No, they don't can.
Electrons are the subatomic particles in an atom that interact with photons. When photons interact with electrons, they can be absorbed, emitted, or scattered, leading to various chemical and physical processes in a molecule.
When infrared photons interact with a material, they can be absorbed, reflected, transmitted, or converted into heat energy.
Chlorophyll is the green pigment in chloroplasts that absorbs photons during photosynthesis.
Photons can be converted to chemical energy through the process of photosynthesis in plants. In this process, light energy from photons is absorbed by chlorophyll molecules in plant cells, which then converts the energy into chemical bonds in molecules such as glucose through a series of biochemical reactions.
The energy of photons is converted into chemical energy during the process of photosynthesis in plants. This energy is used to produce glucose, which is the main source of energy for plants and other organisms that consume them.
Yes, light is composed of photons, which are fundamental particles that carry electromagnetic energy. When photons are collected by a detector, such as the human eye or a camera sensor, they can be converted into electrical signals that we perceive as light.
They are the chlorophyll. Photosystem II reacts first
chlorophyll
Six photons must be absorbed to reduce one molecule of carbon dioxide in the Calvin Cycle. Each photon contributes two electrons needed for the reduction process.
How is mechanical energy is converted to electrical energy through a solar cell? It isn't, what energy is converted is commonly known as solar energy. What happens in a solar cell is that the sun "shoots" photons at the silicon cell. When the photons are shot hard enough, the silicon "breaks" as well as the photon and energy is formed. This is then used as electrical energy.
Glucose is the raw material. It is converted into pyruvate.
In the anabolism of glucose, pyruvate is initially converted into phosphoenolpyruvate (PEP) through the enzyme pyruvate carboxylase. PEP is an important intermediate in the gluconeogenesis pathway, which synthesizes glucose from non-carbohydrate precursors.