mhurhangee/ep-ind-claims huggingface dataset:
A recording medium comprising a substrate, a first ink receiving layer and a second ink receiving layer which is an outermost layer in this order, wherein the first ink receiving layer contains alumina hydrate and polyvinyl alcohol, the second ink receiving layer contains alumina hydrate, polyvinyl alcohol, a cationic polymer particle and a zirconium compound as a crosslinking agent, and a thickness of the second ink receiving layer is 3 μm or more and 10 μm or less, characterized in that a content of the zirconium compound in the second ink receiving layer is 4.0% by mass or more in terms of mass ratio with respect to a content of the alumina hydrate. the first ink receiving layer contains alumina hydrate and polyvinyl alcohol, the second ink receiving layer contains alumina hydrate, polyvinyl alcohol, a cationic polymer particle and a zirconium compound as a crosslinking agent, and a thickness of the second ink receiving layer is 3 μm or more and 10 μm or less, characterized in that a content of the zirconium compound in the second ink receiving layer is 4.0% by mass or more in terms of mass ratio with respect to a content of the alumina hydrate.
An adaptive radio frequency, RF, module comprising: an RF unit; a first bus connector configured to receive a first voltage; a second bus connector configured to receive a second voltage; and a switching circuit configured to supply an operational voltage to the RF unit, wherein the switching circuit switches between the first bus connector and the second bus connector to receive the first voltage or the second voltage, characterized in that the switching circuit is configured to switch between the first bus connector and the second bus connector according to a voltage detected at one of the bus connectors (12, 18). an RF unit; a first bus connector configured to receive a first voltage; a second bus connector configured to receive a second voltage; and a switching circuit configured to supply an operational voltage to the RF unit, wherein the switching circuit switches between the first bus connector and the second bus connector to receive the first voltage or the second voltage, characterized in that the switching circuit is configured to switch between the first bus connector and the second bus connector according to a voltage detected at one of the bus connectors (12, 18).
A vehicle comprising: a detection module implemented as a directional sensor including a directional antenna and signal processing logic, the detection module being located within the vehicle, arranged with respect to a driver region, and configured to detect a condition wherein a wireless phone is operated within the driver region, and to generate an output indicative of the detected condition; and a controller configured to receive the output, and control the vehicle in response to the detected condition, characterized in that the directional sensor includes a tuned can or waveguide to filter out cell tower signals, and a tuned polarized filter to filter out non-cell phone signals, and a directional antenna recessed within the can. a detection module implemented as a directional sensor including a directional antenna and signal processing logic, the detection module being located within the vehicle, arranged with respect to a driver region, and configured to detect a condition wherein a wireless phone is operated within the driver region, and to generate an output indicative of the detected condition; and a controller configured to receive the output, and control the vehicle in response to the detected condition, characterized in that
A method of recovering and detecting PrP Sc from a sample of blood, the method comprising: adding sodium chloride (NaCl) to said sample, wherein the final concentration of NaCl is between 5 - 20% w/v, in an amount sufficient to facilitate precipitation of PrP Sc from the sample wherein the amount of NaCl is not sufficient to precipitate other factors which may interfere with a subsequent PrP Sc amplification reaction and centrifuging the sample so as to recover said PrP Sc from said sample and further carrying out protein misfolding cyclic amplification (PMCA) on said recovered PrP Sc.
A wireless communication terminal, the terminal comprising: a processor; and a communication unit, wherein the processor is configured to: receive a preamble of a physical layer protocol data unit, PPDU,, wherein the preamble includes a High Efficiency Signal A, HE-SIG-A, field including a bandwidth subfield related to bandwidth over which the PPDU is transmitted and a High Efficiency Signal B, HE-SIG-B field, and wherein the HE-SIG-B field includes a resource unit, RU, allocation subfield related to allocating resource units and a station, STA, identifier, ID, subfield related to identifying a terminal assigned to each of the resource units, and receive a data of the PPDU based on the bandwidth subfield, the RU allocation subfield and the STA ID subfield, when one of the resource units is assigned to the terminal by the STA ID subfield, wherein the data is transmitted in the one of the resource units excluding unassigned resource unit in the bandwidth, and wherein the unassigned resource unit is indicated by the STA ID subfield and/ or the RU allocation subfield within the bandwidth. a processor; and a communication unit, wherein the processor is configured to: receive a preamble of a physical layer protocol data unit, PPDU,, wherein the preamble includes a High Efficiency Signal A, HE-SIG-A, field including a bandwidth subfield related to bandwidth over which the PPDU is transmitted and a High Efficiency Signal B, HE-SIG-B field, and wherein the HE-SIG-B field includes a resource unit, RU, allocation subfield related to allocating resource units and a station, STA, identifier, ID, subfield related to identifying a terminal assigned to each of the resource units, and receive a data of the PPDU based on the bandwidth subfield, the RU allocation subfield and the STA ID subfield, when one of the resource units is assigned to the terminal by the STA ID subfield, wherein the data is transmitted in the one of the resource units excluding unassigned resource unit in the bandwidth, and wherein the unassigned resource unit is indicated by the STA ID subfield and/ or the RU allocation subfield within the bandwidth. receive a preamble of a physical layer protocol data unit, PPDU,, wherein the preamble includes a High Efficiency Signal A, HE-SIG-A, field including a bandwidth subfield related to bandwidth over which the PPDU is transmitted and a High Efficiency Signal B, HE-SIG-B field, and wherein the HE-SIG-B field includes a resource unit, RU, allocation subfield related to allocating resource units and a station, STA, identifier, ID, subfield related to identifying a terminal assigned to each of the resource units, and receive a data of the PPDU based on the bandwidth subfield, the RU allocation subfield and the STA ID subfield, when one of the resource units is assigned to the terminal by the STA ID subfield, wherein the data is transmitted in the one of the resource units excluding unassigned resource unit in the bandwidth, and wherein the unassigned resource unit is indicated by the STA ID subfield and/ or the RU allocation subfield within the bandwidth.
A compound of the formula, or a salt thereof: wherein, R 2 and R 3 are organic residues and X is selected from the group consisting of: wherein R 1 is an organic residue, and T is a linker which is CH2-, -CH2 CH2-, -CH2 CH2 CH2-, -CH CH2- or -CH2 CH2 CH2 CH2. wherein R 1 is an organic residue, and T is a linker which is CH2-, -CH2 CH2-, -CH2 CH2 CH2-, -CH CH2- or -CH2 CH2 CH2 CH2.
A column assembly for a substantially thermal bridge free insulating wall of a building structure, said column assembly having side surfaces adapted to receive and retain insulation panels of the insulating wall, characterised in that said column assembly comprising an inner spacer element made of mineral wool fibres, a central element made of mineral wool fibres, an outer spacer element made of mineral wool fibres, wherein the spacer elements (11, 13) are assembled with first and second intermediate profiles (14, 15) between the spacer elements (11, 13), and wherein the density of the mineral wool in the central element is higher than the density in the inner and outer spacer elements (11, 13). an inner spacer element made of mineral wool fibres, a central element made of mineral wool fibres, an outer spacer element made of mineral wool fibres,
Method for machining longitudinal edges of metal workpieces using a circumferential milling cutter having at least one spiral-shaped cutting edge, the at least one cutting edge (z) of the circumferential milling cutter contacting a machining surface of the workpiece with a plurality of teeth simultaneously, characterised in that the plurality of teeth, acting in the feed direction, of the at least one cutting edge simultaneously contact the machining surface at regular intervals (a s), and in that, during the machining of the workpiece, all of the cutting edges (z) are brought into engagement with the machining surface over an effective length and at an equal cutting depth (t), and the chips (s) in each case are removed over a length of the workpiece, which corresponds to the tooth interval (a s), between the adjacent teeth simultaneously with the movement thereof along the effective length in the feed direction.
A surgical system for use on tissue at a target site, comprising: an instrument; an electrical stimulation generator configured to generate electrical stimulation signals; an electrosurgical unit configured to generate radio frequency signals; an interface module electrically coupled to the instrument, the electrical stimulation generator and the electrosurgical unit; a first circuit including the instrument, the electrical stimulation generator and the interface module; a second circuit including the instrument, the electrosurgical unit and the interface module; a selection module electrically coupled to the interface module and configured to selectively complete one of the first circuit and the second circuit; and a control unit; characterized by one or more sensing probes separate from the instrument and electrically coupled to the interface module via the control unit to complete the first circuit for monitoring EMG activity at the target site in response to an electric stimulus energy and configured to provide an indication, upon the sensed electromyographic activity, to the interface module to disable any further signals from the electrosurgical unit of the second circuit being transmitted to the instrument, wherein the control unit is adapted to allow control and variation of the stimulus energy delivered to the instrument and to process information received from the one or more sensing probes resulting from the delivered stimulus energy. an instrument; an electrical stimulation generator configured to generate electrical stimulation signals; an electrosurgical unit configured to generate radio frequency signals; an interface module electrically coupled to the instrument, the electrical stimulation generator and the electrosurgical unit; a first circuit including the instrument, the electrical stimulation generator and the interface module; a second circuit including the instrument, the electrosurgical unit and the interface module; a selection module electrically coupled to the interface module and configured to selectively complete one of the first circuit and the second circuit; and a control unit;
Use of a refrigerant composition comprising, as the refrigerant, a mixture of 35 mass% of difluoromethane (HFC-32) and 65 mass% of 2,3,3,3-tetrafluoropropene (HFO-1234yf), in a refrigeration unit of an air conditioner obtained by applying a countermeasure (i) to prevent heat exchange efficiency from decreasing due to the temperature glide in a heat exchanger to a standard unit for R410A of an air conditioner; the countermeasure (i) being at least one of - eliminating the temperature difference between air and refrigerant by counter-current flow, - preventing frost formation near an inlet of an evaporator, and - increasing the heat-transfer coefficient of the heat exchanger with regard to a heat exchanger of the standard unit for R410A of an air conditioner. a countermeasure (i) to prevent heat exchange efficiency from decreasing due to the temperature glide in a heat exchanger to a standard unit for R410A of an air conditioner; the countermeasure (i) being at least one of - eliminating the temperature difference between air and refrigerant by counter-current flow, - preventing frost formation near an inlet of an evaporator, and - increasing the heat-transfer coefficient of the heat exchanger with regard to a heat exchanger of the standard unit for R410A of an air conditioner. - eliminating the temperature difference between air and refrigerant by counter-current flow, - preventing frost formation near an inlet of an evaporator, and - increasing the heat-transfer coefficient of the heat exchanger with regard to a heat exchanger of the standard unit for R410A of an air conditioner.
A method for performing scan, the method comprising: entering scan mode; receiving a test pattern (1204; 1402); applying the test pattern (1208, 1304, 1406) through a first scan chain (402, 502, 602, 802) by asserting and deasserting a scan enable signal to respectively perform shift and capture operations to the first scan chain (502, 602); the method is characterised in that while applying the test pattern (1208, 1304, 1406) through the first scan chain, controlling a further scan flip-flop with the first scan chain (502, 602) without transitioning a further scan enable input of the further scan flip-flop; and evaluating (1212, 1410) an output of the first scan chain to detect faults. entering scan mode; receiving a test pattern (1204; 1402); applying the test pattern (1208, 1304, 1406) through a first scan chain (402, 502, 602, 802) by asserting and deasserting a scan enable signal to respectively perform shift and capture operations to the first scan chain (502, 602); the method is characterised in that while applying the test pattern (1208, 1304, 1406) through the first scan chain, controlling a further scan flip-flop with the first scan chain (502, 602) without transitioning a further scan enable input of the further scan flip-flop; and evaluating (1212, 1410) an output of the first scan chain to detect faults.
A gas turbine engine having a seal assembly comprising: a first seal having a sealing passage which defines a flow path trajectory for leakage air, the first seal for partitioning a first pressure area from a lower pressure area; a second seal located along the line of the flow path trajectory of the first seal, the second seal for partitioning a second pressure area and the lower pressure area; a deflection member located between the first seal and second seal, and in the trajectory of the exit flow path from the first seal, characterised in that the first pressure area is a higher pressure area provided with air at a higher pressure and the second pressure area is an intermediate pressure area provided with air at a pressure which is intermediate to the higher pressure and lower pressure. a first seal having a sealing passage which defines a flow path trajectory for leakage air, the first seal for partitioning a first pressure area from a lower pressure area; a second seal located along the line of the flow path trajectory of the first seal, the second seal for partitioning a second pressure area and the lower pressure area; a deflection member located between the first seal and second seal, and in the trajectory of the exit flow path from the first seal, characterised in that the first pressure area is a higher pressure area provided with air at a higher pressure and the second pressure area is an intermediate pressure area provided with air at a pressure which is intermediate to the higher pressure and lower pressure.
A method for validating a V2X message sent by a transmitter and received by a receiver, wherein the receiver is arranged on a vehicle and at least one actual physical received signal property of the V2X message is determined when the V2X message is received, and wherein from the V2X message a purported transmitter position of the transmitter is determined, wherein local environmental geodata comprising a positioning of a number of stationary objects (O1, O2, O3, O4) is provided, wherein a signal path (x) of the V2X message is simulated based on the purported transmitter position and taking into account the environmental geodata and the receiver position, wherein at least one simulated physical received signal property is determined from the simulated signal path (x) and the receiver position, and wherein the V2X message is validated, if the at least one simulated physical received signal property differs from the at least one actual physical received signal property by less than a limit value.
Device having a tool, wherein the device is used to monitor the position and/or attitude and/or movement of the tool, wherein the tool has an inertial sensor (17, 18) such as a gyroscope sensor and/or an inertia sensor mounted on it, wherein the device has provision for a supervisory unit, at least one image capture unit and an image evaluation unit, wherein the supervisory unit is designed to determine a position and/or attitude and/or movement of the tool, starting from a specified initial situation, on the basis of the captured sensor data from the inertial sensor, wherein the image capture unit is intended to calibrate the inertial sensor, wherein the image capture unit is designed to capture one or more photographs of the tool at least at specific times or in specific time intervals, wherein the image evaluation unit is intended to determine the position and/or attitude and/or movement of the tool, and wherein the supervisory unit is designed to calibrate the sensor data from the inertial sensor in order to process the data from the image capture unit, characterized in that the device has provision for a locating device, wherein the locating device is designed to have an ultrasonic transmitter and an ultrasonic receiver, wherein the locating device is designed to locate the tool by determining the distance between the ultrasonic transmitter and the ultrasonic receiver by way of time-of-flight measurements on ultrasonic signals, wherein the ultrasonic signals can be used to determine the distance between applicable transmitters and receivers, wherein the operating range of the locating device operating by means of time-of-flight measurement extends beyond an image area of the image capture unit and the detection of the presence of the tool in the image area of the image capture unit by the locating device is intended to locate the tool by way of time-of-flight measurements on the ultrasonic signals.
Tap, including: a body; and a spout, mounted to swivel with respect to the body, wherein the spout includes an outer tube and at least one internal tube, arranged within the outer tube and extending over at least part of a length of the spout, wherein a series of passages is defined in the tap to lead liquid from a passage in the body through at least the internal tube to a passage leading to an outlet at an end of the spout, wherein the internal tube is connected at at least one end by a tube connector to a tap part defining one of the series of passages, the tube connector placing that passage in sealed liquid communication with an interior of the internal tube, wherein the tube connector includes a first component fixed to the internal tube, and wherein the tube connector (33,37) includes a second component, fixed to the tap part and rotatably connected to the first component, whereby the tap part is the body, characterised in that a section of the first component is inserted into the passage defined by the tap part and at least one annular sealing element is provided between the inserted section and the tap part. a body; and a spout, mounted to swivel with respect to the body, wherein the spout includes an outer tube and at least one internal tube, arranged within the outer tube and extending over at least part of a length of the spout, wherein a series of passages is defined in the tap to lead liquid from a passage in the body through at least the internal tube to a passage leading to an outlet at an end of the spout, wherein the internal tube is connected at at least one end by a tube connector to a tap part defining one of the series of passages, the tube connector placing that passage in sealed liquid communication with an interior of the internal tube, wherein the tube connector includes a first component fixed to the internal tube, and wherein the tube connector (33,37) includes a second component, fixed to the tap part and rotatably connected to the first component, whereby the tap part is the body, characterised in that a section of the first component is inserted into the passage defined by the tap part and at least one annular sealing element is provided between the inserted section and the tap part.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein each R 1 and R 2 is, independently, C 11-24 alkyl, C 11-24 alkenyl, or C 11-24 alkynyl, wherein preferably each R 1 and R 2 is, independently, C 11-24 alkenyl; each n1 and n2 is, independently, an integer from 0 to 2, wherein, preferably, n1 and n2 are both 1 or wherein n1 is 1 and n2 is 2; and R 5 is selected from the group consisting of H, C 1-6 alkyl, and heterocyclyl, wherein preferably R 5 is unsubstituted C 1-6 alkyl. each R 1 and R 2 is, independently, C 11-24 alkyl, C 11-24 alkenyl, or C 11-24 alkynyl, wherein preferably each R 1 and R 2 is, independently, C 11-24 alkenyl; each n1 and n2 is, independently, an integer from 0 to 2, wherein, preferably, n1 and n2 are both 1 or wherein n1 is 1 and n2 is 2; and R 5 is selected from the group consisting of H, C 1-6 alkyl, and heterocyclyl, wherein preferably R 5 is unsubstituted C 1-6 alkyl.
A fastening member (1, 100, 300, 400) having a thread structure including an upper portion provided on a side of a thread crest (10a, 211', 311, 411), and a lower portion provided on a side of a thread root (10b, 10c), wherein a pressure flank surface (13, 13b, 213, 213b, 313, 413, 613) formed in said upper portion is provided on a side of a seat surface with respect to a pressure flank surface of a basic profile, and at least one side surface of said lower portion is provided inwardly of an extension line (13a, 14a, 75, 76, 613a) of a corresponding flank surface of said upper portion, characterized in that said thread crest (10a, 211', 311, 411) portion is provided on the side of said seat surface with respect to said pressure flank surface of the basic profile, and said at least one side surface of said lower portion is formed to be continuous from a lower end of said corresponding flank surface.
A method for preparing 3-methylsulfonylpropionitrile, comprising: (a) reacting 3-bromopropionitrile and sodium methylsulfinate in an organic solvent to obtain crude 3-methylsulfonylpropionitrile in a solid form, and (b) removing a byproduct sodium bromide. (a) reacting 3-bromopropionitrile and sodium methylsulfinate in an organic solvent to obtain crude 3-methylsulfonylpropionitrile in a solid form, and (b) removing a byproduct sodium bromide.