Rotor

The precise movement of the rotor in the mechanical watch required regular maintenance.

The precision of the rotor is essential for accurate timekeeping in mechanical watches.

The rotor of the antique clock was beautifully crafted and made a satisfying ticking sound.

The rotor in the clock stopped working, causing it to lose time.

The watchmaker carefully adjusted the rotor to improve its accuracy.

The worn-out rotor in the antique mantel clock had to be replaced.

The rotating rotor of the grandfather clock could be seen through the glass door of the cabinet.

The watchmaker carefully examined the rotor to ensure it was functioning properly.

The watchmaker explained to the customer the importance of maintaining the rotor.

The rotor of the old mechanical clock was wound up every day to keep it running.

The rotor is an integral part of the mechanism that drives the clock's hands.

The rotor of the clock needed to be adjusted to improve timekeeping.

The old grandfather clock needed a new rotor to function properly.

The magnetic levitation train's rotor uses electromagnetic forces to propel the train forward.

The wind turbine's variable-speed rotor allows for better adaptation to changing wind conditions, maximizing energy capture.

The washing machine's rotor helps to agitate the clothes during the wash cycle.

The wind turbine's rotor generates electricity by spinning.

The induction motor's squirrel-cage rotor is made of copper bars and short-circuit rings, providing robustness and simplicity.

The compressor's rotor compresses the air inside the cylinder, increasing the pressure.

The turbocharger's twin-scroll turbine housing directs exhaust gases to the rotor in a more efficient manner, increasing power output.

The electric motor's rotor and stator work together to convert electrical energy into mechanical energy.

The water turbine's rotor rotates as water flows through it, producing hydroelectric power.

The turbocharger's rotor increases the power of the engine by compressing the air intake.

The turbojet engine's high-pressure rotor is subjected to extreme temperatures and stresses.

The helicopter's rotor provides lift and propulsion, enabling it to hover and fly.

The ceiling fan's rotor was covered in dust and needed to be cleaned.

The wind turbine's rotor blades were designed to optimize energy production.

The electric motor's rotor spins rapidly, converting electrical energy into mechanical energy.

The centrifuge's rotor separates materials based on their density using centrifugal force.

The power plant's rotor had to be replaced due to wear and tear.

The dentist used a dental drill with a small rotor to remove the cavity.

The MRI machine's rotor generates a strong magnetic field, allowing it to produce detailed images of the body.

The permanent magnet motor's rotor has a high degree of magnetization, providing high power density and efficiency.

The hybrid electric vehicle's electric motor rotor is made of high-performance neodymium magnets, providing high torque and efficiency.

The hydroelectric power plant's Francis turbine rotor is shaped like a propeller, providing high efficiency and flexibility over a wide range of water flows.

The rotor of the helicopter was spinning rapidly as it took off.

The airplane's engine had a problem with its rotor, causing it to malfunction.

The turbofan engine's rotor blades provide propulsion by accelerating air through the engine.

The synchronous motor's rotor is made of a solid steel forging, ensuring high reliability and durability.

The alternator's rotor spins inside the stator, generating electrical power.

The centrifugal compressor's variable-inlet guide vanes optimize the flow of air into the rotor, increasing efficiency.

The kite's rotor blades were made of lightweight materials and spun around in the wind, providing lift to keep the kite in the air.

The helicopter's rotor blades were made of composite materials to increase strength and durability while reducing weight.

The airplane's rotor blades were rotating to provide lift and keep it in the air.

The flying saucer's rotor blades were positioned at an angle, allowing it to hover and move in any direction.

The model airplane's rotor blades were made of balsa wood and spun around when the motor was turned on, providing lift and propulsion.

The drone's rotor blades allowed it to fly and hover in place.

The single-engine plane's rotor blades rotated faster as the pilot increased the throttle, providing more lift.

The helicopter's main rotor provided lift and allowed it to fly vertically.

The quadcopter's rotor blades were arranged in a cross pattern and allowed it to hover in place and move in any direction.