NADP+
The energy carrying molecule in the cell is adenosine triphosphate. People often call it ATP.
The energy carrying molecule in the cell is adenosine triphosphate. People often call it ATP.
Nadh and ATP
When electrons are transferred from one molecule to another, the molecule losing the electrons becomes oxidized and typically has a higher energy state due to the loss of negatively charged particles. This process can result in the release of energy, as oxidation often occurs alongside a reduction reaction in the other molecule, which gains the electrons and becomes reduced. Consequently, the overall energy dynamics depend on the specific molecules involved and the context of the reaction.
NADP+
Electrons combine with protons from the hydrogen atom to produce an energy-carrying molecule called ATP (adenosine triphosphate) through a process known as oxidative phosphorylation in the mitochondria. ATP is the primary energy currency of the cell, providing energy for various cellular processes.
NDHP+
The energy carrying molecule in the cell is adenosine triphosphate. People often call it ATP.
The primary energy carrying molecule in a cells is ATP. ATP is known as adenosine triphosphate which is an organic molecule that stores and releases energy, used in cellular processes.
No, an oxidized molecule has already lost electrons and is in a lower energy state. In order to gain energy, a molecule would need to be reduced by gaining electrons.
The energy carrying molecule in the cell is adenosine triphosphate. People often call it ATP.
Nadh and ATP
Nadh and ATP
Not necessarily. The amount of energy transferred by a wire primarily depends on the current flowing through it, not just the number of electrons. The current is determined by both the number of electrons and their speed, so a wire carrying fewer electrons at a higher speed could transfer more energy than a wire carrying more electrons at a slower speed.
NADPH
When electrons are transferred from one molecule to another, the molecule losing the electrons becomes oxidized and typically has a higher energy state due to the loss of negatively charged particles. This process can result in the release of energy, as oxidation often occurs alongside a reduction reaction in the other molecule, which gains the electrons and becomes reduced. Consequently, the overall energy dynamics depend on the specific molecules involved and the context of the reaction.