Abstract: A penetrator device has an outer housing of non-conductive, insulating material having a through bore, at least one conductive pin formed in one or two parts extending through the housing and having a first end portion and a second end portion extending out of the respective first and second ends of the housing, a first cladding layer bonded over the first end portion of the pin to form a first bonded assembly, a second cladding layer bonded over the second end portion of the pin to form a second bonded assembly, and the material of the first and second cladding layer comprising a corrosion resistant conductive material different from the pin material.

Abstract: A penetrator device has an outer housing of non-conductive, insulating material having a through bore, at least one conductive pin formed in one or two parts extending through the housing and having a first end portion and a second end portion extending out of the respective first and second ends of the housing, a first cladding layer bonded over the first end portion of the pin to form a first bonded assembly, a second cladding layer bonded over the second end portion of the pin to form a second bonded assembly, and the material of the first and second cladding layer comprising a corrosion resistant conductive material different from the pin material.

Abstract: In one embodiment, a morphable composite three-dimensional structure is disclosed. The morphable composite three-dimensional structure comprises a flexible fiber-reinforced ceramic composite comprising a fiber preform and a ceramic matrix material infused therein. The flexible fiber-reinforced ceramic composite defines a flowpath having a three-dimensional cross-section. The cross-section of the flowpath is variable along the length of the flowpath. A plurality of anchors are integrally formed in the fiber preform. The plurality of anchors extend through a thickness of the ceramic matrix. The plurality of anchors are configured to couple to at least one actuator. The at least one actuator is actuatable to vary the three-dimensional cross-section of the flowpath.

Abstract: An apparatus and method for an improved morphing flow path. A flexible structure has a plurality of sections which include a first section and a second section. An actuator system is connected to the flexible structure and includes a number of actuators. The actuator system is capable of changing a configuration of the flexible structure. A controller is connected to the actuator system. The controller is capable of changing a position of a number of actuators within the actuator system.

Abstract: In one embodiment, a thermal protection device for dissipating heat includes a shell having an outer shell surface and an inner shell surface defining a hollow inner shell chamber. A plurality of porous wick structures are disposed against each other within the hollow inner shell chamber. Each porous wick structure comprises an outer wick surface which is disposed at least one of against and near the inner shell surface and a porous inner wick surface defining a hollow inner wick chamber. A plurality of porous wick lid members are provided. The porous wick lid members are disposed between the porous wick structures within the hollow inner shell chamber of the shell. A cooling substance is disposed within the plurality of porous wick structures.

Abstract: An apparatus and method for an improved morphing flow path. A flexible structure has a plurality of sections which include a first section and a second section. An actuator system is connected to the flexible structure and includes a number of actuators. The actuator system is capable of changing a configuration of the flexible structure. A controller is connected to the actuator system. The controller is capable of changing a position of a number of actuators within the actuator system.

Abstract: In one embodiment, a thermal protection device for dissipating heat includes a shell having an outer shell surface and an inner shell surface defining a hollow inner shell chamber. A plurality of porous wick structures are disposed against each other within the hollow inner shell chamber. Each porous wick structure comprises an outer wick surface which is disposed at least one of against and near the inner shell surface and a porous inner wick surface defining a hollow inner wick chamber. A plurality of porous wick lid members are provided. The porous wick lid members are disposed between the porous wick structures within the hollow inner shell chamber of the shell. A cooling substance is disposed within the plurality of porous wick structures.