Abstract: Provided is a particle sorting kit provided with a sample accommodation unit that accommodates a sample liquid containing particles, a microchip provided with a sample flow path through which the sample liquid flows and a sorting flow path in which target particles are sorted from the sample liquid, and a filter unit provided with a filter and a tapered portion that decreases a flow path diameter in a flow direction downstream of the filter.

Abstract: A test fixture facilitates non-destructive testing of a protective mask. The test fixture includes a mock facial structure, a clamping form that makes a seal around at least part of the facial structure, and can employ the retaining straps of the protective mask to a make a seal around at least part of the facial structure. In use, the protective mask is tested in situ on the facial structure. In some examples, the clamping form has a negative contour of the mock facial structure or of the outer surface of a protective mask that is to be tested. The testing can include repetitive testing of the fit, structural components (e.g., ultrasonic welds and straps), and the degradation of materials as a function of donning/doffing or environmental factors (e.g., temperature and humidity).

Abstract: Disclosed aspects pertain to surface analysis based on wearable sensor data. Sensor data can be acquired from pressure-sensitive wearable sensors, such as shoe insole sensors, based on interaction with a surface. A location can also be determined for the sensor data with respect to a surface utilizing a positioning system. The sensor data can be utilized to determine surface properties at a particular location. Further, a graphical representation of the surface properties and location can be generated and conveyed for display on a display. Furthermore, movement instructions can be provided to aid in analysis of an entire surface, and recommendations can be made regarding surface maintenance based on collected sensor data.

Abstract: A hybrid trap including a replaceable open-tubular capillary trap followed by a packed trap is used to collect, preconcentrate, and recover a sample, such as VOCs and SVOCs found in air. The capillary stage prevents losses and carryover of the heavy fraction and can also collect the particles in air that contain the heavier SVOCs, also preventing them from reaching the packed stage. The packed stage traps lighter organic compounds that are not as prone to carryover due to channeling. The capillary and packed traps together provide quantitative recovery of compounds boiling from as low as ?50° C. to as high as 600° C. The sample can be directly desorbed onto the GC column, which avoids losses and contamination caused by other approaches that thermally desorb samples through transfer lines and rotary valves more remote to the GC oven.

Abstract: A method for a multistep analysis of a measuring program of a portable gas measuring device includes performing a factory setting of the portable gas measuring device, connecting a container having a known gas standard and performing a reference measurement, wherein a multidimensional reference measurement is recorded, selecting a measuring program for target materials from a list on the device, performing a measurement on a sample in dependence on the selected measuring program, wherein a multidimensional measured variable is recorded, automatically performing an analysis to identify at least one of the one or more target materials in the sample and the respective concentrations thereof, wherein the analysis is based on the multidimensional measured variable from the measurement on the sample, the multidimensional reference measurement for the gas standard, the values for the plurality of target materials or measuring programs, and the factory setting for the portable gas measuring device.

Abstract: Disclosed herein is a system for facilitating assessment of a physical asset, in accordance with some embodiments. Accordingly, the system may include a device disposable on a location of the physical asset. Further, the device may include a sensor configured for generating an information. Further, the at least one device may include a communication interface communicatively coupled with the sensor. Further, the device may include a power source electrically coupled with the sensor and the communication interface. Further, the system may include an assessment system communicatively coupled with the device. Further, the assessment system may include a communication device configured for receiving the information and transmitting an assessment to a user device. Further, the assessment system may include a processing device communicatively coupled with the communication device. Further, the assessment system may include a storage device communicatively coupled with the processing device.

Abstract: Systems, methods, and devices for fluid conduit inspection using absolute velocity of a sensor device are provided. The method includes: receiving sensor data collected by a sensor device during a measurement run from an interior of the fluid conduit while traveling along a length of the fluid conduit, the sensor device including a first magnetometer and a second magnetometer each having a fixed position in the sensor device, the fixed positions defining a separation distance between the first magnetometer and second magnetometer, the sensor data including magnetic flux data comprising first magnetic flux data collected by the first magnetometer and second magnetic flux data collected by the second magnetometer; determining a time delay between when a magnetic signal is present in the first magnetic flux data and when the magnetic signal is present in the second magnetic flux data; determining an absolute velocity of the sensor device.

Abstract: The present disclosure relates to technology adapted for improved assessment of brain injuries in a human subject. For example, in some embodiments the invention relates to improved processing of data collected via an instrumented mouthguard device, including identification of false impacts. It will be appreciated that the invention is not limited to such a field of use, and is applicable in broader contexts. For example, the technology may be applied to detect other changes in physical performance, beyond head injuries. Furthermore, the technology may be applied in respect of other wearable devices which detect/measure head impacts, for example helmets.

Abstract: A sensor device configured to accurately identify a volatile compound from water vapor even at high humidity, and a method for manufacturing the sensor device are provided. The sensor device includes a measuring transducer including a pixel array on which volatile compounds and water vapor are condensed and a sensitive porous dielectric layer provided in a form of a plurality of spheres constituting the pixel array, a temperature controller provided around the pixel array, and configured to control temperature of each of pixels constituting the pixel array and temperature of the pixel array, a detection device connected to the measuring transducer, and configured to detect a response pattern of the volatile compounds through the pixel array, an analyzer configured to process, classify, and store the response pattern, a stimulating source connected to the measuring transducer, and configured to stimulate the measuring transducer, and at least one processor.

Abstract: A subsea sensor module includes a sensor housing having a first section, a second section and a third section, each section having an outer profile and a module flange having an inner profile. An outer surface of the flange is substantially perpendicular to an outer surface of the housing in the first section. The housing outer profile and flange inner profile are substantially the same along the second section of the housing. A shoulder is formed in the housing outer profile in the third section by a transition of the diameter of the outer profile from a smaller to a larger diameter. The flange has a corresponding shoulder in the flange inner profile; wherein the flange is shrink fit mounted radially outwardly of the sensor housing second section such that the shoulders are in contact.

Abstract: An estimation device calculates an angle formed by a tip direction of a left foot and a tip direction of a right foot. The estimation device estimates a stride width indicating an interval between heels of the left foot and the right foot, based on the angle.

Abstract: A pressure measuring unit includes a pressure measuring cell; a rotationally symmetrical sensor bushing into which the pressure measuring cell is inserted; a rotationally symmetrical process connection having, at one end, an inwardly extending encircling stop surface intended for the sensor bushing and, at another end, an opening for receiving the sensor bushing; a ring-like process seal between the sensor bushing and the stop surface of the process connection in order to thus prevent an ingress of the process medium into the pressure measuring unit; wherein the stop surface of the process connection and/or a counterpart stop surface, which in the installed state is directed toward the stop surface, of the sensor bushing have multiple individually formed webs configured such that the process seal is not extruded into the openings.

Abstract: Disclosed is a method for detecting and/or growing particles, comprising controlling the surface area exposed to the saturator region by monitoring at least one of a depth of the working liquid on the saturator surface, the surface area exposed to the saturator region, or a volume of the working liquid on the saturator surface. Also disclosed is an apparatus or system for detecting and/or growing particles, comprising a fluidics system configured to control the surface area exposed to the saturator region by monitoring at least one of a depth of the working liquid on the saturator surface, the surface area exposed to the saturator region, or a volume of the working liquid on the saturator surface. Certain aspects do not employ one or more porous structures for vapor generation, nor a separate carrier fluid flow or inlet comprising a carrier fluid and vaporized working liquid for combining with the sample flow in the saturator region.

Abstract: The present invention relates to a dosing device (too) that is integrally made of molded pulp fiber. The dosing device (too) comprises a container portion (200) for receiving and retaining a dosage material having an opening (250) at an upper side (US) of the dosing device (too) to access the dosage material. The dosing device (too) comprises a handle portion (300) for manually moving the container portion (200) in a dosing process. The handle portion (300) is connected to an outer surface (211) of the container body (210) by a connecting portion (350) of the handle portion (300). A rim portion (252) of the container portion (200), which delimits the opening (250), and the handle portion (300) extend in a common plane (CP) and define a circumferential edge (101) of the dosing device (101).

Abstract: Ultrasonic flowmeter includes fluid flow path through which a measurement target fluid flows and a pair of ultrasonic transducers that can transmit and receive an ultrasonic signal. The ultrasonic flowmeter further includes flow rate calculator that calculates a flow velocity or flow rate of a measurement target fluid. In addition, fluid flow path includes a main flow path including a plurality of divided flow paths obtained by dividing a flow path having a rectangular cross-section by the same width, and a sub flow path including an added flow path having the same width as that of the divided flow path and having a height lower than that of the divided flow path. Furthermore, flow rate calculator calculates the flow rate of the measurement target fluid flowing through the fluid flow path from the flow velocity or flow rate of the measurement target fluid obtained based on the propagation time.

Abstract: A method of automated preparation of a sample material for a chemical or compositional analysis is disclosed that includes arranging the sample material in a receptacle, storing the sample inside the receptacle in a conditioning cabinet, and grinding the sample material by way of a ball mill apparatus. The ball mill apparatus may include an extraction container, at least one grinding element provided in the extraction container and an agitator adapted to move the at least one grinding element relative to the extraction container when the sample material is placed in the extraction container. The method may further include placing the sample material together with the receptacle in the extraction container, and grinding the receptacle together with the sample material by agitating the extraction container.

Abstract: A device for detachably fastening a sensor for determining and/or monitoring at least one process variable of a medium to a single-use container, wherein there is a connection between the device and a wall of the single-use container, comprises a fastening unit for detachably fastening the sensor to the single-use container. Disclosed also is a single-use container having a device according to the invention.

Abstract: A biological detection system includes a control module, a bearing rotatable plate, a first driving module, rotatable sub-plates, second driving modules, and test cassettes. The bearing rotatable plate has a main rotating shaft. The first driving module is electrically connected to the control module and connected to the main rotating shaft, so that the bearing rotatable plate rotates about the main rotating shaft. The rotatable sub-plates each has a respective independent rotating shaft. The rotatable sub-plates are rotatably disposed on the bearing rotatable plate about the respective independent rotating shaft. The independent rotating shafts and the main rotating shaft may have different rotating directions and rotating speeds. The second driving modules are electrically connected to the control module, so that the rotatable sub-plates independently rotate about the respective independent rotating shaft.

Abstract: A sock for capturing motion data of a user includes (i) a sock enclosure having a calf portion, a shin portion, and a foot portion, and (ii) one or more sensors, wherein each sensor is disposed within a biosignal channel in the sock enclosure. The sock includes an electronic pad disposed adjacent to the shin portion. The electronic pad includes a flexible printed circuit board on which the one or more sensors are embedded, a processor configured to receive motion data generated by the one or more sensors, and a power supply device configured to power the one or more sensors. The sock includes an insole layer disposed along the foot portion and communicatively connected to the electronic pad. The sock and an external computing device form a motion analytics system, wherein the external computing device performs a data analytics method to provide context and insight to the user.

Abstract: Disclosed is a connecting piece assembly for a process connection of, in particular, fittings or sensors. The connection piece assembly having a first stationary connecting piece element and a second replaceable connecting piece element which is designed so as to be at least partly receivable by a receiving opening of the first stationary connecting piece element. The second replaceable connecting piece element has an outer thread for attaching a union nut of the fitting or the sensor. The connection piece assembly further includes at least one holding device which is designed to hold together the first stationary connecting piece element and the second replaceable connecting piece element. Also disclosed is a process container with a corresponding connecting piece assembly.