Abstract: A supply pump actuating turbine, in particular for a power plant, that includes at least two jet sectors for introducing a working gas into the turbine, a line system for connecting the at least two jet sectors to at least two different sources of working gas, and a valve arrangement for setting the supply of the jet sectors with the working gas from at least one of the sources. The valve arrangement and the line system are designed in such a way that at least three operating states can be set: a first operating state, in which all the jet sectors are supplied with the working gas of the first source, a second operating state, in which all the jet sectors are supplied with the working gas of the second source, and a third operating state, in which at least one of the jet sectors is supplied with the working gas of the first source and at least one other of the jet sectors is supplied with the working gas of the second source.

Abstract: A supply pump actuating turbine, in particular for a power plant, that includes at least two jet sectors for introducing a working gas into the turbine, a line system for connecting the at least two jet sectors to at least two different sources of working gas, and a valve arrangement for setting the supply of the jet sectors with the working gas from at least one of the sources. The valve arrangement and the line system are designed in such a way that at least three operating states can be set: a first operating state, in which all the jet sectors are supplied with the working gas of the first source, a second operating state, in which all the jet sectors are supplied with the working gas of the second source, and a third operating state, in which at least one of the jet sectors is supplied with the working gas of the first source and at least one other of the jet sectors is supplied with the working gas of the second source.

Abstract: In a method for controlling a steam turbine installation having a reheater (7) arranged between high-pressure turbine (2) and medium-pressure turbine (3) or low-pressure turbine (4), a low-pressure bypass (18) with a low-pressure bypass valve (19) also being present, which bypass leads from the reheater outlet into a condenser (5), a flexible and optimum control with respect to variable high-pressure turbine exhaust steam temperature (THD) is achieved in that characteristic curves for the required value of the reheater pressure are used for controlling the low-pressure bypass valve (19) during run-up, during (partial) load rejection procedures or during idling, which characteristic curves depend on the load (L) applied to the installation, and/or on the pressure (P) before the high-pressure turbine blading and/or on the reheater steam flow (M), and also on the high-pressure turbine exhaust steam temperature (THD), and/or on the temperature (TFD) and/or on the pressure (pFD) of the live steam introduced into t

Abstract: In a method for controlling a steam turbine installation having a reheater (7) arranged between high-pressure turbine (2) and medium-pressure turbine (3) or low-pressure turbine (4), a low-pressure bypass (18) with a low-pressure bypass valve (19) also being present, which bypass leads from the reheater outlet into a condenser (5), a flexible and optimum control with respect to variable high-pressure turbine exhaust steam temperature (THD) is achieved in that characteristic curves for the required value of the reheater pressure are used for controlling the low-pressure bypass valve (19) during run-up, during (partial) load rejection procedures or during idling, which characteristic curves depend on the load (L) applied to the installation, and/or on the pressure (P) before the high-pressure turbine blading and/or on the reheater steam flow (M), and also on the high-pressure turbine exhaust steam temperature (THD), and/or on the temperature (TFD) and/or on the pressure (pFD) of the live steam introduced into t