mhurhangee/patent-ind-claim-en huggingface dataset:
A multimedia data processing method, performed by a signaling processing module deployed on a remote node and a media processing module deployed on an edge computing node, the method comprising: establishing (S510), by the signaling processing module, a session between a terminal device and the media processing module, and controlling (S510) the session by the signaling processing module, wherein a user plane function, UPF, entity in the edge computing node communicates with the media processing module deployed on the edge computing node; receiving (S520), by the media processing module in a case that the session is established between the media processing module and the terminal device, multimedia data transmitted by the terminal device through the UPF entity in the edge computing node, wherein the multimedia data includes video data, and processing the multimedia data; and performing, by the media processing module deployed on the edge computing node, an analysis of the video based on a graphics processing unit, GPU, to output structured video data; transmitting, by the media processing module deployed on the edge computing node, the structured video data to the remote node; and performing, by the remote node, an analysis based on the structured video data. establishing (S510), by the signaling processing module, a session between a terminal device and the media processing module, and controlling (S510) the session by the signaling processing module, wherein a user plane function, UPF, entity in the edge computing node communicates with the media processing module deployed on the edge computing node; receiving (S520), by the media processing module in a case that the session is established between the media processing module and the terminal device, multimedia data transmitted by the terminal device through the UPF entity in the edge computing node, wherein the multimedia data includes video data, and processing the multimedia data; and performing, by the media processing module deployed on the edge computing node, an analysis of the video based on a graphics processing unit, GPU, to output structured video data; transmitting, by the media processing module deployed on the edge computing node, the structured video data to the remote node; and performing, by the remote node, an analysis based on the structured video data.
A bioprinter comprising: a source of fluid, and one or more dispensing units , each dispensing unit including (i) a syringe including a hollow body and a plunger dimensioned to translate in the body, the body having an exit orifice ; (ii) an actuator in contact with a proximal end of the plunger; (iii) a controller for controlling linear motion of the actuator, wherein the controller is configured to drive the actuator toward the proximal end of the plunger to dispense a bioink from the body of the syringe; and (iv) a nozzle having a wall defining a fluid path extending from an inlet of the nozzle to an outlet of the nozzle, the inlet of the nozzle being in fluid communication with the exit orifice of the body of the syringe, wherein as the controller drives the actuator toward the proximal end of the plunger bioink flows into the fluid path, wherein the nozzle includes a fluid passageway in fluid communication with the source of fluid and the fluid path, characterised in that , the controller is further configured to control a controllable valve to deliver pulsed fluid from the source of fluid to the fluid passageway to create separate droplets from the flow of bioink in the fluid path in the nozzle. a source of fluid, and one or more dispensing units , each dispensing unit including (i) a syringe including a hollow body and a plunger dimensioned to translate in the body, the body having an exit orifice ; (ii) an actuator in contact with a proximal end of the plunger; (iii) a controller for controlling linear motion of the actuator, wherein the controller is configured to drive the actuator toward the proximal end of the plunger to dispense a bioink from the body of the syringe; and (iv) a nozzle having a wall defining a fluid path extending from an inlet of the nozzle to an outlet of the nozzle, the inlet of the nozzle being in fluid communication with the exit orifice of the body of the syringe, wherein as the controller drives the actuator toward the proximal end of the plunger bioink flows into the fluid path, (i) a syringe including a hollow body and a plunger dimensioned to translate in the body, the body having an exit orifice ; (ii) an actuator in contact with a proximal end of the plunger; (iii) a controller for controlling linear motion of the actuator, wherein the controller is configured to drive the actuator toward the proximal end of the plunger to dispense a bioink from the body of the syringe; and (iv) a nozzle having a wall defining a fluid path extending from an inlet of the nozzle to an outlet of the nozzle, the inlet of the nozzle being in fluid communication with the exit orifice of the body of the syringe, wherein as the controller drives the actuator toward the proximal end of the plunger bioink flows into the fluid path, wherein the nozzle includes a fluid passageway in fluid communication with the source of fluid and the fluid path, characterised in that , the controller is further configured to control a controllable valve to deliver pulsed fluid from the source of fluid to the fluid passageway to create separate droplets from the flow of bioink in the fluid path in the nozzle.
A guiding device for guiding at least one cable in a lighting device for a motor vehicle, said guiding device comprising a rigid structure extending along at least one guiding direction and comprising fixing means for fixing the cable to the structure, the structure comprising first receiving means for receiving a printed circuit board, and the first receiving means comprising at least one slot defined in the structure , the slot having a width adapted to accommodate the thickness of the printed circuit board therein.
A single multiple zone air vent for providing an air flow to a vehicle interior, the multiple zone air vent being integrable in the vehicle instrument panel for facing into the vehicle interior, the air vent comprising multiple outlet zones , at least one outlet zone includes at least one air redirecting element that is adjustable only for vertically altering the direction of an air flow only in the vertical direction, and at least one outlet zone is adapted to direct an air flow in a fixed direction, characterized in that the multiple outlet zones include a center outlet zone for providing a fixed direction air flow, and two outlet zones neighboring the center outlet zone , wherein the two neighboring outlet zones include air redirecting elements that are adjustable for altering the direction of an air flow from the respective outlet zone with respect to a single axis, and wherein the multiple outlet zones include a further fixed direction outlet zone neighboring one of the two outlet zones configured to provide an air flow in an alterable direction, and a further fixed direction outlet zone neighboring the other one of the two outlet zones configured to provide an air flow in an alterable direction, and wherein the multiple outlet zones are arrangeable to be horizontally disposed side-by-side with respect to each other across substantially the entire width of the instrument panel in the vehicle interior. at least one outlet zone includes at least one air redirecting element that is adjustable only for vertically altering the direction of an air flow only in the vertical direction, and at least one outlet zone is adapted to direct an air flow in a fixed direction, characterized in that the multiple outlet zones include a center outlet zone for providing a fixed direction air flow, and two outlet zones neighboring the center outlet zone , wherein the two neighboring outlet zones include air redirecting elements that are adjustable for altering the direction of an air flow from the respective outlet zone with respect to a single axis, and wherein the multiple outlet zones include a further fixed direction outlet zone neighboring one of the two outlet zones configured to provide an air flow in an alterable direction, and a further fixed direction outlet zone neighboring the other one of the two outlet zones configured to provide an air flow in an alterable direction, and wherein the multiple outlet zones are arrangeable to be horizontally disposed side-by-side with respect to each other across substantially the entire width of the instrument panel in the vehicle interior.
Grinding system having at least one first grinding wheel , the at least one first grinding surface , a first front end face , a plurality of first cooling inlets (27; 37) and a plurality of first cooling channels (17; 38) which extend from the first front end face to the first grinding surface , the first cooling channel inlets (27; 37) being spaced apart at a first radius (R 1 ) from the axis of rotation (A) of the first grinding wheel and being arranged in the first front end face , the first front end face having further cooling inlets (18; 25; 41) which are spaced apart from the axis of rotation at a further radius (R 2 , R 3 ) which is not the same as the first radius (R 1 ), the first grinding wheel having further cooling channels (24; 26; 42) which start from the further cooling inlets (25; 27; 41) and open into at least one further grinding surface (21; 53), characterized by at least one second grinding wheel which has a third grinding surface and represents the further grinding surface.
An immunoglobulin that binds FcyRIIb and co-engages CD 19 on the surface of a B cell for use in the treatment of an IgG4-related disease in a subject, wherein said immunoglobulin comprises a heavy chain and a light chain, said heavy chain comprising SEQ ID NO: 9, and said light chain comprising SEQ ID NO: 7, wherein said immunoglobulin is used at a therapeutically effective dose.
A method implemented by an eBook reader device, the method comprising: receiving an annotation relating to a specified portion of a digital work in a memory of the eBook reader device; appending an invariant location reference identifier corresponding to the specified portion of the digital work to the annotation in the memory of the eBook reader device; storing the annotation in association with the digital work in the memory of the eBook reader device. receiving an annotation relating to a specified portion of a digital work in a memory of the eBook reader device; appending an invariant location reference identifier corresponding to the specified portion of the digital work to the annotation in the memory of the eBook reader device; storing the annotation in association with the digital work in the memory of the eBook reader device.
A method of using an RFID tag , the method comprising: associating the RFID tag with a user account, the RFID tag including: first , second , and third RFID inlays corresponding to different charging rates, a second surface movable among first, second and third positions relative to the first, second, and third RFID inlays and including one or more structures positioned relative to the first, second, and third RFID inlays to cause the first, second, and third inlays to be inactive such that, in any of the first, second, and third positions, only one of the first , second , and third RFID inlays remains active; and receiving a tag reading indicating that a first RFID inlay of the RFID tag is active; and charging the user account according to a first charging rate. first , second , and third RFID inlays corresponding to different charging rates, a second surface movable among first, second and third positions relative to the first, second, and third RFID inlays and including one or more structures positioned relative to the first, second, and third RFID inlays to cause the first, second, and third inlays to be inactive such that, in any of the first, second, and third positions, only one of the first , second , and third RFID inlays remains active; and receiving a tag reading indicating that a first RFID inlay of the RFID tag is active; and charging the user account according to a first charging rate.
Circuit arrangement for an optical monitoring system, comprising: - a driver circuit (DRV) configured to generate at least one driving signal for driving a light source (LS), - a detector terminal (DT) for receiving a detector current (Id) from an optical detector (OD), - a gain stage (GS) connected at its input side to the driver circuit (DRV) for receiving the driving signal and generating a noise signal depending on the driving signal, - a processing unit (PU) configured to generate an output signal (SO) depending on the detector current (Id) and the noise signal, further comprising: - an amplifier circuit (AC) with an input side connected to the detector terminal (DT), - a demodulation and signal processing unit (DPU) connected to an output side of the amplifier circuit (AC), and - an analog-to-digital converter (ADC) connected to an output side of the demodulation and signal processing unit (DPU); and wherein: - an output side of the gain stage (GS) is connected to a reference input (RI) of the analog-to-digital converter (ADC) to receive the noise signal as a reference for the analog-to-digital converter (ADC). - a driver circuit (DRV) configured to generate at least one driving signal for driving a light source (LS), - a detector terminal (DT) for receiving a detector current (Id) from an optical detector (OD), - a gain stage (GS) connected at its input side to the driver circuit (DRV) for receiving the driving signal and generating a noise signal depending on the driving signal, - a processing unit (PU) configured to generate an output signal (SO) depending on the detector current (Id) and the noise signal, further comprising: - an amplifier circuit (AC) with an input side connected to the detector terminal (DT), - a demodulation and signal processing unit (DPU) connected to an output side of the amplifier circuit (AC), and - an analog-to-digital converter (ADC) connected to an output side of the demodulation and signal processing unit (DPU); and wherein: - an output side of the gain stage (GS) is connected to a reference input (RI) of the analog-to-digital converter (ADC) to receive the noise signal as a reference for the analog-to-digital converter (ADC).
A method for forming a thin film resistor on a substrate comprising: • depositing a resistor material to form a resistor layer ; • depositing a protective cap material over the resistor layer to form a protective cap layer prior to a subsequent fabrication process that would cause the resistor material to oxidize, wherein the protective cap material forms a protective cap; and • providing an interconnect on the protective cap such that the interconnect electrically contacts the resistor layer via the protective cap. • depositing a resistor material to form a resistor layer ; • depositing a protective cap material over the resistor layer to form a protective cap layer prior to a subsequent fabrication process that would cause the resistor material to oxidize, wherein the protective cap material forms a protective cap; and • providing an interconnect on the protective cap such that the interconnect electrically contacts the resistor layer via the protective cap.
A device for sampling and transporting nano-objects likely to be present in an aerosol for the analysis thereof, comprising a porous sampling filter capable of trapping nano-objects likely to be suspended in the aerosol, a cassette consisting of a first part and a second part provided with mutual assembly means (11, 110; 21, 210) and filter holding means , the first and second parts defining, in their assembled position, a cavity wherein the filter is accommodated by being held, and at least one seal capable of sealing between the cavity and outside, the mutual assembly means comprising: - first clipping means secured to the first part in an assembled or disassembled position of the first and second parts, said first clipping means being integral with the first part, - second clipping means secured to the second part in an assembled or disassembled position of the first and second parts, said second clipping means being integral with the second part and capable of cooperating with the first means for clipping both parts; the first and second clipping means being configured not to be accessible from outside in the assembled position of the parts, and one of the parts being provided with holes opening each at a time onto outside of the parts and on one of the cooperation zones of the clipping means, the holes being each capable of accommodating a pin for unclipping both parts by applying a thrust force on the pins against the first or second clipping means. - first clipping means secured to the first part in an assembled or disassembled position of the first and second parts, said first clipping means being integral with the first part, - second clipping means secured to the second part in an assembled or disassembled position of the first and second parts, said second clipping means being integral with the second part and capable of cooperating with the first means for clipping both parts; the first and second clipping means being configured not to be accessible from outside in the assembled position of the parts,
A print system comprising - a print engine for printing on sheets of receiving material, - a user interface unit including a display , - a plurality of holders , each for holding one type of receiving material and delivering said material to the print engine, - a receiver for receiving jobs, a job being an order for printing information on sheets of receiving material of a type as specified in said order, and - a control system for planning jobs wherein the jobs are placed in a print queue in a sequence of finishing, the control system also being provided with means for establishing the types of receiving material (102-106) required for printing the respective jobs in the print queue, characterized in that the control system is adapted to establish, for a type of receiving material, a shortage quantity, if any, of that receiving material, for completely printing the jobs, and to indicate that shortage quantity on the display of the user interface. - a print engine for printing on sheets of receiving material, - a user interface unit including a display , - a plurality of holders , each for holding one type of receiving material and delivering said material to the print engine, - a receiver for receiving jobs, a job being an order for printing information on sheets of receiving material of a type as specified in said order, and - a control system for planning jobs wherein the jobs are placed in a print queue in a sequence of finishing, the control system also being provided with means for establishing the types of receiving material (102-106) required for printing the respective jobs in the print queue, characterized in that the control system is adapted to establish, for a type of receiving material, a shortage quantity, if any, of that receiving material, for completely printing the jobs, and to indicate that shortage quantity on the display of the user interface.
A tailgate trim adapted to be connected to an outer side of a tailgate inner panel of a tailgate assembly and comprising at least a tailgate middle trim and a tailgate lower trim , characterized in that the tailgate middle trim comprises a lower-end connecting portion bent inward from a lower end of the tailgate middle trim , wherein the tailgate lower trim comprises an upper-end connecting portion bent inward from an upper end of the tailgate lower trim , and wherein the tailgate trim further comprises an adjusting component disposed on the upper-end connecting portion and/or the lower-end connecting portion and extending over at least a part of the transverse length of the tailgate trim, such that a vertical gap between the tailgate middle trim and the tailgate lower trim remains uniform.
A panel-shaped insulating element for thermally insulating spaces, comprising a plurality of closed cells, wherein a first group of closed cells is formed by first recesses in a first flat element , and the first flat element between the edges of the openings of adjacent recesses forms first connection regions to which a first flat cover element closing the openings of a plurality of first recesses is materially bonded on a front side of the first flat element , characterized in that a second group of closed cells is provided, which is formed by second recesses in a second flat element , and the second flat element between the edges of the openings of adjacent recesses forms second connection regions to which a second flat cover element closing the openings of a plurality of second recesses is materially bonded on a front side of the second flat element , wherein the second recesses are provided on a rear side of the first flat element between the first recesses , and the first recesses are provided on a rear side of the second flat element between the second recesses , so that the volume remaining free of first and second recesses between the first and second flat elements is less than 50%, preferably less than 40%, preferably less than 30%, preferably less than 20%, preferably less than 10%, in particular less than 5%, of the volume enclosed by the first and second recesses together, wherein the connecting regions are strip-shaped, forming a grid of strip-shaped connecting regions extending transversely, in particular at an angle of 90°, relative to one another, and the bases of the first and/or second recesses are cross-shaped and the first recesses are arranged such that the cross-shaped base, by its point of intersection, rests on the point of intersection of two strip-shaped connecting regions .
A method for arc fault detection, the method comprising: the steps of 1) obtaining sound data from a power device; 2) extracting , from the sound data, a feature vector characterising the frequency domain sub-band energy distribution of the sound data; and 3) comparing the feature vector with a plurality of reference vectors based on actual arc fault acoustic signals, to determine to generate an arc alarm signal or not, wherein said step 1) comprises: obtaining sound data with one or more sensors capable of obtaining sound data in dual sound bands which are the audible sound band and the ultrasound band, and said step 2) comprises monitoring sound data in the ultrasound band, and starting to extract the feature vector from the sound data in the audible band when the sound data in the ultrasound band are detected. 1) obtaining sound data from a power device; 2) extracting , from the sound data, a feature vector characterising the frequency domain sub-band energy distribution of the sound data; and 3) comparing the feature vector with a plurality of reference vectors based on actual arc fault acoustic signals, to determine to generate an arc alarm signal or not,
A recombinant polypeptide, or an active fragment thereof, comprising an amino acid sequence, wherein the amino acid sequence of the recombinant polypeptide or of the active fragment has at least 80% identity to the amino acid sequence of SEQ ID NO:7, SEQ ID NO:10 or SEQ ID NO:11, and wherein the recombinant polypeptide or the active fragment has proteolytic activity, and wherein the recombinant polypeptide or the active fragment retains at least 80% activity after 20 minutes at 50°C under stressed conditions, wherein the stressed conditions are selected from the group consisting of: an LAS/EDTA assay under the stressed conditions of Example 11, a Tris/EDTA assay under the stressed conditions of Example 11, and an HDL assay under the stressed conditions of Example 11.