초록 ▼

The present technology is directed generally to rotary displacement systems and associated methods of use and manufacture. The systems can be used to compress and/or expand compressible fluids. In some embodiments, the rotary displacement systems include a chamber housing having a pressure-modifying

The present technology is directed generally to rotary displacement systems and associated methods of use and manufacture. The systems can be used to compress and/or expand compressible fluids. In some embodiments, the rotary displacement systems include a chamber housing having a pressure-modifying chamber with a first port and a second port, a first passageway in fluid communication with the chamber via the first port, and a second passageway in fluid communication with the chamber via the second port. The systems can further include a shaft positioned within the chamber housing and rotatable relative to the chamber housing about a rotational axis, and a rotor comprising no more than two lobes. The rotor can be carried by and rotatable relative to the shaft, and can be alternately operable in a first mode in which flow is provided from the first passageway to the second passageway via the chamber and in a second mode in which flow is provided from the second passageway to the first passageway via the chamber.

대표청구항 ▼

1. A rotary displacement system comprising: a chamber housing having a pressure-modifying chamber with a first port and a second port;a first passageway in fluid communication with the pressure-modifying chamber via the first port;a second passageway in fluid communication with the pressure-modifyin

1. A rotary displacement system comprising: a chamber housing having a pressure-modifying chamber with a first port and a second port;a first passageway in fluid communication with the pressure-modifying chamber via the first port;a second passageway in fluid communication with the pressure-modifying chamber via the second port;a shaft positioned within the chamber housing and rotatable relative to the chamber housing about a rotational axis;a rotor positioned within the pressure-modifying chamber, wherein the rotor is alternately operable in a first mode in which a first volume of working fluid flow is provided from the second passageway to the first passageway via the pressure-modifying chamber and in a second mode in which a second volume of working fluid flow is provided from the first passageway to the second passageway via the pressure-modifying chamber;a heat exchanger positioned external to the pressure-modifying chamber and within at least one of the first passageway or the second passageway; anda pressure vessel having an inner surface and an outer surface, wherein the pressure vessel at least partially surrounds the chamber housing, the first passageway, the second passageway, and the heat exchanger, and further wherein the inner surface of the pressure vessel is positioned to contact at least one of the first volume of working fluid or the second volume of working fluid flowing through the rotary displacement system. 2. The system of claim 1 wherein the rotor includes a first rotor, the pressure-modifying chamber includes a first pressure-modifying chamber, and wherein the first rotor, and the first pressure-modifying chamber comprise a first stage, and wherein the system further comprises: a second stage comprising: a second pressure-modifying chamber with a first port and a second port; anda second rotor;a bulkhead positioned between the first stage and the second stage;a first passageway fluidly connecting the second port of the first stage with the heat exchanger; anda second passageway fluidly connecting the heat exchanger with the first port of the second stage. 3. The system of claim 2 wherein the first stage has a first length and the second stage has a second length different from the first length. 4. The system of claim 2 wherein the first port of the first stage and the first port of the second stage are circumferentially offset. 5. The system of claim 2, further comprising a distribution plate having a plurality of apertures, wherein the heat exchanger is positioned between the first stage and the second stage and wherein the distribution plate is positioned between the first stage and the heat exchanger. 6. The system of claim 1 wherein the heat exchanger is positioned between the chamber housing and the pressure vessel. 7. The system of claim 1 wherein the heat exchanger comprises a phase-change heat exchanger. 8. The system of claim 1, further comprising a controller coupled to at least one of the first and the second passageways, wherein the controller is operable to redirect the rotor between operation in the first mode and the second mode by reversing a rotation direction of the shaft. 9. The system of claim 1 wherein: the heat exchanger is positioned outwardly from the chamber housing; andat least one of the first port and the second port (a) is positioned in a surface of the chamber housing that is generally parallel to the rotational axis and (b) provides fluid communication between the pressure-modifying chamber and the heat exchanger. 10. A rotary displacement system comprising: a chamber housing having a pressure-modifying chamber with a first port and a second port;a first passageway in fluid communication with the pressure-modifying chamber via the first port;a second passageway in fluid communication with the pressure-modifying chamber via the second port;a shaft positioned within the chamber housing and rotatable relative to the chamber housing about a rotational axis;a rotor positioned within the pressure-modifying chamber, wherein the rotor is alternately operable in a first mode in which a first volume of working fluid flow is provided from the second passageway to the first passageway via the chamber and in a second mode in which a second volume of working fluid flow is provided from the first passageway to the second passageway via the pressure-modifying chamber;a heat exchanger positioned external to the pressure-modifying chamber and within at least one of the first passageway and the second passageway;a pressure vessel having an inner surface and an outer surface, wherein the pressure vessel at least partially surrounds the chamber housing, the first passageway, the second passageway, and the heat exchanger, and further wherein the inner surface of the pressure vessel is positioned to contact at least one of the first volume of working fluid or the second volume of working fluid flowing through the rotary displacement system;a controller coupled to at least one of the first and second passageways, wherein the controller is operable to redirect the rotor between operation in the first mode and the second mode by reversing a rotation direction of the shaft; anda fluid storage reservoir in fluid communication with the first and second passageways, and wherein the rotation direction of the shaft controls fluid flow between the reservoir and the first and second passageways. 11. The system of claim 10 wherein the heat exchanger is positioned between the chamber housing and the pressure vessel. 12. The system of claim 10, wherein: the rotor includes a first rotor and the pressure-modifying chamber includes a first pressure-modifying chamber;the first rotor and the first pressure-modifying chamber comprise a first stage;the system further comprises: a second stage comprising: a second pressure-modifying chamber with a first port and a second port; anda second rotor;a bulkhead positioned between the first stage and the second stage;a first passageway fluidly connecting the second port of the first stage with the heat exchanger; anda second passageway fluidly connecting the heat exchanger with the first port of the second stage; andthe heat exchanger is positioned between the first stage and the second stage. 13. The system of claim 10 wherein the fluid storage reservoir comprises a geological formation, an underwater storage vessel, or a high-pressure tank. 14. The system of claim 10, further comprising at least one of a motor, a generator, or a combined motor/generator coupled to the shaft. 15. A method of operating a rotary displacement device, the method comprising: introducing a first volume of working fluid from a first passageway to a pressure-modifying chamber via a first port;rotating a rotor within the pressure-modifying chamber in a first rotation direction about a shaft to compress the first volume of working fluid;discharging the first volume of working fluid from the pressure-modifying chamber to a second passageway via a second port;introducing a second volume of working fluid from the second passageway to the pressure-modifying chamber via the second port;rotating the rotor within the pressure-modifying chamber in a second rotation direction opposite the first rotation direction to expand the second volume of working fluid;discharging the second volume of working fluid from the pressure-modifying chamber to the first passageway via the first port;directing at least one of the first volume of working fluid and the second volume of working fluid into contact with a pressure vessel at least partially surrounding a heat exchanger located within at least one of the first passageway and the second passageway and the pressure-modifying chamber;transferring heat between a heat exchanger fluid within the heat exchanger and at least one of the first volume of working fluid and the second volume of working fluid at the heat exchanger positioned outside the pressure-modifying chamber and within the pressure vessel; andintroducing the first volume of working fluid to a second pressure-modifying chamber. 16. The method of claim 15, further comprising storing heat produced during the operation of the rotary displacement device. 17. The method of claim 15 wherein the step of transferring heat between the heat exchanger fluid and at least one of the first volume of working fluid and the second volume of working fluid comprises: transferring heat from the first volume of working fluid to the heat exchanger fluid; andtransferring heat from the heat exchanger fluid to the second volume of working fluid. 18. The method of claim 15 wherein the method further comprises: discharging the first volume of working fluid from the second passageway outwardly into the heat exchanger;transferring heat from the first volume of working fluid to the heat exchanger fluid in the heat exchanger. 19. The method of claim 15 wherein the method further comprises: discharging the first volume of working fluid from the second passageway into the heat exchanger;transferring heat from the first volume of working fluid to the heat exchanger fluid in the heat exchanger; andwherein the second pressure-modifying chamber being aligned with the first pressure-modifying chamber and the heat exchanger. 20. The method of claim 15, further comprising: transmitting first information corresponding to an energy supply level to a controller;transmitting second information corresponding to an energy demand level to the controller; andexecuting controller-based instructions to reverse the rotation direction of the shaft, based at least in part on the first information and the second information.