mhurhangee/ep-ind-claims huggingface dataset:
A hydrophobic material comprising the following constitutions: the hydrophobic material including: a substrate, a fine uneven structure formed on a surface of the substrate; and a hydrophobic molecule covering a surface of the fine uneven structure, and the fine uneven structure including: a petal-like structure formed of an aggregate of a plurality of plate-like particles; and a columnar structure formed of columnar particles, wherein a length from the surface of the substrate to a tip of the columnar structure is longer than a length from the surface of the substrate to a tip of the petal-like structure, wherein the petal-like structure is a structure in which fine plate-like particles having a nanometer-sized thickness are densely packed like petals, and wherein the petal-like structure is formed in a region in which at least the columnar structure is not formed in the surface of the structure. the hydrophobic material including: a substrate, a fine uneven structure formed on a surface of the substrate; and a hydrophobic molecule covering a surface of the fine uneven structure, and a substrate, a fine uneven structure formed on a surface of the substrate; and a hydrophobic molecule covering a surface of the fine uneven structure, and the fine uneven structure including: a petal-like structure formed of an aggregate of a plurality of plate-like particles; and a columnar structure formed of columnar particles, wherein a length from the surface of the substrate to a tip of the columnar structure is longer than a length from the surface of the substrate to a tip of the petal-like structure, wherein the petal-like structure is a structure in which fine plate-like particles having a nanometer-sized thickness are densely packed like petals, and wherein the petal-like structure is formed in a region in which at least the columnar structure is not formed in the surface of the structure. a petal-like structure formed of an aggregate of a plurality of plate-like particles; and a columnar structure formed of columnar particles, wherein a length from the surface of the substrate to a tip of the columnar structure is longer than a length from the surface of the substrate to a tip of the petal-like structure, wherein the petal-like structure is a structure in which fine plate-like particles having a nanometer-sized thickness are densely packed like petals, and wherein the petal-like structure is formed in a region in which at least the columnar structure is not formed in the surface of the structure.
An isolated DNA molecule comprising a sequence that is at least 70%, preferably at least 80%, and more preferably at least 90% identical to a polynucleotide comprising a nucleotide sequence selected from the group consisting of SEQ ID NO: 7, wherein the isolated DNA molecule is suitable for use in the diagnosis of a Brachyspira hyodysenteriae infection.
A method of controlling a powered air purifying respirator blower system to automatically adjust airflow rate to reduce power drawn from a battery when battery life is diminished, the system comprising, a battery pack, a fan powered by a variable speed electric motor, the motor is controlled by an electronic control unit for delivering a forced flow of air through at least one filter to a user, further comprising one or more sensors adapted to be in communication with the electronic control unit and arranged to determine system loading meaning an amount of particulate loading in the filter, comprising the steps of: (a) determining whether the air flow rate is stabilized by monitoring if a flow speed settle timer is expired, (b) determining whether a track time flag is set if the air flow rate is stabilized, (c) determining whether the presently running air flow speed is greater than the lowest speed possible for the system if the track time flag is set, (d) determining if the system loading is greater than a determined value if the presently running air flow speed is greater than the lowest speed possible, (e) determining the estimated system run time and comparing the estimated system run time to a desired run time, (f) altering the air flow speed such as decreasing or stepping down the air flow speed if the system loading is greater than the determined value or if the estimated system run time is less than the desired system run time, or both, as well as starting the air flow speed settle timer. (a) determining whether the air flow rate is stabilized by monitoring if a flow speed settle timer is expired, (b) determining whether a track time flag is set if the air flow rate is stabilized, (c) determining whether the presently running air flow speed is greater than the lowest speed possible for the system if the track time flag is set, (d) determining if the system loading is greater than a determined value if the presently running air flow speed is greater than the lowest speed possible, (e) determining the estimated system run time and comparing the estimated system run time to a desired run time, (f) altering the air flow speed such as decreasing or stepping down the air flow speed if the system loading is greater than the determined value or if the estimated system run time is less than the desired system run time, or both, as well as starting the air flow speed settle timer.
A system, comprising: a processor that executes computer-executable components stored in a computer-readable memory, the computer-executable components comprising: a scan component that causes a medical imaging scanner to perform an air scan, wherein the medical imaging scanner has an X-ray tube, a gantry, and a multi-channel-multi-row detector; a receiver component that accesses data produced by the medical imaging scanner and relating to the air scan, wherein the data includes a set of gantry angles swept by the X-ray tube during the air scan, wherein the data includes a set of intensity value matrices recorded by the multi-channel-multi-row detector during the air scan, and wherein the set of intensity value matrices respectively correspond to the set of gantry angles; a slope component that computes a set of channel-spanning intensity slopes based on the set of intensity value matrices, wherein the set of channel-spanning intensity slopes respectively correspond to the set of gantry angles; a displacement component that applies a slope-to-displacement transfer function to the set of channel-spanning intensity slopes, thereby yielding a set of focal-spot displacements that respectively correspond to the set of gantry angles; and an execution component that initiates one or more electronic actions based on the set of focal-spot displacements. a scan component that causes a medical imaging scanner to perform an air scan, wherein the medical imaging scanner has an X-ray tube, a gantry, and a multi-channel-multi-row detector; a receiver component that accesses data produced by the medical imaging scanner and relating to the air scan, wherein the data includes a set of gantry angles swept by the X-ray tube during the air scan, wherein the data includes a set of intensity value matrices recorded by the multi-channel-multi-row detector during the air scan, and wherein the set of intensity value matrices respectively correspond to the set of gantry angles; a slope component that computes a set of channel-spanning intensity slopes based on the set of intensity value matrices, wherein the set of channel-spanning intensity slopes respectively correspond to the set of gantry angles; a displacement component that applies a slope-to-displacement transfer function to the set of channel-spanning intensity slopes, thereby yielding a set of focal-spot displacements that respectively correspond to the set of gantry angles; and an execution component that initiates one or more electronic actions based on the set of focal-spot displacements.
A method for performing direct communication with a relay user equipment, UE, through an established direct link by a remote UE, which relates to a proximity service-enabled, ProSe-enabled, UE, in a wireless communication system, the method comprising: receiving, at a ProSe or Non-Access Stratum, NAS, layer of the remote UE from a lower layer, information informing that since a predetermined Access Stratum, AS, condition is not satisfied, use of radio resources for the direct communication with the relay UE is stopped; characterised by: stopping procedures associated with a PC5 interface and starting a timer; based on receiving, from the lower layer, information related to the use of the radio resources before expiration of the timer, stopping the timer and performing a procedure over the PC5; and based on the expiration of the timer, locally releasing the direct link to the relay UE. stopping procedures associated with a PC5 interface and starting a timer; based on receiving, from the lower layer, information related to the use of the radio resources before expiration of the timer, stopping the timer and performing a procedure over the PC5; and based on the expiration of the timer, locally releasing the direct link to the relay UE.
An electronic power apparatus comprising: a circuit board comprising a plurality of conductive pads and a sense pad coupled to an output signal; and an actuator having a wiper portion accommodating a conductive wiper, the wiper having a first end arranged to engage the sense pad and a second end arranged to slidably engage at least one of the plurality of conductive pads, wherein the plurality of conductive pads comprises a first row of conductive pads (162 -) which are longitudinally aligned; characterised in that the plurality of conductive pads comprises a second row of conductive pads (162 -) which are longitudinally aligned and which are arranged in parallel with and at a distance to the first row of conductive pads (162 -), an alignment of the second row of conductive pads (162 -) being offset with respect to the first row of conductive pads (162 -); wherein, as the second end of the wiper slides over the plurality of conductive pads it contacts a single conductive pad (162 -) from the first or the second rows of conductive pads in a first wiper position and two conductive pads (162 -) from the first and the second rows of conductive pads in a second wiper position so that the wiper is in contact with one or two pads at any given time; and wherein the conductive pads from the first and the second rows are alternatingly coupled via a plurality of resistors (R1 - R18) that are arranged in series and coupled to a first power source. a circuit board comprising a plurality of conductive pads and a sense pad coupled to an output signal; and an actuator having a wiper portion accommodating a conductive wiper, the wiper having a first end arranged to engage the sense pad and a second end arranged to slidably engage at least one of the plurality of conductive pads, wherein the plurality of conductive pads comprises a first row of conductive pads (162 -) which are longitudinally aligned; characterised in that the plurality of conductive pads comprises a second row of conductive pads (162 -) which are longitudinally aligned and which are arranged in parallel with and at a distance to the first row of conductive pads (162 -), an alignment of the second row of conductive pads (162 -) being offset with respect to the first row of conductive pads (162 -); wherein, as the second end of the wiper slides over the plurality of conductive pads it contacts a single conductive pad (162 -) from the first or the second rows of conductive pads in a first wiper position and two conductive pads (162 -) from the first and the second rows of conductive pads in a second wiper position so that the wiper is in contact with one or two pads at any given time; and wherein the conductive pads from the first and the second rows are alternatingly coupled via a plurality of resistors (R1 - R18) that are arranged in series and coupled to a first power source.
An aerosol spray comprising 1-20 wt% of one or more viable dormant lactic acid bacterial strains, one or more volatile siloxanes and a liquefied gas propellant under pressure, wherein said bacterial strains and said volatile siloxanes form a mixture in the form of a suspension.
A method of detecting collisions between a medical device and a second object in a medical procedure comprising: wherein the medical device comprises a magnet for use in magnetic resonance imaging, the magnet having a cylindrical bore defining an inside surface surrounding a longitudinal axis of the magnet and an end face lying in a radial plane of the longitudinal axis; wherein the magnet is movable along its longitudinal axis in a direction toward and away from the second object; mounting on the magnet a detection device responsive to impacts between the magnet and the second object; the detection device comprising a flexible body within which is mounted at least one optical fiber arranged such that the impact causes bending of the optical fiber; and detecting changes in light transmission through the at least one optical fiber to detect the bending and thus the collision; wherein the flexible body is a ring attached to the end face of the magnet, the ring having an outer edge, an inner edge, a front face and a rear face, with the rear face of the ring being parallel to the end face of the magnet, the inner edge of the ring being located in a common cylindrical surface with the inside surface of the bore and the outer edge of the ring spaced outwardly from the inside surface of the bore in a radial direction and inwardly in a radial direction from an outer edge of the end face of the magnet. wherein the medical device comprises a magnet for use in magnetic resonance imaging, the magnet having a cylindrical bore defining an inside surface surrounding a longitudinal axis of the magnet and an end face lying in a radial plane of the longitudinal axis; wherein the magnet is movable along its longitudinal axis in a direction toward and away from the second object; mounting on the magnet a detection device responsive to impacts between the magnet and the second object; the detection device comprising a flexible body within which is mounted at least one optical fiber arranged such that the impact causes bending of the optical fiber; and detecting changes in light transmission through the at least one optical fiber to detect the bending and thus the collision; wherein the flexible body is a ring attached to the end face of the magnet, the ring having an outer edge, an inner edge, a front face and a rear face, with the rear face of the ring being parallel to the end face of the magnet, the inner edge of the ring being located in a common cylindrical surface with the inside surface of the bore and the outer edge of the ring spaced outwardly from the inside surface of the bore in a radial direction and inwardly in a radial direction from an outer edge of the end face of the magnet.
A method in a user equipment for handling a scheduling request trigger, the user equipment comprising a buffer, the method comprising: receiving data to be transmitted to a base station, which data arrives into the buffer, generating a buffer status report trigger, which generation of buffer status report trigger is triggered by the arrived data, generating a scheduling request trigger, which scheduling request trigger is pending until it is cancelled, and which generating is triggered by the generation of the buffer status report trigger which in turn was triggered by the arrived data, characterised in that the method comprises: sending a scheduling request if the buffer comprises data that has not yet been accounted for in a buffer status report and will not be included in a currently scheduled uplink data transmission. receiving data to be transmitted to a base station, which data arrives into the buffer, generating a buffer status report trigger, which generation of buffer status report trigger is triggered by the arrived data, generating a scheduling request trigger, which scheduling request trigger is pending until it is cancelled, and which generating is triggered by the generation of the buffer status report trigger which in turn was triggered by the arrived data, characterised in that the method comprises: sending a scheduling request if the buffer comprises data that has not yet been accounted for in a buffer status report and will not be included in a currently scheduled uplink data transmission. sending a scheduling request if the buffer comprises data that has not yet been accounted for in a buffer status report and will not be included in a currently scheduled uplink data transmission.
A bicycle frame with a head tube and a double bridge bicycle fork connected with the head tube, the double bridge bicycle fork comprising: a fork crown connecting two fork legs, a bottom bearing seat connected with said fork crown, an upper bearing support connected with a stem, a steer tube offset from the fork crown, said steer tube connecting said two bearing seats (22, 32), and actuation elements for switching elements and/or a rear wheel brake, said actuation elements being guided from a handle bar connected with said stem, passing between said two bearing seats (32, 22), into a frame element, characterized in that at least a part of the actuation elements is guided from the handle bar directly into the stem and is passed from the stem through the upper bearing seat into the head tube so that the actuation elements are completely arranged within the handle bar, the stem the head tube and the frame element. a fork crown connecting two fork legs, a bottom bearing seat connected with said fork crown, an upper bearing support connected with a stem, a steer tube offset from the fork crown, said steer tube connecting said two bearing seats (22, 32), and actuation elements for switching elements and/or a rear wheel brake, said actuation elements being guided from a handle bar connected with said stem, passing between said two bearing seats (32, 22), into a frame element, characterized in that at least a part of the actuation elements is guided from the handle bar directly into the stem and is passed from the stem through the upper bearing seat into the head tube so that the actuation elements are completely arranged within the handle bar, the stem the head tube and the frame element.
A composite load bearing member having at least two layers: (i) an inner thermoplastic layer; and (ii) an outer fiberglass layer, characterized in that the wall thickness ratio of the inner thermoplastic layer to the outer fiberglass layer is between 0.7 and 3.0 and that yield load can vary from 20 tons down to 1.5 tons, wherein the thermoplastic layer is in the form of a pipe having a wall thickness of from 4 to 6 mm, wherein the fibreglass layer is in the form of a pipe having a thickness of from 2 to 5 mm, and further wherein the fiberglass fibre orientation in the outer fiberglass layer is 60-80% longitudinal and 20-40% radial and the balance of the fibre orientation being longitudinal. (i) an inner thermoplastic layer; and (ii) an outer fiberglass layer, characterized in that the wall thickness ratio of the inner thermoplastic layer to the outer fiberglass layer is between 0.7 and 3.0 and that yield load can vary from 20 tons down to 1.5 tons, wherein the thermoplastic layer is in the form of a pipe having a wall thickness of from 4 to 6 mm, wherein the fibreglass layer is in the form of a pipe having a thickness of from 2 to 5 mm, and further wherein the fiberglass fibre orientation in the outer fiberglass layer is 60-80% longitudinal and 20-40% radial and the balance of the fibre orientation being longitudinal.
Manual tile-cutting system, of the type comprising at least one base and one incision assembly comprising guiding means, whereon a tool-carrying device is slidingly mounted, and a longitudinal abutting ribbing aligned on an incision line, the system further comprising a tile alignment square, wherein said base is arranged on a table or frame (1, 10, 20, 30) which can be tilted and made to collapse by means of an extendable and collapsible structure (2, 2b, 12, 12b, 11, 22b, 30b, 34) characterized in that said structure is configured so that, when it is fully extended and resting securely on the floor, said frame is tilted upwards and arranges itself with an inclined attitude close to a vertical plane, with a maximum angle of 45° with respect to the vertical.
An apparatus for forming folds at a corner in a spacer frame assembly used in the construction of insulating glass unit windows, the apparatus comprising: a carriage supporting first and second crimping fingers (442, 444) for engaging side walls of a metal strip of a spacer frame stock material, the crimping fingers (442, 444) spaced about a path of travel of the metal strip during operation; a drive for advancing and retracting said carriage during operation substantially along a portion of said path of travel; an encoder located along the path of travel for determining a velocity of the metal strip moving along the path of travel; and a double acting rack assembly for actuating the first and second crimping fingers (442, 444) in a direction substantially transverse to the path of travel into and out of engagement with the side walls of the metal strip, wherein said drive comprises a controller for accelerating said carriage along the portion of said path of travel to match the velocity of the metal strip as determined by the encoder. a carriage supporting first and second crimping fingers (442, 444) for engaging side walls of a metal strip of a spacer frame stock material, the crimping fingers (442, 444) spaced about a path of travel of the metal strip during operation; a drive for advancing and retracting said carriage during operation substantially along a portion of said path of travel; an encoder located along the path of travel for determining a velocity of the metal strip moving along the path of travel; and a double acting rack assembly for actuating the first and second crimping fingers (442, 444) in a direction substantially transverse to the path of travel into and out of engagement with the side walls of the metal strip, wherein said drive comprises a controller for accelerating said carriage along the portion of said path of travel to match the velocity of the metal strip as determined by the encoder.