mhurhangee/patent-ind-claim-en huggingface dataset:
A flat-jet fuel injector for an aircraft turbine engine, comprising a body with a generally elongated shape having an elongation axis A, said body comprising a first longitudinal end for fuel supply and a second longitudinal end for ejecting a fuel flat-jet, said second end comprising a main pipe with a generally elongated shape having an elongation axis B substantially perpendicular to said elongation axis A, said main pipe having its two longitudinal ends which are connected directly and respectively to longitudinal ends of two secondary pipes with a generally elongated shape, the two longitudinal ends of the main pipe being configured for forming respectively two separate fuel flow inlets intended to meet substantially in the middle of said main pipe which comprises at least one slot for ejecting said fuel-jet, characterized in that the two secondary pipes have an elongation axis C at least substantially parallel to said elongation axis A, and in that at least one of said main and secondary pipes defines a flow area, at least one geometric parameter of which , such as shape or dimension, varies along said pipe and/or is different from the same geometric parameter defined by a flow area of another of said pipes.
An apparatus comprising: a logic to operate a Peripheral Component Interconnect ExpressTM, PCIeTM,-based transaction layer to generate transaction layer packets of a PCIeTM communication protocol and a link layer , wherein said link layer comprises an intermediate stage between the transaction layer and a physical unit; characterized in that the physical unit is of a second, M-PHY, communication protocol, different than the PCIeTM communication protocol, and is coupled to the link layer of the logic to transmit and receive data via a physical link, the physical unit including a link training and status state machine, LTSSM, a M-PHY electrical layer, and a logical layer to interface the logic with the M-PHY electrical layer, wherein the LTSSM is to configure and initialize the physical link to a link width determined prior to training the physical link. a logic to operate a Peripheral Component Interconnect ExpressTM, PCIeTM,-based transaction layer to generate transaction layer packets of a PCIeTM communication protocol and a link layer , wherein said link layer comprises an intermediate stage between the transaction layer and a physical unit; characterized in that the physical unit is of a second, M-PHY, communication protocol, different than the PCIeTM communication protocol, and is coupled to the link layer of the logic to transmit and receive data via a physical link, the physical unit including a link training and status state machine, LTSSM, a M-PHY electrical layer, and a logical layer to interface the logic with the M-PHY electrical layer, wherein the LTSSM is to configure and initialize the physical link to a link width determined prior to training the physical link.
A method of operating a radio frequency "RF" network so that extant infrastructure is used to deliver integrated wireless data services, the method comprising transmitting orthogonal frequency division multiplexing "OFDM" waveforms over at least a portion of the extant infrastructure within a prescribed frequency band the method comprising: allocating at least one 3 rd Generation Partnership Project "3GPP" Long Term Evolution "LTE" channel within at least one sub-band of the prescribed frequency band ; allocating a quadrature phase shift keying "QPSK" analog synchronization carrier within the at least one sub-band of the prescribed frequency band ; and multiplexing In-phase "I" and Quadrature "Q" data onto the QPSK analog synchronization carrier, the multiplexing of the I and Q data onto the QPSK analog synchronization carrier comprising multiplexing at least first and second data bits onto the QPSK analog synchronization carrier, the at least first data bits corresponding to a first technology, and the at least second data bits corresponding to a second technology; wherein the transmitted OFDM waveforms comprising at least a first spatial diversity data channel and a second spatial diversity data channel , the at least first and second spatial diversity data channels shifted in frequency relative to one another and within the prescribed frequency band so that each of the at least first and second spatial diversity data channels may be received by at least one receiver device and aggregated. allocating at least one 3 rd Generation Partnership Project "3GPP" Long Term Evolution "LTE" channel within at least one sub-band of the prescribed frequency band ; allocating a quadrature phase shift keying "QPSK" analog synchronization carrier within the at least one sub-band of the prescribed frequency band ; and multiplexing In-phase "I" and Quadrature "Q" data onto the QPSK analog synchronization carrier, the multiplexing of the I and Q data onto the QPSK analog synchronization carrier comprising multiplexing at least first and second data bits onto the QPSK analog synchronization carrier, the at least first data bits corresponding to a first technology, and the at least second data bits corresponding to a second technology; wherein the transmitted OFDM waveforms comprising at least a first spatial diversity data channel and a second spatial diversity data channel , the at least first and second spatial diversity data channels shifted in frequency relative to one another and within the prescribed frequency band so that each of the at least first and second spatial diversity data channels may be received by at least one receiver device and aggregated.
A user equipment, UE , comprising processing circuitry configured to: - obtain an indication of a resource mapping for a first radio access technology, RAT, that allows for coexistence with a second RAT within at least a portion of a transmission band; - determine communication resources based on the obtained resource mapping indication; and - resource map a physical downlink shared channel, PDSCH, around rate-matching resources, during the resource mapping. - obtain an indication of a resource mapping for a first radio access technology, RAT, that allows for coexistence with a second RAT within at least a portion of a transmission band; - determine communication resources based on the obtained resource mapping indication; and - resource map a physical downlink shared channel, PDSCH, around rate-matching resources, during the resource mapping.
Agricultural spreader for applying seed and/or fertilizer, having at least one storage container for storing the seed and/or fertilizer to be applied, at least one outlet region arranged in the lower region of the storage container and having at least one metering member arranged in the region of the outlet region for feeding the material to be applied into conveying lines leading to application elements, a stirring device driven in rotation being arranged in the lower region of the storage container , above the at least one metering member , and the stirring device having a stirrer shaft which is equipped at least with a stirrer element , the at least one stirrer element being constructed modularly from at least a first and a second stirrer element component , characterized in that when a torque limiting value is reached and/or exceeded as a result of striking an obstacle, the second stirrer element component rotating with the stirrer shaft is deformed in such a way that it is detached from the stirrer shaft and/or the first stirrer element component , and a second stirrer element component detached from the stirrer shaft and/or the first stirrer element component as a result of reaching and/or exceeding a torque limiting value is fully functional and reusable.
A method for managing software versions of electronic device(s) in a vehicle , comprising: transmitting, by a server , an update bundle to a target vehicle, wherein the update bundle comprises N patches, the N patches being in one-to-one correspondence with N electronic devices in the target vehicle, each patch of the N patches being used to update software of a corresponding electronic device, N being a positive integer greater than or equal to 1; receiving, by the server , an update response from the target vehicle, the update response being used to indicate one or more patches which have been successfully installed among the N patches; updating, by the server , a vehicle version tree, VVT, corresponding to the target vehicle according to the update response to obtain an updated VVT, wherein the updated VVT comprises multiple pieces of a first software information, a piece of the first software information comprises identity information of an electronic device in the target vehicle and a current software version numbers of the electronic device in the target vehicle, and determining, by the server , VVT information according to the updated VVT, wherein the VVT information is used to indicate the multiple pieces of the first software information comprised in the updated VVT; transmitting, by the server , the VVT information to the target vehicle. transmitting, by a server , an update bundle to a target vehicle, wherein the update bundle comprises N patches, the N patches being in one-to-one correspondence with N electronic devices in the target vehicle, each patch of the N patches being used to update software of a corresponding electronic device, N being a positive integer greater than or equal to 1; receiving, by the server , an update response from the target vehicle, the update response being used to indicate one or more patches which have been successfully installed among the N patches; updating, by the server , a vehicle version tree, VVT, corresponding to the target vehicle according to the update response to obtain an updated VVT, wherein the updated VVT comprises multiple pieces of a first software information, a piece of the first software information comprises identity information of an electronic device in the target vehicle and a current software version numbers of the electronic device in the target vehicle, and determining, by the server , VVT information according to the updated VVT, wherein the VVT information is used to indicate the multiple pieces of the first software information comprised in the updated VVT; transmitting, by the server , the VVT information to the target vehicle.
A base edge of a work implement assembly comprising: a body including a working edge defining a lateral direction and a direction of assembly perpendicular to the lateral direction , the body further defining a first lateral end and a second lateral end ; a plurality of vertical mounting mechanism receiving apertures ; a plurality of center notches extending from the working edge ; and a first end notch disposed proximate to the first lateral end and a second end notch disposed proximate to the second lateral end , the first end notch and the second end notch extending from the working edge ; characterised in that each of the plurality of center notches and the first and the second end notches includes a different configuration, the first and the second end notch defining a notch depth along direction of assembly , and the first and the second end notches further includes a straight middle portion straddled laterally by a first arcuate corner portion and a second arcuate corner portion , the straight middle portion defining a lateral straight middle portion width (W726), and the notch depth ranges from 0.5 multiplied by the lateral straight middle portion width (W726) to 1.25 multiplied by the lateral straight middle portion width (W726). a body including a working edge defining a lateral direction and a direction of assembly perpendicular to the lateral direction , the body further defining a first lateral end and a second lateral end ; a plurality of vertical mounting mechanism receiving apertures ; a plurality of center notches extending from the working edge ; and a first end notch disposed proximate to the first lateral end and a second end notch disposed proximate to the second lateral end , the first end notch and the second end notch extending from the working edge ; characterised in that each of the plurality of center notches and the first and the second end notches includes a different configuration, the first and the second end notch defining a notch depth along direction of assembly , and the first and the second end notches further includes a straight middle portion straddled laterally by a first arcuate corner portion and a second arcuate corner portion , the straight middle portion defining a lateral straight middle portion width (W726), and the notch depth ranges from 0.5 multiplied by the lateral straight middle portion width (W726) to 1.25 multiplied by the lateral straight middle portion width (W726).
A method for single carrier optimization for transmitting shared content in context of evolved Multimedia Broadcast Multicast Service, eMBMS, by at least one network entity , comprising: in a subframe of a radio spectrum, allocating a first set of resource elements, REs, for multimedia broadcast over a single frequency network, MBSFN, transmissions in accordance with a MBSFN subframe structure, each symbol corresponding to each RE of the first set having a first cyclic prefix, CP, type ; wherein each resource element covers one subcarrier in one symbol period of the subframe; allocating a second set of REs for unicast transmissions in accordance with a non-MBSFN subframe structure, each symbol corresponding to each RE of the second set having a second CP type ; determining whether the first CP type and the second CP type are the same; and in response to the first CP type and the second CP type being the same , combining the MBSFN transmissions and the unicast transmissions in the subframe according to the allocated first and second sets of REs ; and wherein combining the MBSFN transmissions and the unicast transmissions comprises shifting some of the allocated resource elements in either the first or second sets of allocated resource elements to send MBSFN reference signals on symbols devoid of unicast cell-specific reference signals, CRS . in a subframe of a radio spectrum, allocating a first set of resource elements, REs, for multimedia broadcast over a single frequency network, MBSFN, transmissions in accordance with a MBSFN subframe structure, each symbol corresponding to each RE of the first set having a first cyclic prefix, CP, type ; wherein each resource element covers one subcarrier in one symbol period of the subframe; allocating a second set of REs for unicast transmissions in accordance with a non-MBSFN subframe structure, each symbol corresponding to each RE of the second set having a second CP type ; determining whether the first CP type and the second CP type are the same; and in response to the first CP type and the second CP type being the same , combining the MBSFN transmissions and the unicast transmissions in the subframe according to the allocated first and second sets of REs ; and wherein combining the MBSFN transmissions and the unicast transmissions comprises shifting some of the allocated resource elements in either the first or second sets of allocated resource elements to send MBSFN reference signals on symbols devoid of unicast cell-specific reference signals, CRS .
A method of a User Equipment, in the following also referred to as UE, comprising: initiating a Random Access, in the following also referred to as RA, procedure on a Serving Cell, wherein the UE has multiple active uplink bandwidth parts, in the following also referred to as UL BWP, for the Serving Cell ; selecting a UL BWP from the multiple active UL BWPs for an Msg1 transmission, based on a first rule ; and transmitting the Msg1 on the selected UL BWP , characterized in that the first rule includes at least one of the following: • selecting the active UL BWP corresponding to an active downlink bandwidth part, in the following also referred to as DL BWP, with the best DL channel quality, • selecting the active UL BWP corresponding to an active DL BWP on which a Physical Downlink Control Channel, in the following also referred to as PDCCH, order is received, wherein the UE initiates the RA procedure in response to reception of the PDCCH order; • selecting the active UL BWP based on a logical channel, in the following also referred to as LCH, which triggers the RA procedure due to UL data arrival on the LCH. initiating a Random Access, in the following also referred to as RA, procedure on a Serving Cell, wherein the UE has multiple active uplink bandwidth parts, in the following also referred to as UL BWP, for the Serving Cell ; selecting a UL BWP from the multiple active UL BWPs for an Msg1 transmission, based on a first rule ; and transmitting the Msg1 on the selected UL BWP , characterized in that the first rule includes at least one of the following: • selecting the active UL BWP corresponding to an active downlink bandwidth part, in the following also referred to as DL BWP, with the best DL channel quality, • selecting the active UL BWP corresponding to an active DL BWP on which a Physical Downlink Control Channel, in the following also referred to as PDCCH, order is received, wherein the UE initiates the RA procedure in response to reception of the PDCCH order; • selecting the active UL BWP based on a logical channel, in the following also referred to as LCH, which triggers the RA procedure due to UL data arrival on the LCH. • selecting the active UL BWP corresponding to an active downlink bandwidth part, in the following also referred to as DL BWP, with the best DL channel quality, • selecting the active UL BWP corresponding to an active DL BWP on which a Physical Downlink Control Channel, in the following also referred to as PDCCH, order is received, wherein the UE initiates the RA procedure in response to reception of the PDCCH order; • selecting the active UL BWP based on a logical channel, in the following also referred to as LCH, which triggers the RA procedure due to UL data arrival on the LCH.
A radiation imaging apparatus comprising: a detection unit arranged to detect radiation from an irradiation unit arranged to irradiate with the radiation; a reception unit configured to receive, from an irradiation control apparatus , irradiation information about an irradiation time at which irradiation of the radiation is to be started; and the radiation imaging apparatus is configured to control the detection unit so that the detection unit is ready to detect the radiation at the irradiation time, based on the irradiation information; and characterized in that the radiation imaging apparatus is configured to transmit photographing permission information, which indicates that the detection unit is ready to detect the radiation at the irradiation time, to the irradiation control apparatus if the detection unit is expected to be ready to detect the radiation at the irradiation time and is able to photograph the radiation. a detection unit arranged to detect radiation from an irradiation unit arranged to irradiate with the radiation; a reception unit configured to receive, from an irradiation control apparatus , irradiation information about an irradiation time at which irradiation of the radiation is to be started; and the radiation imaging apparatus is configured to control the detection unit so that the detection unit is ready to detect the radiation at the irradiation time, based on the irradiation information; and characterized in that the radiation imaging apparatus is configured to transmit photographing permission information, which indicates that the detection unit is ready to detect the radiation at the irradiation time, to the irradiation control apparatus if the detection unit is expected to be ready to detect the radiation at the irradiation time and is able to photograph the radiation.
A measuring device for determining a fill level or limit level of a filling medium in a container , wherein the measuring device is designed to be arranged on the container and comprises a sensor for determining said fill level or limit level, a power supply unit which is electrically connected to the sensor and is designed and configured for supplying the sensor with electric energy, and an activation unit which is connected at least to the power supply unit for signal transmission, characterised in that , when the container is connected to a filling or emptying device , the activation unit is designed and configured to be actuated by an actuating means provided on the container and/or on the filling or emptying device and, accordingly, to activate the sensor by putting it from an inactive mode into an operating mode, wherein the measuring device is designed and configured for continuously or discontinuously determining the fill level or limit level with the aid of the sensor while the container is being filled or emptied by adding or removing the filling medium, and to put the sensor from an operating mode into an inactive mode once the filling or emptying operation has been accomplished.
Vehicle comprising an air suspension system , the vehicle having - a vehicle axle having vehicle wheels or - a plurality of adjacent tandem axles, - the air suspension system having air springs , each having a spring bellows , on each vehicle wheel on the vehicle axle or on each vehicle side of the vehicle on the tandem axles, - the air suspension system having - a changeover valve for each of the air springs of the vehicle axle or of the tandem axles and - a shutoff valve for each of the air springs of each vehicle wheel of the vehicle axle or for each of the air springs of each vehicle side of the tandem axles, - each changeover valve and the shutoff valves being structurally combined in a valve block which is arranged remotely from the air springs , - the air suspension system having in each case a pressure sensor for measuring the bellows pressures in the spring bellows of the air springs , which pressure sensors are arranged in or on the valve block , and - the pressure sensors each being connected to a connection line of the spring bellows of the associated air spring or the spring bellows of the associated air springs at the output of the shutoff valve associated therewith, characterized in that the pressure sensors are each connected via a filter assembly acting as a low-pass filter to the connection line of the spring bellows of the associated air spring or the spring bellows of the associated air springs. - a vehicle axle having vehicle wheels or - a plurality of adjacent tandem axles, - the air suspension system having air springs , each having a spring bellows , on each vehicle wheel on the vehicle axle or on each vehicle side of the vehicle on the tandem axles, - the air suspension system having - a changeover valve for each of the air springs of the vehicle axle or of the tandem axles and - a shutoff valve for each of the air springs of each vehicle wheel of the vehicle axle or for each of the air springs of each vehicle side of the tandem axles, - each changeover valve and the shutoff valves being structurally combined in a valve block which is arranged remotely from the air springs , - the air suspension system having in each case a pressure sensor for measuring the bellows pressures in the spring bellows of the air springs , which pressure sensors are arranged in or on the valve block , and - the pressure sensors each being connected to a connection line of the spring bellows of the associated air spring or the spring bellows of the associated air springs at the output of the shutoff valve associated therewith,