mhurhangee/patent-ind-claim-en huggingface dataset:
A light generating device comprising (i) n laser light sources , (ii) focusing optics , and (iii) a plurality of luminescent bodies , wherein: - the n laser light sources are configured to generate laser light source light ; wherein the focusing optics are configured to focus the laser light source light into a focused beam of laser light source light ; wherein n≥4; - the luminescent bodies comprising a luminescent material , wherein the luminescent bodies are configured in a light receiving relationship with the n laser light sources , wherein the luminescent material is configured to convert at least part of the laser light source light into luminescent material light ; - the n laser light sources and focusing optics are configured to provide in an operational mode light spots of laser light source light on the plurality of luminescent bodies ; wherein k sets of light spots each have an individually selected number of m light spots , wherein two or more of the light spots within each set have a partial overlap, wherein 2≤m≤n and 1≤k<n; and - wherein a first spot area is defined by 10-100% of the maximum intensity in the light spot , wherein for at least one of the light spots within at least one of the k sets applies that in the range of 5-80% of its first spot area overlaps with at least another first spot area within the set, - wherein for each of the luminescent bodies at least two of n laser light sources , together with the focusing optics , are configured to provide in the operational mode light spots of laser light source light on the respective luminescent body . - the n laser light sources are configured to generate laser light source light ; wherein the focusing optics are configured to focus the laser light source light into a focused beam of laser light source light ; wherein n≥4; - the luminescent bodies comprising a luminescent material , wherein the luminescent bodies are configured in a light receiving relationship with the n laser light sources , wherein the luminescent material is configured to convert at least part of the laser light source light into luminescent material light ; - the n laser light sources and focusing optics are configured to provide in an operational mode light spots of laser light source light on the plurality of luminescent bodies ; wherein k sets of light spots each have an individually selected number of m light spots , wherein two or more of the light spots within each set have a partial overlap, wherein 2≤m≤n and 1≤k<n; and - wherein a first spot area is defined by 10-100% of the maximum intensity in the light spot , wherein for at least one of the light spots within at least one of the k sets applies that in the range of 5-80% of its first spot area overlaps with at least another first spot area within the set, - wherein for each of the luminescent bodies at least two of n laser light sources , together with the focusing optics , are configured to provide in the operational mode light spots of laser light source light on the respective luminescent body .
Servo-assisted steering assembly for an autonomously steered vehicle having a hybrid steering system, comprising - at least one hydraulic servo valve that functions as a hydraulic steering assistance system and comprises an actuator for controlling the steering assistance system in dependence upon a relative rotation of an input shaft with respect to an output shaft, - at least one electromechanical steering assistance system that functions as a superimposed steering system, wherein the superimposed steering system boosts the supporting steering torque in response to a boost curve, - a control unit for monitoring and controlling the driving procedure of the vehicle, wherein - the control unit is programmed in such a manner that upon recognising a malfunction during an autonomous driving procedure the steering is switched to steering braking, characterised in that the servo-assisted steering assembly is coordinated in such a manner that frictional torques that occur above the hydraulic servo valve do not have any influence on the hydraulic pressures that are acting in the chambers of the hydraulic steering assistance and consequently do not subject the steering braking to a counter torque. - at least one hydraulic servo valve that functions as a hydraulic steering assistance system and comprises an actuator for controlling the steering assistance system in dependence upon a relative rotation of an input shaft with respect to an output shaft, - at least one electromechanical steering assistance system that functions as a superimposed steering system, wherein the superimposed steering system boosts the supporting steering torque in response to a boost curve, - a control unit for monitoring and controlling the driving procedure of the vehicle, - the control unit is programmed in such a manner that upon recognising a malfunction during an autonomous driving procedure the steering is switched to steering braking,
Coil device for a motor vehicle, having a housing which has a receiving space , having at least one secondary coil which is arranged in the receiving space for the inductive transmission of electric energy for charging an energy store of the motor vehicle, and having at least one ferrite element which is arranged in the housing for conducting at least one magnetic field for the inductive transmission of the electric energy, characterized in that the ferrite element has at least two ferrite regions which are spaced apart from one another at least partially via at least one through opening which is arranged between the ferrite regions and in which a supporting structure is at least partially arranged which is formed from a fiber composite material, has ferritic elements which are received in the fiber composite material, and via which opposite housing elements of the housing are supported on one another.
A transport container comprising a jacket formed in particular of circular woven fabric, which extends between a lower part and an upper part in such a way that a container volume is formed for receiving granular, liquid, viscous or semi-liquid substances, in particular bitumen, wherein the transport container has at least one opening , and wherein multiple, preferably four, stabilising elements are provided, which extend along the jacket from the area of the lower part to the area of the upper part and whose ends are connected in a tension- and pressure-resistant manner by a bracing structure, wherein a buffer is provided adjacent to the opening for increasing the volume of the transport container , characterised in that the buffer is made of lighter material compared to that of the transport container , in particular fabric, or is lighter or thinner and in that the buffer comprises a primary closure in the area of an upper edge of the buffer and a secondary closure in the area of the opening .
A method of transferring user data (U) of a machine-to-machine application, from a communication module to a machine-to-machine server over a telecommunications network, the telecommunications network comprising a radio access network and a core network, the method comprising the steps in a node in the telecommunications network of - receiving a signalling message (S) over the radio access network from said communication module , said user data (U) being contained in said signalling message (S), wherein the signalling message (S) is a network attach request message having an information element for said user data (U), and wherein the user data (U) was inserted in said signalling message (S) by said communication module , and wherein said user data (U) comprises application data of a program run by said communication module ; - retrieving said user data (U) from said received signalling message (S); - transferring said retrieved user data (U) over the core network to said machine-to-machine server ; - transmitting a response message to the communication module , wherein the response message is either an attach reject message or a network attach accept message; - in case the response message is the network attach accept message: - transmitting further data to and/or receiving further data from the communication module ; and - receiving a network detach message from the communication module . - receiving a signalling message (S) over the radio access network from said communication module , said user data (U) being contained in said signalling message (S), wherein the signalling message (S) is a network attach request message having an information element for said user data (U), and wherein the user data (U) was inserted in said signalling message (S) by said communication module , and wherein said user data (U) comprises application data of a program run by said communication module ; - retrieving said user data (U) from said received signalling message (S); - transferring said retrieved user data (U) over the core network to said machine-to-machine server ; - transmitting a response message to the communication module , wherein the response message is either an attach reject message or a network attach accept message; - in case the response message is the network attach accept message: - transmitting further data to and/or receiving further data from the communication module ; and - receiving a network detach message from the communication module . - transmitting further data to and/or receiving further data from the communication module ; and - receiving a network detach message from the communication module .
Composition for treating keratin fibres, comprising at least an aqueous dispersion of hybrid hydrophobic film-forming acrylic polymer particles and at least one amino silicone, wherein the hybrid acrylic film-forming polymer(s) are synthesized from at least one compound (i) chosen from monomers bearing at least one (meth)acrylic acid group and/or esters of these acid monomers and/or amides of these acid monomers and from at least one compound (ii) different from the compounds (i), which does not comprise any (meth)acrylic acid groups and/or esters of these acid monomers and/or amides of these acid monomers, and the hybrid hydrophobic film-forming acrylic polymer(s) in aqueous dispersion and the amino silicone(s) being present in a weight ratio of hybrid hydrophobic acrylic film-forming polymer(s) to amino silicone(s) ranging from 0,2 to 10.
A method for transmitting an ACK/NACK in a wireless communication system, the method being performed by a wireless device , and comprising: receiving a plurality of downlink, DL, grants in a plurality of DL subframes, each DL grant including an Acknowledgement/Non-Acknowledgement, ACK/NACK, resource indicator, ARI; receiving a plurality of physical DL shared channels, PDSCHs, associated with the plurality of DL grants in the plurality of DL subframes; selecting one of a first physical uplink control channel, PUCCH, format and a second PUCCH format based on a number of bits of ACK/NACK bits for the plurality of PDSCHs; determining, by the wireless device, a PUCCH resource for the selected PUCCH format based on the ARI included in the most recently received DL grant among the plurality of DL grants; and transmitting, by the wireless device, the ACK/NACK bits by using the selected PUCCH format. receiving a plurality of downlink, DL, grants in a plurality of DL subframes, each DL grant including an Acknowledgement/Non-Acknowledgement, ACK/NACK, resource indicator, ARI; receiving a plurality of physical DL shared channels, PDSCHs, associated with the plurality of DL grants in the plurality of DL subframes; selecting one of a first physical uplink control channel, PUCCH, format and a second PUCCH format based on a number of bits of ACK/NACK bits for the plurality of PDSCHs; determining, by the wireless device, a PUCCH resource for the selected PUCCH format based on the ARI included in the most recently received DL grant among the plurality of DL grants; and transmitting, by the wireless device, the ACK/NACK bits by using the selected PUCCH format.
An electric valve assembly method comprising: forming a constricted portion at an outer peripheral surface of a side surface of a valve seat ; bonding a valve seat having a valve seat portion to a lower surface of a cylindrical valve main body while an upper surface of the valve main body faces downward; fixing the valve main body to a jig by using a lower outer peripheral surface of the constricted portion as a positioning reference surface while the upper surface of the valve main body faces upward after the valve seat is bonded to the valve main body ; fixing a valve shaft provided with a valve body at the side of the valve body by aligning center axes of the valve shaft and the valve seat portion while the valve main body is fixed to the jig; and sealing and bonding a lower end portion of a can to an upper surface of the valve main body having the valve shaft fixed thereto. forming a constricted portion at an outer peripheral surface of a side surface of a valve seat ; bonding a valve seat having a valve seat portion to a lower surface of a cylindrical valve main body while an upper surface of the valve main body faces downward; fixing the valve main body to a jig by using a lower outer peripheral surface of the constricted portion as a positioning reference surface while the upper surface of the valve main body faces upward after the valve seat is bonded to the valve main body ; fixing a valve shaft provided with a valve body at the side of the valve body by aligning center axes of the valve shaft and the valve seat portion while the valve main body is fixed to the jig; and sealing and bonding a lower end portion of a can to an upper surface of the valve main body having the valve shaft fixed thereto.
High temperature rechargeable battery comprising a solid-state device for oxygen storage and release, wherein the rechargeable battery comprises: a gas-tight shell that contains or is made in its entirety of an oxygen-ion conducting electrolyte membrane, and defines a contained volume, wherein the membrane is an electrolyte membrane; an oxygen storage material consisting of a sulfate/sulfide redox couple, contained in said contained volume; a first electrode in contact with said electrolyte and in contact with said contained volume; a second electrode in contact with the other side of the said electrolyte and in contact with an oxygen containing atmosphere; an electrical contact made with each electrode; an oxygen pump for pumping out oxygen; wherein the electrodes are selected from an electronically conducting material; wherein the oxygen exchange with the atmosphere outside the gas-tight shell, preferably air, may or may not be involved in further chemical reactions or be utilised as a source of pure oxygen; wherein the oxygen storage material is selected from a list consisting of the following elements: gadolinium, lanthanum, cerium, neodymium, samarium, dysprosium, erbium, europium, holmium, terbium, ytterbium, yttrium, scandium, lutetium, magnesium, calcium, strontium, barium, lithium, sodium, potassium, or combinations thereof; wherein the oxygen storage material is sealed inside the shell; wherein the membrane is an oxide-ion conducting ceramic comprising CeO 2 , ZrO 2 , LaGaO 3 , or mixtures thereof; wherein the high temperature rechargeable battery has an operational temperature range from 350°C to 1000°C. a gas-tight shell that contains or is made in its entirety of an oxygen-ion conducting electrolyte membrane, and defines a contained volume, wherein the membrane is an electrolyte membrane; an oxygen storage material consisting of a sulfate/sulfide redox couple, contained in said contained volume; a first electrode in contact with said electrolyte and in contact with said contained volume; a second electrode in contact with the other side of the said electrolyte and in contact with an oxygen containing atmosphere; an electrical contact made with each electrode; an oxygen pump for pumping out oxygen; wherein the electrodes are selected from an electronically conducting material; wherein the oxygen exchange with the atmosphere outside the gas-tight shell, preferably air, may or may not be involved in further chemical reactions or be utilised as a source of pure oxygen; wherein the oxygen storage material is selected from a list consisting of the following elements: gadolinium, lanthanum, cerium, neodymium, samarium, dysprosium, erbium, europium, holmium, terbium, ytterbium, yttrium, scandium, lutetium, magnesium, calcium, strontium, barium, lithium, sodium, potassium, or combinations thereof; wherein the oxygen storage material is sealed inside the shell; wherein the membrane is an oxide-ion conducting ceramic comprising CeO 2 , ZrO 2 , LaGaO 3 , or mixtures thereof; wherein the high temperature rechargeable battery has an operational temperature range from 350°C to 1000°C.
A method of manufacturing a ceramic pot comprising the steps of providing a mould with a lower mould and an upper mould , the upper mould and the lower mould being movable relative to one another along a longitudinal axis from an open position into a moulding position, and wherein in the moulding position a gap between the upper mould and the lower mould comprising a gap volume defines a base and at least in sections a wall of the pot , introducing a ceramic mass with at least one unfired ceramic raw material and with a ceramic volume into the lower mould , pressing the upper mould into the lower mould until the moulding position is reached, so that the ceramic mass is distributed in the gap and forms a green compact of the pot , removing the green compact from the mould , drying the green compact and firing the green compact to the pot , wherein the lower mould has a bottom surface defining the bottom of the pot and the ceramic mass is provided before being placed in the lower mould in such a way that the ceramic mass comprises a cylindrical shape with circular lid surfaces, the lid surfaces being smaller than the bottom surface , characterized in that the ceramic volume is smaller than the gap volume. providing a mould with a lower mould and an upper mould , the upper mould and the lower mould being movable relative to one another along a longitudinal axis from an open position into a moulding position, and wherein in the moulding position a gap between the upper mould and the lower mould comprising a gap volume defines a base and at least in sections a wall of the pot , introducing a ceramic mass with at least one unfired ceramic raw material and with a ceramic volume into the lower mould , pressing the upper mould into the lower mould until the moulding position is reached, so that the ceramic mass is distributed in the gap and forms a green compact of the pot , removing the green compact from the mould , drying the green compact and firing the green compact to the pot , wherein the lower mould has a bottom surface defining the bottom of the pot and the ceramic mass is provided before being placed in the lower mould in such a way that the ceramic mass comprises a cylindrical shape with circular lid surfaces, the lid surfaces being smaller than the bottom surface , characterized in that the ceramic volume is smaller than the gap volume.
A battery management system for an electric air vehicle, said battery management system being adapted to observe a current battery state-of-charge, SOC, of a battery system forming an energy storage system of the air vehicle, said battery management system comprising two redundant and dissimilar lanes for battery state determination, wherein a first lane of the two lanes comprises equipment for determining SOC of each individual battery cell of a plurality of battery cells of the battery system by using a Coulomb Counting algorithm, a second lane of the two lanes comprises equipment for determining the SOC of each individual battery cell of the plurality of battery cells of the battery system using a different mechanism than the Coulomb Counting algorithm, wherein the battery management system further being adapted for battery health observation, characterized in that : each of said lanes further comprises equipment for determining a battery health parameter of each individual battery cell of the plurality of battery cells, the determination of the battery health parameter by the first lane is based on an ageing model that determines the battery health based on an observed utilization, and the determination of the battery health parameter by the second lane is based on a different mechanism than the ageing model. two redundant and dissimilar lanes for battery state determination, wherein a first lane of the two lanes comprises equipment for determining SOC of each individual battery cell of a plurality of battery cells of the battery system by using a Coulomb Counting algorithm, a second lane of the two lanes comprises equipment for determining the SOC of each individual battery cell of the plurality of battery cells of the battery system using a different mechanism than the Coulomb Counting algorithm, wherein the battery management system further being adapted for battery health observation, characterized in that : each of said lanes further comprises equipment for determining a battery health parameter of each individual battery cell of the plurality of battery cells, the determination of the battery health parameter by the first lane is based on an ageing model that determines the battery health based on an observed utilization, and the determination of the battery health parameter by the second lane is based on a different mechanism than the ageing model. each of said lanes further comprises equipment for determining a battery health parameter of each individual battery cell of the plurality of battery cells, the determination of the battery health parameter by the first lane is based on an ageing model that determines the battery health based on an observed utilization, and the determination of the battery health parameter by the second lane is based on a different mechanism than the ageing model.