Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided. Various components may be provided for providing such a stylus with mechanical sensitivity.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided. Various components may be provided for providing such a stylus with mechanical sensitivity.

Abstract: An input device comprising: a printed circuit board (PCB) comprising non-linear circuitry; resistive circuitry including a force-sensitive resistor (FSR) coupled to the PCB in parallel with the non-linear circuitry; and a hinge coupled to the PCB and the FSR configured to strain the FSR in response to a force applied to a tip of the input device.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided. Various components may be provided for providing electrostatic discharge protection of such a stylus.

Abstract: An input device comprising: a printed circuit board (PCB) comprising non-linear circuitry; resistive circuitry including a force-sensitive resistor (FSR) coupled to the PCB in parallel with the non-linear circuitry; and a hinge coupled to the PCB and the FSR configured to strain the FSR in response to a force applied to a tip of the input device.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided. Various components may be provided for providing electrostatic discharge protection of such a stylus.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided.

Abstract: Systems, methods, and computer-readable media for enabling a power efficient stylus for an electronic device are provided.

Abstract: The device housing includes a roller cradle. The device can include a device support roller rotationally located in the roller cradle, the device support roller being removably couplable with the roller cradle. Also, a release mechanism can be include, where the release mechanism includes a push button operably coupled to a coupler mechanism that is operably coupled to the device support roller. The release mechanism and/or coupler mechanism are biased. When the release mechanism is not activated, the device support roller is engaged, and when the release mechanism is active, the device support roller is disengaged. The system can include a plurality of device support rollers, each device support roller having a device-receiving slot, each device-receiving slot being of a different shape and/or dimension from the other device-receiving slots of the other device support rollers.

Abstract: The device housing includes a roller cradle. The device can include a device support roller rotationally located in the roller cradle, the device support roller being removably couplable with the roller cradle. Also, a release mechanism can be include, where the release mechanism includes a push button operably coupled to a coupler mechanism that is operably coupled to the device support roller. The release mechanism and/or coupler mechanism are biased. When the release mechanism is not activated, the device support roller is engaged, and when the release mechanism is active, the device support roller is disengaged. The system can include a plurality of device support rollers, each device support roller having a device-receiving slot, each device-receiving slot being of a different shape and/or dimension from the other device-receiving slots of the other device support rollers.

Abstract: A portable power supply device can include: a device housing; a controller; at least one battery in the device housing and operably connected to the controller; at least one electrical port operably connected to the at least one battery, the at least one electrical port being configured for providing electrical power from the at least one battery to an external electrically-powered device under control of the controller; and an extendable tray, which can be in an extended position in which the tray protrudes outwardly from the device housing, and a retracted position in which the tray is concealed within the device housing. A kit can include the device and a defibrillator. A method of charging an electronic device can be performed by plugging in the electronic device to one of the ports. A method of performing a medical procedure can be performed with the aid of portable power supply device.

Abstract: An optically transparent force sensor element compares a force reading from a first strain-sensitive film element with a second strain-sensitive film element, having a compliant and thermally conductive intermediate layer positioned therebetween to compensate for temperature changes. While in the idle state, the optically transparent force sensor can be periodically calibrated to account for additional changes in temperature.

Abstract: An optically transparent force sensor element compares a force reading from a first strain-sensitive film element with a second strain-sensitive film element, having a compliant and thermally conductive intermediate layer positioned therebetween to compensate for temperature changes. While in the idle state, the optically transparent force sensor can be periodically calibrated to account for additional changes in temperature.

Abstract: This invention relates to portable jump starters and, more particularly, to a portable jump starter having improved features for illumination, communication and notification all in a single portable device.

Abstract: This invention relates to portable jump starters and, more particularly, to a portable jump starter having improved features for illumination, communication and notification all in a single portable device.

Abstract: A method for assembling microstructures onto a substrate through fluid transport. The microstructures being shaped blocks self-align into recessed regions located on a substrate such that the microstructure becomes integral with the substrate 20, 70, 90, 120, 200. The improved method includes a step of transferring the shaped blocks into a fluid to create a slurry. Such slurry is then poured evenly over the top surface of a substrate having recessed regions thereon. The microstructure via the shape and fluid tumbles onto the surface of the substrate, self-aligns, and engages into a recessed region.

Abstract: The invention provides a controlled coefficient of thermal expansion alloy having in weight percent about 26-50% cobalt, about 20-40% nickel, about 20-35% iron, about 4-10% aluminum, about 0.5-5% niobium plus 1/2 of tantalum weight percent and about 1.5-10% chromium. Additionally the alloy may contain about 0-1% titanium, about 0-0.2% carbon, about 0-1% copper, about 0-2% manganese, about 0-2% silicon, about 0-8% molybdenum, about 0-8% tungsten, about 0-0.3% boron, about 0-2% rhenium, about 0-2% hafnium, about 0-0.3% zirconium, about 0-0.5% nitrogen, about 0-1% yttrium, about 0-1% lanthanum, about 0-1% total rare earths other than lanthanum, about 0-1% cerium, about 0-1% magnesium, about 0-1% calcium, about 0-4% oxidic dispersoid and incidental impurities. The alloy may be further optimized with respect to crack growth resistance by annealing at temperature below about 1010.degree. C. or temperatures between 1066.degree. C. or 1110.degree. C.

Abstract: The invention provides a controlled coefficient of thermal expansion alloy having in weight percent about 26-50% cobalt, about 20-40% nickel, about 20-35% iron, about 4-10% aluminum, about 0.5-5% niobium plus 1/2 of tantalum weight percent and about 1.5-10% chromium. Additionally the alloy may contain about 0-1% titanium, about 0-0.2% carbon, about 0-1% copper, about 0-2% manganese, about 0-2% silicon, about 0-8% molybdenum, about 0-8% tungsten, about 0-0.3% boron, about 0-2% rhenium, about 0-2% hafnium, about 0-0.3% zirconium, about 0-0.5% nitrogen, about 0-1% yttrium, about 0-1% lanthanum, about 0-1% total rare earths other than lanthanum, about 0-1% cerium, about 0-1% magnesium, about 0-1% calcium, about 0-4% oxidic dispersoid and incidental impurities. The alloy may be further optimized with respect to crack growth resistance by annealing at temperature below about 1010.degree. C. or temperatures between 1066.degree. C. or 1110.degree. C.