electron transport chain
The hydrogen falls down its electrochemical gradient, from an area of high concentration to an area of lower concentration, through the ATP synthase and provides the force to power this synthase and synthesize ATP.
hmm well, hydrogen ions fuse inside the electron carriers creating a pathway and therefore making thatpath you were wondering about. comprende?
electron transport chain
1903
Active transport requires energy (ATP, GTP, etc) to work against the electrochemical gradient. Passive transport works with the electrochemical gradient and does not require energy. (Think diffusion)
The hydrogen falls down its electrochemical gradient, from an area of high concentration to an area of lower concentration, through the ATP synthase and provides the force to power this synthase and synthesize ATP.
The hydrogen falls down its electrochemical gradient, from an area of high concentration to an area of lower concentration, through the ATP synthase and provides the force to power this synthase and synthesize ATP.
Mitochondrial DNA - journal - was created in 1980.
Mitochondrial Blues was created on 2004-07-27.
The electron transport chain converts energy stored in hydrogen ions and various other substances formed in early cellular respiration to produce high energy ATP in mitochondria. Mitochondria contain both an inner and an outer membrane, and it is along the inner membrane that the actual reactions of the chain occur. Inside the inner membrane a surplus of hydrogen ions is created that produces a concentration gradient across the membrane to the intermembrane space. This gradient causes a force that pushes hydrogen ions out of the innermost matrix and into the intermembrane space. This exchange occurs through special proteins called ATP synthase that convert low energy ADP into high energy ATP whenever a hydrogen ion is sent through one. When all is said and done, the excess electrons and hydrogen are bonded to oxygen to form water molecules.
Gradient Analytics was created in 1996.
hmm well, hydrogen ions fuse inside the electron carriers creating a pathway and therefore making thatpath you were wondering about. comprende?
electron transport chain
The electron gradient created by the electron transport chain flows from the inner membrane space to the matrix through the ATP synthase which captures energy from the proton motive force to create lots of ATP in oxadative phosphorylation.
ATP synthase is a key enzyme in energy transformation of a living cell. The enzyme makes adenosine triphosphate (ATP) from adenosine diiphosphate (ADP) and inorganic phosphate (Pi). ADP + Pi <=> ATP ATP is a universal "energy currency" of a living cell and is essential for DNA synthesis, muscle contraction, ion and nutrients transport, signal transduction, etc. The amazing feature of ATP synthase is rotary catalysis: a complex of subunits rotates relative to the rest of the enzyme and the mechanical energy of rotation is driving ATP synthesis reaction. In turn, the rotation is powered by transport of protons trough the membrane segment of ATP synthase. The driving force for this transport is the electrochemical potential difference of proton across the membrane. ATP synthase is therefore the smallest mechano-electro-chemical energy transducer that works as a nanoturbine. A much more detailed description of ATP synthase is available at www.atpsynthase.info
Recductive phosphorylation is the opposite of oxidative phosphoroylation. Reductive phosphorylation will occur in photosynthesis, when the chemiosmotic gradient is created because proteins along the thylakoid membrane have channeled hydrogen ions from the stroma to the thylakoid space. After, the hydrogen ions want to go back into the stroma because of the chemiosmotic gradient, and therefore, the enzyme ATP Synthase will open and let them run through. Like a wind turbine, it will spin at the same time, and crush ADP and P to make adenosine triphosphate (ATP). This whole process as a whole is called reductive phosphorylation because it essentially is one of the steps in reducing (giving electrons) carbon dioxide to glucose.
Journal of Membrane Science was created in 1976.