I wish i could tell the person who is looking this up but i obviously can't so there for you should try another web site or do different wording for your question. i am so very sorry and will try to find more answers and come back and update this answer if possible. thank you- brenda kathy ann westin
Yes, you could still calculate Elodea's rate of photosynthesis by measuring the change in dissolved oxygen in the water over time. The presence of single-celled protozoans would not significantly affect the ability to measure the rate of oxygen production by the Elodea.
Oxygen was produced by the elodea during photosynthesis while it was exposed to light.
When NaHCO3 (sodium bicarbonate) is added to an elodea plant, it can act as a carbon source for photosynthesis. The plant can take up the bicarbonate ions and convert them into carbon dioxide to fuel the process of photosynthesis, leading to enhanced production of glucose and oxygen. This can be especially useful in environments with limited carbon dioxide availability.
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.
Temperature being a limiting factor for biochemical reaction also regulate the rate of photosynthesis in plants. Thus lower and higher temperature, beyond the optimum limit, reduce the rate of photosynthesis and hence production of oxygen is also affected.
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.
Yes, you could still calculate Elodea's rate of photosynthesis by measuring the change in dissolved oxygen in the water over time. The presence of single-celled protozoans would not significantly affect the ability to measure the rate of oxygen production by the Elodea.
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.
Oxygen was produced by the elodea during photosynthesis while it was exposed to light.
Photosynthesis
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When NaHCO3 (sodium bicarbonate) is added to an elodea plant, it can act as a carbon source for photosynthesis. The plant can take up the bicarbonate ions and convert them into carbon dioxide to fuel the process of photosynthesis, leading to enhanced production of glucose and oxygen. This can be especially useful in environments with limited carbon dioxide availability.
When more than 200ppm of CO2 is added, the rate of oxygen production during photosynthesis may decrease. This is because high levels of CO2 can inhibit the enzymes responsible for photosynthesis in plants, leading to a decrease in oxygen production.
The main function of leaves in an elodea plant is to photosynthesize. They capture sunlight and convert it into energy through photosynthesis, providing the plant with the necessary nutrients to grow. Leaves also help with gas exchange, allowing the plant to take in carbon dioxide and release oxygen.
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 oxygen level in the beaker would likely increase as the snail consumes oxygen during respiration, while the elodea plant continues to produce oxygen through photosynthesis. This could create a balance or slight increase in oxygen levels, as long as the rate of oxygen consumption by the snail is not higher than the rate of oxygen production by the plant.
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.