Abstract: A system for locating an asset on a worksite includes one or more processing circuits configured to receive a stored location of a tracking tag, capture data of a field of view including the stored location, determine, based on the data, if an asset is present in the field of view, upon determining that the asset is present in the field of view, compare the stored location to a calculated location of the asset, upon determining that the stored location is different than the calculated location, at least one of (i) update the stored location to be the calculated location or (ii) provide an indication of a difference between the stored location and the calculated location, and upon determining that the asset is missing from in the field of view, generate an indication indicating that the asset is missing from the field of view.

Abstract: The present disclosure discloses an engineered liposome with cell membrane proteins to reduce melanosome transport and a preparation method thereof, and belongs to the technical field of cosmetics and biomedicine. The present disclosure provides the engineered liposome with cell membrane proteins to reduce melanosome transport and the preparation method thereof, which is easy to operate, requires no large-scale equipment, has few additives, and a preparation process is simple and environmentally friendly. The biomimetic liposome can significantly inhibit melanin transport. The fluorescence intensity of melanosomes in keratinocytes is found to decrease by 3.5-fold in a co-culture test of melanocytes and the keratinocytes, indicating that this biomimetic liposome is very effective in inhibiting accumulation of melanin in skin keratinocytes.

Abstract: A shaft grounding and monitoring system may include a grounding member slidingly engageable with a rotating shaft. An electrical sensor may be configured to be coupled with the grounding member in order to detect an electrical parameter that provides an indication of electricity flowing from the rotating shaft to ground through the grounding member. A processor may be operably coupled with the electrical sensor and may receive and analyze data from the electrical sensor at multiple sampling points taken at different rotational positions of the rotating shaft during multiple revolutions of the rotating shaft. The processor may be configured to develop, over time, a reconstructed waveform representing a compilation of the periodically sampled values of the data from the electrical sensor through one revolution of the rotating shaft.

Abstract: A shaft grounding and monitoring system may include a grounding member slidingly engageable with a rotating shaft. An electrical sensor may be configured to be coupled with the grounding member in order to detect an electrical parameter that provides an indication of electricity flowing from the rotating shaft to ground through the grounding member. A processor may be operably coupled with the electrical sensor and may receive and analyze data from the electrical sensor. The processor may be configured to periodically analyze the data representing the electrical parameter from the electrical sensor at a sampling rate and for a sampling period that is related to a rotation speed of the rotating shaft. A memory may be operably coupled with the processor and may be configured to store data processed by the processor that is representative of the data provided by the electrical sensor.

Abstract: A shaft grounding and monitoring system may include a grounding member slidingly engageable with a rotating shaft. An electrical sensor may be configured to be coupled with the grounding member in order to detect an electrical parameter that provides an indication of electricity flowing from the rotating shaft to ground through the grounding member. A processor may be operably coupled with the electrical sensor and may receive and analyze data from the electrical sensor. The processor may be configured to periodically analyze the data representing the electrical parameter from the electrical sensor at a sampling rate and for a sampling period that is related to a rotation speed of the rotating shaft. A memory may be operably coupled with the processor and may be configured to store data processed by the processor that is representative of the data provided by the electrical sensor.

Abstract: A shaft grounding and monitoring system may include a grounding member slidingly engageable with a rotating shaft. An electrical sensor may be configured to be coupled with the grounding member in order to detect an electrical parameter that provides an indication of electricity flowing from the rotating shaft to ground through the grounding member. A processor may be operably coupled with the electrical sensor and may receive and analyze data from the electrical sensor. The processor may be configured to periodically analyze the data representing the electrical parameter from the electrical sensor at a sampling rate and for a sampling period that is related to a rotation speed of the rotating shaft. A memory may be operably coupled with the processor and may be configured to store data processed by the processor that is representative of the data provided by the electrical sensor.

Abstract: A shaft grounding and monitoring system may include a grounding member slidingly engageable with a rotating shaft. An electrical sensor may be configured to be coupled with the grounding member in order to detect an electrical parameter that provides an indication of electricity flowing from the rotating shaft to ground through the grounding member. A processor may be operably coupled with the electrical sensor and may receive and analyze data from the electrical sensor at multiple sampling points taken at different rotational positions of the rotating shaft during multiple revolutions of the rotating shaft. The processor may be configured to develop, over time, a reconstructed waveform representing a compilation of the periodically sampled values of the data from the electrical sensor through one revolution of the rotating shaft.

Abstract: A shaft grounding and monitoring system may include a grounding member slidingly engageable with a rotating shaft. An electrical sensor may be configured to be coupled with the grounding member in order to detect an electrical parameter that provides an indication of electricity flowing from the rotating shaft to ground through the grounding member. A processor may be operably coupled with the electrical sensor and may receive and analyze data from the electrical sensor. The processor may be configured to periodically analyze the data representing the electrical parameter from the electrical sensor at a sampling rate and for a sampling period that is related to a rotation speed of the rotating shaft. A memory may be operably coupled with the processor and may be configured to store data processed by the processor that is representative of the data provided by the electrical sensor.

Abstract: Support apparatuses and methods of operating support apparatuses are provided. In one example, a support apparatus includes a support member including a longitudinal central axis extending in a z-direction of a three-dimensional coordinate system including an x-direction, y-direction, and the z-direction, a body coupled to and movable along the support member, and an arm coupled to the body and rotatable relative to the body about a first vertical axis, with the first vertical axis offset from the longitudinal central axis in both the x-direction and the y-direction. In another example, a method of operating a support apparatus includes positioning the support apparatus in a storage position, in which a platform of the support apparatus is at least partially positioned underneath a horizontal surface of a table, and moving the support apparatus from the storage position to an operating position, in which the platform is out from underneath the horizontal surface.