you would not see the same effect because there is sugar in one and not in the other
When an Elodea leaf is added to a phenol red solution, the leaf will release oxygen through photosynthesis. The oxygen will cause the phenol red solution to change color, indicating the presence of oxygen production.
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.
The structure found in Elodea cells but not in potato and onion cells is the chloroplast. Chloroplasts are responsible for photosynthesis, which is the process of converting light energy into chemical energy to produce glucose. In Elodea, chloroplasts are abundant due to its aquatic environment, whereas in potato and onion cells, chloroplasts are less prevalent.
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.
Elodea cells are smaller
The blue BTB solution turning green in the presence of elodea indicates that photosynthesis is taking place. During photosynthesis, elodea utilizes carbon dioxide and water to produce glucose and oxygen, leading to a change in the color of the indicator solution from blue to green.
if starch is present in a substance, the solution IKI when combined will turn the substance a blue-black color. When the plant Elodea was combined with IKI the elodea did not turn a blue-black color. Hence elodea does not contain starch.
When an Elodea leaf is added to a phenol red solution, the leaf will release oxygen through photosynthesis. The oxygen will cause the phenol red solution to change color, indicating the presence of oxygen production.
The scientific term for the appearance of elodea cells when placed in a hypotonic solution is turgid. This occurs when water moves into the cell causing it to swell and become firm.
The hypothesis of an osmosis lab with an Elodea leaf could be that the Elodea leaf will lose water and shrink when placed in a hypertonic solution due to water moving out of the leaf cells by osmosis, causing the cells to become flaccid. Conversely, if the Elodea leaf is placed in a hypotonic solution, it may gain water, swell, and become turgid as water moves into the leaf cells via osmosis.
Elodea primarily uses sunlight as its energy source to power cellular processes through photosynthesis. It converts sunlight, water, and carbon dioxide into glucose and oxygen, which fuels its growth and metabolism.
becuase it is to thick
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.
The structure found in Elodea cells but not in potato and onion cells is the chloroplast. Chloroplasts are responsible for photosynthesis, which is the process of converting light energy into chemical energy to produce glucose. In Elodea, chloroplasts are abundant due to its aquatic environment, whereas in potato and onion cells, chloroplasts are less prevalent.
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.
Oh, dude, when you stick elodea cells in a salt solution, they're like, "Whoa, this is salty!" The salt solution messes with their osmotic balance, so water leaves the cells, making them shrink and look all sad. It's like when you eat too many chips and your fingers swell up – not a good time for anyone involved.
Elodea is an aquatic plant.