Atp is universal energy currency used in most reactions while GTP is used only in protein synthesis .
GTP produced by the citric acid cycle energetically equivalent to ATP in metabolism because both ATP and GTP contain 3 phosphate groups and adenine and guanine are both the same type of nucleic acid. Moreover, they have very similar in its structure and energetic properties with each others
The preparatory reaction phase of cellular respiration does not produce ATP directly. This phase involves the conversion of pyruvate to acetyl-CoA, which is a preparatory step for the citric acid cycle where ATP is produced.
The GTP Krebs cycle, also known as the citric acid cycle, is a key part of cellular respiration. It helps break down molecules from food to produce energy in the form of ATP. This cycle generates GTP, which can be converted to ATP, providing the cell with the energy it needs to function.
GTP and ATP are both energy currency molecules used by cells, but they have some key differences. GTP is mainly used in protein synthesis and signal transduction, while ATP is more versatile and used in various cellular processes like muscle contraction and active transport. The differences in their structures and functions allow cells to regulate different processes efficiently.
The major functional difference lies in the source of the phosphate group used in the reaction: plants use inorganic phosphate, while animals use a nucleoside diphosphate. This difference reflects the evolutionary divergence in metabolic pathways between plants and animals.
4ATP, 2GTP
The nitrogen base tri-phosphates (like ATP, GTP etc) and NADPH produced during the Light reaction provide the energy for the Dark reaction.
GTP can be more specific for certain cellular processes compared to ATP, potentially allowing for more precise control of these processes. Additionally, using GTP instead of ATP could help regulate the energy flow in different pathways, preventing unnecessary energy consumption.
The Krebs Cycle does not directly produce ATP (unless in bacteria, which produces 1 ATP instead of GTP).One cycle produces 3 NADH, 1 FADH2 and 1 GTP, which converts to 12 ATP.The Krebs Cycle produces 24 ATP per glucose molecule.
Glycolysis only produces ATP. GTP is produced during the Citric Acid Cycle (Krebs Cycle).
GTP produced by the citric acid cycle energetically equivalent to ATP in metabolism because both ATP and GTP contain 3 phosphate groups and adenine and guanine are both the same type of nucleic acid. Moreover, they have very similar in its structure and energetic properties with each others
The preparatory reaction phase of cellular respiration does not produce ATP directly. This phase involves the conversion of pyruvate to acetyl-CoA, which is a preparatory step for the citric acid cycle where ATP is produced.
The GTP Krebs cycle, also known as the citric acid cycle, is a key part of cellular respiration. It helps break down molecules from food to produce energy in the form of ATP. This cycle generates GTP, which can be converted to ATP, providing the cell with the energy it needs to function.
GTP and ATP are both energy currency molecules used by cells, but they have some key differences. GTP is mainly used in protein synthesis and signal transduction, while ATP is more versatile and used in various cellular processes like muscle contraction and active transport. The differences in their structures and functions allow cells to regulate different processes efficiently.
Atp, Gtp, Utp, Cellulose and Glycogen for starts.
The major functional difference lies in the source of the phosphate group used in the reaction: plants use inorganic phosphate, while animals use a nucleoside diphosphate. This difference reflects the evolutionary divergence in metabolic pathways between plants and animals.
GTP (guanosine triphosphate) is not an universal energy currency like ATP (adenosine triphosphate) because it is less commonly used as a direct source of energy in cellular reactions. While ATP is known as the primary energy currency of the cell due to its ubiquitous role in energy transfer, GTP is typically utilized in specific cellular processes such as protein synthesis and signal transduction. Therefore, ATP is more universally recognized and utilized as an energy carrier in a wide range of cellular activities.