Abstract: A self-aligning release assembly for a separation mechanism is provided. The separation mechanism has a protective housing for selectively releasably securing a fastener. The protective housing is mountable to a structure. The release assembly comprises a rotatable flywheel having an internal bearing race with the bearing race having a plurality of recessed portions. A plurality of bearing elements contact the bearing race and a positioning element is positioned within and adjacent the flywheel for aligning and retaining the bearing elements. A retaining mechanism releasably retains the fastener with the retaining means positioned within the flywheel with the outer surfaces of the retaining means abutting the bearing elements.

Abstract: A battery bypass assembly for bypassing for bypassing a first battery cell electrically connected to a second battery cell. The battery bypass assembly has a first bypass contact and a second bypass contact. A voltage sensing mechanism is electrically connected between the first battery contact and the second battery contact for sensing a predetermined voltage loss. An expansive material within the housing expands upon the voltage sensing mechanism sensing a predetermined voltage loss. A plunger mechanism is moveable from a first position to a second position with a maintaining mechanism maintaining the plunger mechanism in the first position and moveable to allow the plunger mechanism to move into the second position. An actuating mechanism contacts the expansive material and the maintaining mechanism for moving the maintaining means upon expansion of the expansive material wherein the plunger mechanism, upon reaching the second position, bypasses the first battery cell.

Abstract: A battery bypass assembly for bypassing for bypassing a first battery cell electrically connected to a second battery cell. The battery bypass assembly has a first bypass contact and a second bypass contact. A voltage sensing mechanism is electrically connected between the first battery contact and the second battery contact for sensing a predetermined voltage loss. An expansive material within the housing expands upon the voltage sensing mechanism sensing a predetermined voltage loss. A plunger mechanism is moveable from a first position to a second position with a maintaining mechanism maintaining the plunger mechanism in the first position and moveable to allow the plunger mechanism to move into the second position. An actuating mechanism contacts the expansive material and the maintaining mechanism for moving the maintaining means upon expansion of the expansive material wherein the plunger mechanism, upon reaching the second position, bypasses the first battery cell.

Abstract: A thermal actuator, also known as a heat capacitance motor, derives its energy from the physical expansion of paraffin wax as it changes from solid to liquid when heated within an enclosure such as a cylinder. This energy is converted into mechanical force which causes translation of a piston slidably mounted within the cylinder, thus creating hydrostatic pressure which is converted to work. The thermal actuator may be utilized in various drug delivery systems in which the hydrostatic pressure created by the actuator is used expel the contents of a syringe.

Abstract: A thermal actuator, also known as a heat capacitance motor, derives its energy from the physical expansion of paraffin wax as it changes from solid to liquid when heated within an enclosure such as a cylinder. This energy is converted into mechanical force which causes translation of a piston slidably mounted within the cylinder, thus creating hydrostatic pressure which is converted to work. The thermal actuator may be utilized in various drug delivery systems in which the hydrostatic pressure created by the actuator is used expel the contents of a syringe.

Abstract: A thermal actuator, also known as a heat capacitance motor, derives its energy from the physical expansion of paraffin wax as it changes from solid to liquid when heated within an enclosure such as a cylinder. This energy is converted into mechanical force which causes translation of a piston slidably mounted within the cylinder, thus creating hydrostatic pressure which is converted to work. The thermal actuator may be utilized in various drug delivery systems in which the hydrostatic pressure created by the actuator is used expel the contents of a syringe.

Abstract: A thermal actuator, also known as a heat capacitance motor, derives its energy from the physical expansion of paraffin wax as it changes from solid to liquid when heated within an enclosure such as a cylinder. This energy is converted into mechanical force which causes translation of a piston slidably mounted within the cylinder, thus creating hydrostatic pressure which is converted to work. The thermal actuator may be utilized in various drug delivery systems in which the hydrostatic pressure created by the actuator is used expel the contents of a syringe.