Abstract: A load apparatus is provided. The load apparatus generally comprises a load that is configured to convert mechanical rotational energy to electrical energy for a power output. A rotor assembly is coupled to the load, wherein the rotor assembly includes a rotor shaft that is configured to rotate within at least a portion of the load. A quill shaft is coupled to the rotor shaft, wherein the quill shaft is configured to couple the rotor shaft to a drive shaft of a machine such that the rotor shaft is axially and/or radially isolated from the drive shaft to facilitate rotordynamic isolation between the load apparatus and the machine.

Abstract: A turbomachine assembly generally has a compressor section including a first end of a rotating member and a first cover configured to substantially enclose the first end therein. The compressor section includes a bypass valve coupled to the first cover portion and configured to control fluid flow within the compressor section to enable controlling at least one operating parameter of the compressor section. A turbine section is arranged in flow communication with the compressor section. The turbine section includes a second end of the rotating member and a second cover configured to substantially enclose the second end therein. At least one regulating valve that is in flow communication with the compressor section and the turbine section, wherein the regulating valve is configured to control fluid flow between the compressor and turbine sections to enable controlling at least one operating parameter of the turbine section.

Abstract: A turbomachine assembly for recovering waste heat generally has a compressor section that is configured to generate a compressed fluid flow and to channel the compressed fluid flow within the turbomachine assembly. A turbine section is coupled to the compressor section via a rotating member such that portions of the rotating member are located within the compressor section and the turbine section, respectively. The turbine section is in flow communication with the compressor section such that the compressed fluid flow is received by the turbine section. At least one heat exchanger is positioned at least partly within the turbine section where the heat exchanger receives waste heat energy. The heat exchanger transfers energy from the waste heat into the compressed fluid flow to increase at least one parameter of the compressed fluid flow contributing to the generation of a power output.

Abstract: A housing apparatus for use with an electrical system generally comprises a cover assembly that includes a front end, an aft end, and a cavity defined therebetween to enable the cover assembly to house the electrical system within the cavity. At least one electrode plate is coupled to the cover assembly, wherein the electrode plate is configured to provide an electrostatic fluid flow. At least one annular sleeve is coupled to the cover assembly and to the electrode plate. The annular sleeve includes an inner portion and an outer portion. The annular sleeve also includes a plurality of channels and a plurality of cooling structures that extend from the outer portion to the inner portion to facilitate channeling the electrostatic fluid flow within at least a portion of the housing apparatus to prevent a temperature of the housing apparatus and/or the electrical system from substantially increasing.

Abstract: A rotor assembly generally comprises a sleeve apparatus that includes a first sleeve portion and a second sleeve portion positioned a predefined distance from the first sleeve portion. The sleeve apparatus also includes at least one channel defined between the first sleeve portion and the second sleeve portion. A rotor shaft is coupled to the sleeve apparatus such that at least a portion of the rotor shaft is positioned within the sleeve apparatus, wherein the rotor shaft includes an end portion that is configured to be removably coupled to a drive shaft. At least one magnetic attachment is removably coupled within the channel to facilitate maintaining the rotor shaft in alignment within the sleeve apparatus during operation of the rotor assembly.

Abstract: A load apparatus is provided. The load apparatus generally comprises a load that is configured to convert mechanical rotational energy to electrical energy for a power output. A rotor assembly is coupled to the load, wherein the rotor assembly includes a rotor shaft that is configured to rotate within at least a portion of the load. A quill shaft is coupled to the rotor shaft, wherein the quill shaft is configured to couple the rotor shaft to a drive shaft of a machine such that the rotor shaft is axially and/or radially isolated from the drive shaft to facilitate rotordynamic isolation between the load apparatus and the machine.

Abstract: A housing apparatus for use with an electrical system generally comprises a cover assembly that includes a front end, an aft end, and a cavity defined therebetween to enable the cover assembly to house the electrical system within the cavity. At least one electrode plate is coupled to the cover assembly, wherein the electrode plate is configured to provide an electrostatic fluid flow. At least one annular sleeve is coupled to the cover assembly and to the electrode plate. The annular sleeve includes an inner portion and an outer portion. The annular sleeve also includes a plurality of channels and a plurality of cooling structures that extend from the outer portion to the inner portion to facilitate channeling the electrostatic fluid flow within at least a portion of the housing apparatus to prevent a temperature of the housing apparatus and/or the electrical system from substantially increasing.