SYSTEM AND METHOD FOR INDUCTOR COOLING
A system includes a cooling system. The cooling system includes a Rankine cycle and an inductor coupled to the cooling system. The inductor generates heat when in operation. The Rankine cycle circulates a working fluid when in operation, and the working fluid is configured to cool the inductor and to facilitate absorbing heat generated by the inductor.
1 . A system, comprising:
a cooling system comprising a Rankine cycle; and
an inductor coupled to the cooling system.
2 . The system of claim 1 , wherein the Rankine cycle comprises:
an evaporator coupled to a heat source and configured to circulate a working fluid in heat exchange relationship with a hot fluid from the heat source to vaporize the working fluid;
an expander coupled to the evaporator and configured to expand the vaporized working fluid from the evaporator;
a condenser coupled to the expander and configured to condense the vaporized working fluid from the expander; and
a pump coupled to the condenser and configured to pressurize the condensed working fluid to produce a pressurized working fluid, and wherein the cooling system comprises:
a first flow path fluidly coupling the pump and the inductor and configured to feed at least a portion of the pressurized working fluid from the pump to the inductor, wherein the portion of the pressurized working fluid is configured to cool the inductor and produce a heated working fluid that is maintained in a liquid state; and
a second flow path fluidly coupling the inductor and the evaporator and configured to feed all of the heated working fluid from the inductor to the evaporator.
3 . The system of claim 2 , wherein the first flow path is configured to feed all of the pressurized working fluid from the pump to the inductor.
4 . The system of claim 2 , wherein the condenser is configured to receive the working fluid only from the turbine.
5 . The system of claim 2 , wherein the inductor comprises a tube disposed inside of the inductor, the tube is configured to transfer the portion of the pressurized working fluid from the pump to the evaporator, and the portion of the pressurized working fluid is configured to cool the inductor.
6 . The system of claim 2 , wherein the inductor comprises a tube disposed about the inductor, the tube is configured to transfer the portion of the pressurized working fluid from the pump to the evaporator, and the portion of the pressurized working fluid is configured to cool the inductor.
7 . The system of claim 2 , wherein the inductor comprises a shell covering at least a portion of the inductor, the shell comprises a passageway between an outer wall of the shell and an inner wall of the shell, and the passageway is configured to transfer the portion of the pressurized working fluid from the pump to the evaporator, and the portion of the pressurized working fluid is configured to cool the inductor.
8 . The system of claim 2 , wherein the inductor is disposed on a cold plate having a plurality of openings formed therein, the cold plate is configured to transfer the portion of the pressurized working fluid via the plurality of openings from the pump to the evaporator, and the portion of the pressurized working fluid is configured to cool the inductor.
9 . A method, comprising:
circulating a working fluid from an evaporator to an expander, wherein the evaporator is coupled to a heat source and is configured to exchange heat with a hot fluid from the heat source to vaporize the working fluid, and the expander is configured to expand the vaporized working fluid from the evaporator;
circulating the vaporized working fluid from the expander to a condenser, wherein the condenser is configured to condense the vaporized working fluid from the expander;
circulating the condensed working fluid from the condenser to a pump, wherein the pump is configured to pressurize the condensed working fluid;
circulating at least a portion of the pressurized working fluid via a first flow path from the pump to an inductor, wherein the portion of the pressurized working fluid is configured to cool the inductor and produce a heated working fluid, and wherein the heated working fluid maintains a liquid state; and
circulating all of the heated working fluid via a second flow path from the inductor to the evaporator.
10 . The method of claim 9 , comprising circulating all of the pressurized working fluid via the first flow path from the pump to the inductor.
11 . The method of claim 9 , wherein the working fluid comprises cyclohexane, cyclopentane, thiophene, ketones, aromatics, propane, butane, pentafluoro-propane, pentafluoro-butane, pentafluoro-polyether, or any combination thereof.
12 . The method of claim 9 , comprising directing via a valve at least a portion of the pressurized working fluid from the pump directly to the evaporator.
13 . The method of claim 9 , comprising transferring the portion of the pressurized working fluid via a tube disposed inside of the inductor from the pump to the evaporator to cool the inductor.
14 . The method of claim 9 , comprising transferring the portion of the pressurized working fluid via a tube disposed about the inductor from the pump to the evaporator to cool the inductor.
15 . The method of claim 9 , comprising transferring the portion of the pressurized working fluid via a shell from the pump to the evaporator to cool the inductor, wherein the shell covers at least a portion of the inductor and comprises a passageway between an outer wall of the shell and an inner wall of the shell.
16 . The method of claim 9 , comprising transferring the portion of the pressurized working fluid via a plurality of openings of a cold plate from the pump to the evaporator to cool the inductor, wherein the inductor is disposed on the cold plate.
17 . A system, comprising:
a controller, comprising:
one or more tangible, non-transitory, machine-readable media collectively storing one or more sets of instructions; and
one or more processing devices configured to execute the one or more sets of instructions to monitor or control operations of the system to control a cooling system having a Rankine cycle to cool an inductor of a power generation system.
18 . The system of claim 17 , wherein the one or more processing devices are configured to execute the one or more sets of instructions to monitor or control operations of the system to:
circulate a working fluid from an evaporator of the Rankine cycle to an expander of the Rankine cycle, wherein the evaporator is coupled to a heat source and configured to heat exchange with a hot fluid from the heat source to vaporize the working fluid, and wherein the expander is configured to expand the vaporized working fluid from the evaporator;
circulate the vaporized working fluid from the expander to a condenser of the Rankine cycle, wherein the condenser is configured to condense the vaporized working fluid from the expander;
circulate the condensed working fluid from the condenser to a pump of the Rankine cycle, wherein the pump is configured to pressurize the condensed working fluid to produce a pressurized working fluid;
circulate at least a portion of the pressurized working fluid via a first flow path of the cooling system from the pump to the inductor, wherein the portion of the pressurized working fluid is configured to cool the inductor and produce a heated working fluid that is maintained in a liquid state; and
circulate all of the heated working fluid via a second flow path of the cooling system from the inductor to the evaporator.
19 . The system of claim 18 , wherein the one or more processing devices are configured to execute the one or more sets of instructions to monitor or control operations of the system to circulate all of the pressurized working fluid via the first flow path from the pump to the inductor.
20 . The system of claim 18 , wherein the inductor comprises a tube disposed inside of the inductor, the tube is configured to transfer the portion of the pressurized working fluid from the pump to the evaporator, and the portion of the pressurized working fluid is configured to cool the inductor.