mhurhangee/ep-ind-claims huggingface dataset:
1. A needle cartridge adapted to be attached to a receiver on a surgical suturing device, the cartridge comprising: an arced needle having a body (81, 82) and a leading end, a trailing end, and a length of suture; a track receiving the needle and defining a circular path; a needle driver operable to rotate the needle along the circular path in a first rotational direction, wherein the needle driver reciprocates between a drive stroke and a return stroke and the drive stroke rotates the needle about 180 degrees; and said needle cartridge being characterized in that it further comprises a cover releasable positioned on the body and capturing the needle in the track, the cover comprising an outer face and an inner face, and two cleats (106a, 106b) projecting from the inner face into the track, each cleat adapted to engage the trailing end of the needle and prevent the needle from rotating in a second rotational direction opposite the first rotational direction, wherein the two cleats are spaced about 180 degrees from one another along the circular path. an arced needle having a body (81, 82) and a leading end, a trailing end, and a length of suture; a track receiving the needle and defining a circular path; a needle driver operable to rotate the needle along the circular path in a first rotational direction, wherein the needle driver reciprocates between a drive stroke and a return stroke and the drive stroke rotates the needle about 180 degrees; and said needle cartridge being characterized in that it further comprises a cover releasable positioned on the body and capturing the needle in the track, the cover comprising an outer face and an inner face, and two cleats (106a, 106b) projecting from the inner face into the track, each cleat adapted to engage the trailing end of the needle and prevent the needle from rotating in a second rotational direction opposite the first rotational direction, wherein the two cleats are spaced about 180 degrees from one another along the circular path.
A method for quantising the 3' maturated linear form of the DNA genome of the human immunodeficiency virus (HIV-1) in a sample, wherein: (i) the total linear forms of the HIV-1 genome are quantised, where the quantisation of step (i) is made by quantitative PCR from the ligation product obtained by performing a ligation reaction with a double strained oligonucleotide which allows a ligation with the 3' maturated linear form and the 3' non-maturated linear form of the DNA genome of HIV-1 and comprises a cohesive end of two nucleotides of the sequence 5'-GT-3' and (ii) the non-maturated linear form of the DNA genome of HIV-1 is quantised wherein the amount of 3' maturated linear form is deducted by subtracting the amount of non-maturated linear form of the DNA genome of HIV-1 quantised in step (ii) from the total amount of the linear forms of the HIV-1 genome quantised in step (i) where step (ii) is made by quantitative PCR from the ligation product obtained by performing a ligation reaction with a double strain oligonucleotide which allows a specific ligation with the 3' non-maturated linear form of the DNA genome of HIV-1 and comprises a blunt end. (i) the total linear forms of the HIV-1 genome are quantised, where the quantisation of step (i) is made by quantitative PCR from the ligation product obtained by performing a ligation reaction with a double strained oligonucleotide which allows a ligation with the 3' maturated linear form and the 3' non-maturated linear form of the DNA genome of HIV-1 and comprises a cohesive end of two nucleotides of the sequence 5'-GT-3' and (ii) the non-maturated linear form of the DNA genome of HIV-1 is quantised
A method for predicting lifespan characteristics of a lithium secondary battery, the method characterized in comprising: a first step of subjecting a lithium secondary battery in a form of a blocking cell to an impedance spectroscopic analysis under application of multiple frequencies; a second step of deriving a relationship of capacitance (F/cm 2) for each frequency (Hz) from the impedance spectroscopic analysis result, and calculating the charge amount (F/cm 2) of the lithium secondary battery therefrom; a third step of repeatedly performing the first and second steps while repeatedly performing the electrochemical reaction for the lithium secondary battery for x cycles, to thereby collect charge amount (F/cm 2) data of the lithium secondary battery for each x cycle; and a fourth step of measuring the capacity y (mAh/g) for each x cycle for a lithium secondary battery in a form of a non-blocking cell, and allowing it to correspond to the charge amount (F/cm 2) data for each x cycle collected in the third step, to thereby derive a prediction expression of the capacity for each cycle of the lithium secondary battery. a first step of subjecting a lithium secondary battery in a form of a blocking cell to an impedance spectroscopic analysis under application of multiple frequencies; a second step of deriving a relationship of capacitance (F/cm 2) for each frequency (Hz) from the impedance spectroscopic analysis result, and calculating the charge amount (F/cm 2) of the lithium secondary battery therefrom; a third step of repeatedly performing the first and second steps while repeatedly performing the electrochemical reaction for the lithium secondary battery for x cycles, to thereby collect charge amount (F/cm 2) data of the lithium secondary battery for each x cycle; and a fourth step of measuring the capacity y (mAh/g) for each x cycle for a lithium secondary battery in a form of a non-blocking cell, and allowing it to correspond to the charge amount (F/cm 2) data for each x cycle collected in the third step, to thereby derive a prediction expression of the capacity for each cycle of the lithium secondary battery.
A smart radio communication system for allocating an optimal channel, for each service requested by a terminal, comprising: a channel allocation apparatus implementing the functionality of a global control plane, GCP, the channel allocation apparatus comprising: an information collection unit to access a plurality of radio access technologies, RATs (200, 300, 400), and to collect, from the plurality of RATs, information associated with the plurality of RATs; and a channel allocation unit to allocate, to a terminal, an optimal channel for each service, using the collected information, a communication unit to transmit and receive information associated with setting or changing of the optimal channel using a control channel, wherein the control channel is separately provided from a data channel and wherein the data channel includes the allocated optimal channel, wherein the collected information includes channel status of each RAT, the requested type of the service by the terminal or the data rate requested by the terminal, and wherein the optimal channel is determined or changed based on at least one of the channel status r of each RAT, the requested type of the service by the terminal or the data rate requested by the terminal. a channel allocation apparatus implementing the functionality of a global control plane, GCP, the channel allocation apparatus comprising: an information collection unit to access a plurality of radio access technologies, RATs (200, 300, 400), and to collect, from the plurality of RATs, information associated with the plurality of RATs; and a channel allocation unit to allocate, to a terminal, an optimal channel for each service, using the collected information, a communication unit to transmit and receive information associated with setting or changing of the optimal channel using a control channel, wherein the control channel is separately provided from a data channel and wherein the data channel includes the allocated optimal channel, wherein the collected information includes channel status of each RAT, the requested type of the service by the terminal or the data rate requested by the terminal, and wherein the optimal channel is determined or changed based on at least one of the channel status r of each RAT, the requested type of the service by the terminal or the data rate requested by the terminal.
A method of encoding a variable having one of a plurality of states using an integrated circuit comprising a physical unclonable function module able to generate a fingerprint value deterministically dependent on one or more physical fabrication properties of the integrated circuit, the method comprising: using the physical unclonable function module to generate said fingerprint value; generating a first encoding value using the fingerprint value; generating a second encoding value using the fingerprint value; and encoding said variable such that: the variable is encoded using said first encoding value when the variable has a first state; and the variable is encoded using said second encoding value when the variable has a second state. using the physical unclonable function module to generate said fingerprint value; generating a first encoding value using the fingerprint value; generating a second encoding value using the fingerprint value; and encoding said variable such that: the variable is encoded using said first encoding value when the variable has a first state; and the variable is encoded using said second encoding value when the variable has a second state. the variable is encoded using said first encoding value when the variable has a first state; and the variable is encoded using said second encoding value when the variable has a second state.
Cigarette paper booklet, having an outer packaging which has a cover and into which at least one cigarette paper booklet insert (2, 2'), which receives exactly one stack of cigarette paper, can be inserted, characterized in that the cigarette paper booklet insert (2, 2') is not visible from the outside when the cover of the packaging is closed and when it is open. having an outer packaging which has a cover and into which at least one cigarette paper booklet insert (2, 2'), which receives exactly one stack of cigarette paper, can be inserted, characterized in that the cigarette paper booklet insert (2, 2') is not visible from the outside when the cover of the packaging is closed and when it is open.
Method for treating poultry manure, characterized in that it comprises: - a first treatment for the dilution of the poultry manure and homogenization and hot, damp alkaline hydrolysis of the diluted poultry manure by means of an alkaline hydrolysis agent to supply at exit a stream of inert materials and stream of hydrolyzed poultry manure; - a second treatment to carry out a flocculation of the stream of hydrolyzed poultry manure and to supply a stream of hydrolyzed and flocculated poultry manure; - a solid-liquid separation to separate the stream of hydrolyzed and flocculated poultry manure in a solid fraction suitable for anaerobic digestion and a liquid fraction; - a liquid post-treatment of the liquid fraction to recover water (32, 60), ammonium sulfate (31, 56) and salts (34, 54, 54a) from the liquid fraction. - a first treatment for the dilution of the poultry manure and homogenization and hot, damp alkaline hydrolysis of the diluted poultry manure by means of an alkaline hydrolysis agent to supply at exit a stream of inert materials and stream of hydrolyzed poultry manure; - a second treatment to carry out a flocculation of the stream of hydrolyzed poultry manure and to supply a stream of hydrolyzed and flocculated poultry manure; - a solid-liquid separation to separate the stream of hydrolyzed and flocculated poultry manure in a solid fraction suitable for anaerobic digestion and a liquid fraction; - a liquid post-treatment of the liquid fraction to recover water (32, 60), ammonium sulfate (31, 56) and salts (34, 54, 54a) from the liquid fraction.
A method of manufacturing a semiconductor device, the method comprising: preparing a die pad (9, 11) on which a first element (1, 4) is held, and leads each having a cutout; and clamping the cutout of each of the leads between molds, and injecting an encapsulating resin material between the molds, thereby integrally encapsulating inner end portions of the leads and the die pad (9, 11) including the first element (1, 4) with the resin material, characterized in that in the clamping of the cutout of each of the leads between the molds, and the injecting of the encapsulating resin material between the molds, the cutout formed in the lead is filled with the resin material. preparing a die pad (9, 11) on which a first element (1, 4) is held, and leads each having a cutout; and clamping the cutout of each of the leads between molds, and injecting an encapsulating resin material between the molds, thereby integrally encapsulating inner end portions of the leads and the die pad (9, 11) including the first element (1, 4) with the resin material, characterized in that in the clamping of the cutout of each of the leads between the molds, and the injecting of the encapsulating resin material between the molds, the cutout formed in the lead is filled with the resin material.
A computer-implemented method comprising: analyzing data describing data flows; determining a grouped portion of the data flows that originate from a first endpoint and terminate at a second endpoint; displaying an interactive chord chart to include a chord with the first endpoint and the second endpoint, the chord representing the grouped portion of the data flows that originate from the first endpoint and terminate at the second endpoint; after receiving a selection of the chord or the first endpoint, expanding the grouped portion of the data flows into sub-groupings of data flows; and updating display of the interactive chord chart to include a set of sub-chords, the set of sub-chords representing the sub-groupings of data flows. analyzing data describing data flows; determining a grouped portion of the data flows that originate from a first endpoint and terminate at a second endpoint; displaying an interactive chord chart to include a chord with the first endpoint and the second endpoint, the chord representing the grouped portion of the data flows that originate from the first endpoint and terminate at the second endpoint; after receiving a selection of the chord or the first endpoint, expanding the grouped portion of the data flows into sub-groupings of data flows; and updating display of the interactive chord chart to include a set of sub-chords, the set of sub-chords representing the sub-groupings of data flows.
Filter apparatus, in particular for stationary ambient air purification, having a blower housing featuring at least one air inlet and at least one air outlet, wherein at least one apparatus for generating an air flow is disposed in the blower housing, said apparatus being capable of generating an air flow from the air inlet to the air outlet, characterized in that the filter apparatus features at least one flexible air guiding hose, wherein the air guiding hose has a first open end connected to the air outlet of the blower housing, and a second closed end, wherein at least one opening, at which at least one filter element is disposed, is present in the air guiding hose between the first and the second end, wherein the filter element separates a raw side within the air guiding hose from a clean side present downstream of the filter element, wherein the air guiding hose is inflatable in an operating state by means of the apparatus for generating the air flow and features a lower air permeability than the at least one filter element.
A method of using a dispatch system comprising a dispatch controller and at least one call device at a plurality of locations, wherein the dispatch controller is operably coupled to the at least one call device, for dispatching a plurality of elevator cars (210, 220), the method comprising the dispatch controller being configured to: receive a call from the call device for at least one elevator car of the plurality of elevator cars (210, 220), wherein the call is from a first location of a plurality of locations; and determine an occupant capacity for each of the plurality of elevator cars (210, 220) by: determining a number of occupants within the plurality of elevator cars (210, 220); and determine a number of calls assigned to the plurality of elevator cars (210, 220) positioned between a current location of the plurality of elevator cars and the first location; and assign the call from the first location to the at least one elevator car of the plurality of elevator cars (210, 220) having a maximum available occupant capacity. receive a call from the call device for at least one elevator car of the plurality of elevator cars (210, 220), wherein the call is from a first location of a plurality of locations; and determine an occupant capacity for each of the plurality of elevator cars (210, 220) by: determining a number of occupants within the plurality of elevator cars (210, 220); and determine a number of calls assigned to the plurality of elevator cars (210, 220) positioned between a current location of the plurality of elevator cars and the first location; and assign the call from the first location to the at least one elevator car of the plurality of elevator cars (210, 220) having a maximum available occupant capacity. determining a number of occupants within the plurality of elevator cars (210, 220); and determine a number of calls assigned to the plurality of elevator cars (210, 220) positioned between a current location of the plurality of elevator cars and the first location; and assign the call from the first location to the at least one elevator car of the plurality of elevator cars (210, 220) having a maximum available occupant capacity.
A network device comprising: a processor; a software defined network, SDN, agent, coupled to the processor, to determine, based on flow rules received from an SDN controller, a tunnel interface corresponding to a service entity to which an incoming packet is to be directed, whereby the tunnel interface corresponds to a port; and a tunneling agent coupled to the processor to: encapsulate the incoming packet based on a tunnel configuration corresponding to the tunnel interface to generate an encapsulated packet, wherein the encapsulated packet includes media access control, MAC, address headers and a virtual local area network, VLAN, tag associated with the incoming packet, wherein the VLAN tag includes one of a VLAN tag present in the incoming packet and a VLAN tag inserted by the tunneling agent; whereby the MAC address headers include a destination address and source address; and provide the encapsulated packet for forwarding to the service entity through the tunnel interface. a processor; a software defined network, SDN, agent, coupled to the processor, to determine, based on flow rules received from an SDN controller, a tunnel interface corresponding to a service entity to which an incoming packet is to be directed, whereby the tunnel interface corresponds to a port; and a tunneling agent coupled to the processor to: encapsulate the incoming packet based on a tunnel configuration corresponding to the tunnel interface to generate an encapsulated packet, wherein the encapsulated packet includes media access control, MAC, address headers and a virtual local area network, VLAN, tag associated with the incoming packet, wherein the VLAN tag includes one of a VLAN tag present in the incoming packet and a VLAN tag inserted by the tunneling agent; whereby the MAC address headers include a destination address and source address; and provide the encapsulated packet for forwarding to the service entity through the tunnel interface. encapsulate the incoming packet based on a tunnel configuration corresponding to the tunnel interface to generate an encapsulated packet, wherein the encapsulated packet includes media access control, MAC, address headers and a virtual local area network, VLAN, tag associated with the incoming packet, wherein the VLAN tag includes one of a VLAN tag present in the incoming packet and a VLAN tag inserted by the tunneling agent; whereby the MAC address headers include a destination address and source address; and provide the encapsulated packet for forwarding to the service entity through the tunnel interface.
Electrical device having power electronics which are accommodated in a metal housing, components of the power electronics being arranged on a first main surface of a circuit carrier, comprising a metallic base plate and at least one layer of structured conductive material on a dielectric, at least one partition of the housing being in direct contact with a fluid cooling medium, wherein the partition wall of the housing is at least partially formed by the circuit carrier so that its second main surface (3") opposite the component side is in direct contact with the fluid cooling medium, and wherein the circuit carrier is connected to the rest of the housing in a fluid-tight manner by a welded joint, characterised in that the cooling medium is water, which is guided along the housing through a cooling channel formed by a plastic water guide element arranged between the partition of the housing and a cover, and in that the circuit carrier is inserted from the water side into an opening before welding and rests there on a circumferential shoulder.