mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for communicating a set of data between a first user equipment and a second user equipment in a network, the network comprising one or more network nodes, the apparatus comprising means for: dividing , by a first network node, a total number of transmission attempts for a same set of data of the communication between one or more first data transmission attempts and one or more second data transmission attempts, wherein the one or more first data transmission attempts are configured to be performed from the first user equipment toward the first network node, and wherein the one or more second data transmission attempts are configured to be performed from the first network node or from a second network node toward the second user equipment; and coordinating , by the first network node, performance of the one or more first and second data transmission attempts for the communication based on the division to cause communication of the set of data from the first user equipment to the second user equipment. dividing , by a first network node, a total number of transmission attempts for a same set of data of the communication between one or more first data transmission attempts and one or more second data transmission attempts, wherein the one or more first data transmission attempts are configured to be performed from the first user equipment toward the first network node, and wherein the one or more second data transmission attempts are configured to be performed from the first network node or from a second network node toward the second user equipment; and coordinating , by the first network node, performance of the one or more first and second data transmission attempts for the communication based on the division to cause communication of the set of data from the first user equipment to the second user equipment.
A method for analyzing the availability of a system , comprising the steps of: (a) generating (S1) automatically a degraded mode tree, DMT, containing at least one degraded mode element, wherein the at least one degraded mode element represents a degraded system state of said system which deviates from a normal system state of said system on the basis of a predetermined generic system meta model stored in a database , wherein the database comprises Failure Mode and Effects Analysis, FMEA, elements representing subsystems, failure modes, failure effects and diagnostic measures; and (b) evaluating (S2) the generated degraded mode tree, DMT, to calculate the availability of said system , wherein for each degraded mode element a global degraded mode gate element is provided representing a disjunction of all possible failure effect and diagnostic measure; (c) receiving the calculated availability of the system and controlling at least one system component and/or subsystem of the system in response to the calculated availability. (a) generating (S1) automatically a degraded mode tree, DMT, containing at least one degraded mode element, wherein the at least one degraded mode element represents a degraded system state of said system which deviates from a normal system state of said system on the basis of a predetermined generic system meta model stored in a database , wherein the database comprises Failure Mode and Effects Analysis, FMEA, elements representing subsystems, failure modes, failure effects and diagnostic measures; and (b) evaluating (S2) the generated degraded mode tree, DMT, to calculate the availability of said system , wherein for each degraded mode element a global degraded mode gate element is provided representing a disjunction of all possible failure effect and diagnostic measure; (c) receiving the calculated availability of the system and controlling at least one system component and/or subsystem of the system in response to the calculated availability.
An apparatus comprising: an off-center-fed patch, OCFP, antenna configured to receive electromagnetic radiation comprising a radio frequency signal, wherein the OCFP antenna comprises: a metal patch deposited on a substrate; at least two shorting elements configured to electrically connect the metal patch with a ground plane of the substrate; a plurality of feed lines disposed on the substrate, wherein a first end of each feed line of the plurality of feed lines is connected to a different edge of the metal patch at a predefined pitch angle, wherein the pitch angle is an angle between the feedline and the OCFP antenna; and a plurality of rectifying circuits (RC1, RC2, RC3, RC4) connected one-to-one to the plurality of feed lines and configured to convert alternating current, AC, input power generated by the OCFP antenna to direct current, DC, output power, wherein a first rectifying circuit of the plurality of rectifying circuits is configured to convert lower AC input power to DC output power than a second rectifying circuit of the plurality of rectifying circuits. an off-center-fed patch, OCFP, antenna configured to receive electromagnetic radiation comprising a radio frequency signal, wherein the OCFP antenna comprises: a metal patch deposited on a substrate; at least two shorting elements configured to electrically connect the metal patch with a ground plane of the substrate; a metal patch deposited on a substrate; at least two shorting elements configured to electrically connect the metal patch with a ground plane of the substrate; a plurality of feed lines disposed on the substrate, wherein a first end of each feed line of the plurality of feed lines is connected to a different edge of the metal patch at a predefined pitch angle, wherein the pitch angle is an angle between the feedline and the OCFP antenna; and a plurality of rectifying circuits (RC1, RC2, RC3, RC4) connected one-to-one to the plurality of feed lines and configured to convert alternating current, AC, input power generated by the OCFP antenna to direct current, DC, output power, wherein a first rectifying circuit of the plurality of rectifying circuits is configured to convert lower AC input power to DC output power than a second rectifying circuit of the plurality of rectifying circuits.
A pressure roller station for rotary presses having a guide profile which is lockable at the rotary press, wherein the guide profile is in the form of a freestanding support column and comprises two side faces , on each of which a pair of upper and lower shaft mounts for pressure roller shafts are arranged, so that on the same guide profile two pairs of pressure rollers can be attached, wherein the pressure roller station is characterized in that the shaft mounts are arranged on the outside of the side surfaces .
Apparatus for controlling the temperature of an electrical energy storage device, comprising - a coolant circuit through which a coolant flows and which is thermally coupled to the electrical energy storage device so that the coolant can absorb heat from the electrical energy storage device or can dissipate heat to the electrical energy storage device, - a refrigerant circuit in which a refrigerant flows and which is part of a heat pump; - a first coolant cooler which can transfer heat between the coolant and the refrigerant , characterised in - that the apparatus comprises a support structure , - that the apparatus comprises at least one moulded component which is formed separately from the support structure and includes foamed plastic, and - that at least one such moulded component defines an air flow path and/or forms a holder for an element of the apparatus , - that such a moulded component forms a holder for a coolant control device , and/or a holder for the first coolant cooler , and/or a holder for a refrigerant compressor, and/or a holder for a coolant pump and/or that such a moulded component forms a frame for the refrigerant condenser . - a coolant circuit through which a coolant flows and which is thermally coupled to the electrical energy storage device so that the coolant can absorb heat from the electrical energy storage device or can dissipate heat to the electrical energy storage device, - a refrigerant circuit in which a refrigerant flows and which is part of a heat pump; - a first coolant cooler which can transfer heat between the coolant and the refrigerant , - that the apparatus comprises a support structure , - that the apparatus comprises at least one moulded component which is formed separately from the support structure and includes foamed plastic, and - that at least one such moulded component defines an air flow path and/or forms a holder for an element of the apparatus , - that such a moulded component forms a holder for a coolant control device , and/or a holder for the first coolant cooler , and/or a holder for a refrigerant compressor, and/or a holder for a coolant pump and/or that such a moulded component forms a frame for the refrigerant condenser .
A method for manufacturing concrete elements which comprise at least one concrete layer, in which method concrete is filled into a mold for at least one element, the concrete is compacted by means of vibration and/or by means of plungers and subsequently cures, wherein at least one portion of a granular material is applied to the concrete layer by means of an application device before compacting, characterized in that the concrete filled into the mold has a water-binder value (w/b value) of 0.31 to 0.45 before curing and the granular material used is a material containing (a) a scattering component having an average grain diameter of 0.1 to 5 mm in an amount of 75 to 85 wt.% and (b) binder in an amount of 15 to 25 wt.%, in each case based on the total composition of the granular material, wherein the granular material has a water-binder value (w/b value) of 0.24 to 0.38 before application to the concrete layer, wherein the concrete layer is a facing concrete layer, and wherein the concrete element comprises at least one further concrete layer. wherein the granular material has a water-binder value (w/b value) of 0.24 to 0.38 before application to the concrete layer, wherein the concrete layer is a facing concrete layer, and wherein the concrete element comprises at least one further concrete layer.
A projectile including a bag of gaseous medium to effectively retard the velocity thereof on impact with a target in such a way as to prevent excess damage, injury or penetration, said projectile having a forward-facing nose portion and a rear-facing portion wherein said bag is configured to increase in area at the nose portion of the projectile following impact with a target, wherein said projectile comprises a needle for penetrating a target and a cap which encloses said bag; characterised in that said cap comprises a cylindrical side wall which is disposed radially outwards from said bag, a single central aperture through which said needle extends, and a flat forward-facing surface extending from said cylindrical side wall to said single central aperture.
A frame device for agricultural work vehicle comprising: an engine frame configured to support an engine of an agricultural work vehicle ; a protection frame connected to each of a protection unit configured to protect a driver's seat of the agricultural work vehicle and the engine frame to support the protection unit ; and a rear frame connected to each of a rear working machine and the engine frame to support the rear working machine mounted at the rear of the agricultural work vehicle , wherein the protection frame comprises a protective connection member connected to the engine frame , the rear frame comprises a rear connection member connected to the engine frame , characterized in that , the protective connection member and the rear connection member are disposed to overlap each other so that the protective connection member and the rear connection member are detachably connected to the engine frame , and regions of the rear connection member and the protective connection member which are connected to the engine frame are implemented as a support structure consisting of three parts. an engine frame configured to support an engine of an agricultural work vehicle ; a protection frame connected to each of a protection unit configured to protect a driver's seat of the agricultural work vehicle and the engine frame to support the protection unit ; and a rear frame connected to each of a rear working machine and the engine frame to support the rear working machine mounted at the rear of the agricultural work vehicle , wherein the protection frame comprises a protective connection member connected to the engine frame , the rear frame comprises a rear connection member connected to the engine frame , characterized in that , the protective connection member and the rear connection member are disposed to overlap each other so that the protective connection member and the rear connection member are detachably connected to the engine frame , and regions of the rear connection member and the protective connection member which are connected to the engine frame are implemented as a support structure consisting of three parts.
A data processing method performed by a terminal device, the method comprising: ∘ receiving a first message from a base station (S 202), wherein the first message comprises a first indication and a second indication; ▪ the first indication is used to instruct the terminal device to perform at least one of the following operations: a data recovery, a discarding of a data packet, and a delivery of a PDU corresponding to a first SDU to an RLC entity, wherein a PDCP entity uses a key used before a cell handover when the cell handover occurs; and ▪ the second indication is used to instruct to re-establish the RLC entity; ∘ performing, according to the first indication, at least one of the following operations: the data recovery, the discarding of the data packet, and the delivery of the PDU corresponding to the first SDU to the RLC entity (S 203), and ∘ re-establishing, according to the second indication, the RLC entity (S 203). ∘ receiving a first message from a base station (S 202), wherein the first message comprises a first indication and a second indication; ▪ the first indication is used to instruct the terminal device to perform at least one of the following operations: a data recovery, a discarding of a data packet, and a delivery of a PDU corresponding to a first SDU to an RLC entity, wherein a PDCP entity uses a key used before a cell handover when the cell handover occurs; and ▪ the second indication is used to instruct to re-establish the RLC entity; ▪ the first indication is used to instruct the terminal device to perform at least one of the following operations: a data recovery, a discarding of a data packet, and a delivery of a PDU corresponding to a first SDU to an RLC entity, wherein a PDCP entity uses a key used before a cell handover when the cell handover occurs; and ▪ the second indication is used to instruct to re-establish the RLC entity; ∘ performing, according to the first indication, at least one of the following operations: the data recovery, the discarding of the data packet, and the delivery of the PDU corresponding to the first SDU to the RLC entity (S 203), and ∘ re-establishing, according to the second indication, the RLC entity (S 203).
A method for a user equipment comprising: receiving grouping information indicative of a timing advance group comprising a first cell and at least one second cell, wherein no cell in the timing advance group has reliable downlink transmission since downlink transmissions in the cells are subject to permission by a clear channel assessment procedure; obtaining reliability information comprising information related to the first cell and information related to the at least one second cell for use as reference cell for downlink timing and/or timing advance; selecting a cell in the timing advance group as a reference cell for downlink timing and/or timing advance based on the obtained reliability information. receiving grouping information indicative of a timing advance group comprising a first cell and at least one second cell, wherein no cell in the timing advance group has reliable downlink transmission since downlink transmissions in the cells are subject to permission by a clear channel assessment procedure; obtaining reliability information comprising information related to the first cell and information related to the at least one second cell for use as reference cell for downlink timing and/or timing advance; selecting a cell in the timing advance group as a reference cell for downlink timing and/or timing advance based on the obtained reliability information.
Multiple friction joint pile system, comprising at least two carrier elements , twisted wire long enough to connect the carrier elements , at least one flexible plate which is placed between two carrier elements and used to minimize the vibration of the carrier elements , twisted wire tightening-loosening apparatus , and twisted wire fastening apparatus in the amount of the twisted wires characterized in that; said carrier elements have a twisted wire duct being 3-5 times bigger than the diameter of said twisted wire , designed as independent units, the twisted wire passing through, and positioned at any point on the carrier element thereby allowing independent lateral displacement and independent rotation of the carrier elements , and wherein the pile system further comprises one or more geogrids squeezed between the carrier elements , wherein the geogrids and the piles are connected to each other from the upper region and/or the lower region of the multiple friction joint pile being placed in the excavated pile-width trench backfilled with sand, crushed stone or flowable fill.
A first wireless communication device , wherein the first wireless communication device comprises: a memory configured to store a coexistence schedule , wherein the coexistence schedule defines wireless local-area network, WLAN, intervals and non-WLAN intervals ; a WLAN transceiver configured to transmit WLAN signals in an independent basic service set, IBSS, network ; a non-WLAN transceiver configured to transmit wireless non-WLAN signals ; and a coexistence circuit configured to allow the WLAN transceiver to transmit the WLAN signals in the IBSS network only during the WLAN intervals, and wherein the coexistence circuit is further configured to allow the non-WLAN transceiver to transmit the wireless non-WLAN signals only during the non-WLAN intervals, and wherein the coexistence circuit is further configured to cause the WLAN transceiver to transmit a coexistence request message , prior to each of the non-WLAN intervals, to one or more second wireless communication devices in the IBBS network, wherein each of the coexistence request messages indicates a duration of a respective one of the non-WLAN intervals, to prevent the one or more second wireless communication devices from transmitting during the respective one of the non-WLAN intervals; wherein at least one of the coexistence request messages comprises: a vendor-specific action frame including a duration parameter, wherein the duration parameter indicates one of i) the duration of the respective one of the non-WLAN intervals and ii) the duration of a period between the respective one of the non-WLAN intervals and another one of the non-WLAN intervals. a memory configured to store a coexistence schedule , wherein the coexistence schedule defines wireless local-area network, WLAN, intervals and non-WLAN intervals ; a WLAN transceiver configured to transmit WLAN signals in an independent basic service set, IBSS, network ; a non-WLAN transceiver configured to transmit wireless non-WLAN signals ; and a coexistence circuit configured to allow the WLAN transceiver to transmit the WLAN signals in the IBSS network only during the WLAN intervals, and wherein the coexistence circuit is further configured to allow the non-WLAN transceiver to transmit the wireless non-WLAN signals only during the non-WLAN intervals, and wherein the coexistence circuit is further configured to cause the WLAN transceiver to transmit a coexistence request message , prior to each of the non-WLAN intervals, to one or more second wireless communication devices in the IBBS network, wherein each of the coexistence request messages indicates a duration of a respective one of the non-WLAN intervals, to prevent the one or more second wireless communication devices from transmitting during the respective one of the non-WLAN intervals; wherein at least one of the coexistence request messages comprises: a vendor-specific action frame including a duration parameter, wherein the duration parameter indicates one of i) the duration of the respective one of the non-WLAN intervals and ii) the duration of a period between the respective one of the non-WLAN intervals and another one of the non-WLAN intervals.
An X-ray apparatus, comprising: an X-ray source for radiating X-rays upon an object to be measured; a frame upon which the X-ray source is mounted; an anti-vibration mechanism arranged to attenuate vibration applied to the frame; a shift mechanism arranged to shift the frame and the anti-vibration mechanism integrally together; and a base plate unit arranged to support the shift mechanism. an X-ray source for radiating X-rays upon an object to be measured; a frame upon which the X-ray source is mounted; an anti-vibration mechanism arranged to attenuate vibration applied to the frame; a shift mechanism arranged to shift the frame and the anti-vibration mechanism integrally together; and a base plate unit arranged to support the shift mechanism.
A method of controlling communication in a wireless communication network, the method comprising: - a wireless communication device (100; 100') receiving a Radio Resource Control, RRC, message comprising resource allocation information from the wireless communication network, the resource allocation information indicating a set of resources allocated by the wireless communication network to be used by the wireless communication device (100; 100') for device-to-device communication and at least one condition for utilization of the set of resources; and - depending on the at least one condition, the wireless communication device (100; 100') controlling utilization of the set of resources for device-to-device communication between the wireless communication device (100; 100') and a further wireless communication device (100; 100'). - a wireless communication device (100; 100') receiving a Radio Resource Control, RRC, message comprising resource allocation information from the wireless communication network, the resource allocation information indicating a set of resources allocated by the wireless communication network to be used by the wireless communication device (100; 100') for device-to-device communication and at least one condition for utilization of the set of resources; and - depending on the at least one condition, the wireless communication device (100; 100') controlling utilization of the set of resources for device-to-device communication between the wireless communication device (100; 100') and a further wireless communication device (100; 100').
Battery cell comprising: - an anode , - a cathode , - a separator between the anode and the cathode , characterized in that the anode and the cathode each comprises a carbon fiber laminate , wherein the carbon fiber laminate comprises a plurality of carbon fiber plies comprising carbon fibers , each carbon fiber ply having a thickness of less than 90 micrometers, wherein said carbon fiber ply comprises a spread tow tape. - an anode , - a cathode , - a separator between the anode and the cathode ,