end of the electron transport chain.
Light reaction is not produced by chlorophyll .
Light
Elodea, also known as waterweeds, move by floating in water currents or by the help of tiny gas bubbles that are produced by photosynthesis. These movements help them to disperse their seeds and grow towards sources of light for photosynthesis.
Elodea respires in both the light and the dark. However, the rate of repiration exceeds the rate of photosynthesis when the plants are kept in the dark.
When Elodea is at the light compensation point, the rate of photosynthesis matches the rate of respiration. This means that the amount of oxygen being produced through photosynthesis is equal to the amount being consumed through respiration, resulting in no net change in oxygen levels in the water.
Chlorophyll is green and nothing will ever change that
Elodea is placed in both flasks to show how aquatic plants release oxygen during photosynthesis. By comparing the presence of bubbles in the light and absence of bubbles in the dark, one can observe the effect of light on the process of photosynthesis in Elodea.
Elodea can conduct photosynthesis in the light, utilizing light energy to convert carbon dioxide and water into glucose. In the dark, elodea will not photosynthesize, but will perform cellular respiration, breaking down stored sugars to produce energy.