mhurhangee/patent-ind-claim-en huggingface dataset:
Non-contact vital sign monitoring system comprising: a first radar device configured to generate a first transmission signal (E1); a first antenna configured to transmit the first transmission signal (E1) to a subject (B); a second radar device configured to generate a second transmission signal (E2); and a second antenna configured to transmit the second transmission signal (E2) to said subject (B), characterized in that the first antenna has a gain value which is higher than the gain value of the second antenna , the first antenna and the second antenna are arranged to transmit said first and second transmission signals (E1, E2) to the same side of the subject (B) and configured to receive first and second reflected signals (R1, R2) and deliver same to the first radar device and the second radar device , said first reflected signal (R1) representing reflection of the first transmission signal (E1) from the subject (B) and said second transmission signal (E2) representing reflection of the second transmitted signal (E2) from the subject (B), and wherein the first radar device and the second radar device are configured to operate in a self- and mutual-injection locking state to thereby cancel out body movement and obtain vital signs of the subject (B). a first radar device configured to generate a first transmission signal (E1); a first antenna configured to transmit the first transmission signal (E1) to a subject (B); a second radar device configured to generate a second transmission signal (E2); and a second antenna configured to transmit the second transmission signal (E2) to said subject (B), characterized in that the first antenna has a gain value which is higher than the gain value of the second antenna , the first antenna and the second antenna are arranged to transmit said first and second transmission signals (E1, E2) to the same side of the subject (B) and configured to receive first and second reflected signals (R1, R2) and deliver same to the first radar device and the second radar device , said first reflected signal (R1) representing reflection of the first transmission signal (E1) from the subject (B) and said second transmission signal (E2) representing reflection of the second transmitted signal (E2) from the subject (B), and wherein the first radar device and the second radar device are configured to operate in a self- and mutual-injection locking state to thereby cancel out body movement and obtain vital signs of the subject (B).
A work machine comprising: a telescopic boom having a first boom and a second boom that are telescopically overlapped; a telescoping actuator that moves the first boom in a telescoping direction with respect to the second boom ; an electrical drive source provided in a movable portion of the telescoping actuator ; a first fixing pin that connects the telescoping actuator and the first boom ; a first connection mechanism that operates on the basis of the power of the electrical drive source , the first connection mechanism switching between a connection state and a disconnection state between the telescoping actuator and the first boom by inserting and removing the first fixing pin ; a second fixing pin that connects the first boom and the second boom ; the work machine being characterized in that it further comprises: a second connection mechanism that operates on the basis of the power of the electrical drive source , the second connection mechanism switching between a connection state and a disconnection state between the first boom and the second boom by inserting and removing the second fixing pin ; and a torque limiter that is disposed between the electrical drive source and the first connection mechanism or the second connection mechanism , the torque limiter maintaining, at a predetermined value or less, a load acting on a mechanical element constituting a power transmission path from the electrical drive source to the first connection mechanism or the second connection mechanism . a telescopic boom having a first boom and a second boom that are telescopically overlapped; a telescoping actuator that moves the first boom in a telescoping direction with respect to the second boom ; an electrical drive source provided in a movable portion of the telescoping actuator ; a first fixing pin that connects the telescoping actuator and the first boom ; a first connection mechanism that operates on the basis of the power of the electrical drive source , the first connection mechanism switching between a connection state and a disconnection state between the telescoping actuator and the first boom by inserting and removing the first fixing pin ; a second fixing pin that connects the first boom and the second boom ; a second connection mechanism that operates on the basis of the power of the electrical drive source , the second connection mechanism switching between a connection state and a disconnection state between the first boom and the second boom by inserting and removing the second fixing pin ; and a torque limiter that is disposed between the electrical drive source and the first connection mechanism or the second connection mechanism , the torque limiter maintaining, at a predetermined value or less, a load acting on a mechanical element constituting a power transmission path from the electrical drive source to the first connection mechanism or the second connection mechanism .
An optoelectronic device comprising a matrix of axial light emitting diodes (LED), each light emitting diode comprising an active layer configured to emit electromagnetic radiation, the matrix forming a photonic crystal configured to form at least first and second resonance peaks, in a plane containing the active layers, each first resonance peak amplifying the intensity of said electromagnetic radiation at a first wavelength, each second resonance peak amplifying the intensity of said electromagnetic radiation at a second wavelength wherein each light emitting diode (LED) comprises an elongated semiconductor element along an axis (Δ), having a first portion of a first average diameter (D nw ), , a second portion extending the first portion and having a cross-sectional area decreasing away from the first portion and the active layer extending the second portion and having a second average diameter (D top ) strictly less than the first average diameter, the active layers being located at the locations of the first resonance peaks and absent at the locations of the second resonance peaks.
Container assembly for storing a tissue sample comprising: - a container configured to store said tissue sample ; said container comprising a bottom ; and - a cover adapted to engage with said container , said cover comprising: - a top member comprising a receptacle , said receptacle containing a preserving agent; and - a seal for sealing off said receptacle ; where the container assembly has a first and a second position, wherein in the first position the container is isolated from the receptacle , and in the second position fluid communication is provided between the receptacle and the container , characterized in that the cover further comprises a puncturing member configured to break said seal by displacement of said puncturing member and/or said seal , wherein the preserving agent is formalin. - a container configured to store said tissue sample ; said container comprising a bottom ; and - a cover adapted to engage with said container , said cover comprising: - a top member comprising a receptacle , said receptacle containing a preserving agent; and - a seal for sealing off said receptacle ; where the container assembly has a first and a second position, wherein in the first position the container is isolated from the receptacle , and in the second position fluid communication is provided between the receptacle and the container , characterized in that the cover further comprises a puncturing member configured to break said seal by displacement of said puncturing member and/or said seal , wherein the preserving agent is formalin. - a top member comprising a receptacle , said receptacle containing a preserving agent; and - a seal for sealing off said receptacle ;
Method for operating a head-up display device for a motor vehicle , wherein virtual objects are assignable to vicinity regions (MK) of the motor vehicle and the method includes: - obtaining a virtual reference feature whose orientation is defined depending on a road surface which is used or usable by the motor vehicle ; - ascertaining an orientation of the motor vehicle relative to the virtual reference feature ; - superposing a virtual object when the assigned vicinity region (MK) lies in a field of view of the head-up display device , wherein a horizontal position of the superposed object in the field of view is dependent on the relative orientation to the virtual reference feature , characterized in that the object is superposed at least temporarily at a peripheral region of the field of view when the vicinity region (MK) is outside the field of view again. - obtaining a virtual reference feature whose orientation is defined depending on a road surface which is used or usable by the motor vehicle ; - ascertaining an orientation of the motor vehicle relative to the virtual reference feature ; - superposing a virtual object when the assigned vicinity region (MK) lies in a field of view of the head-up display device , wherein a horizontal position of the superposed object in the field of view is dependent on the relative orientation to the virtual reference feature ,
A printing machine for printing on planar substrates, in particular circuit boards, comprising: a printing table which extends in a horizontal plane and on which at least one substrate to be printed on can be arranged; at least one printing device assigned to the printing table , which printing device has a screen holder for an interchangeable printing screen and a doctor device assigned to the screen holder , wherein, by means of the doctor device , a printing material can be applied onto the substrate to be printed on through the printing screen ; and a screen magazine assigned to the doctor device for storing at least one printing screen for the doctor device , wherein the screen magazine has a housing with at least two drawers which are arranged in parallel to one another and are each designed to hold one printing screen , characterized in that the housing is pivotably arranged such that it can pivot between a first end position, in which the drawers are oriented parallel to the horizontal plane, and a second end position, in which the drawers are oriented at an angle to the horizontal plane, in particular vertical thereto.
A reuse method of electrode scrap comprising: (a) dry milling electrode scrap remaining after punching an electrode sheet including an active material layer on a current collector to obtain milled products; and (b) screening active material layer flakes from current collector fragments in the milled products by sieving the milled products, and collecting the screened active material layer flakes to obtain reusable particles characterized in that step (b) comprises separating the active material layer flakes from the current collector fragments in the milled products stepwise according to size by sieving the milled products in a sequential order using a plurality of sieves having different mesh sizes, and collecting the active material layer flakes from sieving active material layer flakes of a smallest size and at least one of steps of sieving active material layer flakes of a larger size to obtain the reusable particles. (a) dry milling electrode scrap remaining after punching an electrode sheet including an active material layer on a current collector to obtain milled products; and (b) screening active material layer flakes from current collector fragments in the milled products by sieving the milled products, and collecting the screened active material layer flakes to obtain reusable particles
A method for identifying one or more HLA gene alleles in a subject, the method comprising: a) contacting a nucleic acid sample from the subject with oligonucleotide probes wherein one or more of the oligonucleotide probes hybridize to HLA gene target sequences in the nucleic acid sample; b) enriching for a nucleic acid that is hybridized to an oligonucleotide probe by separating it from nucleic acid not bound to an oligonucleotide probe; and c) sequencing the enriched nucleic acid by high-throughput screening to identify one or more HLA gene alleles; wherein the gene target sequences are in a non-coding region of one or more HLA genes, and wherein the oligonucleotide probes are suitable for preparing the nucleic acid for high-throughput screening using target capture. a) contacting a nucleic acid sample from the subject with oligonucleotide probes wherein one or more of the oligonucleotide probes hybridize to HLA gene target sequences in the nucleic acid sample; b) enriching for a nucleic acid that is hybridized to an oligonucleotide probe by separating it from nucleic acid not bound to an oligonucleotide probe; and c) sequencing the enriched nucleic acid by high-throughput screening to identify one or more HLA gene alleles; wherein the gene target sequences are in a non-coding region of one or more HLA genes, and wherein the oligonucleotide probes are suitable for preparing the nucleic acid for high-throughput screening using target capture.
A method of processing input data by a server , the method comprising: receiving, at the server, speech data from a client device in response to a request from a web browser application or a mobile application for transaction information; extracting structured input data from the speech data , wherein the extracted structured input data is transaction information ; determining if the speech data corresponds to an authorised user ; and if the speech data corresponds to an authorised user, executing a transaction based on the extracted transaction information. receiving, at the server, speech data from a client device in response to a request from a web browser application or a mobile application for transaction information; extracting structured input data from the speech data , wherein the extracted structured input data is transaction information ; determining if the speech data corresponds to an authorised user ; and if the speech data corresponds to an authorised user, executing a transaction based on the extracted transaction information.
Method for characterizing a visual system of a subject using measures of the sensitivity to contrast of the visual system of the subject, the visual system comprising visual signal processing elements, each visual signal processing elements having an impact on the sensitivity to contrast of the visual system of the subject, wherein a visual test where visual patterns having different spatiotemporal frequencies and with varying luminance levels and with varying levels of visual degradation of the visual patterns are shown to a subject to measure the sensitivity to contrast of said subject, is performed, characterised in that a predetermined response model of a visual system is preestablished on the basis of a determination of the visual signal processing element that predominantly limits the sensitivity to contrast for each value of luminance and spatiotemporal frequency, said predetermined response model relating the visual signal processing elements predominantly limiting the sensitivity to contrast to the luminances and to the spatiotemporal frequencies, wherein at least one of the visual signal processing elements is selected in order to be investigated, wherein at least one visual test is performed on the visual system of the subject, said visual test being optimized according to said at least one selected visual signal processing element, during the optimized visual test the variations of the luminance levels and of spatiotemporal frequencies being limited within a range of luminance and a range of spatiotemporal frequency where the predetermined response model locates the visual signal processing element as predominant in limiting the sensitivity to contrast.
Thermal transfer printer for selectively transferring a meltable ink material carried on a tape to a substrate intended to receive ink from said tape for printing an image on the substrate , the printer comprising a supply spool for the tape , a take-up spool for the tape , and a printhead between the supply spool and the take-up spool , wherein the supply spool is driven by a supply motor and the take-up spool is driven by a take-up motor , and wherein the printer comprises a spool drive controller which is configured to energize the supply motor and the take-up motor so as to arrange that the tape is unwound from the supply spool and wound onto the take-up spool , characterized in that the spool drive controller is embodied with field oriented control driving the supply motor and the take-up motor so as to continuously and uninterruptedly control motor torque of said motors, and that the supply spool is provided with a supply encoder and the take-up spool is provided with a take-up encoder , which encoders provide positional information, and said encoders being connected to the spool drive controller so as to arrange that the spool drive controller controls the tape's tension, position and speed.
A carbon nanotube dispersion liquid comprising: entangled-type carbon nanotubes; a dispersion medium; and partially hydrogenated nitrile rubber having a residual double bond (RDB) value of 0.5% by weight to 40% by weight calculated according to the following Mathematical Formula 1, wherein dispersed particle diameters of the carbon nanotubes have particle size distribution D 50 of 3 μm to 5 μm wherein the particle size distribution D 50 is a particle size at 50% base in the particle size distribution and is measured using laser diffraction method: RDB % by weight = BD weight / BD weight + HBD weight × 100 in Mathematical Formula 1, BD means a conjugated diene-derived structure unit and HBD means a hydrogenated conjugated diene-derived structure unit. entangled-type carbon nanotubes; a dispersion medium; and partially hydrogenated nitrile rubber having a residual double bond (RDB) value of 0.5% by weight to 40% by weight calculated according to the following Mathematical Formula 1, wherein dispersed particle diameters of the carbon nanotubes have particle size distribution D 50 of 3 μm to 5 μm wherein the particle size distribution D 50 is a particle size at 50% base in the particle size distribution and is measured using laser diffraction method: RDB % by weight = BD weight / BD weight + HBD weight × 100
A detection and locating device comprising a plurality of optical sensors (Q1, Q2, Q3, Q4) having fields that together define the field of the detection and locating device, each sensor having a plurality of photodiodes (Qi1, Qi2, Qi3, Qi4) having fields that together define the field of the sensor, the sensors being connected to a control unit in such a manner that each sensor supplies a first signal corresponding to the sum of the signals from at least two of the photodiodes, the first signal corresponding to the sum of the signals from all of the photodiodes (Qi1, Qi2, Qi3, Qi4) minus one, and each sensor supplies a second signal formed by the signal from the photodiode (Qi1, Qi2, Qi3, Qi4) not taken into account for forming the first signal, wherein the control unit is arranged to subtract the second signal of each sensor (Q1, Q2, Q3, Q4) from its first signal.
A method for processing multiple channels, comprising: receiving, at a mobile station comprising a processor and a memory, a channel comprising a plurality of physical downlink shared channels, PDSCH, in a slot; determining , by the processor of the mobile station , one or more sub-groups (730; 731) of overlapping PDSCHs in the slot, wherein the determining comprises grouping PDSCHs (710 - 713; 715, 721) overlapping in a time domain into sub-groups (730; 731) of overlapping PDSCHs in the slot; selecting , by the processor of the mobile station , two or more overlapping PDSCHs of a j-th sub-group of the one or more sub-groups; and decoding , by the mobile station , the selected two or more overlapping PDSCHs, characterized in that the selecting the two or more overlapping PDSCHs comprises: determining a number α j of scheduled dynamic grant, DG, PDSCHs in the j -th sub-group ; selecting the scheduled DG PDSCHs ; and selecting M j - α j PDSCHs from among remaining PDSCHs of j -th sub-group , where M j is the number of overlapping PDSCH occasions the mobile station is capable of decoding in the j -th sub-group . receiving, at a mobile station comprising a processor and a memory, a channel comprising a plurality of physical downlink shared channels, PDSCH, in a slot; determining , by the processor of the mobile station , one or more sub-groups (730; 731) of overlapping PDSCHs in the slot, wherein the determining comprises grouping PDSCHs (710 - 713; 715, 721) overlapping in a time domain into sub-groups (730; 731) of overlapping PDSCHs in the slot; selecting , by the processor of the mobile station , two or more overlapping PDSCHs of a j-th sub-group of the one or more sub-groups; and decoding , by the mobile station , the selected two or more overlapping PDSCHs, characterized in that the selecting the two or more overlapping PDSCHs comprises: determining a number α j of scheduled dynamic grant, DG, PDSCHs in the j -th sub-group ; selecting the scheduled DG PDSCHs ; and selecting M j - α j PDSCHs from among remaining PDSCHs of j -th sub-group , where M j is the number of overlapping PDSCH occasions the mobile station is capable of decoding in the j -th sub-group . determining a number α j of scheduled dynamic grant, DG, PDSCHs in the j -th sub-group ; selecting the scheduled DG PDSCHs ; and selecting M j - α j PDSCHs from among remaining PDSCHs of j -th sub-group , where M j is the number of overlapping PDSCH occasions the mobile station is capable of decoding in the j -th sub-group .
System for filtering a gas-solids mixture, the system comprising: - a housing ; - a separating body dividing the housing into a raw gas section and a clean gas section , the raw gas section being accessible via an inlet for the gas-solids mixture and the clean gas section comprising an outlet for discharging a cleaned gas; - a number of filter elements suspended from the separating body ; - a support grid , the support grid comprising a number of arms interconnected at nodes , the lower ends of the filter elements being connected to a respective node of the support grid ; - characterized by one or more cleaning elements provided on the arms of the support grid for cleaning thereof, the cleaning elements movably arranged on the arms of the support grid between adjacent nodes ; and - by comprising at least one impact device for providing a mechanical and/or hydraulic impulse to the filter elements for the removal of accumulated solids from a surface of the filter elements , said impulse being adapted to provide excitation energy causing vibration of the cleaning elements . - a housing ; - a separating body dividing the housing into a raw gas section and a clean gas section , the raw gas section being accessible via an inlet for the gas-solids mixture and the clean gas section comprising an outlet for discharging a cleaned gas; - a number of filter elements suspended from the separating body ; - a support grid , the support grid comprising a number of arms interconnected at nodes , the lower ends of the filter elements being connected to a respective node of the support grid ; - characterized by one or more cleaning elements provided on the arms of the support grid for cleaning thereof, the cleaning elements movably arranged on the arms of the support grid between adjacent nodes ; and - by comprising at least one impact device for providing a mechanical and/or hydraulic impulse to the filter elements for the removal of accumulated solids from a surface of the filter elements , said impulse being adapted to provide excitation energy causing vibration of the cleaning elements .