mhurhangee/ep-ind-claims huggingface dataset:
A fixing plate for an aerosol container, mounted to an aerosol container having two stems in one container to engage and hold a cover member (20A, 30A) covering a mounting cup of the container, characterized in that the fixing plate (10A, 10B, 10B') comprises: an outer wall that covers said mounting cup except an opening exposing said two stems and abuts on an upper face of an annular rim of the mounting cup; a cylindrical wall integrally connected to the outer wall on a lower side thereof and surrounding the annular rim; and an engaging claw provided on an inner circumferential surface of the cylindrical wall to engage with the annular rim thereby anchoring the fixing plate, wherein the outer wall includes a positioning wall having an inner circumferential shape following an outer circumferential surface of a projection that protrudes from said mounting cup, with said two stems being bound together, and that has a non-circular cross-sectional shape with long sides and short sides.
A method of thermal energy exchange within an industrial gas turbine engine, comprising: heating a liquid within a heat exchanger using thermal energy from compressed air, the compressed air being bleed air from a compression section of the industrial gas turbine engine; injecting the liquid into a combustion section of the industrial gas turbine engine; and communicating the compressed air to a turbine section of the industrial gas turbine engine after the heating, thereby using the compressed air to cool the turbine section; characterized in that the heating a liquid using thermal energy from compressed air occurs within a compression section of the industrial gas turbine engine at a position within the compression section that is located axially between a low-speed compressor and a high-speed compressor. heating a liquid within a heat exchanger using thermal energy from compressed air, the compressed air being bleed air from a compression section of the industrial gas turbine engine; injecting the liquid into a combustion section of the industrial gas turbine engine; and communicating the compressed air to a turbine section of the industrial gas turbine engine after the heating, thereby using the compressed air to cool the turbine section; characterized in that the heating a liquid using thermal energy from compressed air occurs within a compression section of the industrial gas turbine engine at a position within the compression section that is located axially between a low-speed compressor and a high-speed compressor.
A polyvinylchloride plastisol composition comprising a polyvinylchloride resin, a plasticizer, and a viscosity reducing compound, wherein said compound is represented by the following structure: wherein R 1 and R 2 each independently represent a C3 to C17 alkyl group and wherein a total number of carbons represented by R 1 and R 2 is between 9 carbons and 20 carbons.
A composite member, comprising: at least one nonwoven mat (12, 16) including cardboard and heat bondable textile fibers; characterised in that at least one sheet of biodegradable polymeric composition is bonded to said at least one nonwoven mat, said at least one sheet of biodegradable polymeric composition including a protein and a first strengthening agent. at least one nonwoven mat (12, 16) including cardboard and heat bondable textile fibers; characterised in that at least one sheet of biodegradable polymeric composition is bonded to said at least one nonwoven mat, said at least one sheet of biodegradable polymeric composition including a protein and a first strengthening agent.
An integrated circuit for communicating back-channel data over a SerDes data link, comprising: a digital modulator for receiving back-channel data and modulating phase or frequency of at least one clock signal to encode the back-channel data, producing a modulated clock signal; and a transmitter for receiving a data input signal and the modulated clock signal and transmitting over the SerDes data link a data output signal encoded by the modulated clock signal; wherein the clock signal is modulated slowly, so that clock and data recovery can track this modulation without compromising the received data. a digital modulator for receiving back-channel data and modulating phase or frequency of at least one clock signal to encode the back-channel data, producing a modulated clock signal; and a transmitter for receiving a data input signal and the modulated clock signal and transmitting over the SerDes data link a data output signal encoded by the modulated clock signal; wherein the clock signal is modulated slowly, so that clock and data recovery can track this modulation without compromising the received data.
A method of operating a base station, the method comprising: determining a first transmit power of a UE, determining the transmit power comprising determining a serving base station receive power, determining a path loss of the user equipment to the base station, determining a downlink signal to noise and interference ratio (SNIR) at the UE by a ratio of a power received at the UE from the base station to a sum of a noise power and powers received at the UE from neighboring base stations, forming the first UE transmit power, forming comprising summing the serving base station receive power, the path loss of the UE to the base station and the downlink SNIR; and instructing the UE to transmit at the first UE transmit power; the method further comprising: determining a first adjustment coefficient; and forming the first UE transmit power further comprises multiplying the downlink SNIR in a logarithmic domain with the first adjustment coefficient. determining a first transmit power of a UE, determining the transmit power comprising determining a serving base station receive power, determining a path loss of the user equipment to the base station, determining a downlink signal to noise and interference ratio (SNIR) at the UE by a ratio of a power received at the UE from the base station to a sum of a noise power and powers received at the UE from neighboring base stations, forming the first UE transmit power, forming comprising summing the serving base station receive power, the path loss of the UE to the base station and the downlink SNIR; and determining a serving base station receive power, determining a path loss of the user equipment to the base station, determining a downlink signal to noise and interference ratio (SNIR) at the UE by a ratio of a power received at the UE from the base station to a sum of a noise power and powers received at the UE from neighboring base stations, forming the first UE transmit power, forming comprising summing the serving base station receive power, the path loss of the UE to the base station and the downlink SNIR; and instructing the UE to transmit at the first UE transmit power; determining a first adjustment coefficient; and forming the first UE transmit power further comprises multiplying the downlink SNIR in a logarithmic domain with the first adjustment coefficient.
A method of operating an ultrasonic sensor, the method comprising: transmitting an ultrasonic transmit signal; receiving a first ultrasonic receive signal using a first transducer of the ultrasonic sensor, the first ultrasonic receive signal comprising a version of the ultrasonic transmit signal; detecting that a second transducer (412-M) of the ultrasonic sensor is occluded, wherein detecting that the second transducer is occluded comprises: failing to receive, by the second transducer, a second ultrasonic receive signal (416-M) that includes a version of the ultrasonic transmit signal; or receiving, by the second transducer, a second ultrasonic receive signal and determining that an amplitude of a version of the ultrasonic transmit signal in the second ultrasonic receive signal is less than a detection threshold; characterised in that the method further comprises: responsive to receiving the first ultrasonic receive signal using the first transducer and detecting that the second transducer is occluded, determining that an object is proximate to the second transducer. transmitting an ultrasonic transmit signal; receiving a first ultrasonic receive signal using a first transducer of the ultrasonic sensor, the first ultrasonic receive signal comprising a version of the ultrasonic transmit signal; detecting that a second transducer (412-M) of the ultrasonic sensor is occluded, wherein detecting that the second transducer is occluded comprises: failing to receive, by the second transducer, a second ultrasonic receive signal (416-M) that includes a version of the ultrasonic transmit signal; or receiving, by the second transducer, a second ultrasonic receive signal and determining that an amplitude of a version of the ultrasonic transmit signal in the second ultrasonic receive signal is less than a detection threshold; characterised in that the method further comprises: responsive to receiving the first ultrasonic receive signal using the first transducer and detecting that the second transducer is occluded, determining that an object is proximate to the second transducer. failing to receive, by the second transducer, a second ultrasonic receive signal (416-M) that includes a version of the ultrasonic transmit signal; or receiving, by the second transducer, a second ultrasonic receive signal and determining that an amplitude of a version of the ultrasonic transmit signal in the second ultrasonic receive signal is less than a detection threshold; characterised in that the method further comprises: responsive to receiving the first ultrasonic receive signal using the first transducer and detecting that the second transducer is occluded, determining that an object is proximate to the second transducer.
An electrode arrangement for coagulating body tissues and/or body vessels, comprising a first electrode group and a second electrode group which are insulated with respect to one another and which each have ribbon-shaped electrodes (31a - 31f; 32a - 32f) having proximal and distal ends, wherein the proximal ends are axially displaceable along an axis relative to the distal ends so that the electrodes of the first and second electrode groups (31a - 31f; 32a - 32f) can be expanded from a relaxed position into an expanded position like meridians of a balloon, characterized in that the first electrode group is arranged axially offset with respect to the second electrode group so that the envelope of the first electrode group and the envelope of the second electrode group intersect such that, in the expanded state of the electrodes, the envelope of the first electrode group lies outside the envelope of the second electrode group in a first axial region and inside the envelope of the second electrode group in an adjoining second axial region.
A wavelength-tunable light source operative to emit wavelength tunable radiation over a wavelength range contained in a wavelength span between about 950nm and about 1150nm, said wavelength tunable light source comprising a vertical cavity laser, VCL, said VCL having a VCL gain region with at least one compressively strained quantum well containing Indium, Gallium, and Arsenic, said vertical cavity laser further comprising a first portion including a first mirror, a second portion including a second mirror attached to a mechanical structure including a flexible membrane having a tensile stress of more than 100 megapascal with a support structure comprising a geometry of a central plate with multiple supporting arms and having a frequency response flattened by squeeze film damping introduced by viscous air, an adjustable airgap between said second portion and said first portion, a first means for injecting electrons and holes into said gain region, a second means for adjusting said airgap, a third means for obtaining substantially single longitudinal and transverse mode operation over said wavelength tuning range, said wavelength-tunable light source further comprising a semiconductor optical amplifier comprising at least one SOA quantum well including Indium, Gallium, and Arsenic, said at least one SOA quantum well having a room temperature photoluminescence wavelength in a range of about 1050nm-1085nm, wherein a thickness of said at least one SOA quantum well is in a range of about 5-10nm, and wherein the squeeze film damping is controlled by control of a central plate and arm areas of the membrane. wherein a thickness of said at least one SOA quantum well is in a range of about 5-10nm, and wherein the squeeze film damping is controlled by control of a central plate and arm areas of the membrane.
Measurement arrangement (1, 22) for a rail potential in a DC railway system, - wherein rails of the DC railway system are connected to the ground by at least one switchable semiconductor element, - wherein the at least one switchable semiconductor element can be made conductive when a threshold value for the rail potential is exceeded and - wherein the measurement arrangement (1, 22) connects rails and ground in a current path running parallel to the at least one switchable semiconductor element and has an evaluation device for detecting DC voltages, wherein - the measurement arrangement is also designed to detect AC voltages in the rail potential, and - is fitted with a rectification device which rectifies periodically occurring voltage peaks, wherein the periodically occurring voltage peaks can be generated by the at least one switchable semiconductor element when an AC voltage is present in the rail potential, and - is fitted with a memory device which stores the rectified voltage peaks, characterised in that from the rectified voltage peaks a longer-lasting DC voltage of a duration which can be detected by the evaluation device is generated. - wherein rails of the DC railway system are connected to the ground by at least one switchable semiconductor element, - wherein the at least one switchable semiconductor element can be made conductive when a threshold value for the rail potential is exceeded and - wherein the measurement arrangement (1, 22) connects rails and ground in a current path running parallel to the at least one switchable semiconductor element and has an evaluation device for detecting DC voltages, - the measurement arrangement is also designed to detect AC voltages in the rail potential, and - is fitted with a rectification device which rectifies periodically occurring voltage peaks, wherein the periodically occurring voltage peaks can be generated by the at least one switchable semiconductor element when an AC voltage is present in the rail potential, and - is fitted with a memory device which stores the rectified voltage peaks, characterised in that from the rectified voltage peaks a longer-lasting DC voltage of a duration which can be detected by the evaluation device is generated.
A method, comprising: preparing a representation of an item to be built in a stereolithography apparatus from a photocurable ceramic filled material, the representation defining the item in terms of reference data relative to a three dimensional coordinate system having a 1st, 2nd, and 3rd axis; adjusting the reference data to compensate for the anisotropic shrinkage of a green ceramic item upon sintering, the adjusting utilizing three unequal scaling factors, wherein a largest scaling factor corresponds to a build direction, wherein the build direction corresponds to one of the three axes and the other two unequal scaling factors are applied to the other two axes; building the green ceramic item in the stereolithography apparatus utilizing the reference data after said adjusting, the green ceramic item being built from the photocurable ceramic filled material; and sintering the green ceramic item to define a sintered ceramic item that has substantially the same dimensions as the item represented by the reference data before said adjusting. preparing a representation of an item to be built in a stereolithography apparatus from a photocurable ceramic filled material, the representation defining the item in terms of reference data relative to a three dimensional coordinate system having a 1st, 2nd, and 3rd axis; adjusting the reference data to compensate for the anisotropic shrinkage of a green ceramic item upon sintering, the adjusting utilizing three unequal scaling factors, wherein a largest scaling factor corresponds to a build direction, wherein the build direction corresponds to one of the three axes and the other two unequal scaling factors are applied to the other two axes; building the green ceramic item in the stereolithography apparatus utilizing the reference data after said adjusting, the green ceramic item being built from the photocurable ceramic filled material; and sintering the green ceramic item to define a sintered ceramic item that has substantially the same dimensions as the item represented by the reference data before said adjusting.
A method for determining Parkinson's disease in a human patient, comprising the steps of: determining in a sample from said human patient a differential level of: (a) at least three miRNAs selected from the group consisting of SEQ ID NOS: 2-86 within said sample, wherein at least two miRNAs are selected from the group consisting of SEQ ID NOS: 22, 25 and 77; or (b) at least two miRNAs selected from the group consisting of SEQ ID NOS: 22, 25 and 77 within said sample. (a) at least three miRNAs selected from the group consisting of SEQ ID NOS: 2-86 within said sample, wherein at least two miRNAs are selected from the group consisting of SEQ ID NOS: 22, 25 and 77; or (b) at least two miRNAs selected from the group consisting of SEQ ID NOS: 22, 25 and 77 within said sample.
A method comprising: receiving, by an electronic device, data defining an augmented reality, AR, environment; receiving an indication from a user to place an AR object on a reference surface in the AR environment; in response to the indication, displaying the AR object on the reference surface in the AR environment; performing a first gesture on an input device of the electronic device; in response to the first gesture, elevating the AR object a distance above the reference surface in the AR environment; performing a second gesture on the input device of the electronic device; in response to the second gesture, moving the AR object in the AR environment, wherein the reference surface is a first reference surface and the moving the AR object in the AR environment includes moving the AR object over a second reference surface in the AR environment; and in response to the moving the AR object over the second reference surface, displaying the AR object, in the AR environment, as being placed or elevated above the second reference surface at a same distance as the distance of the original elevation from the first reference surface, and displaying, in the AR environment, a tether line between the AR object and the second reference surface, the tether line indicating that the AR object is at the distance above the second reference surface. receiving, by an electronic device, data defining an augmented reality, AR, environment; receiving an indication from a user to place an AR object on a reference surface in the AR environment; in response to the indication, displaying the AR object on the reference surface in the AR environment; performing a first gesture on an input device of the electronic device; in response to the first gesture, elevating the AR object a distance above the reference surface in the AR environment; performing a second gesture on the input device of the electronic device; in response to the second gesture, moving the AR object in the AR environment, wherein the reference surface is a first reference surface and the moving the AR object in the AR environment includes moving the AR object over a second reference surface in the AR environment; and in response to the moving the AR object over the second reference surface, displaying the AR object, in the AR environment, as being placed or elevated above the second reference surface at a same distance as the distance of the original elevation from the first reference surface, and displaying, in the AR environment, a tether line between the AR object and the second reference surface, the tether line indicating that the AR object is at the distance above the second reference surface.
An apparatus for managing input/output (I/O) data, comprising: a load/store domain component; a streaming I/O controller to receive data from the load/store domain component and output the data as first streaming data of a first data type comprising a first data movement type and first data format type, the load/store domain comprising a main memory to store the data and processor circuit to retrieve and to send the data to the streaming I/O controller; at least one accelerator (122, 124, 126) coupled to the streaming I/O controller to receive the first streaming data, transform the first streaming data to second streaming data having a second data type different than the first data type, and output the second streaming data; and a streaming interconnect to conduct the second data to a peer device configured to receive data of the second data type; characterized in that the streaming interconnect is coupled to a multiplicity of accelerators, the processor configured to generate a data flow graph comprising a multiplicity of data flow segments that each links a pair of accelerators or an accelerator to the streaming I/O controller, each data flow segment comprising a different data movement type or different data format type than the each other data flow segment, a data movement type to identify characteristics that are specific to transporting streaming data over a streaming connection, and data format type to identify format and other characteristics of streaming data not related to data movement. a load/store domain component; a streaming I/O controller to receive data from the load/store domain component and output the data as first streaming data of a first data type comprising a first data movement type and first data format type, the load/store domain comprising a main memory to store the data and processor circuit to retrieve and to send the data to the streaming I/O controller; at least one accelerator (122, 124, 126) coupled to the streaming I/O controller to receive the first streaming data, transform the first streaming data to second streaming data having a second data type different than the first data type, and output the second streaming data; and a streaming interconnect to conduct the second data to a peer device configured to receive data of the second data type; characterized in that the streaming interconnect is coupled to a multiplicity of accelerators, the processor configured to generate a data flow graph comprising a multiplicity of data flow segments that each links a pair of accelerators or an accelerator to the streaming I/O controller, each data flow segment comprising a different data movement type or different data format type than the each other data flow segment, a data movement type to identify characteristics that are specific to transporting streaming data over a streaming connection, and data format type to identify format and other characteristics of streaming data not related to data movement.
A method for a mobile network, which mobile network is formed of cells, wherein the method comprises determining a weight factor between two cells of the mobile network for designing, optimization or configuration of the mobile network, which determination of the weight factor comprises calculating a distance factor, D, between the cells, characterized in that determination of the weight factor further comprises calculating an angle factor, d, between the cells, wherein the angle factor d indicates how perpendicularly antennas of base stations of the cells are directed towards each other, and calculating the weight factor between the cells with an exponential function of the distance factor and the angle factor.