Abstract: A method of providing volume production of highly pressure resistant headers (10), (12) is provided and allows the headers (10), (12) to be formed of a header structure (10), (12) with a relatively thin wall portion (32) and a relatively thick wall portion (30). A strip (40) is utilized to provide the desired thickness at the thin wall portion (32) while allowing both the thin wall portion (32) and the strip (40) to have tube slots (34), (42) formed therein by a one step punching operation.

Abstract: A heat pipe housing assembly (22) includes a pair of silicon housing pieces (24, 26) and a bond joint (42) between the housings (24, 26), with the bond joint (42) preferably including a eutectic layer (43).

Abstract: A heat sink device (10,60) is provided for cooling an electronic component (12) having a surface (14) that rejects heat. A fan (22) overlies the surface (14) to direct an airflow (24) towards the surface (14), the fan having a rotational axis (29). The heat sink device includes a fin (26,64,66) wound about a central axis (40) that extends parallel to the rotational axis (29). The fin (26,64,66) includes louvered surfaces that extend parallel to the central axis (40).

Abstract: A coolant system includes a heat exchange circuit capable of being in a heat exchange relationship with a heat generating component, such as an engine, to remove thermal energy from the engine and transfer the thermal energy to a coolant, and an insulated tank in fluid communication with the heat exchange circuit. The system also includes a control and associated conduits and valves for passing coolant through the heat exchange circuit and the insulated tank so as to fill the tank with a first volume of coolant in a first operational state, for passing an additional amount of coolant from the heat exchange circuit into the insulated tank so as to fill the insulated tank with a second volume of coolant which is greater than the first volume of coolant in a second operational state, and for passing the additional amount of coolant from the insulated tank to the heat exchange circuit in a third operational state. A method of operating the coolant system to store thermal energy is also provided.

Abstract: A medication carrier for administering individual doses of therapeutic products to a patient, in a non-sequential fashion. The medication carrier comprises a receptacle which stores individually sealed, unit dose packages in random order, allowing each unit dose package to be easily accessed and released in response to automated or manual extraction. The medication carrier includes an array of stalls and retaining means for securing the sealed unit dose packages within the stalls until a scheduled dosing time. The unit dose packages are oriented such that identifiers imprinted thereon can be easily read without removing the packages from the carrier.

Abstract: An integrated medication management and compliance system for enabling a care provider to remotely manage and deliver individual doses of therapeutic products to a patient, in a non-sequential fashion. The system includes delivery apparatus remotely located from the care provider, wherein the apparatus stores a plurality of sealed unit dose packages that are delivered to a patient at a scheduled dosing time. The delivery apparatus is coupled to a control facility and to a computer terminal of the care provider by way of a secure communications network. The system enables the patient's medication regimen to be remotely tailored in real-time to accommodate fluid medical conditions.