Abstract: Oxygen barrier compositions for electrical devices and their related methods are provided. In certain embodiments, the oxygen barrier compositions comprise a meta-substituted aromatic resin and an additional aromatic epoxy resin. In some embodiments, the compositions have a chlorine content of less than approximately 1000 ppm. The compositions may have an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day at approximately 0% relative humidity and approximately 23° C. In certain embodiments, methods of curing the oxygen barrier compositions comprise partially curing the composition where, the partial cure is achieved through ultraviolet radiation or heat.

Abstract: Oxygen barrier compositions for electrical devices and their related methods are provided. In certain embodiments, the oxygen barrier compositions comprise a meta-substituted aromatic resin and an additional aromatic epoxy resin. In some embodiments, the compositions have a chlorine content of less than approximately 1000 ppm. The compositions may have an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day at approximately 0% relative humidity and approximately 23° C. In certain embodiments, methods of curing the oxygen barrier compositions comprise partially curing the composition where, the partial cure is achieved through ultraviolet radiation or heat.

Abstract: Oxygen barrier compositions for electrical devices and their related methods are provided. In certain embodiments, the oxygen barrier compositions comprise a meta-substituted aromatic resin and an additional aromatic epoxy resin. In some embodiments, the compositions have a chlorine content of less than approximately 1000 ppm. The compositions may have an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day at approximately 0% relative humidity and approximately 23° C. In certain embodiments, methods of curing the oxygen barrier compositions comprise partially curing the composition where, the partial cure is achieved through ultraviolet radiation or heat.

Abstract: A surface-mountable electrical circuit protection device includes layers defining a first PPTC resistive element, a second PPTC resistive element, and at least one heat-generating electrical component such as a planar zener diode chip positioned between, and in thermal contact with, the first and second PPTC elements, such that an electrical current above a threshold level passing through the component causes the component to heat, the heat being transferred to the PPTC resistive elements and tripping at least one, and preferably both of the first or second PPTC elements to a high resistance state. A series of edge-formed terminal electrodes enable surface-mount connection of the first and second PPTC elements and the electrical component to an electrical circuit substrate, such as a printed circuit board. A method for making the device is also disclosed.

Abstract: A method for producing a surface mount device includes providing a plurality of layers including a B-staged top layer and bottom layer, and a C-staged middle layer with an opening. A core device is inserted into the openings, and then the top and bottom layers are placed over and under, respectively, the middle layer. The layers are cured until the layers become C-staged. The core device is substantially surrounded by an oxygen-barrier material with an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day.

Abstract: A method for producing a surface mount device includes providing a plurality of layers including a B-staged top layer and bottom layer, and a C-staged middle layer with an opening. A core device is inserted into the openings, and then the top and bottom layers are placed over and under, respectively, the middle layer. The layers are cured until the layers become C-staged. The core device is substantially surrounded by an oxygen-barrier material with an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day.

Abstract: An electrical component includes a plurality of core devices arranged within a housing so as to be electrically isolated from one another. For each of the plurality of core devices, a first contact pad and a second contact pad is formed on an outside surface of the housing. The first and second contact pads are electrically connected to a respective core device of the plurality of core devices.

Abstract: Determining and downloading portions of a software application in a computer system. The software application may include a plurality of portions. Which of those plurality of portions are currently present on the computer system and which of those plurality of portions are not currently present on the computer system may be determined. The portions of the software application which are not currently present on the computer system may be downloaded to the computer system. The portions of the software application which are currently present on the computer system may not be downloaded to the computer system.

Abstract: A surface-mountable electrical circuit protection device includes layers defining a first PPTC resistive element, a second PPTC resistive element, and at least one heat-generating electrical component such as a planar zener diode chip positioned between, and in thermal contact with, the first and second PPTC elements, such that an electrical current above a threshold level passing through the component causes the component to heat, the heat being transferred to the PPTC resistive elements and tripping at least one, and preferably both of the first or second PPTC elements to a high resistance state. A series of edge-formed terminal electrodes enable surface-mount connection of the first and second PPTC elements and the electrical component to an electrical circuit substrate, such as a printed circuit board. A method for making the device is also disclosed.

Abstract: A surface-mountable electrical circuit protection device includes layers defining a first PPTC resistive element, a second PPTC resistive element, and at least one heat-generating electrical component such as a planar zener diode chip positioned between, and in thermal contact with, the first and second PPTC elements, such that an electrical current above a threshold level passing through the component causes the component to heat, the heat being transferred to the PPTC resistive elements and tripping at least one, and preferably both of the first or second PPTC elements to a high resistance state. A series of edge-formed terminal electrodes enable surface-mount connection of the first and second PPTC elements and the electrical component to an electrical circuit substrate, such as a printed circuit board. A method for making the device is also disclosed.

Abstract: Oxygen barrier compositions for electrical devices and their related methods are provided. In certain embodiments, the oxygen barrier compositions comprise a meta-substituted aromatic resin and an additional aromatic epoxy resin. In some embodiments, the compositions have a chlorine content of less than approximately 1000 ppm. The compositions may have an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day at approximately 0% relative humidity and approximately 23° C. In certain embodiments, methods of curing the oxygen barrier compositions comprise partially curing the composition where, the partial cure is achieved through ultraviolet radiation or heat.

Abstract: A method for producing a surface mount device includes providing a plurality of layers including a B-staged top layer and bottom layer, and a C-staged middle layer with an opening. A core device is inserted into the openings, and then the top and bottom layers are placed over and under, respectively, the middle layer. The layers are cured until the layers become C-staged. The core device is substantially surrounded by an oxygen-barrier material with an oxygen permeability of less than approximately 0.4 cm3·mm/m2·atm·day.

Abstract: Simultaneous installation of multiple portions of a software application on a computer system. A first installer process may install a first portion of the software application on the computer system. A second installer process may install a second portion of the software application on the computer system. The first installer process and the second installer process may operate simultaneously on the computer system.

Abstract: Determining and downloading portions of a software application in a computer system. The software application may include a plurality of portions. Which of those plurality of portions are currently present on the computer system and which of those plurality of portions are not currently present on the computer system may be determined. The portions of the software application which are not currently present on the computer system may be downloaded to the computer system. The portions of the software application which are currently present on the computer system may not be downloaded to the computer system.

Abstract: A circuit protection device for protecting batteries is formed from a resistive element composed of a PTC conductive polymer composition and two electrodes. The device has a resistive element thickness of 0.025 to 0.20 mm; a crosslinking level equivalent to 1 to 20 Mrads; a surface area of at most 120 mm.sup.2 ; a resistance at 20.degree. C., R.sub.20, of at most 0.030 ohm; and a resistivity at 20.degree. C., .rho..sub.20, of at most 2.0 ohm-cm. Devices of the invention are sufficiently small to be easily inserted into an assembly comprising a battery, particularly a rechargeable battery, and the device. Such assemblies are used for powering portable electronic equipment such as cellular telephones.