yes ATP and NADP is cell energy
NADP is an important molecule used in cellular respiration (or making energy). When a cell breaks down glucose it converts 2 NADP molecules into 2 NADPH molecules, basically a NADP molecule with an extra hydrogen attached. That hydrogen bond has energy, that when broken releases energy to do other things. Further down the chain of the Krebs Cycle and the Electron Transport Chain, NADPH's convert ADP (adenosine di-phosphate) into ATP (adenosine tri-phosphate), the main energy molecule in bacteria, animal, and plant cells.
NADP+ does not belong because it is not a molecule directly involved in photosynthesis. Chlorophyll and other pigments are essential for capturing light energy during photosynthesis. NADP+ is involved in the transfer of electrons during the later stages of photosynthesis.
In photosynthesis, carrier molecules like NADPH and ATP play crucial roles in transferring energy and electrons during the light-dependent reactions. NADPH carries energized electrons to fuel the Calvin cycle, while ATP provides energy for glucose synthesis. These molecules help convert light energy into chemical energy that plants use for growth and survival.
NADP+ accepts and holds 2 high-energy electrons along with a hydrogen ion (H+).
the role of nadph2 is that it converts gleceraldehyde phosphate into dehydroxyacetone phosphate in the presence of ATP which then condenses to form gloucose and then glucose undergoes condensation to form reserve carbohydrate called starch.
NADP becomes reduced to form NADPH when it accepts an electron from an electron donor, such as an electron. This reduction reaction allows NADP to carry high-energy electrons for use in cellular processes like photosynthesis.
NADP+, ADP, and glucose
NAD and NADP are coenzymes that play essential roles in cellular metabolism. While NAD primarily functions in catabolic reactions releasing energy, NADP participates in anabolic reactions synthesizing molecules. The presence of both allows cells to efficiently regulate metabolic pathways, balancing energy production and consumption.
NADP+, ADP, and glucose
NADP is an important molecule used in cellular respiration (or making energy). When a cell breaks down glucose it converts 2 NADP molecules into 2 NADPH molecules, basically a NADP molecule with an extra hydrogen attached. That hydrogen bond has energy, that when broken releases energy to do other things. Further down the chain of the Krebs Cycle and the Electron Transport Chain, NADPH's convert ADP (adenosine di-phosphate) into ATP (adenosine tri-phosphate), the main energy molecule in bacteria, animal, and plant cells.
The nucleotide Adenosine tri-phosphate, primarily. Also involved are FAD-H and NADP-H.
NADP+ does not belong because it is not a molecule directly involved in photosynthesis. Chlorophyll and other pigments are essential for capturing light energy during photosynthesis. NADP+ is involved in the transfer of electrons during the later stages of photosynthesis.
One molecule of NADPH contains more energy than one molecule of NADP. This is because NADPH has an additional hydrogen atom compared to NADP, making it a more reduced form with higher energy potential due to the extra electron available for redox reactions.
NADP Jones
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.
NADP transfers electrons by accepting them from other molecules in redox reactions, taking on two electrons and a proton to form NADPH. This process typically occurs in metabolic pathways such as photosynthesis and cellular respiration, where NADP acts as an electron carrier to facilitate energy production.
In photosynthesis, carrier molecules like NADPH and ATP play crucial roles in transferring energy and electrons during the light-dependent reactions. NADPH carries energized electrons to fuel the Calvin cycle, while ATP provides energy for glucose synthesis. These molecules help convert light energy into chemical energy that plants use for growth and survival.