mhurhangee/ep-ind-claims huggingface dataset:
An aerosol-generating device comprising: a housing; a cavity for receiving an aerosol-generating article; an aperture at least partially defined by the housing, wherein the aperture is positioned at an end of the cavity for insertion of an aerosol-generating article into the cavity through the aperture; a cover element arranged for movement with respect to the housing between a closed position in which the cover element at least partially covers the aperture and an open position in which the aperture is at least partially uncovered; a sensor arranged to provide an electrical signal indicative of the position of the cover element with respect to the aperture; an indicator element arranged for movement with respect to the sensor when the cover element is moved between the closed position and the open position, wherein the electrical signal provided by the sensor is determined by the position of the indicator element relative to the sensor; and a mechanical linkage, wherein the indicator element is arranged for movement with respect to the cover element, and wherein the mechanical linkage is arranged to translate movement of the cover element between the closed position and the open position into movement of the indicator element with respect to the sensor. a housing; a cavity for receiving an aerosol-generating article; an aperture at least partially defined by the housing, wherein the aperture is positioned at an end of the cavity for insertion of an aerosol-generating article into the cavity through the aperture; a cover element arranged for movement with respect to the housing between a closed position in which the cover element at least partially covers the aperture and an open position in which the aperture is at least partially uncovered; a sensor arranged to provide an electrical signal indicative of the position of the cover element with respect to the aperture; an indicator element arranged for movement with respect to the sensor when the cover element is moved between the closed position and the open position, wherein the electrical signal provided by the sensor is determined by the position of the indicator element relative to the sensor; and a mechanical linkage, wherein the indicator element is arranged for movement with respect to the cover element, and wherein the mechanical linkage is arranged to translate movement of the cover element between the closed position and the open position into movement of the indicator element with respect to the sensor.
A method, comprising: receiving information related to a network access attempt on a first computing device, the network access being associated with a software process on the first computing device and the information identifying software program files associated with the network access attempt, said software program files being determined by querying a process traffic mapping data base mapping software processes to software program files; determining respective trust statuses for each of the software program files; and creating a restriction rule to block the network traffic associated with the software process if any one or more of the trust statuses is untrusted. receiving information related to a network access attempt on a first computing device, the network access being associated with a software process on the first computing device and the information identifying software program files associated with the network access attempt, said software program files being determined by querying a process traffic mapping data base mapping software processes to software program files; determining respective trust statuses for each of the software program files; and creating a restriction rule to block the network traffic associated with the software process if any one or more of the trust statuses is untrusted.
A method for determining a mass of feedstock discharged by a conveyor during a first time interval Δt into a metallurgical furnace, wherein said method comprises: taking digital images of the feedstock in a specific zone of said conveyor, wherein two successive images are separated by a second time interval δt ≤ Δt; for each of said second time intervals δt: computing the advancing distance of a sub-volume of feedstock during said second time interval δt in said specific zone of said conveyor by numerical processing of the two successive images (32, 34) associated with said second time interval δt; determining at least one transversal height profile of said sub-volume of feedstock; determining an effective feedstock density for said sub-volume of feedstock; and computing said mass of feedstock discharged by said conveyor during the first time interval Δt into the furnace on the basis of said advancing distance, said at least one transversal height profiles and said effective feedstock density, computed or determined for each of said second time intervals δt. taking digital images of the feedstock in a specific zone of said conveyor, wherein two successive images are separated by a second time interval δt ≤ Δt; for each of said second time intervals δt: computing the advancing distance of a sub-volume of feedstock during said second time interval δt in said specific zone of said conveyor by numerical processing of the two successive images (32, 34) associated with said second time interval δt; determining at least one transversal height profile of said sub-volume of feedstock; determining an effective feedstock density for said sub-volume of feedstock; and computing the advancing distance of a sub-volume of feedstock during said second time interval δt in said specific zone of said conveyor by numerical processing of the two successive images (32, 34) associated with said second time interval δt; determining at least one transversal height profile of said sub-volume of feedstock; determining an effective feedstock density for said sub-volume of feedstock; and computing said mass of feedstock discharged by said conveyor during the first time interval Δt into the furnace on the basis of said advancing distance, said at least one transversal height profiles and said effective feedstock density, computed or determined for each of said second time intervals δt.
A method of wireless power transmission comprising: providing wireless power from a transmit antenna to a receive antenna of a wireless power receiver, wherein the transmit antenna is surrounded by a plurality of metallic plates (V1-V8); exciting a first plate of the plurality of metallic plates, via the wireless power provided from the transmit antenna; detecting, in the presence of a non-charging object, a first change in a first parameter indicative of a coupling between the non-charging object and the first plate; and varying a characteristic of the wireless power transmission based on said first change; wherein the method is further for determining a distance of an object from a transmit antenna, the method further comprising: exciting, via the wireless power provided from the transmit antenna, a second plate of the plurality of metallic plates, the second plate being displaced from the first plate such that each of the plates reacts to a presence of an object in a different location; detecting, in the presence of the non-charging object, a second change in a second parameter indicative of a coupling between the non-charging object and the second plate; and comparing said first and second changes to determine a location of said object. providing wireless power from a transmit antenna to a receive antenna of a wireless power receiver, wherein the transmit antenna is surrounded by a plurality of metallic plates (V1-V8); exciting a first plate of the plurality of metallic plates, via the wireless power provided from the transmit antenna; detecting, in the presence of a non-charging object, a first change in a first parameter indicative of a coupling between the non-charging object and the first plate; and varying a characteristic of the wireless power transmission based on said first change; wherein the method is further for determining a distance of an object from a transmit antenna, the method further comprising: exciting, via the wireless power provided from the transmit antenna, a second plate of the plurality of metallic plates, the second plate being displaced from the first plate such that each of the plates reacts to a presence of an object in a different location; detecting, in the presence of the non-charging object, a second change in a second parameter indicative of a coupling between the non-charging object and the second plate; and comparing said first and second changes to determine a location of said object. exciting, via the wireless power provided from the transmit antenna, a second plate of the plurality of metallic plates, the second plate being displaced from the first plate such that each of the plates reacts to a presence of an object in a different location; detecting, in the presence of the non-charging object, a second change in a second parameter indicative of a coupling between the non-charging object and the second plate; and comparing said first and second changes to determine a location of said object.
Driving assistance method for a motor vehicle when approaching a speed bump, comprising: - a step (S 1) of detecting and tracking at least one other moving vehicle (4 1) in front of the motor vehicle based on processing images captured by a camera on board said motor vehicle; - a step (S 2) of establishing a temporal profile of the estimated distance between said motor vehicle and said at least one detected and followed other moving vehicle (4 1); - a step (S 3) of detecting an anomaly area in said temporal profile; and - a step (S 4) of estimating a distance d bump between said motor vehicle and a speed bump on the basis of a distance between the motor vehicle and said at least one other vehicle (4 1), estimated at a time t bump separate from the times corresponding to the detected anomaly area. - a step (S 1) of detecting and tracking at least one other moving vehicle (4 1) in front of the motor vehicle based on processing images captured by a camera on board said motor vehicle; - a step (S 2) of establishing a temporal profile of the estimated distance between said motor vehicle and said at least one detected and followed other moving vehicle (4 1); - a step (S 3) of detecting an anomaly area in said temporal profile; and - a step (S 4) of estimating a distance d bump between said motor vehicle and a speed bump on the basis of a distance between the motor vehicle and said at least one other vehicle (4 1), estimated at a time t bump separate from the times corresponding to the detected anomaly area.
A liquid ejecting apparatus including a moving unit configured to make a relative movement between at least one liquid ejecting unit, having an ejection port for ejecting liquid, and a print medium, the print medium being placed at a predetermined interval with respect to the liquid ejecting unit, the liquid ejecting apparatus comprising: at least one mist removing unit provided downstream of the at least one liquid ejecting unit in a movement direction in which the print medium is moved in the case of relative movement, the mist removing unit comprising: at least one suction hole configured to suck air existing in a region defined by the liquid ejecting unit and the print medium together with mist; and at least one blowing hole that is formed downstream of the suction hole in the movement direction, the blowing hole configured to blow air toward the print medium, wherein the suction hole sucks air existing in the region and at the same time the blowing hole blows air toward the print medium, so that a vortex of gas is generated downstream of the suction hole between the suction hole and the blowing hole, a relationship expressed by the following expression is satisfied: γ ≥ h / 3 where γ represents a maximum vortex core radius (mm) of the vortex in a direction perpendicular to the print medium, and h represents a distance (mm) between the mist removing unit and the print medium, and a relationship expressed by the following expression is satisfied: v ≤ − 1.82 ⁢ L + 28.2 where L represents a distance (mm) between the suction hole and the blowing hole, v represents a rate (m/s) of an airflow produced by blowing air through the blowing hole, and the constant values of -1.82 and 28.2 in the relationship have units of (m/(s·mm)) and (m/s), respectively. at least one suction hole configured to suck air existing in a region defined by the liquid ejecting unit and the print medium together with mist; and at least one blowing hole that is formed downstream of the suction hole in the movement direction, the blowing hole configured to blow air toward the print medium, wherein the suction hole sucks air existing in the region and at the same time the blowing hole blows air toward the print medium, so that a vortex of gas is generated downstream of the suction hole between the suction hole and the blowing hole, a relationship expressed by the following expression is satisfied: γ ≥ h / 3 where γ represents a maximum vortex core radius (mm) of the vortex in a direction perpendicular to the print medium, and h represents a distance (mm) between the mist removing unit and the print medium, and a relationship expressed by the following expression is satisfied: v ≤ − 1.82 ⁢ L + 28.2 where L represents a distance (mm) between the suction hole and the blowing hole, v represents a rate (m/s) of an airflow produced by blowing air through the blowing hole, and the constant values of -1.82 and 28.2 in the relationship have units of (m/(s·mm)) and (m/s), respectively.
A living hinge closure comprising: a first high-density polyethylene (HDPE) resin with the following characteristics: a. Melt Index of 0.5 dg/min to 10 dg/min, b. Density of 0.940 g/cm 3 to 0.968 g/cm 3, and c. Melt Flow Ratio Greater than 25; wherein density measurements were made in accordance with ASTM D792; wherein melt index measurements were made in accordance with ASTM D1238 at a temperature of 190 °C and at a load of 2.16 kg; and wherein the melt flow ratio is defined as the ratio of flow index divided by the melt index: and a second HDPE, that is different from the first HDPE, having a melt flow ratio less than 30. a first high-density polyethylene (HDPE) resin with the following characteristics: a. Melt Index of 0.5 dg/min to 10 dg/min, b. Density of 0.940 g/cm 3 to 0.968 g/cm 3, and c. Melt Flow Ratio Greater than 25; wherein a. Melt Index of 0.5 dg/min to 10 dg/min, b. Density of 0.940 g/cm 3 to 0.968 g/cm 3, and c. Melt Flow Ratio Greater than 25; wherein density measurements were made in accordance with ASTM D792; wherein melt index measurements were made in accordance with ASTM D1238 at a temperature of 190 °C and at a load of 2.16 kg; and wherein the melt flow ratio is defined as the ratio of flow index divided by the melt index: and a second HDPE, that is different from the first HDPE, having a melt flow ratio less than 30.
An Ehrlichia canis vaccine, wherein the vaccine comprises (i) an attenuated strain of Ehrlichia canis having the accession number PCM B/00023, and (ii) a pharmaceutically acceptable carrier.
A method of making a fiber comprised of poly(p-phenylene terephthalamide) having monomer groups grafted onto the fiber surface, the method comprising the steps of: (i) providing a fiber of poly(p-phenylene terephthalamide) that has been dried to remove adsorbed moisture, (ii) treating the fiber, in a non-polar solvent that will not dissolve the fiber, with a phosphazene base that exhibits a pKa in dimethylsulfoxide of at least 21 so as to generate anions at the amide sites on the surface of the poly(p-phenylene terephthalamide) fiber, and (iii) grafting a monomer onto the anion sites so as to introduce reactive functional groups onto the surface of the poly(p-phenylene terephthalamide) fiber. (i) providing a fiber of poly(p-phenylene terephthalamide) that has been dried to remove adsorbed moisture, (ii) treating the fiber, in a non-polar solvent that will not dissolve the fiber, with a phosphazene base that exhibits a pKa in dimethylsulfoxide of at least 21 so as to generate anions at the amide sites on the surface of the poly(p-phenylene terephthalamide) fiber, and (iii) grafting a monomer onto the anion sites so as to introduce reactive functional groups onto the surface of the poly(p-phenylene terephthalamide) fiber.
A tablet portioning device comprising a plurality of tablet containers, a collection device arranged below the tablet containers having a dispensing device, and a packaging device for packaging tablet portions in portions, wherein the collection device receives tablets from the tablet containers and dispenses the same as tablet portions via the dispensing device, wherein a conveying device having multiple conveying trays and extending in a conveying direction connects the dispensing device with the packaging device, wherein the dispensing device dispenses a respective tablet portion into one of the conveying trays and the conveying device transports the tablet portions to the packaging device, characterized in that the conveying device is supported on a rail device and can be moved via the rail device in a horizontal direction transverse to the conveying direction of the conveying device from a transport position, in which the conveying device transports tablet portions from the dispensing device to the packaging device, to a parking position.
Service and cleaning trolley that can be pushed by hand, having an undercarriage and having a plurality of rollers mounted on the undercarriage, wherein four side struts that form a basic framework for a structure of the service and cleaning trolley are furthermore provided, and wherein the side struts are formed from a metal system profile, characterized in that, in the mounted state, a support (32, 34) that can be folded out is arranged between two metal system profiles, wherein the support (32, 34) has at least one fastening frame, which can be clipped in the metal system profiles without fastening means, at least one support surface, which can be pivoted with respect to the fastening frame, and at least one fixing bracket, by means of which, in the folded-out state of the support surface, the position of the support surface relative to the fastening frame is fixed.
An identification device adapted to determine authenticity of an article with an anti-counterfeiting medium varying in a pattern of observed light depending on changes in light characteristics of radiated light, using the anti-counterfeiting medium, comprising: an imaging unit adapted to capture image data of the anti-counterfeiting medium; an observation angle estimation unit adapted to determine an imaging viewpoint as information that includes an imaging coordinate value indicating the position of the anti-counterfeiting medium imaged to obtain the captured image data in a three-dimensional space and the observation angle of imaging by the imaging unit; a usable image selection unit adapted to select captured image data usable in an authenticity determination process from the captured image data obtained by the imaging unit by determining whether the observation angle of the captured image data falls within a determinable angle range at which an authenticity determination is possible; a similarity calculation unit adapted to determine degrees of similarity between a plurality of captured image data of the anti-counterfeiting medium obtained with differences in the light characteristics of the radiated light and reference image data corresponding to the light characteristics; and an authenticity determination unit adapted to determine whether the degrees of similarity determined for the individual light characteristics exceed thresholds set corresponding to the individual light characteristics to make an authenticity determination on whether the anti-counterfeiting medium is genuine. an imaging unit adapted to capture image data of the anti-counterfeiting medium; an observation angle estimation unit adapted to determine an imaging viewpoint as information that includes an imaging coordinate value indicating the position of the anti-counterfeiting medium imaged to obtain the captured image data in a three-dimensional space and the observation angle of imaging by the imaging unit; a usable image selection unit adapted to select captured image data usable in an authenticity determination process from the captured image data obtained by the imaging unit by determining whether the observation angle of the captured image data falls within a determinable angle range at which an authenticity determination is possible; a similarity calculation unit adapted to determine degrees of similarity between a plurality of captured image data of the anti-counterfeiting medium obtained with differences in the light characteristics of the radiated light and reference image data corresponding to the light characteristics; and an authenticity determination unit adapted to determine whether the degrees of similarity determined for the individual light characteristics exceed thresholds set corresponding to the individual light characteristics to make an authenticity determination on whether the anti-counterfeiting medium is genuine.
A computer-implemented method of patient monitoring following endovascular aneurysm repair with a bifurcated stent graft having a stent body and two stent legs defining a bifurcation point at the junction of the two legs, the method comprising the steps of: receiving a previously generated first 3D volume scan of the stent in situ; providing a second 3D volume scan of the stent in situ; generating one or more fiducial markers in a first image derived from the first scan and in a second image derived from the second scan, wherein one of the fiducial markers is the bifurcation point; extracting a rigid 3D transform mapping based on the one or more fiducial markers; applying a registration to the first and second scans based on the 3D rigid transform between the first and second images; deriving a size value at the same location in the aneurysm from the first and second scans, where the same location is determined with reference to the registered first and second images of the stent; and comparing the size value from the first and second scans to assess a change in size of the aneurysm between the first and second scans. receiving a previously generated first 3D volume scan of the stent in situ; providing a second 3D volume scan of the stent in situ; generating one or more fiducial markers in a first image derived from the first scan and in a second image derived from the second scan, wherein one of the fiducial markers is the bifurcation point; extracting a rigid 3D transform mapping based on the one or more fiducial markers; applying a registration to the first and second scans based on the 3D rigid transform between the first and second images; deriving a size value at the same location in the aneurysm from the first and second scans, where the same location is determined with reference to the registered first and second images of the stent; and comparing the size value from the first and second scans to assess a change in size of the aneurysm between the first and second scans.
A medicament for use for inhibiting platelet aggregation, comprising atractylenolide compound, wherein said atractylenolide compound has the structural formula shown in the following formula: wherein, R1 represents H or C1-C10 linear or branched alkyl, R2 represents H or C1-C10 linear or branched alkyl, and R3 represents H.