Abstract: A system includes a transmitting horn coupled to a first robotic arm and positionable in immediate non-contacting proximity to a transparency, and configured to emit an emitted signal comprising a focused energy beam for impingement on the transparency. The system further includes a receiving horn coupled to a second robotic arm and positionable relative to the transmitting horn in immediate proximity to the transparency, and configured to receive a received signal comprising at least a portion of the emitted signal after transmission through or reflection off of the transparency. The system also includes a processor configured to move the first robotic arm and the second robotic arm in a coordinated manner along a preprogrammed measurement path, and determine at least one transparency characteristic based on an analysis of the received signal.

Abstract: A method is provided for measuring and quantifying optical distortion of a transparent object using a single image. Embodiments provided herein include a method including: receiving an image of an object and a transparent object, where the object is visible through the transparent object, where a portion of the image of the object is visible through the transparent object is an inside region of interest (iROI), where a portion of the image of the object not viewed through the transparent object is an outside region of interest (oROI); determining measured pixel locations for a plurality of identified pixels in the image, the plurality of identified pixels corresponding to the distinct points in the image; calculating virtual locations in the image representing the distinct points within the iROI; determining, for respective distinct points within the iROI, differences between the virtual location and the measured pixel location.

Abstract: Provided herein is a method, apparatus, and system for precise dissection of soft tissue, and more particularly, to the use of a hand-worn device to facilitate dissection while providing tactile feedback to a wearer. Methods include receiving an indication of resistance between at least two leads; establishing a mode of operation based on the indication of resistance; receiving an indication of activation; and providing a current at a voltage and duty cycle based on the mode of operation established to at least one of the at least two leads for electrosurgery. The at least two leads of some embodiments include two electrosurgical devices, where receiving an indication of resistance between the two electrosurgical devices includes receiving an indication of infinite resistance between the two electrosurgical devices, and where the mode of operation is established as bipolar dissection between the two electrosurgical devices.

Abstract: Proposed are schemes, solutions, concepts, designs, methods and systems pertaining to aiding and/or improving image acquisition from a vibratory personal care device having an image capture device. Embodiments propose identifying a target part (e.g. low velocity/motion part) of the vibration cycle based on a sensed operating parameter of the personal care device, and then controlling the image capture device based on the identified target part of the vibration cycle. Through control of the image capture device according to a target part of the vibration cycle, improved images (e.g. images exhibiting less blur and/or distortion) may be obtained. In this way, improved images may be obtained from a vibratory personal care device.

Abstract: Proposed are schemes, solutions, concepts, designs, methods and systems pertaining to aiding and/or improving image acquisition from a vibratory personal care device having a camera. Embodiments propose identifying image data captured during a target part (e.g. low velocity/motion part) of the vibration cycle based on an edge quality value of the image data. Using the identified image data, an image of improved quality may then be constructed. Thus, through adaptation of image data acquisition according to edge quality of image data, improved images (e.g. images exhibiting less blur and/or distortion) may be constructed/generated.

Abstract: This disclosure provides modulators of Cystic Fibrosis Transmembrane Conductance Regulator (CFTR), pharmaceutical compositions containing at least one such modulator, methods of treatment of cystic fibrosis using such modulators and pharmaceutical compositions, and processes for making such modulators.

Abstract: A method includes: detecting a transporter allocation trigger associated with a mobile computing device disposed in a facility; in response to detecting the transporter allocation trigger, selecting a transporter identifier of an autonomous transporter disposed in the facility; selecting a joint notification parameter; causing the mobile computing device to generate a notification according to the joint notification parameter; and transmitting the joint notification parameter to the autonomous transporter, to cause the autonomous transporter to generate a visual notification corresponding to the notification.

Abstract: The invention provides for an oral treatment unit, or an assembly of a plurality of oral treatment units, for confining an electromagnetic field having a frequency in the range of 100 kHz to 300 MHz and adapted to be inserted into an oral cavity, which may form part of an oral cleaning device in combination with a base unit, including a first cleaning element coupled to the oral treatment unit. The oral treatment unit further includes a material structure coupled to the oral treatment unit adapted to receive an initial electromagnetic field and output a focused electromagnetic field, wherein the material structure has a passive electromagnetic field focusing function, which focuses the received initial electromagnetic field in the near-field region of the material structure.

Abstract: The disclosure relates to a computer-implemented method of performing a maintenance operation on a medical imaging system in response to a performance issue. The method includes extracting one or more issue features from input data, and selecting, based on the extracted one or more issue features, a maintenance task template for resolving the performance issue. The maintenance task template is selected from a database of maintenance task templates, and each maintenance task template defines one or more maintenance operations to be performed on the medical imaging system to resolve performance issues. The selected maintenance task template is populated based on the received input data and/or the extracted one or more issue features. The one or more maintenance operations defined in the selected maintenance task template are executed on the medical imaging system, in order to resolve the medical imaging system performance issue.

Abstract: This disclosure provides modulators of Cystic Fibrosis Transmembrane Conductance Regulator (CFTR), pharmaceutical compositions containing at least one such modulator, methods of treatment of cystic fibrosis using such modulators and pharmaceutical compositions, and processes for making such modulators.

Abstract: A personal care device (12) comprising an RF signal generator (32) for generating RF-frequency electromagnetic emissions for a cleaning or treatment function. The RF emissions may be output from a set of two or more RF electrodes (22) (e.g. electrodes) upon stimulation with an RF drive signal in a frequency range from 3 kHz to 30 GHz from an RF signal generator. The device further includes a controller (34) for detect a degraded functional state of the RF electrodes (22) via monitoring changes or variations in one or more electrical characteristics of the RF signal generator (32), e.g. drift in one or more electrical characteristics from reference factory levels, or sudden changes in the characteristics, indicating a short-circuit.

Abstract: The invention relates to a medical vehicle (1) comprising a medical scanning system (2) that is configured to perform medical scans while the medical vehicle (1) is in motion. The medical scanning system (2) comprises a rotating component (3) that is configured to rotate around a rotation axis (R) and means for limiting gyroscopic forces caused by the rotating component (3) when the rotation axis (R) changes its direction. The means for limiting gyroscopic forces comprise a computing unit (5) and sensors (4) and/or interfaces to sensors (4), wherein the computing unit (5) is adapted to receive sensor readings generated by the sensors (4) and to determine and/or predict the gyroscopic forces based on the sensor readings and is configured to issue a speed limit, in particular a non-zero speed limit, for the medical vehicle (1) based on the determined and/or predicted gyroscopic forces. The intention also relates to a method for operating a medical scanning system (2) in a moving medical vehicle (1).

Abstract: A photoconductor drum according to one example embodiment includes an overcoat layer forming an outermost layer of the photoconductor drum. The overcoat layer is formed from a curable composition having a solids content that includes: about 60 percent to about 95 percent by weight of a urethane resin, about 5 percent to about 40 percent by weight of nano metal oxide particles, and about 0.1 percent to about 5 percent by weight of a silicone additive selected from one or more of polydimethyl siloxane or a phenyl-modified silicone derivative of polydimethyl siloxane.

Abstract: A method of preparing a photoconductor drum according to one example embodiment includes preparing a curable overcoat composition including solids content mixed with an organic solvent. The solids content includes about 60 percent to about 95 percent by weight of a urethane resin, about 5 percent to about 40 percent by weight of nano metal oxide particles, and about 0.1 percent to about 5 percent by weight of a silicone additive selected from one or more of polydimethyl siloxane or a phenyl-modified silicone derivative of polydimethyl siloxane. The method includes coating the overcoat composition onto the photoconductor drum as an outmost layer of the photoconductor drum and curing the overcoat composition.

Abstract: The present disclosure relates to bonding a first substrate together a second substrate with adhesives that are substantially tackifier free. A layer of substantially tackifier free adhesive may be applied to a first surface of the second substrate to define an adherence zone, and the first substrate is positioned on the adherence zone of the second substrate to form a laminate. The first and second substrates are pressed against each other in the adherence zone to force the substantially tackifier free adhesive to penetrate into the first and second substrates. A first portion of the layer of the adhesive penetrates into the first substrate and a second portion of the layer of the adhesive penetrates into the second substrate. A central portion of the layer of the adhesive between the first and second portions separates the second surface of the first substrate from the first surface of the second substrate.

Abstract: Disclosed is a tip section for a wind turbine blade. The tip section comprises an intermediary blade section comprising a first shell part forming a first side of the intermediary blade section and a second shell part forming a second side of the intermediary blade section, the intermediary blade section having a leading edge and a trailing edge and extending from an intermediary blade section first end to an intermediary blade section second end; a tip part forming an end of the tip section and having been rigidly attached to the intermediary blade section first end, the tip part having an outer surface comprising a metal area; and a number of one or more superficial metal strips extending along an outer surface of the intermediary blade section. A wind turbine blade with such a tip section and the manufacturing of such a wind turbine blade is also disclosed.

Abstract: The invention relates to a medical vehicle (1) comprising a compartment (2) with a medical imaging system (3), wherein the medical imaging system (3) comprises at least one system support sensor (4). The system support sensors (4) augment the vehicle's own sensors and/or replace equivalent sensors in the vehicle. The medical vehicle (1) is configured to obtain sensor readings from the at least one system support sensor (4) during operation of the medical vehicle (1), analyze the sensor readings and provide feedback based on the analyzed sensor readings. The invention further relates to a corresponding method for operating a medical vehicle (1).

Abstract: Method for generating haptic feedback responses based on gestures starts with processor causing communication interface for communication session to be displayed on first user interface and on a second user interface. Processor detects a predetermined gesture by a first user of the first client device on the first user interface. In response to detecting the predetermined gesture by the first user, processor causes the first user interface and the second user interface to generate a haptic feedback response based on the predetermined gesture. Other embodiments are described herein.

Abstract: Devices, systems, and methods for measuring an analyte are disclosed. A device, system, or method can include a radiofrequency sensor comprising a radiofrequency transmitter and a radiofrequency receiver. A device, system, or method can be configured to transmit a radiofrequency signal from the transmitter to the receiver through a culture medium comprising the analyte. In some embodiments, a device, system, or method can include a controller configured to determine a concentration of the analyte based on a resultant signal produced at the receiver. A device, system, or method can comprise a radiofrequency sensor introducer. An introducer of a device, system, or method can comprise a first sensor sheath configured to receive a radiofrequency transmitter and a second sensor sheath configured to receive a radiofrequency receiver. In some implementations, an introducer of a device, system, or method can be configured to maintain a separation between the transmitter and receiver.