Abstract: An integrated vitals device capable of acquiring multiple data streams, allowing for comprehensive measurement of whole health status using a single, compact device. This allows for simplification of traditional healthcare delivery where multiple devices are required for acquisition of vital signs. A sensor stack up, occupying the approximate physical footprint and volume allows this approach to be possible. This application describes how these simultaneous vitals data streams can be acquired using an integrated device with small mass and volume.

Abstract: An integrated vitals device capable of acquiring multiple data streams, allowing for comprehensive measurement of whole health status using a single, compact device. This allows for simplification of traditional healthcare delivery where multiple devices are required for acquisition of vital signs. A sensor stack up, occupying the approximate physical footprint and volume allows this approach to be possible. This application describes how these simultaneous vitals data streams can be acquired using an integrated device with small mass and volume.

Abstract: An integrated vitals device capable of acquiring multiple data streams, allowing for comprehensive measurement of whole health status using a single, compact device. This allows for simplification of traditional healthcare delivery where multiple devices are required for acquisition of vital signs. A sensor stack up, occupying the approximate physical footprint and volume allows this approach to be possible. This application describes how these simultaneous vitals data streams can be acquired using an integrated device with small mass and volume.

Abstract: An integrated vitals device capable of acquiring multiple data streams, allowing for comprehensive measurement of whole health status using a single, compact device. This allows for simplification of traditional healthcare delivery where multiple devices are required for acquisition of vital signs. A sensor stack up, occupying the approximate physical footprint and volume allows this approach to be possible. This application describes how these simultaneous vitals data streams can be acquired using an integrated device with small mass and volume.

Abstract: An illuminated animation device with staggered sources of illumination with a rotatable member rotatable about an axis of rotation, first and second pluralities of sources of illumination retained to rotate with the rotatable member that are actuatable between illuminated and non-illuminated conditions. The first and second pluralities of sources of illumination are staggered so that the sources of illumination will produce individual paths of illumination to permit image display with enhanced. The rotatable member can be a rotatable panel with first and second arrays retained relative to first and second halves thereof, and the sources of illumination can be longitudinally and laterally staggered, such as by one-half a distance between adjacent sources of illumination. The sources of animation can alternatively be disposed in opposed, radially spaced straight line arrays. The device can be handheld and can include a motor and a power source.

Abstract: An illuminated animation device with staggered sources of illumination with a rotatable member rotatable about an axis of rotation, first and second pluralities of sources of illumination retained to rotate with the rotatable member that are actuatable between illuminated and non-illuminated conditions. The first and second pluralities of sources of illumination are staggered so that the sources of illumination will produce individual paths of illumination to permit image display with enhanced. The rotatable member can be a rotatable panel with first and second arrays retained relative to first and second halves thereof, and the sources of illumination can be longitudinally and laterally staggered, such as by one-half a distance between adjacent sources of illumination. The sources of animation can alternatively be disposed in opposed, radially spaced straight line arrays. The device can be handheld and can include a motor and a power source.

Abstract: Provided are a device and method for detecting and analyzing radiation. A detection unit includes a detector, and generates signal pulses from photons of the radiation. Each signal pulse has an amplitude that is determined by an interaction of the photons at a depth of the detector. A pulse deficit correction trigger corrects for charge deficits that occur from the photon interaction across the depth of the detector by removing depth dependence in the amplitudes of the signal pulses. A multi-channel analyzer receives the signal pulses and generates a spectrum from the received signal pulses, and receives a trigger signal that is generated by the pulse deficit correction trigger to remove the depth dependence in the amplitudes of the signal pulses.

Abstract: Provided are a device and method for detecting and analyzing radiation. A detection unit includes a detector, and generates signal pulses from photons of the radiation. Each signal pulse has an amplitude that is determined by an interaction of the photons at a depth of the detector. A pulse deficit correction trigger corrects for charge deficits that occur from the photon interaction across the depth of the detector by removing depth dependence in the amplitudes of the signal pulses. A multi-channel analyzer receives the signal pulses and generates a spectrum from the received signal pulses, and receives a trigger signal that is generated by the pulse deficit correction trigger to remove the depth dependence in the amplitudes of the signal pulses.