mhurhangee/patent-ind-claim-en huggingface dataset:
A forward edge slat including a noise-abatement system configured to provide noise abatement to a wing assembly provided with a forward edge slat (ES) when the edge slat (ES) is moved from a retracted condition to a deployed condition thereof, the forward edge slat comprising a cove region having an inner surface, a lower trailing edge and an upper trailing edge , the noise-abatement system comprising: an elongate shield element adjacent to the lower trailing edge of the edge slat (ES) along a lengthwise extent thereof, and a support tab having a distal end fixed to the shield element and a proximal end fixed to the interior surface of the cove region of the edge slat (ES) adjacent the upper trailing edge thereof, wherein in response to movement of the edge slat (ES) between the deployed and retracted conditions thereof the support tab is configured to allow movement of the shield element towards and away from the lower trailing edge of the edge slat (ES) between an operative position where the shield element is positioned adjacent to the lower trailing edge of the edge slat (ES) along the lengthwise extent thereof and an inoperative position where the edge slat (ES) is spaced from the lower trailing edge of the edge slat (ES) and positioned in the cove region thereof, respectively; wherein the forward edge slat further comprises: an S-shaped spring leaf element having one end fixed to the proximal end of the support tab and a distal end attached to the interior surface of the cove region of the edge slat (ES) operatively associated with the support tab to exert a bias spring force onto the support tab to move the shield element into the operative position thereof. an elongate shield element adjacent to the lower trailing edge of the edge slat (ES) along a lengthwise extent thereof, and a support tab having a distal end fixed to the shield element and a proximal end fixed to the interior surface of the cove region of the edge slat (ES) adjacent the upper trailing edge thereof, wherein in response to movement of the edge slat (ES) between the deployed and retracted conditions thereof the support tab is configured to allow movement of the shield element towards and away from the lower trailing edge of the edge slat (ES) between an operative position where the shield element is positioned adjacent to the lower trailing edge of the edge slat (ES) along the lengthwise extent thereof and an inoperative position where the edge slat (ES) is spaced from the lower trailing edge of the edge slat (ES) and positioned in the cove region thereof, respectively; wherein the forward edge slat further comprises: an S-shaped spring leaf element having one end fixed to the proximal end of the support tab and a distal end attached to the interior surface of the cove region of the edge slat (ES) operatively associated with the support tab to exert a bias spring force onto the support tab to move the shield element into the operative position thereof.
A safety helmet comprising: a. a head-conforming enclosure comprised of one or more air inflatable lobes together defining an interiorly directed, head holding hemi-spherical-like cavity , at least one of said lobes having an air inflation/deflation valve , said lobes substantially conforming and surrounding, when inflated, a wearer's head so that it extends downwardly to at least just above the ears; and b. a skull cap of impact absorbing and dissipating material; characterised in that the skull cap is made of a gel , a flexible gel, a semi liquid, a liquid, or combinations thereof. a. a head-conforming enclosure comprised of one or more air inflatable lobes together defining an interiorly directed, head holding hemi-spherical-like cavity , at least one of said lobes having an air inflation/deflation valve , said lobes substantially conforming and surrounding, when inflated, a wearer's head so that it extends downwardly to at least just above the ears; and b. a skull cap of impact absorbing and dissipating material;
A computer implemented method to detect a data breach in a network-connected computing system, wherein the method comprising the steps of: storing, at a trusted secure computing device , at least a portion of network traffic communicated with the computer system; the computing device generating a copy of data distributed across a network; the computing device identifying information about a network attack stored in the copy of the data; the computing device generating a signature for the network attack based on the information about the network attack, the signature including one or more rules for identifying the network attack in network traffic, wherein the information about the network attack includes at least a portion of data obtained by the network attack and the signature identifies the network attack based on characteristics of the obtained data, and wherein the characteristics of the obtained data include: a number of and order of data fields in the data; or a mechanism employed to structure, format or display the data; identifying an occurrence of the network attack in the stored network traffic based on the signature. storing, at a trusted secure computing device , at least a portion of network traffic communicated with the computer system; the computing device generating a copy of data distributed across a network; the computing device identifying information about a network attack stored in the copy of the data; the computing device generating a signature for the network attack based on the information about the network attack, the signature including one or more rules for identifying the network attack in network traffic, wherein the information about the network attack includes at least a portion of data obtained by the network attack and the signature identifies the network attack based on characteristics of the obtained data, and wherein the characteristics of the obtained data include: a number of and order of data fields in the data; or a mechanism employed to structure, format or display the data; identifying an occurrence of the network attack in the stored network traffic based on the signature.
A motor vehicle, namely a utility vehicle, with a drivable rigid first axle which is drivable and/or driven via a mechanical drive train which comprises an internal combustion engine , and with a steerable second axle with independent wheel suspension, the second axle being drivable and/or driven by a hydrostatic auxiliary drive , the drive power of which is provided via a power take-off, provided on the internal combustion engine, or a power take-off, provided on the vehicle transmission of the mechanical drive train, which vehicle transmission steps the engine speed to the drive rotational speed, the auxiliary drive comprising a hydraulic motor which divides its drive power via a transmission which is fixed to the chassis to the wheels of the second axle , the rigid first axle being the only rigid axle of the utility vehicle, characterized by a transmission with a predefined step-down gear ratio or step-up gear ratio, via which transmission the hydraulic motor is operatively connected to the wheels of the second axle .
A beam training method, wherein the method comprises: sending (S301), by a first terminal apparatus, a first message to a second terminal apparatus, wherein the first message is used to request a first list, the first list comprises an identifier of at least one sidelink synchronization signal, the at least one sidelink synchronization signal is a sidelink synchronization signal that is not used by the second terminal apparatus within a preset time range and/or that is not used by another terminal apparatus within an area in which the second terminal apparatus is located, and the sidelink synchronization signal comprises a primary synchronization signal and a secondary synchronization signal; receiving (S302), by the first terminal apparatus, a second message from the second terminal apparatus, wherein the second message comprises the first list; and determining (S303), by the first terminal apparatus, a first sidelink synchronization signal based on the identifier of the at least one sidelink synchronization signal in the first list, wherein the first sidelink synchronization signal is used for beam training. sending (S301), by a first terminal apparatus, a first message to a second terminal apparatus, wherein the first message is used to request a first list, the first list comprises an identifier of at least one sidelink synchronization signal, the at least one sidelink synchronization signal is a sidelink synchronization signal that is not used by the second terminal apparatus within a preset time range and/or that is not used by another terminal apparatus within an area in which the second terminal apparatus is located, and the sidelink synchronization signal comprises a primary synchronization signal and a secondary synchronization signal; receiving (S302), by the first terminal apparatus, a second message from the second terminal apparatus, wherein the second message comprises the first list; and determining (S303), by the first terminal apparatus, a first sidelink synchronization signal based on the identifier of the at least one sidelink synchronization signal in the first list, wherein the first sidelink synchronization signal is used for beam training.
A system for producing a book-shaped identification, value or security document , the identification, value or security document having a cover and a passport book body comprising a data card , a plurality of double pages , a cover sheet and a spine tape , the data card having a flexible tab connected to the data card along one edge, the data card with the flexible tab , the double pages , the cover sheet and the spine tape being sewn to one another by means of a seam , and the inside of the cover being glued flat to an outside of the cover sheet , the system having: - at least two devices for providing an identification, value or security document , a passport book blank , a passport book body , a cover , double pages , a cover sheet and/or a data card , and - at least one holding and transport device , the holding and transport device having: - at least one twistable and/or pivotable multi-articulated arm , - a head part mounted on the multi-articulated arm , - at least two, particularly three, holding units arranged on the head part , each holding unit having a drive for actuating the holding unit , and - a controller for the simultaneous driving of the drives of the holding units and for moving the multi-articulated arm , the holding and transport device for the simultaneous picking up and for the simultaneous transport of the identification, value or security document , the passport book blank , the passport book body , the cover , the double pages and/or the data card being formed between the devices . - at least two devices for providing an identification, value or security document , a passport book blank , a passport book body , a cover , double pages , a cover sheet and/or a data card , and - at least one holding and transport device , the holding and transport device having: - at least one twistable and/or pivotable multi-articulated arm , - a head part mounted on the multi-articulated arm , - at least two, particularly three, holding units arranged on the head part , each holding unit having a drive for actuating the holding unit , and - a controller for the simultaneous driving of the drives of the holding units and for moving the multi-articulated arm , the holding and transport device for the simultaneous picking up and for the simultaneous transport of the identification, value or security document , the passport book blank , the passport book body , the cover , the double pages and/or the data card being formed between the devices . - at least one twistable and/or pivotable multi-articulated arm , - a head part mounted on the multi-articulated arm , - at least two, particularly three, holding units arranged on the head part , each holding unit having a drive for actuating the holding unit , and - a controller for the simultaneous driving of the drives of the holding units and for moving the multi-articulated arm ,
A blood collection tube holder comprising: a substantially cylindrical body comprising a barrel and a needle retraction cavity ; a frontal attachment ; and a retractable single needle comprising a venipuncture end and a fluid discharge end that are oppositely directed; wherein the body and the frontal attachment are cooperatively configured to facilitate sliding lateral movement of the body relative to the retractable single needle prior to needle retraction, wherein the fluid discharge end is configured to penetrate an elastomeric stopper in a blood collection tube being inserted into a barrel cavity of the barrel for collecting blood of a patient in order to establish a fluid communication between the venipuncture end and an inside of the blood collection tube, wherein the body further comprises the barrel cavity which is substantially cylindrically and wherein the needle retraction cavity is integrally formed, wherein the barrel cavity and the needle retraction cavity are substantially parallel and separated by a partial wall , wherein the partial wall is configured to facilitate sliding lateral movement of the fluid discharge end of the retractable single needle from a first position where retractable single needle is substantially centered inside of and coaxially aligned with the barrel cavity to a second position where the retractable single needle is substantially aligned with the needle retraction cavity . a substantially cylindrical body comprising a barrel and a needle retraction cavity ; a frontal attachment ; and a retractable single needle comprising a venipuncture end and a fluid discharge end that are oppositely directed; wherein the body and the frontal attachment are cooperatively configured to facilitate sliding lateral movement of the body relative to the retractable single needle prior to needle retraction, wherein the fluid discharge end is configured to penetrate an elastomeric stopper in a blood collection tube being inserted into a barrel cavity of the barrel for collecting blood of a patient in order to establish a fluid communication between the venipuncture end and an inside of the blood collection tube, wherein the body further comprises the barrel cavity which is substantially cylindrically and wherein the needle retraction cavity is integrally formed, wherein the barrel cavity and the needle retraction cavity are substantially parallel and separated by a partial wall , wherein the partial wall is configured to facilitate sliding lateral movement of the fluid discharge end of the retractable single needle from a first position where retractable single needle is substantially centered inside of and coaxially aligned with the barrel cavity to a second position where the retractable single needle is substantially aligned with the needle retraction cavity .
A donepezil microsphere comprising a biodegradable, biocompatible polymer, which comprises donepezil or a pharmaceutically acceptable salt thereof, and a poorly soluble salt of donepezil as a controlled release agent, wherein the content of donepezil is 15% by weight or more; the poorly soluble salt of donepezil is xinafoate, napadisilate or pamoate; and the biodegradable, biocompatible polymer is poly(lactide-co-glycolide), polylactide, polyglycolide, polycaprolactone, gelatin, hyaluronate or a mixture thereof.
A method of maintaining a pressure tight seal on an annulus surrounding drill pipe comprising: disposing a controllable upper sealing element and a controllable lower sealing element within an annular sealing system ; receiving drill pipe through an inner diameter of the upper sealing element and the lower sealing element ; controllably sealing the annulus with one or more of the upper sealing element and the lower sealing element ; characterised by : maintaining the pressure tight seal on the annulus with the annular sealing system while installing, servicing, or removing one or more of the sealing elements of the annular sealing system , wherein the upper sealing element and the lower sealing element are attached to a spacer mandrel and are independently controllable. disposing a controllable upper sealing element and a controllable lower sealing element within an annular sealing system ; receiving drill pipe through an inner diameter of the upper sealing element and the lower sealing element ; controllably sealing the annulus with one or more of the upper sealing element and the lower sealing element ; characterised by : maintaining the pressure tight seal on the annulus with the annular sealing system while installing, servicing, or removing one or more of the sealing elements of the annular sealing system , wherein the upper sealing element and the lower sealing element are attached to a spacer mandrel and are independently controllable.
An apparatus for use in an electrographic printer, the apparatus comprising: a housing defining a cavity ; a developer roller to present a uniform film of printing substance to a photoconductor of the electrographic printer; a developer electrode to develop the printing substance onto the developer roller , the electrode being arranged within the cavity ; and a heater for heating printing substance to be developed onto the developer roller , the heater being arranged in the cavity , characterized in that the heater is in thermal communication with the electrode to supply thermal energy directly to the developer electrode in use, and wherein the heater is arranged to indirectly heat the printing substance in use by heating the developer electrode . a housing defining a cavity ; a developer roller to present a uniform film of printing substance to a photoconductor of the electrographic printer; a developer electrode to develop the printing substance onto the developer roller , the electrode being arranged within the cavity ; and a heater for heating printing substance to be developed onto the developer roller , the heater being arranged in the cavity ,
An apparatus of a narrowband Internet of Things, NB-IoT, user equipment, UE , operable to establish a radio resource control, RRC, connection with an eNodeB , the apparatus comprising: memory; and one or more processors configured to: select, at the NB-IoT UE , a logical channel identifier, ID, for inclusion in an RRC connection setup complete message, wherein the logical channel ID indicates no packet data convergence protocol, PDCP, layer is used at the NB-IoT UE for a signaling radio bearer 1 bis, SRBibis, that carries the RRC connection setup complete message; store, in the memory, the logical channel ID for inclusion in the RRC connection setup complete message; and process, at the NB-IoT UE , the RRC connection setup complete message for transmission on the SRBibis to the eNodeB , wherein the RRC connection setup complete message includes the logical channel ID. select, at the NB-IoT UE , a logical channel identifier, ID, for inclusion in an RRC connection setup complete message, wherein the logical channel ID indicates no packet data convergence protocol, PDCP, layer is used at the NB-IoT UE for a signaling radio bearer 1 bis, SRBibis, that carries the RRC connection setup complete message; store, in the memory, the logical channel ID for inclusion in the RRC connection setup complete message; and process, at the NB-IoT UE , the RRC connection setup complete message for transmission on the SRBibis to the eNodeB , wherein the RRC connection setup complete message includes the logical channel ID.
A vehicle (V) comprising a foreign matter removal device configured to remove foreign matter on a lens of a camera , the foreign matter removal device comprising: a generation unit configured to generate high-pressure air; a nozzle configured to inject the high-pressure air toward the in-vehicle camera ; and a piping connecting the generation unit and the nozzle , wherein the piping has a function of preventing reverse flow of water, and wherein a volume (Vh, Vh2) of an internal space of the piping is larger than a volume (Vo) of an internal space of the generation unit , characterized in that an intermediate portion of the piping is located below one end portion of the piping connected to the generation unit and the other end portion of the piping connected to the nozzle in the upper and lower direction of the vehicle (V). a generation unit configured to generate high-pressure air; a nozzle configured to inject the high-pressure air toward the in-vehicle camera ; and a piping connecting the generation unit and the nozzle , wherein the piping has a function of preventing reverse flow of water, and wherein a volume (Vh, Vh2) of an internal space of the piping is larger than a volume (Vo) of an internal space of the generation unit , characterized in that an intermediate portion of the piping is located below one end portion of the piping connected to the generation unit and the other end portion of the piping connected to the nozzle in the upper and lower direction of the vehicle (V).
A plastic compound comprising at least one polyolefin and an oxidase and/or a microorganism expressing and excreting an oxidase that degrades said polyolefin, wherein the oxidase and/or the microorganism expressing and excreting an oxidase is embedded in the mass of the compound.
A method comprising: determining a second elevation beam for transmission to a user device using a second carrier, wherein: selection of the second elevation beam is based at least in part on information relating to a first elevation beam, said first elevation beam is for transmission to the user device using a first carrier, the first elevation beam is for a first base station , the second elevation beam is for a second base station , and the information comprises a location of the second base station with respect to the first base station and elevation information associated with the first elevation beam ; wherein the elevation information is received from the first base station and configuring the second elevation beam for transmission to the user device . determining a second elevation beam for transmission to a user device using a second carrier, wherein: selection of the second elevation beam is based at least in part on information relating to a first elevation beam, said first elevation beam is for transmission to the user device using a first carrier, the first elevation beam is for a first base station , the second elevation beam is for a second base station , and the information comprises a location of the second base station with respect to the first base station and elevation information associated with the first elevation beam ; wherein the elevation information is received from the first base station and configuring the second elevation beam for transmission to the user device .