mhurhangee/patent-ind-claim-en huggingface dataset:
An optical system comprising: - an optical element comprising a glazing-function substrate and an electrochromic stack formed on this substrate , this electrochromic stack including a first transparent conductive layer, a working electrode arranged above said first transparent conductive layer, a counter-electrode arranged above said working electrode, a second transparent conductive layer arranged above said counter-electrode, lithium ions introduced into said electrochromic stack, and, preferably, a separate layer of an ionic conductor, the latter layer being intermediate between the electrode and the counter-electrode, - a protective layer arranged on said electrochromic stack , said protective layer comprising an inorganic lubricating compound, characterized in that said protective layer has a thickness comprised between 1 and 30 nanometers, preferably between 2 and 15 nanometers, preferably between 2 and 10 nanometers, and preferably between 2 and 5 nanometers. - an optical element comprising a glazing-function substrate and an electrochromic stack formed on this substrate , this electrochromic stack including a first transparent conductive layer, a working electrode arranged above said first transparent conductive layer, a counter-electrode arranged above said working electrode, a second transparent conductive layer arranged above said counter-electrode, lithium ions introduced into said electrochromic stack, and, preferably, a separate layer of an ionic conductor, the latter layer being intermediate between the electrode and the counter-electrode, - a protective layer arranged on said electrochromic stack , said protective layer comprising an inorganic lubricating compound, characterized in that said protective layer has a thickness comprised between 1 and 30 nanometers, preferably between 2 and 15 nanometers, preferably between 2 and 10 nanometers, and preferably between 2 and 5 nanometers.
A turbine ring assembly comprising a ring support structure and a plurality of ring sectors made of ceramic matrix composite material, each ring sector having a portion forming an annular base with an inside face relative to the radial direction (R) defining the inside face of the turbine ring, and an outside face relative to the radial direction (R) from which there extends a wall defining an internal housing in which a holder member (10; 10') is present, the holder member (10; 10') being connected to the ring support structure and comprising a body (11; 11') from which elastically deformable holder elements (12; 12') extend inside the internal housing on either side of the body (11; 11'), the holder elements (12; 12') bearing against the wall , the turbine ring assembly being characterized in that the holder elements exert pressure against the ring sector along radial and axial directions (R, A), and in that the holder member is made of metal material.
A method for interacting with a proposal system with automated operating actions, wherein the method comprises the steps of: - generating a recommendation for an operating action; - determining a probability value for the execution of the recommended operating action; - automatically executing the recommended operating action if a high probability value is determined therefor; - displaying information about the automatically executed operating action as well as an operating element for terminating or undoing the automatically executed operating action; - detecting , on the part of a user, an actuation of the indicated operating element ; - canceling or undoing the automatically executed operating action upon actuation of the displayed operating element . - generating a recommendation for an operating action; - determining a probability value for the execution of the recommended operating action; - automatically executing the recommended operating action if a high probability value is determined therefor; - displaying information about the automatically executed operating action as well as an operating element for terminating or undoing the automatically executed operating action; - detecting , on the part of a user, an actuation of the indicated operating element ; - canceling or undoing the automatically executed operating action upon actuation of the displayed operating element .
An elevator system , comprising: an elevator car ; and a power supply system characterized in that the power supply system is configured to supply protective extra-low voltage to the elevator car , the power supply system having a switched mode power supply configured to provide an output voltage to the elevator car , a first voltage monitor and a second voltage monitor , the first and the second voltage monitors configured to detect an over-voltage condition at the switch mode power supply and turn the switch mode power supply off if the over-voltage condition is detected. an elevator car ; and a power supply system characterized in that the power supply system is configured to supply protective extra-low voltage to the elevator car , the power supply system having a switched mode power supply configured to provide an output voltage to the elevator car , a first voltage monitor and a second voltage monitor , the first and the second voltage monitors configured to detect an over-voltage condition at the switch mode power supply and turn the switch mode power supply off if the over-voltage condition is detected.
Exhaust-gas aftertreatment system for an internal combustion engine for arrangement in an exhaust-gas system of the internal combustion engine, comprising a first catalytic converter and a catalytic converter for the selective catalytic reduction of nitrogen oxides (SCR catalytic converter), arranged downstream of the first catalytic converter in a flow direction of the exhaust gas through the exhaust-gas aftertreatment assembly , wherein the first catalytic converter is a ring catalytic converter with a first, tubular, inner flow cross section and with a second, ring-shaped, outer flow cross section , wherein the second flow cross section surrounds the first flow cross section at least in certain sections, wherein the first flow cross section and the second flow cross section are flowed through in opposite directions by an exhaust-gas flow of the internal combustion engine , and having a diverting element which diverts the exhaust-gas flow through the ring catalytic converter between the first flow cross section and the second flow cross section, furthermore comprising a dosing element by means of which a reducing agent for the catalytic converter for the selective catalytic reduction of nitrogen oxides can be dosed into the exhaust-gas system , wherein a mixing section is formed between the diverting element and the catalytic converter for the selective catalytic reduction of nitrogen oxides, wherein, in the mixing section , there is provided an electric heating element for heating the exhaust-gas flow before it enters the catalytic converter for the selective catalytic reduction of nitrogen oxides, wherein the diverting element forms an end side of a housing of the ring catalytic converter , wherein the dosing element is arranged at the end side of the housing of the ring catalytic converter , wherein the dosing element is arranged concentrically with respect to the cylindrical pipe at the end side of the housing of the ring catalytic converter , characterized in that the electric heating element is arranged at the ring catalytic converter such that both the inner flow cross section and the outer flow cross section are heatable by means of a common heating element , and wherein the heating element has multiple heating zones, such that different temperatures can be set for the first catalytic converter and the mixing section , wherein the heating zones are situated in each case upstream of the catalytically active zones of the first catalytic converter and of the catalytic converter for the selective catalytic reduction of nitrogen oxides.
A separating agent for optical isomers, comprising a carrier, and a xylan-phenyl carbamate derivative in which hydroxyl groups in the xylan are substituted with groups represented by formula (I)or formula (II) below: in formula (I), R 1 is a halogen or an alkyl group having 1 to 5 carbon atoms, and the R 1 substitution position is a meta position; in formula (II), R 2 and R 3 are each independently a halogen or an alkyl group having 1 to 5 carbon atoms, and R 2 and R 3 are different from each other.
A method of storing, in a memory device, travel distance data which characterizes a total distance travelled by a vehicle, in particular a motor vehicle, wherein the method comprises: (S2) storing travel distance data in a non-volatile first memory area of the memory device, which travel distance data characterizes a total distance travelled by the vehicle, determined on the basis of vehicle data determined by the vehicle, if this results in an increase in the total travel distance already previously stored therein by means of corresponding travel distance data, wherein the first memory area is set up so as not to permit any change in the travel distance data that is already stored therein, insofar as this change corresponds to a reduction in the corresponding total travel distance; (S3) comparing, within the framework of a first comparison, a first reference total travel distance, which is stored in a second memory area of the memory device by means of corresponding first reference travel distance data, which second memory area is different from the first memory area , with the total travel distance which is currently stored in the first memory area by means of the travel distance data; and (S4) if, according to the result of the first comparison, the total travel distance has increased compared with the first reference total travel distance according to a predetermined first criterion, storing updated first reference travel distance data corresponding to the total travel distance in the second memory area in an encrypted form. (S2) storing travel distance data in a non-volatile first memory area of the memory device, which travel distance data characterizes a total distance travelled by the vehicle, determined on the basis of vehicle data determined by the vehicle, if this results in an increase in the total travel distance already previously stored therein by means of corresponding travel distance data, wherein the first memory area is set up so as not to permit any change in the travel distance data that is already stored therein, insofar as this change corresponds to a reduction in the corresponding total travel distance; (S3) comparing, within the framework of a first comparison, a first reference total travel distance, which is stored in a second memory area of the memory device by means of corresponding first reference travel distance data, which second memory area is different from the first memory area , with the total travel distance which is currently stored in the first memory area by means of the travel distance data; and (S4) if, according to the result of the first comparison, the total travel distance has increased compared with the first reference total travel distance according to a predetermined first criterion, storing updated first reference travel distance data corresponding to the total travel distance in the second memory area in an encrypted form.
Cutting device comprising a head , said head comprising: - a base intended to be fixed to a machine tool; - a cylindrical suction nozzle integral with the base ; - a connector integral with the head and intended to receive a suction pipe; wherein said suction nozzle is perforated by at least one oblong hole parallel to an axis of said suction nozzle , the cutting device also comprising: - a mount to which said head is fixed; - a drive system in which a cutting tool is fixed, said drive system being configured to drive said cutting tool in rotation about its axis (YY') and in translation parallel to said axis (YY'); and characterized by ; - at least one infrared sensor fixed in a hole that is formed in the wall of said head and opens onto a cutting zone inside said head , said infrared sensor being connected to a module for detecting an outbreak of fire. - a base intended to be fixed to a machine tool; - a cylindrical suction nozzle integral with the base ; - a connector integral with the head and intended to receive a suction pipe; wherein said suction nozzle is perforated by at least one oblong hole parallel to an axis of said suction nozzle , the cutting device also comprising: - a mount to which said head is fixed; - a drive system in which a cutting tool is fixed, said drive system being configured to drive said cutting tool in rotation about its axis (YY') and in translation parallel to said axis (YY'); and characterized by ; - at least one infrared sensor fixed in a hole that is formed in the wall of said head and opens onto a cutting zone inside said head , said infrared sensor being connected to a module for detecting an outbreak of fire.
Method for operating a turning device , - wherein the turning device has a first turning station with a rotatable first workpiece spindle for receiving a lens blank and a first turning tool for machining a received lens blank , - wherein the turning device has at least a second turning station with a rotatable second workpiece spindle for receiving a second lens blank and a second turning tool for machining a received second lens blank , - wherein each turning tool has its own fast tool servomotor in each case, with which the feed depth (T) can be changed relative to an assigned workpiece spindle , characterised by the following steps: a) Loading a first and a second lens blank into the workpiece spindles , b) Simultaneous machining of the first and the second lens blank with the turning tools , wherein the control electronics synchronise the drive signals (S1a, S1b, S2, S3, S4a, S4b) such that the drive signals (S4a, S4b) for the fast tool servomotors bring about an at least time-related or phased counter-rotating operation of the fast tool servomotors , for the purpose of vibration damping. - wherein the turning device has a first turning station with a rotatable first workpiece spindle for receiving a lens blank and a first turning tool for machining a received lens blank , - wherein the turning device has at least a second turning station with a rotatable second workpiece spindle for receiving a second lens blank and a second turning tool for machining a received second lens blank , - wherein each turning tool has its own fast tool servomotor in each case, with which the feed depth (T) can be changed relative to an assigned workpiece spindle , a) Loading a first and a second lens blank into the workpiece spindles , b) Simultaneous machining of the first and the second lens blank with the turning tools , wherein the control electronics synchronise the drive signals (S1a, S1b, S2, S3, S4a, S4b) such that the drive signals (S4a, S4b) for the fast tool servomotors bring about an at least time-related or phased counter-rotating operation of the fast tool servomotors , for the purpose of vibration damping.
A method performed at a user equipment of requesting uplink resource from a network node within a wireless communication network, for transmitting uplink data, comprising: transmitting a scheduling request; generating a status report said status report providing an indication of an amount of said uplink data and whether said uplink data is to be transmitted as a cellular communication to at least one other user equipment transmitted via at least one network node or whether said uplink data is to be transmitted as a direct communication directly to at least one other user equipment; in response to receiving from said network node a resource grant granting a resource to said user equipment for transmitting said status report, transmitting said status report within said granted resource; wherein when said uplink data is to be transmitted as said direct communication said status report comprises an indication of a priority of said direct communication. transmitting a scheduling request; generating a status report said status report providing an indication of an amount of said uplink data and whether said uplink data is to be transmitted as a cellular communication to at least one other user equipment transmitted via at least one network node or whether said uplink data is to be transmitted as a direct communication directly to at least one other user equipment; in response to receiving from said network node a resource grant granting a resource to said user equipment for transmitting said status report, transmitting said status report within said granted resource; wherein when said uplink data is to be transmitted as said direct communication said status report comprises an indication of a priority of said direct communication.
A data transmission method of an apparatus for transmitting data through at least one of a first path and a second path , wherein the method comprises: identifying a maximum amount of data transmittable through the first path during a round-trip time, RTT, of the second path , the RTT of the second path being longer than an RTT of the first path; comparing the identified maximum amount of data with a buffer size of a reception device; and determining a transmission mode based on a result of the comparison, the transmission mode comprising a first mode in which scheduling is performed to transmit data to the reception device through the first path and the second path in case that the identified maximum amount of data does not exceed the buffer size of the reception device, and determining the transmission mode as a second mode for restricting scheduling of data on the second path and transmitting data to the reception device through the first path , in case that the identified maximum amount of data exceeds the buffer size of the reception device; transmitting (S820) an arbitrary packet through the first path and the second path while scheduling data in the second mode, once per RTT of the second path; identifying (S825) the size of data that can be transmitted through the first path during a reference time of the second path, according to the transmission of the arbitrary packet; and determining whether to maintain the transmission mode as the second mode based on a result of the transmission of the arbitrary packet. identifying a maximum amount of data transmittable through the first path during a round-trip time, RTT, of the second path , the RTT of the second path being longer than an RTT of the first path; comparing the identified maximum amount of data with a buffer size of a reception device; and determining a transmission mode based on a result of the comparison, the transmission mode comprising a first mode in which scheduling is performed to transmit data to the reception device through the first path and the second path in case that the identified maximum amount of data does not exceed the buffer size of the reception device, and determining the transmission mode as a second mode for restricting scheduling of data on the second path and transmitting data to the reception device through the first path , in case that the identified maximum amount of data exceeds the buffer size of the reception device; transmitting (S820) an arbitrary packet through the first path and the second path while scheduling data in the second mode, once per RTT of the second path; identifying (S825) the size of data that can be transmitted through the first path during a reference time of the second path, according to the transmission of the arbitrary packet; and determining whether to maintain the transmission mode as the second mode based on a result of the transmission of the arbitrary packet.
A wireless transmit receive unit, WTRU , comprising: a processor configured to: receive an indication to transmit a phase noise reference signal; receive scheduling information that includes an indication of a set of uplink resources and an indication of a modulation coding scheme; determine a phase noise reference signal density, wherein the phase noise reference signal density is determined based on the indicated modulation coding scheme; determine a first subset of the set of uplink resources and a second subset of the set of uplink resources; and send an uplink transmission using the first subset of the set of uplink resources and the second subset of the set of uplink resources, wherein the first subset of the set of uplink resources is used for the phase noise reference signal, and wherein the second subset of the set of uplink resources is used for data associated with the uplink transmission. receive an indication to transmit a phase noise reference signal; receive scheduling information that includes an indication of a set of uplink resources and an indication of a modulation coding scheme; determine a phase noise reference signal density, wherein the phase noise reference signal density is determined based on the indicated modulation coding scheme; determine a first subset of the set of uplink resources and a second subset of the set of uplink resources; and send an uplink transmission using the first subset of the set of uplink resources and the second subset of the set of uplink resources, wherein the first subset of the set of uplink resources is used for the phase noise reference signal, and wherein the second subset of the set of uplink resources is used for data associated with the uplink transmission.