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.
The electrochemical gradient of hydrogen in the mitochondrial intermembrane space drives H ions through ATP syntase to ultimately generate ATP. The F0 (pronounced F-naught) region is the part of ATP synthanse that is embedded in the intermembrane, and contains the part often referred to as the rotor or turbine. The binding of H ions to the rotor causes it to spin within the membrane, along with the gamma subunit, which is what causes the conformational changes in the ATP producing area to occur. The passing of the H ions doesn't cause the spin, but as the ions bind to the rotor it does spin (correlation vs. causation).
ATP synthase is a multisubunit complex with four main parts, each made up of multiple polypeptides. Protons move one by one into binding sites on one of the parts, causing it to spin in a way that catalyzes ATP production from ADP and inorganic phosphate. The flow of protons behaves somewhat like a rushing stream that turns a waterwheel. ATP synthase is the smallest molecular rotary motor known in nature.
Spinner dolphins spin in the ocean as a form of communication, social bonding, and play.
it is when the spin start to swist and it can cause the person a lot of pain and suffuring. The only cer for this disease is to go throw serger and have uor spin remove and have this metal pin put in place.
Dolphins jump out of the water and spin as a form of play, communication, and social interaction with other dolphins.
ATP Synthase
The protein spheres that spin as hydrogen ions pass through them are called ATP synthase. This enzyme plays a crucial role in cellular respiration and photosynthesis by synthesizing adenosine triphosphate (ATP) from adenosine diphosphate (ADP) and inorganic phosphate. The movement of hydrogen ions across the membrane drives the rotation of ATP synthase, facilitating the production of ATP.
The electrochemical gradient of hydrogen in the mitochondrial intermembrane space drives H ions through ATP syntase to ultimately generate ATP. The F0 (pronounced F-naught) region is the part of ATP synthanse that is embedded in the intermembrane, and contains the part often referred to as the rotor or turbine. The binding of H ions to the rotor causes it to spin within the membrane, along with the gamma subunit, which is what causes the conformational changes in the ATP producing area to occur. The passing of the H ions doesn't cause the spin, but as the ions bind to the rotor it does spin (correlation vs. causation).
When the ATP synthase molecule opens, it allows protons (H+) to flow through its channel, driven by the proton gradient established across the membrane. This flow of protons causes the rotor portion of ATP synthase to spin, which mechanically drives the conversion of adenosine diphosphate (ADP) and inorganic phosphate (Pi) into adenosine triphosphate (ATP). This process is a crucial part of cellular respiration and photosynthesis, enabling cells to harness energy for various biological functions.
Spin causes electrons to have an intrinsic magnetic moment, leading to the phenomenon of electron spin. This property allows electrons to interact with magnetic fields and is crucial for understanding the behavior of atoms and molecules in chemistry and physics.
the starter
backfiring.
ATP synthase is a multisubunit complex with four main parts, each made up of multiple polypeptides. Protons move one by one into binding sites on one of the parts, causing it to spin in a way that catalyzes ATP production from ADP and inorganic phosphate. The flow of protons behaves somewhat like a rushing stream that turns a waterwheel. ATP synthase is the smallest molecular rotary motor known in nature.
rooms do not spin when you consume alcochol, it is a mental effect the alcohol causes you to see.
heat produces energy which causes the corn to spin in boiling water.
Kinetic Energy helps the car wheel spin...
When a soccer ball is kicked, the spin applied to the ball causes it to curve in the air. This is known as the Magnus effect, where the spin creates a difference in air pressure around the ball, causing it to curve in the direction of the spin.