I believe that the answer to this is no because a plant also needs carbon dioxide around it. If it is just oxygen it could become overwhelmed and faint.
I believe that the answer to this is no because a plant also needs carbon dioxide around it. If it is just oxygen it could become overwhelmed and faint.
There is air, of course, surrounding Earth, because it was placed there, but any of the elements that combine to make an atmosphere have dissolved or dissipated out into the vastness of space.
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.
In 1770, Joseph Priestly conducted experiment to discover one of the products of photosynthesis. He first put a mouse into a bell jar and left it, it died. He then put a burning candle into the bell jar and it burnt out. After that, he placed a plant into the bell jar with another mouse, it survived! And, then he placed a candle in with the plant, it didn't burn out! So using our knowledge of respiration and combustion we know that you need oxygen to burn and oxygen to respire.
It Stops. It is a by-product of Photosynthesis, and without light Photosynthesis can not take place.
No, a plant placed in an atmosphere of pure oxygen would not be able to conduct photosynthesis effectively. This is because plants require a balanced mixture of gases, including carbon dioxide, in order to carry out the process of photosynthesis.
I believe that the answer to this is no because a plant also needs carbon dioxide around it. If it is just oxygen it could become overwhelmed and faint.
There is air, of course, surrounding Earth, because it was placed there, but any of the elements that combine to make an atmosphere have dissolved or dissipated out into the vastness of space.
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.
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.
A simple school experiment is: A plant is enclosed inside a glass jar, and placed in sunlight and left to photosynthesis. A lit spill is blown out and, while still smouldering, is placed into the jar. Oxygen in the jar will ignite the spill.
One bottle would have more pure oxygen then the other one, since oxygen is more dense then air, and will not rise into the atmosphere or combine with air quick
In 1770, Joseph Priestly conducted experiment to discover one of the products of photosynthesis. He first put a mouse into a bell jar and left it, it died. He then put a burning candle into the bell jar and it burnt out. After that, he placed a plant into the bell jar with another mouse, it survived! And, then he placed a candle in with the plant, it didn't burn out! So using our knowledge of respiration and combustion we know that you need oxygen to burn and oxygen to respire.
It Stops. It is a by-product of Photosynthesis, and without light Photosynthesis can not take place.
nope, and yes see if you don't have the plant in the light, the plant won't have energy to start photosynthesis but when in light it does
The plant placed in dark will not carry out photosynthesis whereas the plant placed in light will carry out photosynthesis. if the conditions are kept constant for a long time then the plant placed in dark will wilt and die whereas the plant placed in light will continue to survive.
Ingenhousz likely collected a sample of dephlogisticated air, which we now know as oxygen, by using a method involving plant photosynthesis. He would have placed aquatic plants in water and exposed them to sunlight, observing the bubbles released during photosynthesis. These bubbles, primarily composed of oxygen, could then be collected and analyzed, allowing him to demonstrate the production of this gas in the presence of light. This experiment contributed to the understanding of the role of plants in oxygen production.