yes it is, it might be useful to know OILRIG: oxidation is loss , reduction is gain (of electrons)
energy
Electrons are crucial in cellular respiration and photosynthesis as they facilitate energy transfer through redox reactions. In cellular respiration, NAD+ accepts electrons during the breakdown of glucose, becoming NADH, which then donates electrons to the electron transport chain to produce ATP. Similarly, in photosynthesis, NADP+ accepts electrons during the light-dependent reactions, forming NADPH, which provides the reducing power for the Calvin cycle to synthesize glucose. Both processes rely on these electron carriers to efficiently convert energy from one form to another.
Bromine's atomic number is 35, so it has 7 valence electrons. To achieve 8 valence electrons and a full outer shell, bromine needs to gain one electron.
It depends on what elements are involved. Iron has two electrons in its outer shell, Lead has four. While in a metal, the outer electrons flow freely over the surface of the solid, there is no net loss or gain of electrons, the atoms do not become ionized, and are considered to still have their original number of electrons.
your body gains electrons all day.... you gain electrons by rubbing up against things and just walking... electrons carry over to your body and when you touch something metal or a conductor you will get shocked. :) i dont know if this is the right answer but i gave it a try
Just one. To become stable, it needs eight electrons; a full outer shell.
They gain one.
Lithium can gain and lose electrons because it has three electrons in its outermost energy level. It can lose one electron to achieve a stable configuration like a noble gas, or gain seven electrons to complete its outer shell. This ability allows lithium to form different ions with different charges.
Gain of one electron
yes it is, it might be useful to know OILRIG: oxidation is loss , reduction is gain (of electrons)
energy
Electrons are crucial in cellular respiration and photosynthesis as they facilitate energy transfer through redox reactions. In cellular respiration, NAD+ accepts electrons during the breakdown of glucose, becoming NADH, which then donates electrons to the electron transport chain to produce ATP. Similarly, in photosynthesis, NADP+ accepts electrons during the light-dependent reactions, forming NADPH, which provides the reducing power for the Calvin cycle to synthesize glucose. Both processes rely on these electron carriers to efficiently convert energy from one form to another.
The immediate source of energy used to produce a proton gradient in photosynthesis is light energy. Light energy is captured by chlorophyll within the thylakoid membranes of chloroplasts, where it drives the process that generates a proton gradient across the membrane.
one
Electron carriers are needed because they play a crucial role in facilitating the movement of electrons during photosynthesis. They help transport electrons from one part of the chloroplast to another, allowing for the efficient production of ATP and NADPH, which are essential for the light-dependent reactions. Without electron carriers, the electron transport chain would be disrupted, leading to a decrease in the overall efficiency of photosynthesis.
It'll have to gain one to have a stable octet.