mhurhangee/patent-ind-claim-en huggingface dataset:
A server node for use in a communications network adapted to reduce undesired energy consumption of the server node , wherein the node is: - arranged to receive a request message from a client by a communication unit , the request message containing message fields comprising at least a message ID field and an integrity indication field containing a first integrity indication, - arranged to determine a relation key by performing a calculation by usage of a master key commonly known by the server node and an authorization engine and at least data comprised in the message ID field, - arranged to calculate a second integrity indication based on a subset of the message fields by usage of the relation key, wherein the subset excludes at least one message field that is predictable by a trusted client , wherein the second integrity indication is calculated by splitting the relation key into two parts: a and b; determining a dynamic value c updated for each request message (m) in a relation; and calculating the second integrity indication by usage of a Galois Field Transformation: v i = (m_0 i + a*m_1 i )*b + c i . - arranged to verify the subset of the message fields by comparing the first and second integrity indications, and - arranged to determine the message to be authorized when the comparison indicates equality, - wherein when the message is not authorized, suppressing reception of the message. - arranged to receive a request message from a client by a communication unit , the request message containing message fields comprising at least a message ID field and an integrity indication field containing a first integrity indication, - arranged to determine a relation key by performing a calculation by usage of a master key commonly known by the server node and an authorization engine and at least data comprised in the message ID field, - arranged to calculate a second integrity indication based on a subset of the message fields by usage of the relation key, wherein the subset excludes at least one message field that is predictable by a trusted client , wherein the second integrity indication is calculated by splitting the relation key into two parts: a and b; determining a dynamic value c updated for each request message (m) in a relation; and calculating the second integrity indication by usage of a Galois Field Transformation: v i = (m_0 i + a*m_1 i )*b + c i . - arranged to verify the subset of the message fields by comparing the first and second integrity indications, and - arranged to determine the message to be authorized when the comparison indicates equality, - wherein when the message is not authorized, suppressing reception of the message.
An electronic device comprising: a communication circuit ; a memory; and a processor electrically connected to the communication circuit and the memory including a plurality of cores , wherein the processor is operable to: receive data including a plurality of packets using the communication circuit , identify a set of transmission control protocol/internet protocol, TCP/IP, packets among the plurality of packets, generate, from the TCP/IP packets, a plurality of flows corresponding to the plurality of cores respectively, and integrate a plurality of packets of each of the plurality flows into one meta packet per flow, using each of generic receive offload, GRO, engines corresponding to the plurality of cores respectively , when a packet per second, PPS, for each of the respective plurality of flows is equal to or greater than a threshold.. a communication circuit ; a memory; and a processor electrically connected to the communication circuit and the memory including a plurality of cores , wherein the processor is operable to: receive data including a plurality of packets using the communication circuit , identify a set of transmission control protocol/internet protocol, TCP/IP, packets among the plurality of packets, generate, from the TCP/IP packets, a plurality of flows corresponding to the plurality of cores respectively, and integrate a plurality of packets of each of the plurality flows into one meta packet per flow, using receive data including a plurality of packets using the communication circuit , identify a set of transmission control protocol/internet protocol, TCP/IP, packets among the plurality of packets, generate, from the TCP/IP packets, a plurality of flows corresponding to the plurality of cores respectively, and integrate a plurality of packets of each of the plurality flows into one meta packet per flow, using each of generic receive offload, GRO, engines corresponding to the plurality of cores respectively , when a packet per second, PPS, for each of the respective plurality of flows is equal to or greater than a threshold..
Machine for cleaning and grading grains, seeds and the like, comprising a sifting cylinder , a support frame and a rotary drive shaft on which the cylinder is mounted, means for driving said shaft in rotation, an ECU control unit with means for driving said shaft in rotation, a hopper for feeding grains, seeds and the like into the cylinder , a waste suction system , a plurality of adjacent grids wound on the frame of the cylinder , the ends of each of the grids being joined in pairs and secured by means of a fastening system , an outlet for discharging waste and a device for recovering cleaned and calibrated grains, seeds and the like, characterized in that the machine further comprises means for detecting the angular position of the cylinder as it rotates.
Probe device for a rotating head , which device comprises at least one carrier arm mounted rotatably about a rotational axis , at least one probe connected to the carrier arm , and at least one cable guide for the guidance of a probe cable, wherein the cable guide has a first end portion running along the carrier arm from the probe to the rotational axis and a second end portion extending from the rotational axis .
A method for producing synthetic hectorite, the method comprising the steps of: 1) preparing a precursor solution mixture including a lithium (Li) precursor, a fluorine (F) precursor, and a magnesium (Mg) precursor but including no silica precursor; 2) adding a basic catalyst into the precursor solution mixture and forming a Li-Mg precipitate; and 3) adding a silica (Si) precursor to the Li-Mg precipitate and carrying out a crystallization reaction, wherein the crystallization reaction of step 3) is carried out at a temperature of 70°C to 120°C, the crystallization reaction of step 3) is carried out under a pressure of 100 kPa to 121 kPa (1 bar to 1.21 bar), and the crystallization reaction of step 3) is carried out for 3 hours to 10 hours wherein, the basic catalyst is used as a mixture of a strong base and a weak base, wherein the strong base is one or more selected from the group consisting of sodium hydroxide (NaOH), potassium hydroxide (KOH), calcium hydroxide (Ca(OH)2), and barium hydroxide (Ba(OH)2), and the weak base is one or more selected from the group consisting of ammonium hydroxide (NH4OH), sodium carbonate (Na2CO3), and magnesium hydroxide (Mg(OH)2). 1) preparing a precursor solution mixture including a lithium (Li) precursor, a fluorine (F) precursor, and a magnesium (Mg) precursor but including no silica precursor; 2) adding a basic catalyst into the precursor solution mixture and forming a Li-Mg precipitate; and 3) adding a silica (Si) precursor to the Li-Mg precipitate and carrying out a crystallization reaction, wherein the crystallization reaction of step 3) is carried out at a temperature of 70°C to 120°C, the crystallization reaction of step 3) is carried out under a pressure of 100 kPa to 121 kPa (1 bar to 1.21 bar), and the crystallization reaction of step 3) is carried out for 3 hours to 10 hours wherein,
A base station apparatus used in a cellular communication network, the base station apparatus comprising: at least one wireless transceiver ; and at least one processor configured to: transmit Vehicle-to-Everything, V2X, support information via the at least one wireless transceiver , the V2X support information indicating that a V2X Service is supported by a serving network including the base station apparatus ; and in response to receiving V2X terminal information transmitted from a first radio terminal that has received the V2X support information, transmit V2X configuration to the first radio terminal , characterized in that the V2X support information indicates a list of V2X service areas in which the V2X service is available, and a radio resource pool per V2X service area to be used for autonomous resource selection for the V2X service by each of a plurality of radio terminals including the first radio terminal . at least one wireless transceiver ; and at least one processor configured to: transmit Vehicle-to-Everything, V2X, support information via the at least one wireless transceiver , the V2X support information indicating that a V2X Service is supported by a serving network including the base station apparatus ; and in response to receiving V2X terminal information transmitted from a first radio terminal that has received the V2X support information, transmit V2X configuration to the first radio terminal , transmit Vehicle-to-Everything, V2X, support information via the at least one wireless transceiver , the V2X support information indicating that a V2X Service is supported by a serving network including the base station apparatus ; and in response to receiving V2X terminal information transmitted from a first radio terminal that has received the V2X support information, transmit V2X configuration to the first radio terminal , characterized in that the V2X support information indicates a list of V2X service areas in which the V2X service is available, and a radio resource pool per V2X service area to be used for autonomous resource selection for the V2X service by each of a plurality of radio terminals including the first radio terminal .
An image capturing device comprising: an elongated body ; an imaging window coupled to a distal end of the elongated body; a flexible circuit disposed within the elongated body ; a heat source disposed on the flexible circuit within the elongated body , the heat source coupled to the imaging window and configured to apply heat to the imaging window to remove condensation from or prevent condensation from forming on the imaging window ; a spring configured to bias the flexible circuit toward the imaging window ; and a heat spreader in contact with the imaging window and coupled to a distal end of the flexible circuit. an elongated body ; an imaging window coupled to a distal end of the elongated body; a flexible circuit disposed within the elongated body ; a heat source disposed on the flexible circuit within the elongated body , the heat source coupled to the imaging window and configured to apply heat to the imaging window to remove condensation from or prevent condensation from forming on the imaging window ; a spring configured to bias the flexible circuit toward the imaging window ; and a heat spreader in contact with the imaging window and coupled to a distal end of the flexible circuit.
Gamma ray detection system comprising a computation system including a signal processing and control system , a detection module assembly including at least one detection module configured for detecting gamma ray emissions from a target zone , each detection module comprising at least one monolithic scintillator plate having a major surface oriented to generally face the target zone and lateral minor surfaces defining edges of the scintillator layer, and a plurality of photon detectors coupled to edges of said at least one monolithic scintillator plate and connected to the signal processing and control system, the at least one monolithic scintillator plate comprising a material having isotopes intrinsically emitting radiation causing intrinsic scintillation events having an intensity measurable by the photon detectors, characterized in that the gamma ray detection system comprises a calibration module configured to execute a spatial calibration procedure based on measurements of a plurality of said intrinsic scintillation events output by the photon detectors, and wherein the module is configured to execute the spatial calibration procedure for determining spatial positions of scintillating events in the monolithic scintillator plate as a function of the outputs of the plurality of photon detectors.
A heterodimeric, conditionally active chimeric antigen receptor (CAR) comprising: a first polypeptide comprising an antigen-binding domain that comprises a single chain antibody variable region that specifically binds to mesothelin, a first member of the dimerization pair, and a first transmembrane domain; and a second polypeptide comprising a second member of a dimerization pair, a second transmembrane domain, and an intracellular signaling domain; wherein a dimerizing agent dimerizes the heterodimeric CAR when the first and second polypeptides are expressed by a cell with the dimerizing agent bound between the dimerization pair members of the first and second polypeptides. a first polypeptide comprising an antigen-binding domain that comprises a single chain antibody variable region that specifically binds to mesothelin, a first member of the dimerization pair, and a first transmembrane domain; and a second polypeptide comprising a second member of a dimerization pair, a second transmembrane domain, and an intracellular signaling domain;
Method for creating an optical binary digital transmit signal to be supplied to an optical transmission link, especially to an optical wavelength division multiplex (WDM) transmission link, comprising the steps of (a) operating an optical transmitter in such a state that mode hopping occurs between a predefined first and a predefined second optical mode of the optical transmitter if a binary digital modulation signal (S mod ) is supplied to the optical transmitter , (b) creating a modulated optical output signal (S opt ) of the optical transmitter corresponding to the binary digital modulation signal (S mod ) supplied to the optical transmitter , wherein a first state of the binary digital modulation signal (S mod ) leads to a modulated optical output signal (S opt ) at a center wavelength of the first optical mode and a second state of the binary digital modulation signal leads to a modulated optical output signal (S opt ) at a center wavelength of the second optical mode, characterized by the further step of: (c) optically filtering the modulated optical output signal (S opt ) in such a way that at least a portion of the optical power spectrum of the modulated optical output signal (S opt ) caused by a selected one of the first and second optical modes is suppressed or at least attenuated, (d) outputting the optically filtered modulated signal to the transmission link. (a) operating an optical transmitter in such a state that mode hopping occurs between a predefined first and a predefined second optical mode of the optical transmitter if a binary digital modulation signal (S mod ) is supplied to the optical transmitter , (b) creating a modulated optical output signal (S opt ) of the optical transmitter corresponding to the binary digital modulation signal (S mod ) supplied to the optical transmitter , wherein a first state of the binary digital modulation signal (S mod ) leads to a modulated optical output signal (S opt ) at a center wavelength of the first optical mode and a second state of the binary digital modulation signal leads to a modulated optical output signal (S opt ) at a center wavelength of the second optical mode, (c) optically filtering the modulated optical output signal (S opt ) in such a way that at least a portion of the optical power spectrum of the modulated optical output signal (S opt ) caused by a selected one of the first and second optical modes is suppressed or at least attenuated, (d) outputting the optically filtered modulated signal to the transmission link.
A thermosetting resin pre-impregnated fiber material or prepreg comprising a fiber material component of a heat resistant fiber having an areal weight of from 500 to 3,000 g/m 2 having a coating of from 0.5 to 4 phr of a latent, particulate curative or solid curative, wherein the prepregs are infused with a thermosetting resin mixture comprising (a) at least one liquid epoxy resin, and (b) a hardener and/or a catalyst; wherein the latent, particulate curative or solid curative is chosen from guanidines, including alkyl guanidines, aryl guanidines or dicyandiamide; aminoguanidines, including salts of aminoguanidine, including aminoguanidine bicarbonate (AGB); aryl guanamines, including benzoguanamine or phenylguanamine; organic-acid hydrazides, including adipic dihydrazide and 4-isopropyl-2,5-dioxoimidazolidine-1,3-di(propionohydrazide); boron trifluoride-amine complexes; aromatic amines; imidazole; alkyl imidazoles, including 2-methylimidazole; phenyl imidazoles; tertiary alkyl amines having a melting point above 30 °C; and tertiary aryl amines; wherein the fiber material is coated with the curative before it is impregnated with the thermosetting resin; and wherein a latent curative is a curative that is insoluble in epoxy resin at room temperature and, as indicated by Integrated Heat Flow (DSC), does not react with or cure epoxy resins at temperatures of 25 °C in less than 7 days.
An electromechanical actuator for a closure, covering or solar protection installation , the electromechanical actuator comprising an electric motor , a casing , a vibration-filtering mechanical module (33; 33a; 33b; 33c), a vibration-absorption module and a torque support , inserted at least partially into the casing , the vibration-filtering mechanical module (33; 33a; 33b; 33c) comprising a first end and a second end , separated by a length L, - the first end of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked directly or indirectly to the casing , - the second end of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked to the torque support , the vibration-filtering mechanical module (33; 33a; 33b; 33c) ensuring the mechanical link between the casing and the torque support in rotation about a first axis (X) of the actuator, the electromechanical actuator being characterized in that the vibration-filtering mechanical module (33; 33a; 33b; 33c) allows to transmit, primarily, or even exclusively, the torques around the first axis (X) of the electric motor and/or of the casing to the torque support, the vibration-absorption module mechanically linking the casing to the torque support in translation perpendicularly to the first axis (X) of the actuator by allowing a degree of freedom in rotation between the casing and the torque support about the first axis (X). - the first end of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked directly or indirectly to the casing , - the second end of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked to the torque support , the vibration-filtering mechanical module (33; 33a; 33b; 33c) ensuring the mechanical link between the casing and the torque support in rotation about a first axis (X) of the actuator, the electromechanical actuator being characterized in that the vibration-filtering mechanical module (33; 33a; 33b; 33c) allows to transmit, primarily, or even exclusively, the torques around the first axis (X) of the electric motor and/or of the casing to the torque support, the vibration-absorption module mechanically linking the casing to the torque support in translation perpendicularly to the first axis (X) of the actuator by allowing a degree of freedom in rotation between the casing and the torque support about the first axis (X).
A stem (10; 100; 202; 252; 302) for a hearing protection earplug (50; 110; 200; 250; 300), comprising: an attachment portion configured to receive and retain a sound attenuating element (52; 112), the attachment portion extending substantially along an attachment axis; and a handle portion extending from the attachment portion substantially along a handle axis, the handle portion comprising: a proximate portion adjacent to the attachment portion and a distal portion with a distal end opposite from the proximal portion , the distal portion extending from the proximate portion substantially along the handle axis, the distal end comprising an aperture , wherein the aperture is configured for receiving and retaining a cord (51; 101); wherein the handle axis is non-collinear with respect to the attachment axis. an attachment portion configured to receive and retain a sound attenuating element (52; 112), the attachment portion extending substantially along an attachment axis; and a handle portion extending from the attachment portion substantially along a handle axis, the handle portion comprising: a proximate portion adjacent to the attachment portion and a distal portion with a distal end opposite from the proximal portion , the distal portion extending from the proximate portion substantially along the handle axis, the distal end comprising an aperture , wherein the aperture is configured for receiving and retaining a cord (51; 101); a proximate portion adjacent to the attachment portion and a distal portion with a distal end opposite from the proximal portion , the distal portion extending from the proximate portion substantially along the handle axis, the distal end comprising an aperture , wherein the aperture is configured for receiving and retaining a cord (51; 101); wherein the handle axis is non-collinear with respect to the attachment axis.
A connector plug comprising: a plug body having a mating face; n parallel flanges , where n≥2, formed in the mating face and defining a groove therebetween, and an array of conductors arranged on opposing faces of the n parallel flanges within the groove; a left array of conductors and a right array of conductors respectively formed on both sides of the n parallel flanges ; wherein both the left array of conductors and the right array of conductors are attached to the mating face; characterized in that the array of conductors comprises m conductors arranged regularly along the groove , m being a natural number, wherein the groove has three groove faces and each conductor covers portions of the three groove faces. a plug body having a mating face; n parallel flanges , where n≥2, formed in the mating face and defining a groove therebetween, and an array of conductors arranged on opposing faces of the n parallel flanges within the groove; a left array of conductors and a right array of conductors respectively formed on both sides of the n parallel flanges ; wherein both the left array of conductors and the right array of conductors are attached to the mating face; characterized in that the array of conductors comprises m conductors arranged regularly along the groove , m being a natural number, wherein the groove has three groove faces and each conductor covers portions of the three groove faces.