both are same using for rotating the turbine initially
The turning gear main motor and piggy motor in a steam turbine are used for maintaining the turbine's rotation during startup and shutdown phases. The turning gear main motor provides slow rotation of the turbine shaft to ensure proper lubrication and prevent thermal stress on the components. The piggy motor, often a smaller auxiliary motor, assists in this process by allowing for fine adjustments or providing additional support during low-speed operations. Together, they help maintain the integrity and longevity of the turbine system.
You don't start a large turbine cold. Typically, the lubrication system is started, the turning gear is engaged and warming steam (a small amount of steam, not enough to turn the turbine) is admitted to the turbine to warm and initially expand the shaft and casing. If this isn't done, thermal shock from the admission of high pressure superheated steam into the cold turbine could damage it.
So you can tell if the motor is turning (running) just by looking.
You rip apart an atom which releases great energy in the form of heat. The energy causes water to evaporate which turns a turbine. The turning turbine creates electricity. This is how a nuclear reactor works.
On a pedestal drill the workpiece is static and the drill is in a vertical position and rotates. On a lathe the workpiece rotates but not the drill, and the drill is in a horizontal position.
There is no difference between a turning machine and a lathe. They are two names for the same kind of machine
different between twist and turn
The energy produced by turbine blades turning is typically mechanical energy. This mechanical energy is then converted into electrical energy through a generator connected to the turbine.
Basic difference between turning and milling is that , In turning the tool is fixed and the job rotates whereas in milling the job is fixed and the tool rotates
electricity created by the flow of water turning a turbine
A turbine is most commonly connected to a generator to produce electricity. The turbine may be turned by water falling into it, and a generator produces electricity by turning through a magnetic field.
Electricity can be produced by turning a turbine through the process of electromagnetic induction. When a turbine is rotated, it spins a magnet within a coil of wire, creating a changing magnetic field that induces an electric current in the wire. This current is then captured and converted into usable electricity.
The energy transformation from the turning turbine to electricity is a conversion of mechanical energy into electrical energy. As the turbine spins, it drives a generator which converts mechanical energy into electrical energy through electromagnetic induction. This process allows the kinetic energy of the moving turbine to be transmitted and utilized as electrical power.
Electricity can be produced by turning a turbine through a process known as electromechanical energy conversion. When a turbine is rotated by a force such as wind, water, or steam, it spins a shaft connected to a generator. The rotation of the turbine causes the generator to produce electricity as the magnetic field created within the generator interacts with the conductive coils, inducing an electric current.
generally , cranking an engine is done with igniton where turning is done by hand with the ignition off so as it will not start
Turning off it stays off until you turn it on, restart just automaticlly turns off then back on.
The turning gear main motor and piggy motor in a steam turbine are used for maintaining the turbine's rotation during startup and shutdown phases. The turning gear main motor provides slow rotation of the turbine shaft to ensure proper lubrication and prevent thermal stress on the components. The piggy motor, often a smaller auxiliary motor, assists in this process by allowing for fine adjustments or providing additional support during low-speed operations. Together, they help maintain the integrity and longevity of the turbine system.