mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving (405, 410) management plane traffic at a software-defined networking, SDN, switch on a network node in a computer network; forwarding the management plane traffic from the SDN switch to a management engine executing on a processor in the network node, wherein the processor is based on an instruction set architecture, ISA; generating, at the management engine, one or more performance metrics associated with the computer network based on the management plane traffic; and comparing the one or more performance metrics to respective thresholds; wherein the method is characterized in that it further comprises: upon determining that the at least one performance metric exceeds one of the respective thresholds, issuing an alert to the SDN switch to perform a corrective action; receiving, at the SDN switch, a management plane packet from the management engine; forwarding the management plane packet to a neighboring node in the computer network; and performing data plane traffic switching using an application-specific integrated circuit, ASIC, that is separate from the processor. receiving (405, 410) management plane traffic at a software-defined networking, SDN, switch on a network node in a computer network; forwarding the management plane traffic from the SDN switch to a management engine executing on a processor in the network node, wherein the processor is based on an instruction set architecture, ISA; generating, at the management engine, one or more performance metrics associated with the computer network based on the management plane traffic; and comparing the one or more performance metrics to respective thresholds; upon determining that the at least one performance metric exceeds one of the respective thresholds, issuing an alert to the SDN switch to perform a corrective action; receiving, at the SDN switch, a management plane packet from the management engine; forwarding the management plane packet to a neighboring node in the computer network; and performing data plane traffic switching using an application-specific integrated circuit, ASIC, that is separate from the processor.
A recombinant fusion protein comprising: a heavy chain consisting of, in sequence from the N-terminal, a variable domain nominally V H 1, a C H 1 region and a further variable domain nominally V H 2, a light chain consisting of, in sequence from the N-terminal, a variable domain nominally V L 1, a CL domain and a variable domain nominally V L 2, wherein said heavy and light chains are aligned to provide a first binding site formed by a first variable domain pair of V H 1 and V L 1 and a second binding site formed by a second variable domain pair of V H 2 and V L 2, wherein there is a disulfide bond between the second variable domain pair of V H 2 and V L 2 between two cysteine residues selected from the group consisting of VH37 and VL95, VH44 and VL100, VH44 and VL105, VH45 and VL87, VH55 and VL101, VH100 and VL50, VH100b and VL49, VH98 and VL46, and, VH105 and VL43, such as wherein the cysteine of V H 2 is at position 44 and the cysteine of V L 2 is at position 100, and said fusion protein is conjugated to one or two PEG polymer molecules through a solvent exposed cysteine, wherein the numbering is Kabat numbering of variable domains. a heavy chain consisting of, in sequence from the N-terminal, a variable domain nominally V H 1, a C H 1 region and a further variable domain nominally V H 2, a light chain consisting of, in sequence from the N-terminal, a variable domain nominally V L 1, a CL domain and a variable domain nominally V L 2,
A computer-implemented method for reconstructing a compressed arithmetic circuit from instructions, the compressed arithmetic circuit and the instructions provided in a serialised bit stream, wherein the compressed arithmetic circuit has been compressed by: creating a serialised circuit from an arithmetic circuit having a plurality of data fields, by applying a simplification rule comprising removing a first subset of said data fields, wherein the arithmetic circuit includes information comprising a total number of wire identifiers, wire identifiers for inputs and outputs of the arithmetic circuit, gates, and wire identifiers of inputs and outputs of the gates, and wherein the first subset of data fields comprises a first subset of wire identifiers from the decompressed arithmetic circuit, wherein the first subset of wire identifiers are derivable from one of: the remaining wire identifiers, and the total number of wire identifiers; and encoding the serialised circuit by an entropy coding scheme; the method of reconstructing the arithmetic circuit comprising: de-compressing the compressed arithmetic circuit according to the instructions to determine the serialised circuit; and de-serialising the serialised circuit according to the instructions to determine the arithmetic circuit. the remaining wire identifiers, and the total number of wire identifiers; and encoding the serialised circuit by an entropy coding scheme; the method of reconstructing the arithmetic circuit comprising: de-compressing the compressed arithmetic circuit according to the instructions to determine the serialised circuit; and de-serialising the serialised circuit according to the instructions to determine the arithmetic circuit. de-compressing the compressed arithmetic circuit according to the instructions to determine the serialised circuit; and de-serialising the serialised circuit according to the instructions to determine the arithmetic circuit.
Ophthalmological apparatus for working on eye tissue, including a laser source that is configured to produce a pulsed laser beam; a focusing optical unit that is configured to focus the pulsed laser beam into the eye tissue; a scanner system that is configured to steer the pulsed laser beam onto work target points in the eye tissue; a measurement system that is configured to optically capture structures in the eye tissue; and a circuit that is configured to control the scanner system in such a way that the scanner system steers the pulsed laser beam onto work target points on a first outer face of a lenticule to be cut in the eye tissue in order to produce a first tissue cut for cutting the lenticule; characterized in that the circuit moreover is configured to control the measurement system in such a way that the measurement system captures the first outer face of the lenticule that is produced by the first tissue cut and to control the scanner system in such a way that the scanner system steers the pulsed laser beam onto work target points on a second outer face, positioned in relation to the captured first outer face of the lenticule, of the lenticule to be cut in order to produce a second tissue cut, positioned in relation to the captured first outer face of the lenticule, for cutting the lenticule.
A quantizing method of a frame-end subframe, the method comprising: obtaining a line spectral frequency, LSF, coefficient or an immitance spectral frequency, ISF, coefficient from a linear prediction coding, LPC, coefficient of the 5 frame-end subframe in an input signal including at least one of a speech signal and an audio signal; the method being characterized by: determining a magnitude weighting function, based on a magnitude of a spectrum bin corresponding to a frequency of the ISF coefficient or the LSF coefficient; 10 determining a frequency weighting function based on frequency information from the ISF coefficient or the LSF coefficient; determining a weighting function of the frame-end subframe by combining the magnitude weighting function and the frequency weighting function; quantizing the ISF coefficient or the LSF coefficient based on the determined 15 weighting function; and converting the quantized ISF coefficient or the quantized LSF coefficient to a quantized LPC coefficient, wherein the magnitude of the spectrum bin is obtained by using a fast Fourier transform coefficient which is frequency-converted from the input signal, and 20 wherein the magnitude weighting function is based on a maximum value of the magnitude of the spectrum bin corresponding to the frequency of the ISF coefficient or the LSF coefficient and the magnitude of at least one neighboring spectrum bin. determining a magnitude weighting function, based on a magnitude of a spectrum bin corresponding to a frequency of the ISF coefficient or the LSF coefficient; 10 determining a frequency weighting function based on frequency information from the ISF coefficient or the LSF coefficient; determining a weighting function of the frame-end subframe by combining the magnitude weighting function and the frequency weighting function; quantizing the ISF coefficient or the LSF coefficient based on the determined 15 weighting function; and converting the quantized ISF coefficient or the quantized LSF coefficient to a quantized LPC coefficient, wherein the magnitude of the spectrum bin is obtained by using a fast Fourier transform coefficient which is frequency-converted from the input signal, and 20 wherein the magnitude weighting function is based on a maximum value of the magnitude of the spectrum bin corresponding to the frequency of the ISF coefficient or the LSF coefficient and the magnitude of at least one neighboring spectrum bin.
A cooling member configured to be mounted between battery cells to remove heat generated from the battery cells during charge and discharge of the battery cells, wherein each of the battery cells is a pouch-shaped battery cell configured to have a structure in which an electrode assembly of a cathode/separator/anode structure is mounted in an electrode assembly receiving part formed at a battery case formed of a laminate sheet comprising a resin layer and a metal layer, and a sealed portion, sealed by thermal welding, is formed at the outer edge of the electrode assembly receiving part, wherein the cooling member comprises: a plate-shaped heat dissipation fin disposed between the battery cells in a state in which opposite main surfaces of the heat dissipation fin are in tight contact with the battery cells; and a coolant conduit configured to have a hollow structure through which a coolant flows, the coolant conduit thermally contacting the heat dissipation fin, the coolant conduit being configured to be located at an outside of an electrode assembly receiving part of each of the battery cells when the heat dissipation fin is disposed between the battery cells, wherein the coolant conduit is configured so that at least a portion of the coolant conduit is bent so as to correspond to the shape of an outer edge of the electrode assembly receiving part of each of the battery cells. a plate-shaped heat dissipation fin disposed between the battery cells in a state in which opposite main surfaces of the heat dissipation fin are in tight contact with the battery cells; and a coolant conduit configured to have a hollow structure through which a coolant flows, the coolant conduit thermally contacting the heat dissipation fin, the coolant conduit being configured to be located at an outside of an electrode assembly receiving part of each of the battery cells when the heat dissipation fin is disposed between the battery cells, wherein the coolant conduit is configured so that at least a portion of the coolant conduit is bent so as to correspond to the shape of an outer edge of the electrode assembly receiving part of each of the battery cells.
An inflatable slide, comprising: a slide surface; a tubular member coupled to the slide surface, the tubular member comprising at least one of a sheer material, a translucent material, and a transparent material defining a chamber internal to the tubular member; and a light source directed into the chamber and configured to illuminate the tubular member from within the chamber, wherein the light source is disposed external to the chamber and on an outer surface of the tubular member. a slide surface; a tubular member coupled to the slide surface, the tubular member comprising at least one of a sheer material, a translucent material, and a transparent material defining a chamber internal to the tubular member; and a light source directed into the chamber and configured to illuminate the tubular member from within the chamber, wherein the light source is disposed external to the chamber and on an outer surface of the tubular member.
Portable inhaler for a fluid having a preferably insertable container containing the fluid and having a monitoring device for detecting use of the inhaler, wherein the monitoring device is constructed so that it automatically switches off or is deactivated or goes into standby mode, characterized in that the monitoring device comprises an acceleration sensor which can measure or detect accelerations in every three-dimensional direction, wherein the monitoring device is configured to determine a path of movement from acceleration values taking account of respective times, and wherein the monitoring device is adapted to be activated or woken up by detection of movement of the inhaler by means of the acceleration sensor.
A disposable dispenser unit comprising, a fluid reservoir comprising a bag or a bottle having an opening, a tag for storing information, a dispenser head formed by a pump chamber fluidly connected by an outlet to at least one injector nozzle, and a means disposed at the dispenser head for attachment of the disposable dispenser unit to a diagnostic system, wherein the dispenser head is fluidly connected to the fluid reservoir via an inlet of the pump chamber, wherein the pump chamber comprises a piston which is hollow and has at least two openings and comprises a volume which can be filled with fluid so that the fluid that is to be dispensed flows through the piston to the injector nozzle, wherein the pump chamber comprises an inlet valve and an outlet valve arranged at the outlet of the pump chamber and the piston comprises the inlet valve in one of said openings, wherein the fluid reservoir is located above the pump chamber, characterized in that the disposable dispenser unit further comprises a fluid sensor for detecting a fluid within the fluid reservoir. said fluid sensor being disposed below the opening of the bag or bottle, between said opening and the pump chamber and in proximity to the opening.
A method for creating batches of unvulcanized rubber before their mixture in a rubber mixer, including selecting at least one batch for mixing in the mixer, wherein each batch corresponds to a selection of the rubber bales (A I, B I, C I) which each correspond to a nature of rubber composition having predetermined characteristics, comprising the steps of: providing a supply station where uncured rubber bales (A I, B I, C I) are supplied from the corresponding rubber natures (A, B, C); selecting unvulcanized rubber bales (A I, B I, C I) from natures (A, B, C) and in a predetermined proportion corresponding to a selected batch at the supply station; providing a cutting station comprising at least one blade for cutting at least one bale (A I, B I, C I) into pieces (A IJ, B IJ, C IJ); providing a weighing station for weighing the bales (A I, B I, C I) and the pieces (A IJ, B IJ, C IJ); providing a storage station for holding the pieces (A IJ, B IJ, C IJ) between the successive batch creation cycles; weighing the bales (A I, B I, C I) at the weighing station to obtain the weight of the bales (A I, B I, C I); comparing the weight of the bales (A I, B I, C I) with the required weight of the batch in which the batch is created in mixing different types and grades of elastomers; and characterised by transporting the bales (A I, B I, C I) and the pieces (A IJ, B IJ, C IJ) via feed belt from the supply station to the cutting station, the weighing station, the storage station and the rubber mixer in a sequence determined by the equivalence between the required weight of the batch and (a) the weight of the bales (A I, B I, C I) or (b) a sum of the weight of the bales (A I, B I, C I) and a weight of the pieces (A IJ, B IJ, C IJ). providing a supply station where uncured rubber bales (A I, B I, C I) are supplied from the corresponding rubber natures (A, B, C); selecting unvulcanized rubber bales (A I, B I, C I) from natures (A, B, C) and in a predetermined proportion corresponding to a selected batch at the supply station; providing a cutting station comprising at least one blade for cutting at least one bale (A I, B I, C I) into pieces (A IJ, B IJ, C IJ); providing a weighing station for weighing the bales (A I, B I, C I) and the pieces (A IJ, B IJ, C IJ); providing a storage station for holding the pieces (A IJ, B IJ, C IJ) between the successive batch creation cycles; weighing the bales (A I, B I, C I) at the weighing station to obtain the weight of the bales (A I, B I, C I); comparing the weight of the bales (A I, B I, C I) with the required weight of the batch in which the batch is created in mixing different types and grades of elastomers; and characterised by transporting the bales (A I, B I, C I) and the pieces (A IJ, B IJ, C IJ) via feed belt from the supply station to the cutting station, the weighing station, the storage station and the rubber mixer in a sequence determined by the equivalence between the required weight of the batch and (a) the weight of the bales (A I, B I, C I) or (b) a sum of the weight of the bales (A I, B I, C I) and a weight of the pieces (A IJ, B IJ, C IJ).
A turbine visual image inspection apparatus comprising: an optical tube housing having a viewing port; and a visual image reflective mirror series mounted within the optical tube housing in optical alignment with the viewing port, the visual image reflective mirror series having spectral reflectivity from 550nm to 20μm, and capable of continuous operation at temperatures greater than 500 degrees Celsius, wherein the visual image reflective mirror series comprises a concave mirror, an objective reflector mirror, an ocular reflector mirror, and a convex mirror, wherein the concave mirror captures an optical visual image within its objective field of view and reflects the optical visual image to the objective reflector mirror, wherein the objective reflector mirror relays the optical visual image to the ocular reflector mirror, wherein the ocular reflector mirror reflects the optical visual image to the convex mirror, wherein the convex mirror focuses the optical visual image on a focal plane. an optical tube housing having a viewing port; and a visual image reflective mirror series mounted within the optical tube housing in optical alignment with the viewing port, the visual image reflective mirror series having spectral reflectivity from 550nm to 20μm, and capable of continuous operation at temperatures greater than 500 degrees Celsius, wherein the visual image reflective mirror series comprises a concave mirror, an objective reflector mirror, an ocular reflector mirror, and a convex mirror, wherein the concave mirror captures an optical visual image within its objective field of view and reflects the optical visual image to the objective reflector mirror, wherein the objective reflector mirror relays the optical visual image to the ocular reflector mirror, wherein the ocular reflector mirror reflects the optical visual image to the convex mirror, wherein the convex mirror focuses the optical visual image on a focal plane.
A charging method, wherein the method comprises: generating, by a control plane, CP, entity, a user plane, UP, reporting policy based on a charging rule; requesting, by the CP entity, a required quota from an online charging system based on the charging rule that is installed or activated by a policy control and charging rules function entity; receiving, by the CP entity, a quota delivered by the online charging system, and generating UP quota information based on the quota; and delivering, by the CP entity, the UP reporting policy and the UP quota information to an UP entity, wherein the UP reporting policy includes a parameter that indicates an association relationship between the UP reporting policy and the UP quota information. generating, by a control plane, CP, entity, a user plane, UP, reporting policy based on a charging rule; requesting, by the CP entity, a required quota from an online charging system based on the charging rule that is installed or activated by a policy control and charging rules function entity; receiving, by the CP entity, a quota delivered by the online charging system, and generating UP quota information based on the quota; and delivering, by the CP entity, the UP reporting policy and the UP quota information to an UP entity, wherein the UP reporting policy includes a parameter that indicates an association relationship between the UP reporting policy and the UP quota information.
A wireless apparatus comprising: a network coordinator module configured to coordinate operation of a network in one or more wireless network architectures; and a network scheduler module that is configured to schedule wireless communications for one or more wireless communication devices in the network, wherein the apparatus is configured to transmit a beacon frame that contains a capability information field, wherein the capability information field contains a sub-field that indicates whether a basic service set, BSS, type of an identified network architecture is a personal BSS, PBSS, wherein the PBSS network architecture is an IEEE 802.11 network architecture configured to operate in the mmWave band. a network coordinator module configured to coordinate operation of a network in one or more wireless network architectures; and a network scheduler module that is configured to schedule wireless communications for one or more wireless communication devices in the network, wherein the apparatus is configured to transmit a beacon frame that contains a capability information field, wherein the capability information field contains a sub-field that indicates whether a basic service set, BSS, type of an identified network architecture is a personal BSS, PBSS, wherein the PBSS network architecture is an IEEE 802.11 network architecture configured to operate in the mmWave band.
A mobile station apparatus (A12, A11, A1 to A4) configured to transmit to a base station apparatus, a radio resource control message including mobile station apparatus capability information, the mobile station apparatus being characterized in that the mobile station apparatus capability information includes first_information and second information, the first information includes a first frequency band number (RF-BWm) indicating a first frequency band (BAND1) of a plurality of frequency bands (BAND1, BAND2) supported by the mobile station apparatus (A12, A11, A1 to A4), the first frequency band (BAND1) includes a first sub-frequency band (BAND11) used for a first aggregated component carrier for uplink, and a second sub-frequency band (BAND12) used for a second aggregated component carrier for downlink, the first aggregated component carrier includes at least one component carrier (f1-T1, f1-T2, f1-T3), the second aggregated component carrier includes at least one component carrier (f1-R1, f1-R2, f1-R3), the second information includes first and second indicators (BB_BWn, BB_MDk, BB_DMl) respectively associated with the first and second sub-frequency bands (BAND11, BAND12), the first indicator indicates a first frequency bandwidth (BB_BWm) of the first aggregated component carrier and a first number (BB_MDk) of the at least one component carrier included in the first aggregated component carrier, and the second indicator indicates a second frequency bandwidth (BB_BWn) of the second aggregated component carrier and a second number (BB_DMl) of the at least one component carrier included in the second aggregated component carrier.
An ABCF1 inhibiting siRNA for use in the treatment of a disease associated with an aberrant DNA sensing pathway, wherein the disease associated with an aberrant DNA sensing pathway is one of Aicardi-Goutieres syndrome, familial chilblain lupus, and retinal vasculopathy with cerebral leukodystrophy (RVCL).