mhurhangee/ep-ind-claims huggingface dataset:
A non-transitory storage medium storing instructions readable and executable by an electronic processor, wherein the electronic processor performs an image reconstruction method comprising: receiving emission imaging data, which emission imaging data is one of positron emission tomography, PET, list mode imaging data or single positron emission computed tomography, SPECT, imaging data, from an image acquisition device wherein the emission imaging data has been filtered using an acquisition energy passband; generating filtered imaging data by filtering the emission imaging data with a second energy passband that is narrower than an acquisition energy passband; reconstructing the filtered imaging data to generate an intermediate image; estimating one or more scatter correction factors, SCFs, from the intermediate image; and reconstructing the emission imaging data corrected with the estimated SCFs to generate a reconstructed image. receiving emission imaging data, which emission imaging data is one of positron emission tomography, PET, list mode imaging data or single positron emission computed tomography, SPECT, imaging data, from an image acquisition device wherein the emission imaging data has been filtered using an acquisition energy passband; generating filtered imaging data by filtering the emission imaging data with a second energy passband that is narrower than an acquisition energy passband; reconstructing the filtered imaging data to generate an intermediate image; estimating one or more scatter correction factors, SCFs, from the intermediate image; and reconstructing the emission imaging data corrected with the estimated SCFs to generate a reconstructed image.
An antenna comprising: a planar substrate; a conductor pattern printed on one side of the substrate wherein the conductor pattern comprises first and second separate continuous conductor areas, wherein the first conductor area is generally at one end of the substrate and the second conductor area is generally at the other end of the substrate, wherein a first direction extends between the ends; wherein the first conductor area has two arms, one on each outer side, and the two first conductor area arms extend parallel to the first direction, and define a first slot between them, wherein the second conductor area has two arms with a second slot defined between them, and the two second conductor area arms extend parallel to the first direction, wherein the two second conductor area arms sit within the first slot with a portion of the first slot at the outer sides of the two second conductor area arms; a first antenna feed which bridges the end of one of the two second conductor area arms and the base of the first slot; and a second antenna feed which bridges the end of the other of the two second conductor area arms and the base of the first slot. a planar substrate; a conductor pattern printed on one side of the substrate wherein the conductor pattern comprises first and second separate continuous conductor areas, wherein the first conductor area is generally at one end of the substrate and the second conductor area is generally at the other end of the substrate, wherein a first direction extends between the ends; wherein the first conductor area has two arms, one on each outer side, and the two first conductor area arms extend parallel to the first direction, and define a first slot between them, wherein the second conductor area has two arms with a second slot defined between them, and the two second conductor area arms extend parallel to the first direction, wherein the two second conductor area arms sit within the first slot with a portion of the first slot at the outer sides of the two second conductor area arms; a first antenna feed which bridges the end of one of the two second conductor area arms and the base of the first slot; and a second antenna feed which bridges the end of the other of the two second conductor area arms and the base of the first slot.
A method of manufacturing a mold having a recessed pattern, the method comprising: applying a thermosetting resin solution on a surface of a model having a protrusion pattern to form a thermosetting resin film; bringing a separation sheet into close contact with one face of a base plate to prepare the base plate; providing a gap adjustment mechanism around the model having the protrusion pattern and pressing the separation sheet side of the base plate on the gap adjustment mechanism and the thermosetting resin film; heating and curing the thermosetting resin film to form a mold in a state where the base plate is in contact with the thermosetting resin film; releasing the base plate; and releasing the mold from the model in a state where the separation sheet is attached to the mold and then releasing the separation sheet from the mold, wherein the gap adjustment mechanism has a height at which a tip of the protrusion pattern sticks into the separation sheet when the base plate is pressed on the gap adjustment mechanism, and a plurality of molds are joined to form an assembled mold. applying a thermosetting resin solution on a surface of a model having a protrusion pattern to form a thermosetting resin film; bringing a separation sheet into close contact with one face of a base plate to prepare the base plate; providing a gap adjustment mechanism around the model having the protrusion pattern and pressing the separation sheet side of the base plate on the gap adjustment mechanism and the thermosetting resin film; heating and curing the thermosetting resin film to form a mold in a state where the base plate is in contact with the thermosetting resin film; releasing the base plate; and releasing the mold from the model in a state where the separation sheet is attached to the mold and then releasing the separation sheet from the mold, wherein the gap adjustment mechanism has a height at which a tip of the protrusion pattern sticks into the separation sheet when the base plate is pressed on the gap adjustment mechanism, and a plurality of molds are joined to form an assembled mold.
An active noise reduction, ANR, headset earpiece (100;200;300;400) comprising: a first microphone (206;402) disposed on the ANR headset earpiece such that the first microphone is configured to capture a first input signal representing noise traversing a first noise pathway through the ANR headset earpiece; and a second microphone (204;208;404) disposed on the ANR headset earpiece such that the second microphone is configured to capture a second input signal representing noise traversing a second noise pathway through the ANR headset earpiece, wherein the second noise pathway comprises an acoustic path through a port (204;212) of the headset earpiece, wherein positions of the first microphone and the second microphone on the ANR headset earpiece are configured such that a first target level of coherence is achieved at multiple frequencies, the first target level of coherence at a particular frequency representing a fraction of an output signal that can be suppressed using the first input signal and the second input signal together, wherein the coherence is a single number between 0 and 1 at each frequency ω, computed as γ Y X 2 ω = 1 s YY ω S Y X ω S XX − 1 ω S Y X H ω, where S YX ( ω) is a cross-spectrum vector between the input signals and output signal, S XX ( ω) is a cross-spectrum matrix of the input signals, S YY ( ω) is a power spectrum of the output signal and (.) H denotes the Hermitian of a matrix or vector. a first microphone (206;402) disposed on the ANR headset earpiece such that the first microphone is configured to capture a first input signal representing noise traversing a first noise pathway through the ANR headset earpiece; and a second microphone (204;208;404) disposed on the ANR headset earpiece such that the second microphone is configured to capture a second input signal representing noise traversing a second noise pathway through the ANR headset earpiece, wherein the second noise pathway comprises an acoustic path through a port (204;212) of the headset earpiece, wherein positions of the first microphone and the second microphone on the ANR headset earpiece are configured such that a first target level of coherence is achieved at multiple frequencies, the first target level of coherence at a particular frequency representing a fraction of an output signal that can be suppressed using the first input signal and the second input signal together, wherein the coherence is a single number between 0 and 1 at each frequency ω, computed as γ Y X 2 ω = 1 s YY ω S Y X ω S XX − 1 ω S Y X H ω, where S YX ( ω) is a cross-spectrum vector between the input signals and output signal, S XX ( ω) is a cross-spectrum matrix of the input signals, S YY ( ω) is a power spectrum of the output signal and (.) H denotes the Hermitian of a matrix or vector.
A method for manufacturing a security element for security papers, value documents and other data carriers, in which - a substrate is at least partially supplied with a laser-sensitive recording layer which has a visual initial appearance and which consists of an ink mixture having at least one laser-absorbent mixture component, - the laser-sensitive recording layer is exposed to a first laser radiation with first laser parameters in a first partial region (26, 54, 84) in order to produce there a first target appearance that has been changed relative to the initial appearance, - the laser-sensitive recording layer is exposed to a second laser radiation with second, different laser parameters in a second partial region (28, 56, 58, 82) in order to produce there a second target appearance that has been changed relative to the initial appearance and that is different from the first target appearance, characterized in that - the first and second laser radiation are produced with only one laser source and only one optical imaging system (38, 40, 42), and the first and second partial regions are thereby produced in mutual register, and - the laser-sensitive recording layer is removed entirely by the first laser radiation and the first target appearance consists in the appearance of the substrate. - a substrate is at least partially supplied with a laser-sensitive recording layer which has a visual initial appearance and which consists of an ink mixture having at least one laser-absorbent mixture component, - the laser-sensitive recording layer is exposed to a first laser radiation with first laser parameters in a first partial region (26, 54, 84) in order to produce there a first target appearance that has been changed relative to the initial appearance, - the laser-sensitive recording layer is exposed to a second laser radiation with second, different laser parameters in a second partial region (28, 56, 58, 82) in order to produce there a second target appearance that has been changed relative to the initial appearance and that is different from the first target appearance, - the first and second laser radiation are produced with only one laser source and only one optical imaging system (38, 40, 42), and the first and second partial regions are thereby produced in mutual register, and - the laser-sensitive recording layer is removed entirely by the first laser radiation and the first target appearance consists in the appearance of the substrate.
Sealing web characterized in that the sealing web has a composition containing a base polymer, a polymeric plasticiser and a polyacrylate, wherein polyvinyl chloride is the base polymer and the polymeric plasticiser is an adipic acid polyester having a mean molecular weight of 5,000 to 8,000 and the composition contains between 8 % w/w and 25 % w/w polyacrylate, that the sealing web has a fibre reinforcement, and that the sealing web is provided at least on one side with a cold self-adhesive layer.
A device for isolating an analyte from a body fluid sample, wherein the analyte is part of a target contained in the body fluid sample, said device comprising: - at least two types of magnetic particles (8, 12), wherein a first type of magnetic particle is capable to bind a target to form a first complex for purifying the target from the body fluid sample, and wherein a second type of magnetic particle is capable to bind an analyte contained in the target to form a second complex for isolating the analyte; - at least three chambers (16, 18, 20) arranged in series and configured to include fluids, to allow controlled movement of the magnetic particles (8, 12) and to prevent the mixing of fluids, wherein a first chamber enables forming of the first complex by binding of the first magnetic particle to the target, wherein a second chamber enables releasing the analyte from the target and forming of the second complex by binding of the second magnetic particle to the analyte, and wherein a third chamber enables eluting the analyte from the second magnetic particle and isolating the analyte from the body fluid sample; - an inlet for the introduction of the body fluid sample to one of the chambers (16, 18, 20); and - at least one fluid for releasing the analyte from the target. - at least two types of magnetic particles (8, 12), wherein a first type of magnetic particle is capable to bind a target to form a first complex for purifying the target from the body fluid sample, and wherein a second type of magnetic particle is capable to bind an analyte contained in the target to form a second complex for isolating the analyte; - at least three chambers (16, 18, 20) arranged in series and configured to include fluids, to allow controlled movement of the magnetic particles (8, 12) and to prevent the mixing of fluids, wherein a first chamber enables forming of the first complex by binding of the first magnetic particle to the target, wherein a second chamber enables releasing the analyte from the target and forming of the second complex by binding of the second magnetic particle to the analyte, and wherein a third chamber enables eluting the analyte from the second magnetic particle and isolating the analyte from the body fluid sample; - an inlet for the introduction of the body fluid sample to one of the chambers (16, 18, 20); and - at least one fluid for releasing the analyte from the target.
An input apparatus, comprising: a conductive layer having flexibility; a capacitance-type sensor layer including a plurality of detection units; and a structure layer (25, 125) being disposed between the conductive layer and the sensor layer, wherein the structure layer (25, 125) includes an uneven layer having a plurality of protruded portions, characterized in that the plurality of protruded portions are configured such that a reaction force of the plurality of protruded portions is non-linearly changed with respect to a pressing amount, wherein the plurality of protruded portions is disposed in an operation area corresponding to the detection units. a conductive layer having flexibility; a capacitance-type sensor layer including a plurality of detection units; and a structure layer (25, 125) being disposed between the conductive layer and the sensor layer, wherein the structure layer (25, 125) includes an uneven layer having a plurality of protruded portions, characterized in that the plurality of protruded portions are configured such that a reaction force of the plurality of protruded portions is non-linearly changed with respect to a pressing amount, wherein the plurality of protruded portions is disposed in an operation area corresponding to the detection units.
A coextruded multilayer film comprising at least two layers comprising: a sealant layer comprising a first ethylene-based polymer having a density from 0.865 g/cc to 0.930 g/cc, measured in accordance with ASTM D792, Method B, and a melt index from 0.5 g/10 min to 25 g/10 min, measured in accordance with ASTM D-1238-04 (190 °C/2.16kg); an unsaturated primary fatty acid amide having a melting point of 100°C or less, determined with a method disclosed in the description; a diprotic fatty acid having a melting point greater than 100°C, determined with a method disclosed in the description, and a decomposition temperature greater than 200°C, determined with a method disclosed in the description; and a second layer in contact with the sealant layer, the second layer comprising a second ethylene-based polymer. a sealant layer comprising a first ethylene-based polymer having a density from 0.865 g/cc to 0.930 g/cc, measured in accordance with ASTM D792, Method B, and a melt index from 0.5 g/10 min to 25 g/10 min, measured in accordance with ASTM D-1238-04 (190 °C/2.16kg); an unsaturated primary fatty acid amide having a melting point of 100°C or less, determined with a method disclosed in the description; a diprotic fatty acid having a melting point greater than 100°C, determined with a method disclosed in the description, and a decomposition temperature greater than 200°C, determined with a method disclosed in the description; and a first ethylene-based polymer having a density from 0.865 g/cc to 0.930 g/cc, measured in accordance with ASTM D792, Method B, and a melt index from 0.5 g/10 min to 25 g/10 min, measured in accordance with ASTM D-1238-04 (190 °C/2.16kg); an unsaturated primary fatty acid amide having a melting point of 100°C or less, determined with a method disclosed in the description; a diprotic fatty acid having a melting point greater than 100°C, determined with a method disclosed in the description, and a decomposition temperature greater than 200°C, determined with a method disclosed in the description; and a second layer in contact with the sealant layer, the second layer comprising a second ethylene-based polymer.
A crankcase heating control system for a heat pump system, the crankcase heating control system comprising: a data receiving module that receives data indicative of a temperature of a compressor of the heat pump system, data indicative of an ambient temperature, and data indicative of a current date and a current time; and characterized by a power control module that selectively applies power to a heater of a crankcase of the compressor and that selectively disables the heater based on the temperature of the compressor, the ambient temperature, the current date, and the current time; a difference module that sets a temperature difference equal to the temperature of the compressor minus the ambient temperature, wherein the power control module disables the heater of the crankcase when the temperature difference is greater than a predetermined temperature difference, and wherein the power control module also disables the heater when all of: a period since the compressor stopped pumping is greater than a predetermined period; the ambient temperature is less than a first predetermined temperature; and the temperature of the compressor is less than the first predetermined temperature. a data receiving module that receives data indicative of a temperature of a compressor of the heat pump system, data indicative of an ambient temperature, and data indicative of a current date and a current time; and characterized by a power control module that selectively applies power to a heater of a crankcase of the compressor and that selectively disables the heater based on the temperature of the compressor, the ambient temperature, the current date, and the current time; a difference module that sets a temperature difference equal to the temperature of the compressor minus the ambient temperature, wherein the power control module disables the heater of the crankcase when the temperature difference is greater than a predetermined temperature difference, and wherein the power control module also disables the heater when all of: a period since the compressor stopped pumping is greater than a predetermined period; the ambient temperature is less than a first predetermined temperature; and the temperature of the compressor is less than the first predetermined temperature.
A device for detecting obstacles that is wearable by a subject on a foot, in particular integrated in an item of footwear that is wearable by said subject, said device comprising at least one ultrasound source for emitting an ultrasound transmission signal and an ultrasound receiver for receiving a corresponding ultrasound signal reflected by an obstacle, a control module for measuring a time of flight (Δt) between emission of the ultrasound transmission signal and reception of the corresponding ultrasound signal reflected by the obstacle and calculating, on the basis of said time of flight (Δt), the distance (d) at which said obstacle is located, said device being characterized in that it comprises an inertial sensor, in particular an acceleration sensor, designed to measure the acceleration of the foot along three axes (x, y, z), and a control module configured for enabling operation of the ultrasound source if said acceleration values measured by said inertial sensor respect a given condition (Cen) for enabling measurement of the time of flight (Δt), said enabling condition (Cen) comprising identifying a position where the foot is resting on a resting surface during the walk.
A computer implemented method comprising: receiving a request for access to at least one semantic network resource from a requesting entity (513, 613, 813, 913), wherein an owner entity (501, 601, 801, 901) manages access to the semantic network resource; transmitting a notification to the requesting entity to initiate a creation of an authorization proxy entity, wherein the authorization proxy entity acts between the at least one semantic network resource and the requesting entity; detecting the authorization proxy entity; causing to transmit a query to determine a decision on whether to accept or deny the requesting entity access to the owner entity of the semantic network; and initiating a deletion of the authorization proxy entity after a result of the decision has been determined. receiving a request for access to at least one semantic network resource from a requesting entity (513, 613, 813, 913), wherein an owner entity (501, 601, 801, 901) manages access to the semantic network resource; transmitting a notification to the requesting entity to initiate a creation of an authorization proxy entity, wherein the authorization proxy entity acts between the at least one semantic network resource and the requesting entity; detecting the authorization proxy entity; causing to transmit a query to determine a decision on whether to accept or deny the requesting entity access to the owner entity of the semantic network; and initiating a deletion of the authorization proxy entity after a result of the decision has been determined.
Antimicrobial composition which contains: (i) - At least one zinc compound selected from zinc oxide, zinc chloride, zinc sulphate, zinc lactate, zinc citrate and zinc carbonate, (ii) - A glycerine monoalkyl ether of the general formula R-O-CH 2 -CHOH-CH 2 OH, wherein R is 2-ethyl hexyl, and (iii) - At least one antioxidant, selected from the group consisting of vitamin E and derivatives thereof, 3-tert-butyl-4-hydroxyanisole and 2,6-ditert-butyl-p-cresol, wherein the weight ratio (w/w) of component (ii) to component (iii) is at least 1000:1. (i) - At least one zinc compound selected from zinc oxide, zinc chloride, zinc sulphate, zinc lactate, zinc citrate and zinc carbonate, (ii) - A glycerine monoalkyl ether of the general formula R-O-CH 2 -CHOH-CH 2 OH, wherein R is 2-ethyl hexyl, and (iii) - At least one antioxidant, selected from the group consisting of vitamin E and derivatives thereof, 3-tert-butyl-4-hydroxyanisole and 2,6-ditert-butyl-p-cresol,