mhurhangee/patent-ind-claim-en huggingface dataset:
A system for reducing microorganisms at a surface or a cross-section of air, the system comprising: - a light assembly comprising: - a first distinct blue light source having a first peak wavelength of 400-410 nm with a full width half maximum of at most 25 nm, the first peak having a first time averaged intensity I 1 , to target a first photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; and - a processor communicably coupled to the light assembly to control the time averaged intensities of the blue light sources such that the time averaged intensity of the first blue light is from 0.67 to 1.33 times the time averaged intensity of the second blue light source. - a light assembly comprising: - a first distinct blue light source having a first peak wavelength of 400-410 nm with a full width half maximum of at most 25 nm, the first peak having a first time averaged intensity I 1 , to target a first photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; and - a processor communicably coupled to the light assembly to control the time averaged intensities of the blue light sources such that the time averaged intensity of the first blue light is from 0.67 to 1.33 times the time averaged intensity of the second blue light source. - a first distinct blue light source having a first peak wavelength of 400-410 nm with a full width half maximum of at most 25 nm, the first peak having a first time averaged intensity I 1 , to target a first photoreactive component of the microorganisms; - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; and - a second distinct blue light source having a second peak wavelength of 440-464 nm with a full width half maximum of at most 25 nm, the second peak having a second time averaged intensity I 2 , to target a second photoreactive component of the microorganisms; and - a processor communicably coupled to the light assembly to control the time averaged intensities of the blue light sources such that the time averaged intensity of the first blue light is from 0.67 to 1.33 times the time averaged intensity of the second blue light source.
An elastic nonwoven fabric comprising a nonwoven web that is made of a plurality of fibers, which fibers are bicomponent fibers which each comprise a first component and a second component, wherein the first component is present in an amount in the range of from 80-95% by weight and the second component is present in an amount in the range of from 5-20% by weight, both weights based on the total weight of each fiber; wherein the first component comprises an ethylene/a-olefin copolymer and the second component comprises a linear low density polyethylene having a density in the range of from 0.93-0.95 g/cm 3 as determined with ASTM D792; wherein in the ethylene/a-olefin copolymer the amount of α-olefin present is in the range of from 2-70 mole %, based on the total copolymer; wherein the bicomponent fibers have a core-sheath structure in which the core part comprises the first component and the sheath part comprises the second component; wherein the first component and the second component both have a melt flow rate in the range of from 10-40 g/10min as determined with ASTM D1238 (190°C, 2.16 kg); and wherein the nonwoven web comprises a side which is provided with a pattern of individualized bonded areas, wherein the surface of the bonded areas is in the range of 8-25%, based on the total surface of the side.
Camera monitoring system for a side region of a vehicle, the camera monitoring system comprising: an image capture unit for the simultaneous capture of image data for a first ground region and for a second ground region on at least one side of the vehicle; and an image analysis unit that is designed to separate image data for the first ground region from image data for the second ground region to enable an independent display, characterized in that the image capture unit comprises the following camera units : - a first camera unit with a fish-eye lens to simultaneously capture a front region in front of the vehicle, the first ground region , the second ground region and a third ground region when attached to a front corner of the vehicle on the passenger side ; - a second camera unit for capturing image data on a passenger side of the vehicle; - a third camera unit for capturing image data on a driver side of the vehicle; - a fourth camera unit with a fish-eye lens to simultaneously capture the front region , the first ground region , the second ground region and a third ground region when attached to a front corner of the vehicle on the driver side. an image capture unit for the simultaneous capture of image data for a first ground region and for a second ground region on at least one side of the vehicle; and an image analysis unit that is designed to separate image data for the first ground region from image data for the second ground region to enable an independent display, - a first camera unit with a fish-eye lens to simultaneously capture a front region in front of the vehicle, the first ground region , the second ground region and a third ground region when attached to a front corner of the vehicle on the passenger side ; - a second camera unit for capturing image data on a passenger side of the vehicle; - a third camera unit for capturing image data on a driver side of the vehicle; - a fourth camera unit with a fish-eye lens to simultaneously capture the front region , the first ground region , the second ground region and a third ground region when attached to a front corner of the vehicle on the driver side.
A building radar-camera system , comprising: - one or more memory devices storing instructions thereon that, when executed by one or more processors , cause the one or more processors to: - receive one or more images from a camera , the one or more images comprising first locations within the one or more images of one or more points on a world-plane ; - receive radar data from a radar system , the radar data indicating second locations on the world-plane of the one or more points; - receive a correspondence between the first locations and the second locations of the one or more points, the correspondence associating each of the first locations with one of the second locations; and - generate a sphere-to-plane homography, the sphere-to-plane homography translating between points captured by the camera modeled on a unit-sphere and the world-plane based on the correspondence between the first locations and the second locations, by performing an optimization to identify values for the sphere-to-plane homography that minimize one or more error values. - one or more memory devices storing instructions thereon that, when executed by one or more processors , cause the one or more processors to: - receive one or more images from a camera , the one or more images comprising first locations within the one or more images of one or more points on a world-plane ; - receive radar data from a radar system , the radar data indicating second locations on the world-plane of the one or more points; - receive a correspondence between the first locations and the second locations of the one or more points, the correspondence associating each of the first locations with one of the second locations; and - generate a sphere-to-plane homography, the sphere-to-plane homography translating between points captured by the camera modeled on a unit-sphere and the world-plane based on the correspondence between the first locations and the second locations, by performing an optimization to identify values for the sphere-to-plane homography that minimize one or more error values. - receive one or more images from a camera , the one or more images comprising first locations within the one or more images of one or more points on a world-plane ; - receive radar data from a radar system , the radar data indicating second locations on the world-plane of the one or more points; - receive a correspondence between the first locations and the second locations of the one or more points, the correspondence associating each of the first locations with one of the second locations; and - generate a sphere-to-plane homography, the sphere-to-plane homography translating between points captured by the camera modeled on a unit-sphere and the world-plane based on the correspondence between the first locations and the second locations, by performing an optimization to identify values for the sphere-to-plane homography that minimize one or more error values.
A method for controlling an uninterruptible power supply (UPS) having a polyphase power input and an input power circuit coupled to the polyphase power input , the method comprising acts of: determining to reduce a load on a first phase of the polyphase power input ; characterised by , in response thereto, controlling the input power circuit to reduce a magnitude of a first input current drawn from the first phase by a first amount and increase a magnitude of at least one second input current drawn from at least one second phase of the polyphase power input by a second amount such that the magnitude of first input current drawn is not equal to the magnitude of second input current drawn. determining to reduce a load on a first phase of the polyphase power input ; characterised by , in response thereto, controlling the input power circuit to reduce a magnitude of a first input current drawn from the first phase by a first amount and increase a magnitude of at least one second input current drawn from at least one second phase of the polyphase power input by a second amount such that the magnitude of first input current drawn is not equal to the magnitude of second input current drawn.
A method comprising: a) providing initial starting genetic material comprising cell free polynucleotides; b) converting polynucleotides from the initial starting genetic material into tagged parent polynucleotides by ligating oligonucleotides comprising non-unique barcodes to the cell free polynucleotides such that the combination of the barcode and the sequence of the cell free polynucleotide creates a unique sequence that may be individually tracked, wherein the ligation conditions comprise the use of over an 80X molar excess of barcode oligonucleotides as compared to the cell free polynucleotides; c) amplifying the tagged parent polynucleotides to produce amplified progeny polynucleotides; d) sequencing a subset of the amplified progeny polynucleotides to produce sequence reads; e) grouping the sequence reads into families, each family generated from a unique tagged parent polynucleotide from step (b); and f) producing a representation of information in the tagged parent polynucleotides and/or initial starting genetic material with reduced noise and/or distortion compared with sequence reads within a family. a) providing initial starting genetic material comprising cell free polynucleotides; b) converting polynucleotides from the initial starting genetic material into tagged parent polynucleotides by ligating oligonucleotides comprising non-unique barcodes to the cell free polynucleotides such that the combination of the barcode and the sequence of the cell free polynucleotide creates a unique sequence that may be individually tracked, wherein the ligation conditions comprise the use of over an 80X molar excess of barcode oligonucleotides as compared to the cell free polynucleotides; c) amplifying the tagged parent polynucleotides to produce amplified progeny polynucleotides; d) sequencing a subset of the amplified progeny polynucleotides to produce sequence reads; e) grouping the sequence reads into families, each family generated from a unique tagged parent polynucleotide from step (b); and f) producing a representation of information in the tagged parent polynucleotides and/or initial starting genetic material with reduced noise and/or distortion compared with sequence reads within a family.
A system comprising an implant and a drill guide , wherein the implant comprises a talar dome implant comprising: a body having a bone contact surface and an articulation surface ; and a first flange extending longitudinally from the bone contact surface, the flange defining a first screw hole configured to receive a targeted screw therethrough, and wherein the drill guide comprises: a first portion configured to couple to the articulation surface of the implant ; and a second portion extending longitudinally from the first portion , the second portion defining a first drill guide hole sized and configured to receive a drill therethrough, said system being characterized in that said articulation surface comprises a first hemisphere and a second hemisphere that are configured to mimic articulation of a talar dome with respect to a tibia, in that said first portion has a curvature and cross-section configured to match a curvature and cross-section of the articulation surface of the implant and in that said drill guide hole comprises a predetermined angle such that the drill extending through the drill guide hole will pass through said first screw hole in said first flange . a body having a bone contact surface and an articulation surface ; and a first flange extending longitudinally from the bone contact surface, the flange defining a first screw hole configured to receive a targeted screw therethrough, and wherein the drill guide comprises: a first portion configured to couple to the articulation surface of the implant ; and a second portion extending longitudinally from the first portion , the second portion defining a first drill guide hole sized and configured to receive a drill therethrough, said system being characterized in that said articulation surface comprises a first hemisphere and a second hemisphere that are configured to mimic articulation of a talar dome with respect to a tibia, in that said first portion has a curvature and cross-section configured to match a curvature and cross-section of the articulation surface of the implant and in that said drill guide hole comprises a predetermined angle such that the drill extending through the drill guide hole will pass through said first screw hole in said first flange . a first portion configured to couple to the articulation surface of the implant ; and a second portion extending longitudinally from the first portion , the second portion defining a first drill guide hole sized and configured to receive a drill therethrough,
A method for preparing a hydraulic composition comprising a step consisting of putting a hydraulic composition or a constituent of a hydraulic composition in contact with a compound of the following formula (I): R-COO - , (M n+ ) 1/n (I) wherein : - R represents a group selected from H, an alkyl and a phenyl, - n represents an integer comprised between 1 and 5, - M n+ represents a cation selected from : - H + , - a divalent, trivalent or tetravalent metal cation, and - a group [HNR 1 R 2 R 3 ] n+ , wherein R 1 , R 2 , and R 3 represent independently of each other, H or a linear, branched or cyclic, saturated or unsaturated hydrocarbon chain, optionally aromatic, optionally substituted with one or several substituents selected from a hydroxyl and a group NR 4 R 5 , wherein R 4 and R 5 represent independently H or an alkyl optionally substituted with a group NR 6 R 7 , wherein R 6 and R 7 represent independently H or an alkyl, it being understood that the groups R 1 , R 2 , and R 3 may be bound together and form a ring with the nitrogen atom bearing them, so that the prepared hydraulic composition comprises from 0.005 to 2% by weigh of compound of formula (I). - R represents a group selected from H, an alkyl and a phenyl, - n represents an integer comprised between 1 and 5, - M n+ represents a cation selected from : - H + , - a divalent, trivalent or tetravalent metal cation, and - a group [HNR 1 R 2 R 3 ] n+ , wherein R 1 , R 2 , and R 3 represent independently of each other, H or a linear, branched or cyclic, saturated or unsaturated hydrocarbon chain, optionally aromatic, optionally substituted with one or several substituents selected from a hydroxyl and a group NR 4 R 5 , wherein R 4 and R 5 represent independently H or an alkyl optionally substituted with a group NR 6 R 7 , wherein R 6 and R 7 represent independently H or an alkyl, it being understood that the groups R 1 , R 2 , and R 3 may be bound together and form a ring with the nitrogen atom bearing them, - H + , - a divalent, trivalent or tetravalent metal cation, and - a group [HNR 1 R 2 R 3 ] n+ , wherein R 1 , R 2 , and R 3 represent independently of each other, H or a linear, branched or cyclic, saturated or unsaturated hydrocarbon chain, optionally aromatic, optionally substituted with one or several substituents selected from a hydroxyl and a group NR 4 R 5 , wherein R 4 and R 5 represent independently H or an alkyl optionally substituted with a group NR 6 R 7 , wherein R 6 and R 7 represent independently H or an alkyl,
A dosimeter comprising: a first transistor that is doped in accordance with a first conductivity type; a second transistor that is doped in accordance with a second conductivity type, different than the first conductivity type, wherein the first and second transistors are configured to generate respective outputs that shift in opposite directions in response to radiation; and a circuit element configured to determine a measure of the radiation based upon a difference between the respective outputs of the first and second transistors. a first transistor that is doped in accordance with a first conductivity type; a second transistor that is doped in accordance with a second conductivity type, different than the first conductivity type, wherein the first and second transistors are configured to generate respective outputs that shift in opposite directions in response to radiation; and a circuit element configured to determine a measure of the radiation based upon a difference between the respective outputs of the first and second transistors.
A state estimation apparatus configured to estimate a state of an assembled battery including a plurality of energy storage devices , wherein the energy storage devices each have a correlation between an open circuit voltage, OCV, and a residual capacity, SOC, each of the correlations having a first small-variation region (II) and a second small-variation region (IV), where an OCV variation amount relative to the SOC has a slope less than a predetermined value, and variation regions (I, III, V), where the OCV variation amount relative to the SOC has a slope of at least the predetermined value, including an intermediate region (III) being the variation region between the two small-variation regions (II, IV), characterized in that the state estimation apparatus is configured to estimate an occurrence of an abnormal state of the assembled battery based on a position of the intermediate region (III) in each of the correlations between the OCV and the SOC. wherein the energy storage devices each have a correlation between an open circuit voltage, OCV, and a residual capacity, SOC, each of the correlations having a first small-variation region (II) and a second small-variation region (IV), where an OCV variation amount relative to the SOC has a slope less than a predetermined value, and variation regions (I, III, V), where the OCV variation amount relative to the SOC has a slope of at least the predetermined value, including an intermediate region (III) being the variation region between the two small-variation regions (II, IV), characterized in that the state estimation apparatus is configured to estimate an occurrence of an abnormal state of the assembled battery based on a position of the intermediate region (III) in each of the correlations between the OCV and the SOC.
A phase change memory structure, comprising: a phase change material of a memory cell; and an electrode forming an Ohmic contact with the phase change material, wherein the electrode comprises a carbon tungsten nitrogen material and a resistivity of from 4.0 mΩcm to 30.0 mΩcm; characterized in that the electrode has a tungsten to carbon at% ratio of 4:96. a phase change material of a memory cell; and an electrode forming an Ohmic contact with the phase change material, wherein the electrode comprises a carbon tungsten nitrogen material and a resistivity of from 4.0 mΩcm to 30.0 mΩcm; characterized in that the electrode has a tungsten to carbon at% ratio of 4:96.
A transmission apparatus comprising: a communication unit configured to transmit a transmission signal from the transmission apparatus to a reception apparatus via wireless communication; and a signal processing unit configured to generate the transmission signal in which transmission information of a sensor is spread by using a spreading code selected according to identification information of the transmission apparatus, in order to enable the reception apparatus to acquire the identification information on the basis of an estimation result of the spreading code used for the transmission signal, wherein the signal processing unit is configured to generate the transmission signal by dividing the transmission information into transmission information pieces to be stored in the fields of a wireless frame of the transmission signal, said wireless frame including a preamble field, a Sync Frame Detect, SFD, field and a sensor information field and said transmission information pieces including a preamble, a SFD and sensor information, dividing the identification information into identification information pieces based on the number of transmission information pieces of the transmission information, selecting a spreading code for each identification information piece of the divided identification information, spreading each of the preamble, the SFD and the sensor information of the divided transmission information by using the selected spreading codes, and combining the spread transmission information pieces of the divided transmission information. a communication unit configured to transmit a transmission signal from the transmission apparatus to a reception apparatus via wireless communication; and a signal processing unit configured to generate the transmission signal in which transmission information of a sensor is spread by using a spreading code selected according to identification information of the transmission apparatus, in order to enable the reception apparatus to acquire the identification information on the basis of an estimation result of the spreading code used for the transmission signal, wherein the signal processing unit is configured to generate the transmission signal by dividing the transmission information into transmission information pieces to be stored in the fields of a wireless frame of the transmission signal, said wireless frame including a preamble field, a Sync Frame Detect, SFD, field and a sensor information field and said transmission information pieces including a preamble, a SFD and sensor information, dividing the identification information into identification information pieces based on the number of transmission information pieces of the transmission information, selecting a spreading code for each identification information piece of the divided identification information, spreading each of the preamble, the SFD and the sensor information of the divided transmission information by using the selected spreading codes, and combining the spread transmission information pieces of the divided transmission information.