mhurhangee/ep-ind-claims huggingface dataset:
Method for scheduling audio processing of a motor vehicle, said audio processing comprising: - a plurality of elementary functions implemented by a microprocessor, each elementary function comprising at least one input, or at least one output and a sampling rate generated by a hardware clock, and - a plurality of inputs and outputs, each input/output comprising a frame size and a sampling rate generated by a hardware clock, characterised in that the method comprises the following steps: - grouping together, in synchronicity domains (Ds), elementary functions having hardware clocks that are synchronous, - calculating a maximum processing time (Tm) corresponding to the time necessary on the one hand to process all the frames of the inputs by the elementary functions whereas the inputs/outputs are produced sequentially, and on the other hand in order for the elementary functions to return to their initial states, and - determining a scheduling (Of) of the elementary functions of each synchronicity domain (Ds) according to the maximum processing time (Tm). - a plurality of elementary functions implemented by a microprocessor, each elementary function comprising at least one input, or at least one output and a sampling rate generated by a hardware clock, and - a plurality of inputs and outputs, each input/output comprising a frame size and a sampling rate generated by a hardware clock, - grouping together, in synchronicity domains (Ds), elementary functions having hardware clocks that are synchronous, - calculating a maximum processing time (Tm) corresponding to the time necessary on the one hand to process all the frames of the inputs by the elementary functions whereas the inputs/outputs are produced sequentially, and on the other hand in order for the elementary functions to return to their initial states, and - determining a scheduling (Of) of the elementary functions of each synchronicity domain (Ds) according to the maximum processing time (Tm).
An assembly (10; 100) for percutaneous replacement of a previously implanted first prosthetic valve without removal of the previously implanted first prosthetic valve, comprising; an adapter stent (30; 102) comprising an outer frame and a flexible annular sealing member (34; 106), wherein the sealing member (34; 106) is mounted on the inside of the outer frame, the adapter stent (30; 102) being adapted to be deployed within the previously implanted first prosthetic valve; a plurality of barbs disposed along the outside of the outer frame; and a second prosthetic valve comprising an inner frame and a flexible valve member having a leafed-valve configuration, the prosthetic valve being sized to be positioned within the adapter stent (30; 102).
Method for purifying a first fatty acid using an initial mixture further comprising at least one second fatty acid, optionally a third fatty acid and optionally a fourth fatty acid, with the method comprising: - a first step of chromatographic separation in liquid phase, using the initial mixture, carried out in a first unit for chromatographic separation, making it possible to recover on the one hand a first flow enriched with a first fatty acid and on the other hand a flow enriched with a second fatty acid, - optionally, a second step of chromatographic separation in liquid phase, using the first flow enriched with a first fatty acid, carried out in a second chromatographic separation unit, making it possible to recover on the one hand a second flow enriched with a first fatty acid and on the other hand a flow enriched with a third fatty acid; - optionally, a third step of chromatographic separation in liquid phase, using the second flow enriched with a first fatty acid, carried out in a third chromatographic separation unit, making it possible to recover on the one hand a third flow enriched with a first fatty acid and on the other hand a flow enriched with a fourth fatty acid; at least one among the first unit for chromatographic separation, the second unit for chromatographic separation and the third unit for chromatographic separation being a static bed chromatographic separation unit with a single column with recycling in stationary state, wherein the first fatty acid is a first polyunsaturated fatty acid. - a first step of chromatographic separation in liquid phase, using the initial mixture, carried out in a first unit for chromatographic separation, making it possible to recover on the one hand a first flow enriched with a first fatty acid and on the other hand a flow enriched with a second fatty acid, - optionally, a second step of chromatographic separation in liquid phase, using the first flow enriched with a first fatty acid, carried out in a second chromatographic separation unit, making it possible to recover on the one hand a second flow enriched with a first fatty acid and on the other hand a flow enriched with a third fatty acid; - optionally, a third step of chromatographic separation in liquid phase, using the second flow enriched with a first fatty acid, carried out in a third chromatographic separation unit, making it possible to recover on the one hand a third flow enriched with a first fatty acid and on the other hand a flow enriched with a fourth fatty acid; at least one among the first unit for chromatographic separation, the second unit for chromatographic separation and the third unit for chromatographic separation being a static bed chromatographic separation unit with a single column with recycling in stationary state, wherein the first fatty acid is a first polyunsaturated fatty acid.
A hair styling apparatus (100, 200) comprising: a heated barrel connected to a handle device and generally stationary relative to the handle device during use, the heated barrel defining a hair styling surface; and a rotating member (106, 206) disposed at an end of the hair styling surface, the rotating member (106, 206) being configured to rotate relative to the hair styling surface around a central axis of the heated barrel to gather a user's hair and wind the hair around the hair styling surface, wherein the rotating member comprises a tab, wherein the tab (i) has a portion that extends from a first end of the rotating member along the hair styling surface, and (ii) is spaced from the hair styling surface of the heated barrel to gather the user's hair and guide the hair by directing the user's hair around the heated barrel, and characterized in that the tab is fixedly attached to the rotating member (106, 206) and does not move relative to the rotating member (106, 206) to clamp the hair. a heated barrel connected to a handle device and generally stationary relative to the handle device during use, the heated barrel defining a hair styling surface; and a rotating member (106, 206) disposed at an end of the hair styling surface, the rotating member (106, 206) being configured to rotate relative to the hair styling surface around a central axis of the heated barrel to gather a user's hair and wind the hair around the hair styling surface, wherein the rotating member comprises a tab, wherein the tab (i) has a portion that extends from a first end of the rotating member along the hair styling surface, and (ii) is spaced from the hair styling surface of the heated barrel to gather the user's hair and guide the hair by directing the user's hair around the heated barrel, and characterized in that the tab is fixedly attached to the rotating member (106, 206) and does not move relative to the rotating member (106, 206) to clamp the hair.
A method, comprising: determining, by a more capable device, MCD, a critical destination, CD, in a topology of a computer network for the traffic in that network, a CD being a network node to which a large proportion of network traffic is sent, wherein determining the CD at the MCD is based on any of: receipt of a flooded announcement in the computer network; polling a central policy engine by the MCD upon startup of the MCD; or an analysis of traffic in the network; transmitting an unsolicited reactive routing route request, RREQ, message from the MCD to the CD while there is an absence of any present need to send data traffic to the CD; receiving a first route reply, RREP, message at the MCD from the CD, the first RREP message having a route from the MCD to the CD; storing the route at the MCD; and transmitting a second RREP message from the MCD to one or more less capable devices, LCDs, to provide the route from each respective LCD to the CD via the MCD, wherein the second RREP message presents the MCD as a final hop to the CD regardless of additional hops between the MCD and the CD and wherein the method further comprises: receiving a source routed packet at the MCD on the route from an LCD to the CD, the source routed packet having a path; and inserting the additional hops between the MCD and the CD into the path of the source routed packet. determining, by a more capable device, MCD, a critical destination, CD, in a topology of a computer network for the traffic in that network, a CD being a network node to which a large proportion of network traffic is sent, wherein determining the CD at the MCD is based on any of: receipt of a flooded announcement in the computer network; polling a central policy engine by the MCD upon startup of the MCD; or an analysis of traffic in the network; receipt of a flooded announcement in the computer network; polling a central policy engine by the MCD upon startup of the MCD; or an analysis of traffic in the network; transmitting an unsolicited reactive routing route request, RREQ, message from the MCD to the CD while there is an absence of any present need to send data traffic to the CD; receiving a first route reply, RREP, message at the MCD from the CD, the first RREP message having a route from the MCD to the CD; storing the route at the MCD; and transmitting a second RREP message from the MCD to one or more less capable devices, LCDs, to provide the route from each respective LCD to the CD via the MCD, wherein the second RREP message presents the MCD as a final hop to the CD regardless of additional hops between the MCD and the CD and wherein the method further comprises: receiving a source routed packet at the MCD on the route from an LCD to the CD, the source routed packet having a path; and inserting the additional hops between the MCD and the CD into the path of the source routed packet. receiving a source routed packet at the MCD on the route from an LCD to the CD, the source routed packet having a path; and inserting the additional hops between the MCD and the CD into the path of the source routed packet.
Dual-clutch transmission for a motor vehicle, having a first and a second transmission input shaft (2, 3) and having at least one transmission output shaft, wherein the first transmission input shaft is assigned particular gear stages, preferably the first, third, fifth, and/or seventh gear stage, and wherein the second transmission input shaft is assigned particular other gear stages, preferably the second, fourth, and/or sixth gear stage, and wherein a separate receiving element is provided which is arranged substantially within the transmission housing, wherein the first and second transmission input shaft (2, 3) and the transmission output shaft can be mounted and/or supported within the transmission housing by means of the receiving element, and in that at least one of the transmission input shafts (2, 3) and the transmission output shaft extends through the receiving element, characterized in that the receiving element is formed substantially as a receiving block for receiving and/or for the arrangement of the actuators for the actuation of the shift rails.
A multicast data packet processing method, applied to a point-to-multipoint, P2MP,-based bit index explicit replication, BIER, multicast tree, wherein an intermediate node of the multicast tree supports to use P2MP to forward a BIER packet, and the method comprises: receiving, by the intermediate node, a first multicast data packet, wherein a BIER header of the first multicast data packet comprises a first label; obtaining, by the intermediate node, a first forwarding entry based on the first label, wherein the first forwarding entry comprises the first label, a first identifier, and a second identifier, the first identifier is used to identify the multicast tree, and the second identifier is used to instruct to perform P2MP forwarding on the packet; obtaining, by the intermediate node, a second forwarding entry based on the first identifier, wherein the second forwarding entry comprises the first identifier and a second label; and obtaining, by the intermediate node, a second multicast data packet based on the second identifier, the second forwarding entry, and the first multicast data packet, and sending the second multicast data packet, wherein the second multicast data packet comprises the second label. receiving, by the intermediate node, a first multicast data packet, wherein a BIER header of the first multicast data packet comprises a first label; obtaining, by the intermediate node, a first forwarding entry based on the first label, wherein the first forwarding entry comprises the first label, a first identifier, and a second identifier, the first identifier is used to identify the multicast tree, and the second identifier is used to instruct to perform P2MP forwarding on the packet; obtaining, by the intermediate node, a second forwarding entry based on the first identifier, wherein the second forwarding entry comprises the first identifier and a second label; and obtaining, by the intermediate node, a second multicast data packet based on the second identifier, the second forwarding entry, and the first multicast data packet, and sending the second multicast data packet, wherein the second multicast data packet comprises the second label.
An injection assembly for pressure die casting systems, comprising an injection cylinder adapted to inject liquid metal into a casting cavity, said injection cylinder being actuated by a hydraulic flow of an oil-pressure controlled circuit; said oil-pressure controlled circuit comprising a hydraulic cushion which blocks and releases the flow of said hydraulic fluid in said injection cylinder; said hydraulic cylinder providing a counter pressure of a preset value to control the injection speeds and to prevent cavitation in said injection cylinder; said injection cylinder comprising an injection piston which forms a piston side chamber and an annular chamber; said hydraulic cushion comprising a cylindrical body which contains a stem provided with a piston and moving axially in said cylindrical body; said piston dividing the internal volume of said cylindrical body into a reduced chamber and into a larger chamber; said injection assembly being characterized in that said cylindrical body of said hydraulic cushion comprises a resting surface opposed to said stem; said resting surface being smaller than the surface of said stem.
Integrated temperature sensor device comprising: a temperature sensor (110, 120) configured to provide an analog signal corresponding to an ambient temperature; an analog-to-digital converter receiving the analog signal; a programmable digital filter coupled to the analog-to-digital converter; the integrated temperature sensor device being characterised by: a first register coupled with the analog-to-digital converter for storing the output of the analog-to-digital converter, a second register coupled with the digital filter for storing the filtered temperature value, and a serial interface coupled with a control unit, wherein the control unit is configured to access the first and second register (142, 146). a temperature sensor (110, 120) configured to provide an analog signal corresponding to an ambient temperature; an analog-to-digital converter receiving the analog signal; a programmable digital filter coupled to the analog-to-digital converter; the integrated temperature sensor device being characterised by: a first register coupled with the analog-to-digital converter for storing the output of the analog-to-digital converter, a second register coupled with the digital filter for storing the filtered temperature value, and a serial interface coupled with a control unit, wherein the control unit is configured to access the first and second register (142, 146). a first register coupled with the analog-to-digital converter for storing the output of the analog-to-digital converter, a second register coupled with the digital filter for storing the filtered temperature value, and a serial interface coupled with a control unit, wherein the control unit is configured to access the first and second register (142, 146).
A multi-ply paper substrate produced by an air-laid process, comprising: at least two plies contacting are bonded to one another by an adhesive selected from the group consisting of starch, cooked starch, adhesive starch,bicomponent fiber,synthetic fiber, binder, or any combination thereof; the multi-ply paper substrate having a basis weight of 80-200 gsm; an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.) in. as measured by TAPPI method 541; a delamination ply with an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.in.) as measured by TAPPI method 541, wherein the delamination ply comprises 50% or greater by weight of fibers of hardwood fibers, less than 50% by weight of fibers of refined or fibrillated fibers or less than 50% by weight of an adhesive; one or more strength plies with an internal bond greater than that of the delamination ply, wherein the strength ply or plies comprise(s) more than 50% of adhesive, more than 50% by weight of fibers of softwood fibers or more than 50% bv weight of fibers of refined or fibrillated fibers; one or more outer ply comprising not-over-refined or long fibers; an MD tensile of 35 - 525 N/cm (20-300 lbε/inch) width as measured by TAPPI method 494; and a CD tensile of 17.5 - 525 N/cm (10-300 lbε/inch) width as measured by TAPPI method 494. at least two plies contacting are bonded to one another by an adhesive selected from the group consisting of starch, cooked starch, adhesive starch,bicomponent fiber,synthetic fiber, binder, or any combination thereof; the multi-ply paper substrate having a basis weight of 80-200 gsm; an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.) in. as measured by TAPPI method 541; a delamination ply with an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.in.) as measured by TAPPI method 541, wherein the delamination ply comprises 50% or greater by weight of fibers of hardwood fibers, less than 50% by weight of fibers of refined or fibrillated fibers or less than 50% by weight of an adhesive; one or more strength plies with an internal bond greater than that of the delamination ply, wherein the strength ply or plies comprise(s) more than 50% of adhesive, more than 50% by weight of fibers of softwood fibers or more than 50% bv weight of fibers of refined or fibrillated fibers; one or more outer ply comprising not-over-refined or long fibers; an MD tensile of 35 - 525 N/cm (20-300 lbε/inch) width as measured by TAPPI method 494; and a CD tensile of 17.5 - 525 N/cm (10-300 lbε/inch) width as measured by TAPPI method 494.
A communication method, comprising: receiving (Step 201), by a terminal, a bandwidth part, BWP, configuration message from a network device, wherein the BWP configuration message is used to configure a semi-persistent scheduling, SPS, resource of at least one BWP; receiving (Step 202), by the terminal, BWP indication information from the network device, wherein the BWP indication information is used to instruct the terminal to activate a first BWP in the at least one BWP; and in response to the BWP indication information, activating (Step 203), by the terminal, the SPS resource on the first BWP. receiving (Step 201), by a terminal, a bandwidth part, BWP, configuration message from a network device, wherein the BWP configuration message is used to configure a semi-persistent scheduling, SPS, resource of at least one BWP; receiving (Step 202), by the terminal, BWP indication information from the network device, wherein the BWP indication information is used to instruct the terminal to activate a first BWP in the at least one BWP; and in response to the BWP indication information, activating (Step 203), by the terminal, the SPS resource on the first BWP.
A trailer control system for a trailer comprising: an electronic braking system (5, 6); an electrical connection, by which electrical power may be provided to the trailer from an external source; and a fluid connection, through which pressurised fluid may be supplied to the trailer from an external source, the control system comprising a fluid sensor, positioned to sense the introduction of pressurised fluid into the fluid connection, and characterised in that if the fluid sensor senses the supply of pressurised fluid into the fluid connection when no external power source is connected to the electrical connection, power is provided to the EBS (5, 6) from an on-board power source to activate the EBS. an electronic braking system (5, 6); an electrical connection, by which electrical power may be provided to the trailer from an external source; and a fluid connection, through which pressurised fluid may be supplied to the trailer from an external source, the control system comprising a fluid sensor, positioned to sense the introduction of pressurised fluid into the fluid connection, and characterised in that if the fluid sensor senses the supply of pressurised fluid into the fluid connection when no external power source is connected to the electrical connection, power is provided to the EBS (5, 6) from an on-board power source to activate the EBS.
An assembly including a first tubular well casing, a second tubular well casing and a clamping arrangement for clamping the first tubular well casing and the second tubular well casing wherein the first tubular well casing and the second tubular well casing are axially aligned and extend in opposite directions, characterised by the arrangement comprising a collar having an externally tapered surface, the clamping arrangement also including an annular component with an internally tapered surface, the collar and the annular component being relatively axially moveable between a first position in which the tapered surface of the annular component exerts no radial force on the collar and a second position which the tapered surface of the annular component exerts sufficient radial force to distort the collar inwardly to grip the first tubular well casing and the second tubular well casing.