Abstract: An apparatus has a first structure, a second structure, and an activated seal. The second structure has a first position adjacent to the first structure such that the first structure is not in contact with the second structure. The activated seal is attached to at least one of the first structure and the second structure. The activated seal has a variable stiffness that may be changed in response to a stimuli such that the activated seal is capable of being deformed when at least one of the first structure and the second structure are moved relative to each other.

Abstract: Accessing interior compartments for storage or other purposes is improved by the use of one or more active material components. Activating one or more active material components carries out one or more of the following functions: opening or closing the compartment (which may include cinching a closure) and/or latching or unlatching a closure from a frame. Activation may result from a remote trigger signal. A method is provided for controlling access to an interior compartment that may be carried out by a controller operatively connected to various active material components that unlatch the closure from the frame, close the closure and cinch the closure to the frame, respectively.

Abstract: Accessing interior compartments for storage or other purposes is improved by the use of one or more active material components. Activating one or more active material components carries out one or more of the following functions: opening or closing the compartment (which may include cinching a closure) and/or latching or unlatching a closure from a frame. Activation may result from a remote trigger signal. A method is provided for controlling access to an interior compartment that may be carried out by a controller operatively connected to various active material components that unlatch the closure from the frame, close the closure and cinch the closure to the frame, respectively.

Abstract: The dominant physical parameter that affects the internal stress of electroplated metals on substrates have been identified and their effects have been systematically studied. Thin electroplated metals have very high internal stresses, even though the substrate displacements are small. Increasing the electroplated metal's thickness greatly reduces the magnitude of the stress, which can be either tensile or compressive depending on the plating conditions, but it may not necessarily reduce the displacement of the substrate. Based on the research done in connection to this application, the relationship between the plating temperatures and the current density needed to obtain near-zero-stress state for electroplated nickel on silicon substrate can be deduced.

Abstract: An exchanger includes an outer casing having an inlet port and an outlet port for a first fluid, and an inlet port and an outlet port for a second fluid, and a bundle of hollow fibers located within the outer casing and being in flow communication with the inlet and outlet port for the second fluid. A central core is located in the outer casing and the bundle of fibers is arranged around the central core. The central core includes an inlet manifold connected to the first fluid inlet port, and an outlet manifold connected to the first fluid outlet port.

Abstract: An exchanger includes an outer casing having an inlet port and an outlet port for a first fluid, and an inlet port and an outlet port for a second fluid, and a bundle of hollow fibers located within the outer casing and being in flow communication with the inlet and outlet port for the second fluid. A central core is located in the outer casing and the bundle of fibers is arranged around the central core. The central core includes an inlet manifold connected to the first fluid inlet port, and an outlet manifold connected to the first fluid outlet port.

Abstract: An exchanger includes an outer casing having an inlet port and an outlet-port for a first fluid, and an inlet port and an outlet port for a second fluid, and a bundle of hollow fibers located within the outer casing and being in flow communication with the inlet and outlet port for the second fluid. A central core is located in the outer casing and the bundle of fibers is arranged around the central core. The central core includes an inlet manifold connected to the first fluid inlet port, and an outlet manifold connected to the first fluid outlet port.