Abstract: Embodiments are directed to a prosthetic finger that includes a track that couples to a hand, a first phalange coupled to the track at a first joint, a second phalange coupled to the first phalange at a second joint, a third phalange coupled to the second phalange at a third joint, and a motor positioned at least partially within the second phalange. The prosthetic finger can include a first linkage positioned within the first phalange and configured to cause the first phalange to move relative to the knuckle in response to a motor output and cause the second phalange to move relative to the first phalange in response to the motor output. The prosthetic finger can include a second linkage coupling the third phalange to the second phalange and configured to cause the third phalange to move relative to the second phalange in response to the motor output.

Abstract: Embodiments are directed to a prosthetic finger that includes a track that couples to a hand, a first phalange coupled to the track at a first joint, a second phalange coupled to the first phalange at a second joint, a third phalange coupled to the second phalange at a third joint, and a motor positioned at least partially within the second phalange. The prosthetic finger can include a first linkage positioned within the first phalange and configured to cause the first phalange to move relative to the knuckle in response to a motor output and cause the second phalange to move relative to the first phalange in response to the motor output. The prosthetic finger can include a second linkage coupling the third phalange to the second phalange and configured to cause the third phalange to move relative to the second phalange in response to the motor output.

Abstract: Embodiments are directed to a prosthetic finger that includes a track that couples to a hand, a first phalange coupled to the track at a first joint, a second phalange coupled to the first phalange at a second joint, a third phalange coupled to the second phalange at a third joint, and a motor positioned at least partially within the second phalange. The prosthetic finger can include a first linkage positioned within the first phalange and configured to cause the first phalange to move relative to the knuckle in response to a motor output and cause the second phalange to move relative to the first phalange in response to the motor output. The prosthetic finger can include a second linkage coupling the third phalange to the second phalange and configured to cause the third phalange to move relative to the second phalange in response to the motor output.

Abstract: The disclosure relates to a viewing optic. In one embodiment, the disclosure relates to a viewing optic with an active display and an enabler interface. In one embodiment, the disclosure relates to a system comprising a viewing optic with an active display and an imaging device.

Abstract: The disclosure relates to a viewing optic with an integrated display system. In one embodiment, the viewing optic has an active display system that generates and projects the image into a first focal plane of the optical system. In yet another embodiment, the disclosure relates to a viewing optic with a power pack or battery pack.

Abstract: The disclosure relates to a viewing optic with an integrated display system. In one embodiment, the viewing optic has an active display system that generates and projects the image into a first focal plane of the optical system. In yet another embodiment, the viewing optic has a system or device configured to track magnification setting.

Abstract: The disclosure relates to a viewing optic. In one embodiment, the disclosure relates to a viewing optic with an integrated display system. In one embodiment, the disclosure relates to a enabler configured to provide or activate or unlock select software to a viewing optic having an integrated display system.

Abstract: The disclosure relates to a viewing optic. In one embodiment, the disclosure relates to a viewing optic with an active display and a mounting system for an enabler device. In one embodiment, the disclosure relates to a viewing optic and an imaging enabler.

Abstract: A device updates a value representing its current height above ground when it detects a height change. The device uses the slope calculated from collected barometric pressure data samples to calculate height change during a period when the value of the slope exceeds a predetermined value. The device also analyzes a predetermined number of barometric pressure sensor data samples preceding and succeeding a height change indicated by the slope change. The device performs an evaluation, i.e., determining the difference between an average of the preceding and succeeding samples, to determine a height change. The device may select either the slope-of-the-curve-during-the-height-change-period method or the difference-between-the-averages method based on meeting a criterion. The processor de-energizes a GPS circuit, height determination method, and sets the height above ground to zero if it detects movement. Placing the device on a charger resets the device's height value to the charger height above ground.

Abstract: A device updates a value representing its current height above ground when it detects a height change. The device uses the slope calculated from collected barometric pressure data samples to calculate height change during a period when the value of the slope exceeds a predetermined value. The device also analyzes a predetermined number of barometric pressure sensor data samples preceding and succeeding a height change indicated by the slope change. The device performs an evaluation, i.e., determining the difference between an average of the preceding and succeeding samples, to determine a height change. The device may select either the slope-of-the-curve-during-the-height-change-period method or the difference-between-the-averages method based on meeting a criterion. The processor de-energizes a GPS circuit, height determination method, and sets the height above ground to zero if it detects movement. Placing the device on a charger resets the device's height value to the charger height above ground.

Abstract: Systems and methods for managing subrogation and recovery of insurance claims with a computer including receiving data for a first insurance claim; determining from the data whether the first insurance claim has recovery potential; thereafter when it is determined that the first insurance claim has recovery potential, collecting information about the event from which the first insurance claim was derived; repeatedly seeking data, as necessary, for additional insurance claims associated with the event such that all insurance claims arising from the event are processed together.

Abstract: A device updates a value representing its current height above ground when it detects a height change. The device uses the slope calculated from collected barometric pressure data samples to calculate height change during a period when the value of the slope exceeds a predetermined value. The device also analyzes a predetermined number of barometric pressure sensor data samples preceding and succeeding a height change indicated by the slope change. The device performs an evaluation, i.e., determining the difference between an average of the preceding and succeeding samples, to determine a height change. The device may select either the slope-of-the-curve-during-the-height-change-period method or the difference-between-the-averages method based on meeting a criterion. The processor de-energizes a GPS circuit, height determination method, and sets the height above ground to zero if it detects movement. Placing the device on a charger resets the device's height value to the charger height above ground.

Abstract: Systems and methods for managing subrogation and recovery of insurance claims with a computer including receiving data for a first insurance claim; determining from the data whether the first insurance claim has recovery potential; thereafter when it is determined that the first insurance claim has recovery potential, collecting information about the event from which the first insurance claim was derived; repeatedly seeking data, as necessary, for additional insurance claims associated with the event such that all insurance claims arising from the event are processed together.

Abstract: A triggering event causes a telematics device to transmit information to a user device. Or, the telematics device may perform a task in response to determining that a trigger even occurred. The user device generates an alert in response to the transmitted information producing the alert, for example, graphically, audibly, textually, or using a combination thereof. A triggering event may be the attaining of a certain location of the TCU along a predetermined commute route. Or, the detection of force exerted on a vehicle, possibly indicating attempted theft of the vehicle. Upon the triggering event occurring, the TCU can formulate a message, for example calculate time of arrival based on the traffic conditions and speed limits along the commute route. The TCU may also transmit its location information to another device, such as the user device, or a device coupled thereto, and the other device formulates the message.

Abstract: Systems and methods are provided for detecting the potential of a wood sample, such as a board, to stay on grade, i.e., resist warp, after it is put into service and/or its moisture has re-equilibrated with the surrounding environment. The systems and methods include various sensor technologies and subjection of obtained data to various models, algorithms, and/or other mathematical formulas.

Abstract: Stiffness and other properties of a wood member, such as a log, can be determined by excitation with a swept frequency sonic pulse followed by measurement of the resonant frequency by an accelerometer in contact with the log. It is desirable to minimize the sweep range in order to utilize the power in the sonic pulse to the maximum effect. This should be centered about the expected resonant frequency and is typically no more than about 300 HZ either side of the expected frequency. The resonant frequency is dependent principally on wood species and length. By first measuring length and inputting this into the associated software the sweep range can be controlled to achieve the maximum output signal. Time duration of the sweep is typically no longer than about 0.2 seconds and can be considerably shorter.

Abstract: An electrically grounded semiconductor structure is embedded in a non-conductive packaging material, without employing any electrical leads of the semiconductor structure as an electrical path and without damaging the semiconductor structure. The desired grounding connection is obtained by physically removing a portion of the non-conductive packaging material from a rear portion of the semiconductor structure, replacing the removed non-conductive material by a conformable electrically conductive material, and then electrically contacting this conformable electrically conductive material to a grounding element. In another aspect of the invention, a portion of the non-conductive packaging material is removed from a rear portion of the semiconductor structure and a metallic element such as a pin or a spring is disposed to make contact between the exposed portion of the semiconductor structure and the grounding element.

Abstract: A method of inserting a slug of powdery depolarizer material into a can as a step in the manufacture of an electrical dry cell, comprises extruding the material along a passage by a ram, which over the first part of its stroke consolidates the material against the effect of a restriction in the passage and then injects the consolidated material through a nozzle into the container, so as to fill the can in a single stroke of operation, the bottom of the can starting close to the nozzle and then progressively moving away from it at a rate which is directly proportional to that of the ram, under positive control by a cam.