Abstract: Apparatus and method for visual inspection of a target structure. The apparatus comprises a plurality of cameras for capturing imaging data, the imaging data comprising a plurality of images of the target structure, wherein a first camera of the plurality of cameras is configured to collect the imaging data in a first wavelength range and a second camera configured to collect the imaging data in a second wavelength range, the second wavelength range being a different range of wavelengths to the first wavelength range. At least two of the cameras of the plurality of cameras collect imaging data of the target structure from different angles. The apparatus further comprises a processing unit configured to process the imaging data.

Abstract: The actuator has a spindle drive comprising a threaded shaft and a spindle nut. The spindle nut is rotatably actuatable to generate a main axial movement of the threaded shaft along an axis of the threaded shaft. The actuator comprises an oscillating device and the spindle nut is movably arranged along the axis. The oscillating device introduces an oscillating movement along the axis onto the spindle nut and thereby onto the threaded shaft. A total axial movement of the threaded shaft is generated that is the combination of the main axial movement and the oscillating movement.

Abstract: Apparatus and method for visual inspection of a target structure. The apparatus comprises a plurality of cameras for capturing imaging data, the imaging data comprising a plurality of images of the target structure, wherein a first camera of the plurality of cameras is configured to collect the imaging data in a first wavelength range and a second camera configured to collect the imaging data in a second wavelength range, the second wavelength range being a different range of wavelengths to the first wavelength range. At least two of the cameras of the plurality of cameras collect imaging data of the target structure from different angles. The apparatus further comprises a processing unit configured to process the imaging data.

Abstract: A method for automatically determining whether an operator carried out a first operation on an asset positioned at a location includes the steps of installing a camera module at the location to observe the asset, sending image data from the camera module to an analytics center, processing the image data to automatically determine the identity of the operator or changes at the location resulting from the first operation, developing an event signature based on the image data, wherein the event signature is indicative of whether the first operation on the asset took place, and verifying the status of the first operation based on the event signature. Based on the step of verifying the status of the first operation, the methods can also be configured to automatically process an invoice for the first operation or automatically command a second operation.

Abstract: A method for automatically determining whether an operator carried out a first operation on an asset positioned at a location includes the steps of installing a camera module at the location to observe the asset, sending image data from the camera module to an analytics center, processing the image data to automatically determine the identity of the operator or changes at the location resulting from the first operation, developing an event signature based on the image data, wherein the event signature is indicative of whether the first operation on the asset took place, and verifying the status of the first operation based on the event signature. Based on the step of verifying the status of the first operation, the methods can also be configured to automatically process an invoice for the first operation or automatically command a second operation.

Abstract: A method for point of purchase packaging includes responsive to receiving a selection of an object at a point of purchase, identifying a purchaser defined instruction associated with the selected object for sorting and packaging by a conveyor system. Responsive to sorting the plurality of objects based on data received and the purchaser defined instruction associated with the selected object, the method instructs an automated packaging system to package the plurality of objects based on the sorting. Responsive to determining a first portion of the plurality of objects are packaged for collection at the point of purchase, the method instructs the conveyor system to send the first portion of the plurality of objects to a first transfer station at the point of purchase for collection by a purchaser of the portion of the plurality of objects.

Abstract: A method for point of purchase packaging includes responsive to receiving a selection of an object at a point of purchase, identifying a purchaser defined instruction associated with the selected object for sorting and packaging by a conveyor system. Responsive to sorting the plurality of objects based on data received and the purchaser defined instruction associated with the selected object, the method instructs an automated packaging system to package the plurality of objects based on the sorting. Responsive to determining a first portion of the plurality of objects are packaged for collection at the point of purchase, the method instructs the conveyor system to send the first portion of the plurality of objects to a first transfer station at the point of purchase for collection by a purchaser of the portion of the plurality of objects.

Abstract: A method of engaging an automated breakout assembly includes receiving, by a tow socket having a rotatable sleeve multiple mating connectors, a cable into the tow socket through a slot. The cable comprises a tow ball. Each mating connector is electrically coupled to an electrical conductor. The method includes receiving, by the rotatable sleeve, the randomly-aligned tow ball through an entrance. The method includes rotating a cam configured to rotate the rotatable sleeve to substantially align the mating connectors of the tow socket with connectors of the tow ball such that each electrical conductor electrically coupled to a mating connector couples to a corresponding connector of the tow ball. The method includes transferring a tow loading force between the cable and the tow socket by moving the cable.

Abstract: A cable bend limiter provides one or more joints including alternating sleeves and outer ball sections enclosing inner ball sections. Friction is controlled by washers at, or low friction surface treatments on, either side of the outer ball sections.

Abstract: A method of engaging an automated breakout assembly includes receiving, by a tow socket having a rotatable sleeve multiple mating connectors, a cable into the tow socket through a slot. The cable comprises a tow ball. Each mating connector is electrically coupled to an electrical conductor. The method includes receiving, by the rotatable sleeve, the randomly-aligned tow ball through an entrance. The method includes rotating a cam configured to rotate the rotatable sleeve to substantially align the mating connectors of the tow socket with connectors of the tow ball such that each electrical conductor electrically coupled to a mating connector couples to a corresponding connector of the tow ball. The method includes transferring a tow loading force between the cable and the tow socket by moving the cable.

Abstract: A cable bend limiter provides one or more joints including alternating sleeves and outer ball sections enclosing inner ball sections. Friction is controlled by washers at, or low friction surface treatments on, either side of the outer ball sections.

Abstract: A differential signaling system is provided. The differential signaling system comprises one or more cable pairs for carrying signals, one or more differential drivers for providing signals to the one or more cable pairs, and one or more differential receivers, the one or more differential receivers being coupled to the one or more differential drivers via the one or more cable pairs. The differential signaling system further comprises one or more test devices for testing the differential signaling system, and at least one switch coupled to at least one of the one or more cable pairs and to at least one of the one or more test devices, the switch being adapted to dynamically switch the at least one of the one or more test devices into a differential interface of the differential signaling system.

Abstract: A method, a system, and an apparatus for proving secure transmissions from a smartcard reader are described. A signal created by the smartcard reader dependent on the smartcard is encrypted. The signal comprises access information. The encrypted signal is transmitted to a remote location relative to the smartcard reader. The transmitted signal is translated at the remote location to another format useable by an access controller. An access mechanism is controlled using the access controller dependent upon the translated signal.

Abstract: A push button switch including a housing and a push button body disposed at least partially within the housing. The push button body may include a base portion and at least one guide portion extending from the base portion. The housing may include at least one mating guide portion for receiving the least one guide portion of the button body and guiding the translation of the button body in the housing. A rocker may be positioned between the push button body and a contact closure, and the push button body may pivot the rocker about a pivot point upon depression of the head thereby changing a state of the contact closure. A light source may be positioned beneath the rocker and for illuminating a bottom of the button head.

Abstract: A push button switch including a housing and a push button body disposed at least partially within the housing. The push button body may include a base portion and at least one guide portion extending from the base portion. The housing may include at least one mating guide portion for receiving the least one guide portion of the button body and guiding the translation of the button body in the housing. A rocker may be positioned between the push button body and a contact closure, and the push button body may pivot the rocker about a pivot point upon depression of the head thereby changing a state of the contact closure. A light source may be positioned beneath the rocker and for illuminating a bottom of the button head.