mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising: a terminal body having a case comprising metal; a finger scan unit located relative to an inner side of the case, wherein the finger scan unit is configured to measure pressure of an external force applied to an outer side of the case and to detect a fingerprint of a finger contacting the outer side of the case; and a controller configured to: identify an output intensity of an ultrasonic wave for detecting the fingerprint based on an amount of the measured pressure; and control the finger scan unit to perform the detecting of the fingerprint based on the identified output intensity of the ultrasonic wave. a terminal body having a case comprising metal; a finger scan unit located relative to an inner side of the case, wherein the finger scan unit is configured to measure pressure of an external force applied to an outer side of the case and to detect a fingerprint of a finger contacting the outer side of the case; and a controller configured to: identify an output intensity of an ultrasonic wave for detecting the fingerprint based on an amount of the measured pressure; and control the finger scan unit to perform the detecting of the fingerprint based on the identified output intensity of the ultrasonic wave. identify an output intensity of an ultrasonic wave for detecting the fingerprint based on an amount of the measured pressure; and control the finger scan unit to perform the detecting of the fingerprint based on the identified output intensity of the ultrasonic wave.
A synergistic microbiocidal composition comprising: (a) a nonionic surfactant with structure: R 2 O(CH 2 CH(CH 3)O) 3 (CH 2 CH 2 O) 7 H where R 2 is a C 12 linear alkyl group; and (b) glutaraldehyde; wherein a weight ratio of the glutaraldehyde to nonionic surfactant is from 17:1 to 1:4.
System comprising a fork shoe for a fork prong of an industrial truck, wherein the fork shoe contains a receptacle space for built-in devices, which receptacle space is arranged at the tip of the fork shoe, and an insertion opening for a module is provided in the region of the tip of the fork shoe, which module contains the built-in devices, wherein the system contains at least one module which can be inserted into the receptacle space of the fork shoe, wherein the module contains one or more of the following built-in devices: - a headlight, in particular an LED headlight, - a camera, in particular a camera which records in a 3-dimensional fashion, such as for example a time-of-flight camera, - an optical code scanner, in particular barcode or QR code scanner, - a flashing indicator light, - signalling lights, - projection lights, in particular a laser, - sensors, in particular distance probes and/or distance sensors, - transmission antennas, - reception antennas, - transmitters, - receivers, - electronic controllers, - a surroundings scanner, in particular a laser scanner; characterized in that the system contains at least two modules which can each be inserted into the receptacle space of the fork shoe, wherein at least two modules which contain the differing built-in devices can be interchanged one for the other, wherein uniform mounting elements are provided for a multiplicity of modules. - a headlight, in particular an LED headlight, - a camera, in particular a camera which records in a 3-dimensional fashion, such as for example a time-of-flight camera, - an optical code scanner, in particular barcode or QR code scanner, - a flashing indicator light, - signalling lights, - projection lights, in particular a laser, - sensors, in particular distance probes and/or distance sensors, - transmission antennas, - reception antennas, - transmitters, - receivers, - electronic controllers, - a surroundings scanner, in particular a laser scanner;
A computer-readable storage medium comprising instructions which, when executed by a computer, cause the computer to carry out steps of a method, wherein the method comprises the steps of: determining an enhanced segmental signal-to-noise ratio SSNR of an audio signal according to a reference SSNR of the audio signal when the audio signal is an unvoiced signal, wherein the enhanced SSNR is greater than the reference SSNR and the reference SSNR is calculated by adding up all sub-band SNRs of the audio signal; and comparing the enhanced SSNR with a voice activity detection VAD decision threshold to determine whether the audio signal is an active signal. determining an enhanced segmental signal-to-noise ratio SSNR of an audio signal according to a reference SSNR of the audio signal when the audio signal is an unvoiced signal, wherein the enhanced SSNR is greater than the reference SSNR and the reference SSNR is calculated by adding up all sub-band SNRs of the audio signal; and comparing the enhanced SSNR with a voice activity detection VAD decision threshold to determine whether the audio signal is an active signal.
A method of decoding video data represented in a multi-view plus depth format according to the 3D-HEVC standard, the method comprising: decoding a unified set of syntax elements that indicates residual information of depth data for the video data coded using any of a plurality of depth coding modes wherein the unified set of syntax elements comprises a syntax element that indicates whether a residual value of the depth data is present and, if present, an absolute value flag and a sign flag of the residual value of the depth data, wherein the same syntax elements for the absolute value flag and for the sign flag are used to indicate the residual information for any of the plurality of depth intra coding modes; decoding one or more syntax elements indicating one of the plurality of depth coding modes for the video data wherein the plurality of depth coding modes comprise at least two of a depth modeling mode, DMM, a simplified depth coding, SDC, mode, or a chain coding mode, CCM, and wherein the depth intra coding modes include at least one sub-mode of the DMM and at least three sub-modes of the SDC mode; and decoding the depth data for the video data using the indicated depth coding mode based on the residual information of the depth data and neighboring reference samples. decoding a unified set of syntax elements that indicates residual information of depth data for the video data coded using any of a plurality of depth coding modes wherein the unified set of syntax elements comprises a syntax element that indicates whether a residual value of the depth data is present and, if present, an absolute value flag and a sign flag of the residual value of the depth data, wherein the same syntax elements for the absolute value flag and for the sign flag are used to indicate the residual information for any of the plurality of depth intra coding modes; decoding one or more syntax elements indicating one of the plurality of depth coding modes for the video data wherein the plurality of depth coding modes comprise at least two of a depth modeling mode, DMM, a simplified depth coding, SDC, mode, or a chain coding mode, CCM, and wherein the depth intra coding modes include at least one sub-mode of the DMM and at least three sub-modes of the SDC mode; and decoding the depth data for the video data using the indicated depth coding mode based on the residual information of the depth data and neighboring reference samples.
A device including a housing, the housing including a socket for an earpiece or headset, and a plug for connecting to a source device, the device including a hearing dose management device which is a limiting device, the hearing dose management device having an input, an output for feeding an acoustic transducer, and an attenuating device configured to provide a controlled attenuation between the input and the output; wherein the attenuation is dependent on past levels of the output to manage a hearing dose delivered by the acoustic transducer, wherein the attenuating device comprises a plurality of voltage or current controlled devices, arranged into a series-shunt arrangement to the earpiece or headset to provide attenuation below a predetermined level of distortion.
A method for removing an object support from tomographic medical imaging data, comprising the steps of: sampling the medical imaging data to generate selected sagittal images, wherein each one of the selected sagittal images comprises an object portion and an object support portion; identifying a top edge of the object support portion in each one of the selected sagittal images; and interpolating each of the top edges into at least a first transverse plane of imaging data to form a top surface contour of the object support in the first transverse plane of imaging data. sampling the medical imaging data to generate selected sagittal images, wherein each one of the selected sagittal images comprises an object portion and an object support portion; identifying a top edge of the object support portion in each one of the selected sagittal images; and interpolating each of the top edges into at least a first transverse plane of imaging data to form a top surface contour of the object support in the first transverse plane of imaging data.
Electromagnetic device comprising: - one or two conductive coils; - a main magnet able to pivot about a pivot axis XX' between two equilibrium positions, - a first and a second yoke (50, 50') arranged to guide the magnetic flux generated by the main magnet, - a first and a second pair of magnets, comprising, respectively, a first and a second stabilising magnet (41, 42), as well as a first and a second actuating magnet (31, 32) arranged to slide along each of the directions defined by an alignment axis YY' of said actuating magnets (31, 32) and of the main magnet, perpendicular to the pivot axis XX', so as to force the main magnet to adopt one or other of the equilibrium positions, the stabilising magnets (41, 42) being arranged so that this sliding is accompanied by a movement of the stabilising magnets (41, 42) so as to position the stabilising magnet (41, 42), paired with the actuating magnet (31, 32) forcing the main magnet into one of its equilibrium positions, in a given position enabling said stabilising magnet to oppose the magnetic leaks liable to occur at one of the two yokes. - one or two conductive coils; - a main magnet able to pivot about a pivot axis XX' between two equilibrium positions, - a first and a second yoke (50, 50') arranged to guide the magnetic flux generated by the main magnet, - a first and a second pair of magnets, comprising, respectively, a first and a second stabilising magnet (41, 42), as well as a first and a second actuating magnet (31, 32) arranged to slide along each of the directions defined by an alignment axis YY' of said actuating magnets (31, 32) and of the main magnet, perpendicular to the pivot axis XX', so as to force the main magnet to adopt one or other of the equilibrium positions, the stabilising magnets (41, 42) being arranged so that this sliding is accompanied by a movement of the stabilising magnets (41, 42) so as to position the stabilising magnet (41, 42), paired with the actuating magnet (31, 32) forcing the main magnet into one of its equilibrium positions, in a given position enabling said stabilising magnet to oppose the magnetic leaks liable to occur at one of the two yokes.
A carrier including an arrangement for adjusting the height of the carrier, the carrier comprising: a carrying section intended for carrying a child and having an upper part with a top edge, upper support elements (5, 6) attached to the carrying section and to be placed over a wearer's shoulders, and lower support elements to be placed around the wearer's body, characterised in that the carrying section is equipped at least with webbing adjustment elements (10, 11, 14) attached to the carrying section and providing multistepped or stepless height adjustment to the carrying section, thereby adjusting the height which is the distance between the top edge of the carrying section and the lower support elements. a carrying section intended for carrying a child and having an upper part with a top edge, upper support elements (5, 6) attached to the carrying section and to be placed over a wearer's shoulders, and lower support elements to be placed around the wearer's body, characterised in that the carrying section is equipped at least with webbing adjustment elements (10, 11, 14) attached to the carrying section and providing multistepped or stepless height adjustment to the carrying section, thereby adjusting the height which is the distance between the top edge of the carrying section and the lower support elements.
A method of functionalizing a nanoparticle, comprising: contacting a nanoparticle with a first bifunctional precursor, wherein the first bifunctional precursor comprises a silane moiety and a diene moiety, and wherein the contacting is under conditions suitable for reaction between the silane moiety and the nanoparticle surface; forming a covalent bond between the silane moiety and a surface of the nanoparticle, thereby forming a nanoparticle functionalized with a diene moiety; contacting the nanoparticle functionalized with a diene moiety with a second bifunctional precursor, wherein the second bifunctional precursor comprises an alkyne moiety and a dienophile, wherein the contacting is under conditions suitable for a reaction between the dienophile and the diene moiety; and reacting the diene moiety of the nanoparticle with the second bifunctional precursor, thereby forming a nanoparticle functionalized with an alkyne moiety; wherein the nanoparticle is a silica nanoparticle. contacting a nanoparticle with a first bifunctional precursor, wherein the first bifunctional precursor comprises a silane moiety and a diene moiety, and wherein the contacting is under conditions suitable for reaction between the silane moiety and the nanoparticle surface; forming a covalent bond between the silane moiety and a surface of the nanoparticle, thereby forming a nanoparticle functionalized with a diene moiety; contacting the nanoparticle functionalized with a diene moiety with a second bifunctional precursor, wherein the second bifunctional precursor comprises an alkyne moiety and a dienophile, wherein the contacting is under conditions suitable for a reaction between the dienophile and the diene moiety; and reacting the diene moiety of the nanoparticle with the second bifunctional precursor, thereby forming a nanoparticle functionalized with an alkyne moiety; wherein the nanoparticle is a silica nanoparticle.
Device for separating wet paint overspray from a crude gas stream containing overspray particles, comprising at least two filter devices which each comprise an inlet opening through which a partial crude gas stream enters into the respective filter device, and each comprise at least one filter element for separating the overspray from the partial crude gas stream, wherein the device comprises at least one receptacle for collecting a mixture, cleaned off of filter elements of a plurality of filter devices, of auxiliary filter material and wet paint overspray, and a mixing device arranged within the receptacle for mechanically mixing the cleaned off mixture of auxiliary filter material and wet paint overspray from a plurality of filter devices, wherein the mixture of auxiliary filter material and wet paint overspray passes from the filter elements into the receptacle by periodically cleaning off the filter elements, wherein differences in the concentration of wet paint overspray in the material cleaned off from different filter devices are compensated by the mechanical mixing, wherein the receptacle has an inlet for fresh auxiliary filter material for reducing the concentration of wet paint overspray in the material located in the receptacle, and wherein the receptacle is configured as a trough which extends from a region vertically below a first filter device into a region vertically below a second filter device.
A detergent composition comprising: a) at least one surfactant; and b) a polyurethane anti-redeposition polymer comprising from about 35 to 90 wt.% of a poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer, wherein not less than at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) is polyethylene oxide), and wherein at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer is incorporated in lateral chains pending from the polyurethane polymer, and wherein the polyurethane has an acid value ranging from about 1 to about 300 mg of KOH/g, or from about 5 to about 200 mg of KOH/g, or from about 10 to about 150 mg of KOH/g, or from about 15 to about 100 KOH/g, or from about 20 to about 75 mg of KOH/g, or from about 25 to about 45 mg KOH/g. a) at least one surfactant; and b) a polyurethane anti-redeposition polymer comprising from about 35 to 90 wt.% of a poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer, wherein not less than at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) is polyethylene oxide), and wherein at least 5 wt.% of the poly(C 2 -C 4 alkylene oxide) based on the total weight of the polyurethane polymer is incorporated in lateral chains pending from the polyurethane polymer, and wherein the polyurethane has an acid value ranging from about 1 to about 300 mg of KOH/g, or from about 5 to about 200 mg of KOH/g, or from about 10 to about 150 mg of KOH/g, or from about 15 to about 100 KOH/g, or from about 20 to about 75 mg of KOH/g, or from about 25 to about 45 mg KOH/g.
A terminal device configured to perform vehicle-to-X, V2X, communication and cellular communication, the terminal device comprising: circuitry configured to receive a discovery signal from at least one of a base station or road side unit, RSU, the discovery signal including information indicating whether cooperative V2X communication is supported; determine whether the a least one of the base station or RSU support cooperative V2X communication; and perform cooperative V2X communication with a vehicle-mounted electronic device with support from the at least one of the base station or RSU when it is determined that the at least one of the base station or RSU support cooperative V2X communication by either (i) transmitting a message directly to the vehicle-mounted electronic device and transmitting the message to the at least one of the base station or RSU or (ii) transmitting a message intended for the vehicle-mounted electronic device to the at least one of the base station or RSU for forwarding the message to the vehicle-mounted electronic device. receive a discovery signal from at least one of a base station or road side unit, RSU, the discovery signal including information indicating whether cooperative V2X communication is supported; determine whether the a least one of the base station or RSU support cooperative V2X communication; and perform cooperative V2X communication with a vehicle-mounted electronic device with support from the at least one of the base station or RSU when it is determined that the at least one of the base station or RSU support cooperative V2X communication by either (i) transmitting a message directly to the vehicle-mounted electronic device and transmitting the message to the at least one of the base station or RSU or (ii) transmitting a message intended for the vehicle-mounted electronic device to the at least one of the base station or RSU for forwarding the message to the vehicle-mounted electronic device. (i) transmitting a message directly to the vehicle-mounted electronic device and transmitting the message to the at least one of the base station or RSU or (ii) transmitting a message intended for the vehicle-mounted electronic device to the at least one of the base station or RSU for forwarding the message to the vehicle-mounted electronic device.
A method for optical polymer sequencing with a channel molecule held in a membrane, comprising the optical detection of a modification in the flux of a signal molecule as it passes through the channel molecule by the action of a membrane potential, wherein the modification in the flux is caused by at least partial blockage of the channel molecule by the polymer during flux of the polymer through the channel molecule, and wherein the signal molecule is arranged to interact with one or more other signal associated molecules to cause or provide optical emission for optical detection after passing through the channel molecule.
A system, comprising: a dental hygiene appliance comprising a handle adapted to be held by a user; a tool secured to the handle and operable by the user to perform a dental hygiene-related task; an infrared irradiator mounted on the dental hygiene appliance to emit infrared radiation towards a mandible (250, 350) of the user; an infrared sensor mounted on the dental hygiene appliance to detect responsive infrared radiation that is influenced by absorption of infrared irradiation by the mandible; and a controller communicatively coupled with the infrared irradiator and the infrared sensor, the controller configured to: operate the infrared irradiator to emit infrared raditaion towards the mandible for a predetermined amount of time; receive, from the infrared sensor one or more signals indicative of the detected responsive infrared radiation and determine, based on the one or more signals, one or more bone characteristics of the user. a dental hygiene appliance comprising a handle adapted to be held by a user; a tool secured to the handle and operable by the user to perform a dental hygiene-related task; an infrared irradiator mounted on the dental hygiene appliance to emit infrared radiation towards a mandible (250, 350) of the user; an infrared sensor mounted on the dental hygiene appliance to detect responsive infrared radiation that is influenced by absorption of infrared irradiation by the mandible; and a controller communicatively coupled with the infrared irradiator and the infrared sensor, the controller configured to: operate the infrared irradiator to emit infrared raditaion towards the mandible for a predetermined amount of time; receive, from the infrared sensor one or more signals indicative of the detected responsive infrared radiation and determine, based on the one or more signals, one or more bone characteristics of the user. operate the infrared irradiator to emit infrared raditaion towards the mandible for a predetermined amount of time; receive, from the infrared sensor one or more signals indicative of the detected responsive infrared radiation and determine, based on the one or more signals, one or more bone characteristics of the user.