mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: detecting a network communication associated with a first wireless device, the network communication including a first plurality of messages; generating a plurality of message vectors, each corresponding to a different one of the first plurality of messages and indicating a type of the corresponding message, a relative position of the corresponding message in the first plurality of messages, and a number of messages in the first plurality of messages; updating a first message sequence vector based on the plurality of message vectors, wherein the first message sequence vector includes a same number of dimensions as each of the plurality of message vectors; determining, the first message sequence vector is within a predefined vector space volume; identifying a corrective action associated with the vector space volume; and automatically invoking the corrective action. hardware processing circuitry; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: detecting a network communication associated with a first wireless device, the network communication including a first plurality of messages; generating a plurality of message vectors, each corresponding to a different one of the first plurality of messages and indicating a type of the corresponding message, a relative position of the corresponding message in the first plurality of messages, and a number of messages in the first plurality of messages; updating a first message sequence vector based on the plurality of message vectors, wherein the first message sequence vector includes a same number of dimensions as each of the plurality of message vectors; determining, the first message sequence vector is within a predefined vector space volume; identifying a corrective action associated with the vector space volume; and automatically invoking the corrective action. detecting a network communication associated with a first wireless device, the network communication including a first plurality of messages; generating a plurality of message vectors, each corresponding to a different one of the first plurality of messages and indicating a type of the corresponding message, a relative position of the corresponding message in the first plurality of messages, and a number of messages in the first plurality of messages; updating a first message sequence vector based on the plurality of message vectors, wherein the first message sequence vector includes a same number of dimensions as each of the plurality of message vectors; determining, the first message sequence vector is within a predefined vector space volume; identifying a corrective action associated with the vector space volume; and automatically invoking the corrective action.
A smart bracelet , having a length direction, comprising: a first pulse detector and a blood flow sensor sequentially arranged along the length direction, wherein, the blood flow sensor is configured for identifying a blood flow direction and sending a blood flow direction signal; the first pulse detector is configured for detecting a pulse signal, characterized in that the smart bracelet further comprises: a processor in communicatively connection with the blood flow sensor and the first pulse detector , the processor being configured for receiving the blood flow direction signal sent by the blood flow sensor , and determining whether the smart bracelet is worn on a left hand or a right hand of a human body according to the received blood flow direction signal and according to whether or not the first pulse detector detects a pulse signal.
Optical transmitter apparatus comprising: a transmitter optical subassembly configured to transmit forward error correction, FEC, codewords on an optical carrier signal ; a memory device containing local configuration data ; and processing circuitry configured to: receive client signal data and perform FEC encoding on the client signal data to form a sequence of FEC codewords; receive local configuration data from the memory device ; obtain a configuration payload pattern of FEC codewords having a FEC code violation and FEC codewords not having a FEC code violation, the configuration payload pattern representing the local configuration data ; create FEC code violations within FEC codewords of said sequence according to the configuration payload pattern to form a configuration payload modified sequence of FEC codewords; and provide the configuration payload modified sequence of FEC codewords to the transmitter optical subassembly for transmission. a transmitter optical subassembly configured to transmit forward error correction, FEC, codewords on an optical carrier signal ; a memory device containing local configuration data ; and processing circuitry configured to: receive client signal data and perform FEC encoding on the client signal data to form a sequence of FEC codewords; receive local configuration data from the memory device ; obtain a configuration payload pattern of FEC codewords having a FEC code violation and FEC codewords not having a FEC code violation, the configuration payload pattern representing the local configuration data ; create FEC code violations within FEC codewords of said sequence according to the configuration payload pattern to form a configuration payload modified sequence of FEC codewords; and provide the configuration payload modified sequence of FEC codewords to the transmitter optical subassembly for transmission. receive client signal data and perform FEC encoding on the client signal data to form a sequence of FEC codewords; receive local configuration data from the memory device ; obtain a configuration payload pattern of FEC codewords having a FEC code violation and FEC codewords not having a FEC code violation, the configuration payload pattern representing the local configuration data ; create FEC code violations within FEC codewords of said sequence according to the configuration payload pattern to form a configuration payload modified sequence of FEC codewords; and provide the configuration payload modified sequence of FEC codewords to the transmitter optical subassembly for transmission.
A clutch disk having a torsional vibration damper having an input part and an output part and a spring device operatively arranged in the circumferential direction between the input part and the output part , wherein the spring device is formed from first and second spring elements connected in series and separated by an intermediate flange , and a centrifugal pendulum having a pendulum mass carrier arranged about an axis of rotation (d) of the clutch disk and pendulum masses distributed over the circumference, which are received in a pendulum fashion on pendulum tracks, characterized in that the pendulum mass carrier is coupled non-rotatably with the intermediate flange and centrally received on the output part .
A fire detector testing device, comprising: a liquid reservoir; and a vibrating mesh type aerosol generator, in fluid connection with the liquid reservoir, for generating an aerosol of a liquid from the liquid reservoir, arranged such that, when generated, the aerosol is directed towards a detector element of a fire detector. a liquid reservoir; and a vibrating mesh type aerosol generator, in fluid connection with the liquid reservoir, for generating an aerosol of a liquid from the liquid reservoir, arranged such that, when generated, the aerosol is directed towards a detector element of a fire detector.
Method for checking the integrity of a hollow-fibre fluid filter , in particular a hollow-fibre dialyzer, which is constructed from a plurality of hollow fibres enclosed by a membrane, with the steps of: - perfusing the inside of the hollow fibres with a fluid and - supplying the outside of the hollow fibres with a gas, or - perfusing the outside of the hollow fibres with a fluid and - supplying the inside of the hollow fibres with a gas, wherein in each case the gas has a higher pressure than the fluid, and - determining a quantity of the gas which penetrates into the fluid through holes in the membrane, characterized in that , - after flowing through the hollow-fibre fluid filter , the fluid is channelled through a bubble trap , and in that - a gas volume collecting in the bubble trap during a predefined or predefinable reference period is determined. - perfusing the inside of the hollow fibres with a fluid and - supplying the outside of the hollow fibres with a gas, or - perfusing the outside of the hollow fibres with a fluid and - supplying the inside of the hollow fibres with a gas, wherein in each case the gas has a higher pressure than the fluid, and - determining a quantity of the gas which penetrates into the fluid through holes in the membrane, characterized in that , - after flowing through the hollow-fibre fluid filter , the fluid is channelled through a bubble trap , and in that - a gas volume collecting in the bubble trap during a predefined or predefinable reference period is determined.
A method for predicting a future quality of service of a wireless communication link between a mobile transceiver and a further mobile transceiver, the method comprising: determining information on one or more active transceivers in the environment of the mobile transceiver; determining information on an activity of the one or more active transceivers, the activity of the one or more active transceivers being activity with respect to wireless transmissions; and predicting the future quality of service of the wireless communication link based on the activity of the one or more active transceivers, characterized in that an activity of an active transceiver that is located closer to the further mobile transceiver receives less weight in the prediction of the future quality of service than an activity of an active transceiver that is located further away from the further mobile transceiver. determining information on one or more active transceivers in the environment of the mobile transceiver; determining information on an activity of the one or more active transceivers, the activity of the one or more active transceivers being activity with respect to wireless transmissions; and predicting the future quality of service of the wireless communication link based on the activity of the one or more active transceivers, characterized in that an activity of an active transceiver that is located closer to the further mobile transceiver receives less weight in the prediction of the future quality of service than an activity of an active transceiver that is located further away from the further mobile transceiver.
A wiring substrate comprising: an insulating substrate having a first surface and a second surface on a side opposite the first surface , and containing AlN; a conductor disposed on the first surface and containing Cu; and an Ni film disposed so as to extend across an upper surface and a side surface of the conductor to the first surface , characterized in that Ti oxide is scattered so as to be at a plurality of points on the first surface . an insulating substrate having a first surface and a second surface on a side opposite the first surface , and containing AlN; a conductor disposed on the first surface and containing Cu; and an Ni film disposed so as to extend across an upper surface and a side surface of the conductor to the first surface , characterized in that Ti oxide is scattered so as to be at a plurality of points on the first surface .
A device for an electronic aerosol provision system, wherein the device comprises a housing , said housing comprising a chassis section and a hatch section , wherein the hatch section is connected to the chassis section and moveable between a first position and a second position, wherein when in the first position a biasing cam is biased against the hatch section, the hatch section being prevented from moving to the second position by a releasable lug , wherein the hatch section includes a sleeve for receiving an aerosol forming component.
A front panel for a burner of a gas turbine engine, said front panel having a front side, an opposing back side and at least one acoustic damper positioned on said back side of said front panel , said at least one acoustic damper comprising: at least one wall extending from a back side of said front panel , a top , wherein said back side of front panel , said at least one wall and said top cooperate to define a dampening chamber ; at least one cooling air inlet (120 and 122) defined within the back side of the front panel , said at least one cooling air inlet (120 and 122) oriented to channel a flow of cooling air into the dampening chamber ; at least one outlet defined within the back side of the front panel , said at least one outlet oriented to channel the flow of cooling air out of the dampening chamber ; characterized in that at least one cap (128 and 130) extends at least partially over said at least one cooling air inlet (120 and 122) and is oriented to reduce a velocity of the flow of cooling air within the dampening chamber ; wherein said at least one cap (128 and 130) comprises at least one semi-spherical shell . at least one wall extending from a back side of said front panel , a top , wherein said back side of front panel , said at least one wall and said top cooperate to define a dampening chamber ; at least one cooling air inlet (120 and 122) defined within the back side of the front panel , said at least one cooling air inlet (120 and 122) oriented to channel a flow of cooling air into the dampening chamber ; at least one outlet defined within the back side of the front panel , said at least one outlet oriented to channel the flow of cooling air out of the dampening chamber ; characterized in that at least one cap (128 and 130) extends at least partially over said at least one cooling air inlet (120 and 122) and is oriented to reduce a velocity of the flow of cooling air within the dampening chamber ; wherein said at least one cap (128 and 130) comprises at least one semi-spherical shell .
A vehicle lower portion structure comprising: a resinous floor panel (10; 60) constituting a vehicle cabin floor surface; and a metallic reinforcing member (12; 50, 52; 82, 84) bridging vehicle skeleton members (21; 62, 66) on a lower side of the floor panel (10; 60) and configured to support a vehicle-mounted object disposed on the lower side of the floor panel (10; 60), a cross member bridging between the vehicle skeleton members on a front side or a rear side of the reinforcing member ; and a support member connected to the cross member and to the reinforcing member , wherein the reinforcing member (12; 50, 52) bridges a pair of vehicle skeleton members which extend in a vehicle front-rear direction at both sides of the floor panel in a vehicle width direction and said support member is configured to support the vehicle-mounted object, said support member being disposed on the lower side of the floor panel , and wherein the reinforcing member (12; 50, 52, 82, 84) is an elongated member with a longitudinal direction corresponding to a bridged direction of the reinforcing member; and at least a part of the reinforcing member (12; 50, 52, 82, 84) is formed in a hat shape that opens upwards in section when seen from the longitudinal direction. a resinous floor panel (10; 60) constituting a vehicle cabin floor surface; and a metallic reinforcing member (12; 50, 52; 82, 84) bridging vehicle skeleton members (21; 62, 66) on a lower side of the floor panel (10; 60) and configured to support a vehicle-mounted object disposed on the lower side of the floor panel (10; 60), a cross member bridging between the vehicle skeleton members on a front side or a rear side of the reinforcing member ; and a support member connected to the cross member and to the reinforcing member , wherein the reinforcing member (12; 50, 52) bridges a pair of vehicle skeleton members which extend in a vehicle front-rear direction at both sides of the floor panel in a vehicle width direction and said support member is configured to support the vehicle-mounted object, said support member being disposed on the lower side of the floor panel , and wherein the reinforcing member (12; 50, 52, 82, 84) is an elongated member with a longitudinal direction corresponding to a bridged direction of the reinforcing member; and at least a part of the reinforcing member (12; 50, 52, 82, 84) is formed in a hat shape that opens upwards in section when seen from the longitudinal direction. the reinforcing member (12; 50, 52, 82, 84) is an elongated member with a longitudinal direction corresponding to a bridged direction of the reinforcing member; and at least a part of the reinforcing member (12; 50, 52, 82, 84) is formed in a hat shape that opens upwards in section when seen from the longitudinal direction.
Method for exchanging electrical energy between an electrical network carrying a DC or AC current and an electrical energy storage unit of a hybrid or electric vehicle , the storage unit forming part of an electrical circuit , which further comprises: - a connector intended to be connected to a connector of the electrical network , - a DC bus interposed between the connector and the electrical energy storage unit , the DC bus comprising a capacitor , - a DC-to-DC voltage converter interposed between the DC bus and the energy storage unit , - a plurality of inductors , and - a switching system comprising a plurality of controllable switching cells (20; 30); the method including: - the step in which the switching cells (20; 30) are controlled on the basis of whether the electrical power supply quantity carried by the electrical network is a DC quantity or an AC quantity so as to allow electrical energy to be exchanged between the electrical energy storage unit and the electrical network , - the step in which the switching cells (20; 30) are controlled so as to alternately step down and step up the voltage value delivered by the electrical network , - the step in which the DC-to-DC voltage converter is controlled so as to increase or decrease the voltage value of the DC bus without changing the value of the voltage across the terminals of the energy storage unit . - a connector intended to be connected to a connector of the electrical network , - a DC bus interposed between the connector and the electrical energy storage unit , the DC bus comprising a capacitor , - a DC-to-DC voltage converter interposed between the DC bus and the energy storage unit , - a plurality of inductors , and - a switching system comprising a plurality of controllable switching cells (20; 30); - the step in which the switching cells (20; 30) are controlled on the basis of whether the electrical power supply quantity carried by the electrical network is a DC quantity or an AC quantity so as to allow electrical energy to be exchanged between the electrical energy storage unit and the electrical network , - the step in which the switching cells (20; 30) are controlled so as to alternately step down and step up the voltage value delivered by the electrical network , - the step in which the DC-to-DC voltage converter is controlled so as to increase or decrease the voltage value of the DC bus without changing the value of the voltage across the terminals of the energy storage unit .
A system comprising: a vacuum attachment apparatus comprising a vacuum circuit , wherein said vacuum circuit includes a battery or fuel cell powered vacuum source , and a vacuum pad , wherein said vacuum attachment apparatus is usable to vacuum attach to a surface of an object; an electronic controller operable to execute instructions; a vacuum level sensing circuit for measuring a level of vacuum in said vacuum circuit , wherein said electronic controller is configured to receive from said vacuum level sensing circuit a representation of the vacuum level which enables distinguishing between vacuum levels at a resolution of at least 10 levels; a memory , wherein said received vacuum level values of said plurality of vacuum levels are storable in said memory ; and wherein said electronic controller is configured to generate at least one output signal based on a result of comparing information indicative of said received measured vacuum level values with other information. a vacuum attachment apparatus comprising a vacuum circuit , wherein said vacuum circuit includes a battery or fuel cell powered vacuum source , and a vacuum pad , wherein said vacuum attachment apparatus is usable to vacuum attach to a surface of an object; an electronic controller operable to execute instructions; a vacuum level sensing circuit for measuring a level of vacuum in said vacuum circuit , wherein said electronic controller is configured to receive from said vacuum level sensing circuit a representation of the vacuum level which enables distinguishing between vacuum levels at a resolution of at least 10 levels; a memory , wherein said received vacuum level values of said plurality of vacuum levels are storable in said memory ; and wherein said electronic controller is configured to generate at least one output signal based on a result of comparing information indicative of said received measured vacuum level values with other information.