The protein looks like a dumb bell with two with two ends and the rod you mentioned is in the center. The entire unit rotates around with the "rod' embedded in the membrane. This helps to speed up the production of ATP from ADP.
See the link below with a moving diagram:
was this a vivo study or vitro study
The ATP synthase, of course. Another rotary motor.
these are found in inner mitochondrial membrane and also called F1or elementary particles it contains enzymes ATP synthase responsible for synthesis of ATP
The enzyme is ATP synthase (sometimes referred to as "ATP synthetase").It catalyzes the synthesis of ATP from ADP and free inorganic phosphate. It is a remarkable enzyme, part of which spins round. In fact, ATP synthase has been called a molecular machine.To see an image, use the link below.
The enzyme that converts adenosine diphosphate back into adenosine triphosphate is called 'ATP synthase'.
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
The ATP synthase, of course. Another rotary motor.
ATP molecules are essentially cellular energy currency. The hydrogen gradient (or proton gradient as it is technically called) is responsible for the functioning of a protein complex called ATP synthase which in turn is responsible for the synthesis of ATP molecules. Therefore, the proton gradient is the driving force for the synthesis of ATP molecules.
these are found in inner mitochondrial membrane and also called F1or elementary particles it contains enzymes ATP synthase responsible for synthesis of ATP
The enzyme is ATP synthase (sometimes referred to as "ATP synthetase").It catalyzes the synthesis of ATP from ADP and free inorganic phosphate. It is a remarkable enzyme, part of which spins round. In fact, ATP synthase has been called a molecular machine.To see an image, use the link below.
It requires primer to start de novo synthesis. Glycogen synthase require 4 glucose already present in the chain.
synthases do not use energy from NTP's, sythetases do! synthase can be used with any enzyme that catalyzes synthesis (whether or not it uses nucleoside triphosphates), whereas synthetase is to be used synonymously with 'ligase'.
When a new hydrogen ion enters, the top part of the ATP synthase complex rotates.The hydrogen ions provide energy for the synthesis of ATP molecules.ÊÊ
all of the electron transport proteins as well as ATP synthase
The proton gradient set up by the electron transport chain causes mechanical rotation of ATP synthase, and this energy is used to form ATP
Energy released from movement of protons through ATP synthase energy released from movement of protons through ATP synthase is the most direct source of energy in this case.
I know that Synthase Units are used to qualify enzymatic ability to synthesis molecules its indicated for. I don't know that a conversion factor is available to this. However, some supplements use International units IU and others use synthase units SU so how do you make a comparison if you don't have a conversion factor?
Yes, only then can the protons in the intermembrane space move through the ATP synthase into the matrix by diffusion, and as they move through ATP synthase, the enzyme c an harness the available energy thus allowing the phosphorylation of ATP