mhurhangee/patent-ind-claim-en huggingface dataset:
An optical coherence tomography system, comprising a broadband optical source module ; and an interferometric part, wherein the broadband optical source module comprises: a housing defining an enclosure of free space; a first superluminescent light emitting diode, SLED, source arranged in the enclosure to emit a first SLED beam having a first wavelength range and a first centre wavelength to propagate in the free space along a first beam path; a second SLED source arranged in the enclosure to emit a second SLED beam having a second wavelength range and a second centre wavelength different from the first centre wavelength to propagate in the free space along a second beam path; characterised by a beam combiner (40r-g) arranged in the enclosure to receive the first SLED beam and the second SLED beam, and to combine them into a combined SLED beam with a continuous spectrum having a bandwidth covering the first and second wavelength ranges, the combined SLED beam extending in the free space along a combined beam path; and an optical output port (16; 48) arranged to receive light along the combined beam path and to output the combined SLED beam with the continuous spectrum from the housing. a broadband optical source module ; and an interferometric part, wherein the broadband optical source module comprises: a housing defining an enclosure of free space; a first superluminescent light emitting diode, SLED, source arranged in the enclosure to emit a first SLED beam having a first wavelength range and a first centre wavelength to propagate in the free space along a first beam path; a second SLED source arranged in the enclosure to emit a second SLED beam having a second wavelength range and a second centre wavelength different from the first centre wavelength to propagate in the free space along a second beam path; a housing defining an enclosure of free space; a first superluminescent light emitting diode, SLED, source arranged in the enclosure to emit a first SLED beam having a first wavelength range and a first centre wavelength to propagate in the free space along a first beam path; a second SLED source arranged in the enclosure to emit a second SLED beam having a second wavelength range and a second centre wavelength different from the first centre wavelength to propagate in the free space along a second beam path; a beam combiner (40r-g) arranged in the enclosure to receive the first SLED beam and the second SLED beam, and to combine them into a combined SLED beam with a continuous spectrum having a bandwidth covering the first and second wavelength ranges, the combined SLED beam extending in the free space along a combined beam path; and an optical output port (16; 48) arranged to receive light along the combined beam path and to output the combined SLED beam with the continuous spectrum from the housing.
A method for managing triggering in a device (202, 220_0-222_N, 708_1-708_15) coupled to a serial bus , comprising: receiving a datagram from the serial bus , the datagram including a plurality of data bytes (408, 430, 602, 822a-e) corresponding to a plurality of counters; configuring each of the plurality of counters with a count value based on content of a corresponding data byte when the corresponding data byte is received from the datagram ; causing each of the plurality of counters to refrain from counting until all of the plurality of counters have been configured with count values; and actuating a trigger when a counter associated with the trigger has counted to zero. receiving a datagram from the serial bus , the datagram including a plurality of data bytes (408, 430, 602, 822a-e) corresponding to a plurality of counters; configuring each of the plurality of counters with a count value based on content of a corresponding data byte when the corresponding data byte is received from the datagram ; causing each of the plurality of counters to refrain from counting until all of the plurality of counters have been configured with count values; and actuating a trigger when a counter associated with the trigger has counted to zero.
A method, for a user equipment, UE , for performing an unscheduled uplink transmission in an unlicensed portion of a radio spectrum, the method comprising: - receiving, from a base station serving the UE, a backoff offset defining an amount of time in which the starting time of the uplink transmission is delayed, wherein the backoff offset indicates an exact starting position of the uplink transmission in an unscheduled mode of operation; - performing , by the UE, a listen before talk, LBT, operation in the unlicensed portion of the radio spectrum, wherein the LBT operation comprises sensing the portion of the radio spectrum for a pre-determined minimum amount of time for traffic; and, if no traffic was sensed, - performing the unscheduled uplink transmission, by the UE, of data in the unscheduled mode of operation for at least one transmission burst at the starting position indicated by the backoff offset. - receiving, from a base station serving the UE, a backoff offset defining an amount of time in which the starting time of the uplink transmission is delayed, wherein the backoff offset indicates an exact starting position of the uplink transmission in an unscheduled mode of operation; - performing , by the UE, a listen before talk, LBT, operation in the unlicensed portion of the radio spectrum, wherein the LBT operation comprises sensing the portion of the radio spectrum for a pre-determined minimum amount of time for traffic; and, if no traffic was sensed, - performing the unscheduled uplink transmission, by the UE, of data in the unscheduled mode of operation for at least one transmission burst at the starting position indicated by the backoff offset.
Dust hood for a grinding device provided with a gearbox neck for securing the dust hood , with a hood body for unilaterally covering a predominant portion of a grinding disc , wherein the dust hood has a hood sector which is displaceable along the hood body in the circumferential direction (U) of the hood body and is provided for gradually covering and opening up a remaining part of the grinding disc as required, and with an extraction connection , via which material from the abrasive removal of a substrate can be sucked out of the hood body , wherein a web is provided between the hood body and the hood sector , said web separating a main chamber , which is defined by the hood body , at least partially from a segment chamber , which is defined by the hood sector , characterized in that the web has a web opening via which air (L) can flow from the segment chamber into the main chamber .
An organic light-emitting diode (OLED) array substrate, including: a display area with OLEDs arranged in arrays; electrostatic discharge lines; and peripheral electrostatic discharge areas comprising conductive areas in contact with a cathode of the OLEDs and electrically connected to the electrostatic discharge lines through switch modules, wherein the electrostatic discharge lines include high-voltage electrostatic discharge lines and low-voltage electrostatic discharge lines; and a conductive area is connected to a high-voltage electrostatic discharge line through first switch modules, and is connected to a low-voltage electrostatic discharge line through second switch modules; characterized in that , the switch modules comprise diode connectd transistors such that when positive electrostatic charges are generated in the conductive area and create a positive electrostatic voltage, the first switch modules are turned on; and when negative electrostatic charges are generated in the conductive area and create a negative electrostatic voltage, the second switch modules are turned on. a display area with OLEDs arranged in arrays; electrostatic discharge lines; and peripheral electrostatic discharge areas comprising conductive areas in contact with a cathode of the OLEDs and electrically connected to the electrostatic discharge lines through switch modules, wherein the electrostatic discharge lines include high-voltage electrostatic discharge lines and low-voltage electrostatic discharge lines; and a conductive area is connected to a high-voltage electrostatic discharge line through first switch modules, and is connected to a low-voltage electrostatic discharge line through second switch modules; characterized in that , the switch modules comprise diode connectd transistors such that when positive electrostatic charges are generated in the conductive area and create a positive electrostatic voltage, the first switch modules are turned on; and when negative electrostatic charges are generated in the conductive area and create a negative electrostatic voltage, the second switch modules are turned on.
A system, comprising: a sorbent recharger having a recharging flow path comprising at least one receiving compartment for a zirconium oxide sorbent module; the at least one receiving compartment comprising a zirconium oxide module inlet and a zirconium oxide module outlet; at least one recharge solution source; the at least one recharge solution source comprising a concentrated hydroxyl source and a concentrated free chlorine source fluidly connectable to the recharging flow path; a controller controlling at least one pump to introduce fluid from the at least one recharge solution source to the zirconium oxide sorbent module; wherein the recharging flow path is fluidly connectable to a water source upstream of the zirconium oxide module inlet; and wherein the controller controls a flow rate of hydroxide from said concentrated hydroxyl source and free chlorine from said concentrated free chlorine source and a flow rate of water to generate a recharge solution having a specified concentration of hydroxide and free chlorine. a sorbent recharger having a recharging flow path comprising at least one receiving compartment for a zirconium oxide sorbent module; the at least one receiving compartment comprising a zirconium oxide module inlet and a zirconium oxide module outlet; at least one recharge solution source; the at least one recharge solution source comprising a concentrated hydroxyl source and a concentrated free chlorine source fluidly connectable to the recharging flow path; a controller controlling at least one pump to introduce fluid from the at least one recharge solution source to the zirconium oxide sorbent module; wherein the recharging flow path is fluidly connectable to a water source upstream of the zirconium oxide module inlet; and wherein the controller controls a flow rate of hydroxide from said concentrated hydroxyl source and free chlorine from said concentrated free chlorine source and a flow rate of water to generate a recharge solution having a specified concentration of hydroxide and free chlorine.
Implantation device comprising: a filter frame; and a filter held by the filter frame, said filter being configured to be irradiated by an ion beam passing through it, wherein the filter comprises a layer structure having at least two different material layers arranged one above another in a direction of radiation transmission. a filter frame; and a filter held by the filter frame, said filter being configured to be irradiated by an ion beam passing through it, wherein the filter comprises a layer structure having at least two different material layers arranged one above another in a direction of radiation transmission.
A method for wireless communications, comprising: satisfying a first transmission power threshold, P LIMIT , to limit transmission power, P PUSCH,j , for an uplink transmission on a first component carrier j, wherein P LIMIT is determined by applying a power reduction, PR, to a network configured maximum transmission power; determining a transmission power, P PUSCH,c , for an uplink transmission on a second component carrier c with c≠j when the transmission power for the uplink transmission on the first component carrier is limited; and transmitting the uplink transmission on the first and second component carriers, wherein the P PUSCH,c for the uplink transmission on the second component carrier is determined as a minimum of: a transmission power adjusted by transmit power control, TPC; and P LIMIT reduced by a threshold adjustment value, wherein the threshold adjustment value is determined such that a total uplink transmission power of the uplink transmissions on the first and second component carriers exceeds P LIMIT but does not exceed the network configured maximum transmission power. satisfying a first transmission power threshold, P LIMIT , to limit transmission power, P PUSCH,j , for an uplink transmission on a first component carrier j, wherein P LIMIT is determined by applying a power reduction, PR, to a network configured maximum transmission power; determining a transmission power, P PUSCH,c , for an uplink transmission on a second component carrier c with c≠j when the transmission power for the uplink transmission on the first component carrier is limited; and transmitting the uplink transmission on the first and second component carriers, wherein the P PUSCH,c for the uplink transmission on the second component carrier is determined as a minimum of: a transmission power adjusted by transmit power control, TPC; and P LIMIT reduced by a threshold adjustment value, wherein the threshold adjustment value is determined such that a total uplink transmission power of the uplink transmissions on the first and second component carriers exceeds P LIMIT but does not exceed the network configured maximum transmission power. a transmission power adjusted by transmit power control, TPC; and P LIMIT reduced by a threshold adjustment value, wherein the threshold adjustment value is determined such that a total uplink transmission power of the uplink transmissions on the first and second component carriers exceeds P LIMIT but does not exceed the network configured maximum transmission power.
A device for filtering oil, comprising: - a tank comprising an inlet for the oil to be filtered, as well as a cover - at least one tray element , internal to said tank, removable, capable of being withdrawn from the tank through the upper opening of the cover, said at least one tray element removably receiving filter cartridges, said hollow tray element constituting a collector for the oil filtered by the cartridges of said tray element, said tray element comprising a filtered oil outlet removably connected to a corresponding outlet of the tank via a connector , characterised in that said connector comprises a first part (70; 74) integral with said at least one tray element and a second part (71; 75) integral with the tank, capable of cooperating with each other by means of a seal to ensure a sealed connection between the oil outlet of said tray element , and the corresponding outlet of the tank, and wherein, the device has several tray elements superimposed in the internal volume of the tank , the connection of each tray element to the corresponding outlet of the tank being performed by means of said connector , the two parts of said connector being arranged in such a way that the sealed connection of the two parts of the connector, and conversely their disconnection, is ensured only by the vertical displacement of said tray element in said tank, the positions of the various connectors (7', 7", 7'") corresponding to the various tray elements being angularly offset around the axis of the tank , wherein the first part and the second part of said connector respectively comprise two conduit sections, with vertical axes, inter-penetrating, via said seal , in said connection position of said connector , and wherein the first part integral with said tray element comprises a conduit section (SO) extending vertically downwards from the underside of said tray element , having a lower mouthpiece, said second part comprising a conduit section (S1) extending vertically upwards, having an upper mouthpiece, and such that, in said connection position of said connector , the two conduit sections (S0, S1) cooperate in a sealed manner, said first part of said connector integral with said tray element being positioned above said second part of said connector integral with the tank. - a tank comprising an inlet for the oil to be filtered, as well as a cover - at least one tray element , internal to said tank, removable, capable of being withdrawn from the tank through the upper opening of the cover, said at least one tray element removably receiving filter cartridges, said hollow tray element constituting a collector for the oil filtered by the cartridges of said tray element, said tray element comprising a filtered oil outlet removably connected to a corresponding outlet of the tank via a connector ,
Process for the production of objects in aluminium, aluminium alloys, light alloys, brass and bronze comprising the steps of: - inserting into a mould cavity , enclosed in a surface defined between an upper mould and a lower mould , liquid metal coming from a feed duct until the mould cavity is totally filled; - forming at least one accumulation cavity of the mould cavity , and accumulating further liquid metal in the accumulation cavity ; - subsequently closing the communication with said feed duct ; - compacting the material in semi-solid state by compression of at least a portion of the surface of said mould cavity ; - maintaining closure and pressure for a predetermined period of time; - opening the moulds and removing the piece; wherein the step of forming at least one accumulation cavity requires retracting a compacting plug suitable to compact the material and/or a shutter element suitable to close the communication with said feed duct ; and characterised in that the retraction speed of the compacting plug and/or of the shutter element is a function of the input speed of the liquid metal of the mould cavity in such a way that the filling of the accumulation cavity occurs simultaneously with the formation of the accumulation cavity itself. - inserting into a mould cavity , enclosed in a surface defined between an upper mould and a lower mould , liquid metal coming from a feed duct until the mould cavity is totally filled; - forming at least one accumulation cavity of the mould cavity , and accumulating further liquid metal in the accumulation cavity ; - subsequently closing the communication with said feed duct ; - compacting the material in semi-solid state by compression of at least a portion of the surface of said mould cavity ; - maintaining closure and pressure for a predetermined period of time; - opening the moulds and removing the piece;
A method for wireless communications performed by a base station, BS, the method comprising: receiving a random access, RA, preamble on a first component carrier, CC, of a plurality of CCs including at least one uplink, UL, CC and at least one supplemental uplink, SUL, CC, said at least one SUL CC being a complementary access link with only UL resources; transmitting a response to the RA preamble, wherein the response indicates the first CC and comprises a physical downlink control channel, PDCCH, scrambled by a random access radio network temporary identifier, RA-RNTI, that indicates the first CC; calculating the RA-RNTI as: RA-RNTI = 1+t id +N F ×f id , when the first CC is not the SUL CC; and calculating the RA-RNTI as: RA-RNTI = 1+t id = N F ×f id + Δ SUL , when the first CC is the SUL CC, wherein: t id is a time resource identifier for the RA preamble for the first CC; N F is a constant; f id is a frequency resource identifier for the RA preamble for the first CC; and Δ SUL is a value indicating the SUL CC. receiving a random access, RA, preamble on a first component carrier, CC, of a plurality of CCs including at least one uplink, UL, CC and at least one supplemental uplink, SUL, CC, said at least one SUL CC being a complementary access link with only UL resources; transmitting a response to the RA preamble, wherein the response indicates the first CC and comprises a physical downlink control channel, PDCCH, scrambled by a random access radio network temporary identifier, RA-RNTI, that indicates the first CC; calculating the RA-RNTI as: RA-RNTI = 1+t id +N F ×f id , when the first CC is not the SUL CC; and calculating the RA-RNTI as: RA-RNTI = 1+t id = N F ×f id + Δ SUL , when the first CC is the SUL CC, wherein: t id is a time resource identifier for the RA preamble for the first CC; N F is a constant; f id is a frequency resource identifier for the RA preamble for the first CC; and t id is a time resource identifier for the RA preamble for the first CC; N F is a constant; f id is a frequency resource identifier for the RA preamble for the first CC; and Δ SUL is a value indicating the SUL CC.
Polyaldimine of the formula (I) where n is 2 or 3, Z is an aryl radical substituted by an alkyl and/or alkoxy group and having a total of 12 to 26 carbon atoms, and A is an n-valent aliphatic or cycloaliphatic hydrocarbyl radical optionally containing ether oxygen and having a molecular weight in the range from 42 to 6'000 g/mol, bonded via at least one tertiary or quaternary carbon atom and/or containing a bi- or tricyclic ring system, characterized in that Z is a radical of the formula (II) where R is a branched alkyl radical having 10 to 14 carbon atoms. n is 2 or 3, Z is an aryl radical substituted by an alkyl and/or alkoxy group and having a total of 12 to 26 carbon atoms, and A is an n-valent aliphatic or cycloaliphatic hydrocarbyl radical optionally containing ether oxygen and having a molecular weight in the range from 42 to 6'000 g/mol, bonded via at least one tertiary or quaternary carbon atom and/or containing a bi- or tricyclic ring system, characterized in that Z is a radical of the formula (II)
An optical system comprising: (a) a light-guide optical element, LOE, having a pair of parallel major external surfaces ; and (b) a plurality of mutually-parallel reflector surfaces within said LOE , said reflector surfaces being obliquely angled relative to said major external surfaces , wherein the optical system is characterized in that at least one of said reflector surfaces is configured to have high reflectivity for angles of incidence above 60 degrees to the normal and partial reflectivity for angles of incidence less than 35 degrees to the normal, wherein said high reflectivity is in excess of 95% for angles of incidence above 60 degrees and said partial reflectivity is no more than 50%. (a) a light-guide optical element, LOE, having a pair of parallel major external surfaces ; and (b) a plurality of mutually-parallel reflector surfaces within said LOE , said reflector surfaces being obliquely angled relative to said major external surfaces ,