light energy
The products of the light reactions will typically go into the atmosphere around the organism. These products are picked up by animals as well.
Dark reactions can continue to run in the absence of light since they are not dependent on light energy for their process. These reactions, such as the Calvin cycle, use the products of the light-dependent reactions to convert carbon dioxide into sugar molecules. Therefore, they can occur in the dark as long as the necessary molecules and enzymes are present.
The reactions of photosynthesis that do not require sunlight are the Calvin cycle (light-independent reactions). In this cycle, carbon dioxide is converted into glucose using ATP and NADPH generated during the light-dependent reactions. This process occurs in the stroma of the chloroplast.
Differences: >light reactions occur in the thykaloid membranes, but dark occur in stroma >light reactions are light dependent, or they need light to take place, whereas dark reactions don't > dark reactions use the products of the light reactions >light reactions are the first step of photosynthesis and dark reactions are the second step Similarities: >both in photosynthesis Thats really the only similarity!!! hope this helps :)
The sun shines because of nuclear fusion reactions occurring in its core. These reactions release energy in the form of light and heat, which illuminates our solar system. The sun will continue to shine as long as it has fuel to sustain these fusion reactions.
No. Photosystems I and II are where light-dependent reactions occur, while the Calvin Cycle is where light-independent reactions occur. Photosynthesis begins with Photosystem II, then Photosystem I, then the products from there go to the Calvin Cycle. (yes photosystem II comes before photosystem I)
the reactions in which value of Qc=Kc
There is no such requirement.
It is not a requirement to shave before you go tanning because the light rays will move past the hairs. You will get the same tanning results if you shave or do not shave.
Some limitations of titration include the need for precise and accurate measurements, the requirement for reactions to go to completion, potential interferences from impurities or other substances, and the necessity for proper calibration of equipment. Additionally, titration may not be suitable for reactions with slow kinetics or for samples with very low concentrations.
It doesn't just imply that -- it is an absolute requirement of Einstein's Postulates that neither matter nor information can travel between two points at a speed faster than that of light.
The number of biochemical reactions in the body is extremely great.