mhurhangee/patent-ind-claim-en huggingface dataset:
A method of evaluating and visualising a process state of a production installation which contains at least one cyclically operating shaping machine , wherein continuously or in time-discrete relationship the value of a plurality of selected process variables is ascertained and the respective current value of each selected process variable or a variable derived therefrom is compared to one or more reference values by means of a computing unit and a deviation or a rate of change is determined, characterised in that - each selected process variable is associated with at least one logical group by the computing unit , wherein there are provided at least two different logical groups, and - logical groups are arranged in at least two hierarchy levels in such a way that at least one logical group of a lower hierarchy level is associated with another logical group of a higher hierarchy level, and - for each logical group a state of the logical group is evaluated by the computing unit on the basis of the process variables associated with said logical group and is visualised by means of a display device . - each selected process variable is associated with at least one logical group by the computing unit , wherein there are provided at least two different logical groups, and - logical groups are arranged in at least two hierarchy levels in such a way that at least one logical group of a lower hierarchy level is associated with another logical group of a higher hierarchy level, and - for each logical group a state of the logical group is evaluated by the computing unit on the basis of the process variables associated with said logical group and is visualised by means of a display device .
A method for transmitting Cognitive Pilot Channel, CPC, information, comprising: dividing, by a base station, a CPC into a primary CPC for transmitting primary CPC information and a secondary CPC for transmitting secondary CPC information (S201); loading, by the base station, the primary CPC information periodically into fixed physical resources, and sending the primary CPC information to a user equipment (S202); and after the base station receives a preset triggering event, loading, by the base station, the secondary CPC information into variable physical resources, and sending the secondary CPC information to the user equipment (S203); wherein the primary CPC information is for radio access of the user equipment, the secondary CPC information is for optimization of a network or radio resources; the fixed physical resources comprise a frequency point, a bandwidth, an occupied time slot, and a sending period; wherein the loading, by the base station, the primary CPC information periodically into fixed physical resources comprises: loading, by the base station, the primary CPC information into the fixed physical resources according to a Radio Access Technology, RAT, coverage condition and a preset period; wherein the primary CPC information comprises local operator information, local RAT distribution information, and frequency point information corresponding to a RAT. dividing, by a base station, a CPC into a primary CPC for transmitting primary CPC information and a secondary CPC for transmitting secondary CPC information (S201); loading, by the base station, the primary CPC information periodically into fixed physical resources, and sending the primary CPC information to a user equipment (S202); and after the base station receives a preset triggering event, loading, by the base station, the secondary CPC information into variable physical resources, and sending the secondary CPC information to the user equipment (S203); wherein the primary CPC information is for radio access of the user equipment, the secondary CPC information is for optimization of a network or radio resources; the fixed physical resources comprise a frequency point, a bandwidth, an occupied time slot, and a sending period; wherein the loading, by the base station, the primary CPC information periodically into fixed physical resources comprises: loading, by the base station, the primary CPC information into the fixed physical resources according to a Radio Access Technology, RAT, coverage condition and a preset period; wherein the primary CPC information comprises local operator information, local RAT distribution information, and frequency point information corresponding to a RAT. loading, by the base station, the primary CPC information into the fixed physical resources according to a Radio Access Technology, RAT, coverage condition and a preset period; wherein the primary CPC information comprises local operator information, local RAT distribution information, and frequency point information corresponding to a RAT.
A method for controlling a vehicle, comprising: obtaining vehicle information of a target vehicle and environmental information of a reference environment in which the target vehicle is located; obtaining a target matrix based on the vehicle information and the environmental information, wherein an element in the target matrix is a probability value that the target vehicle transfers to a next state after performing an action in a current state; splitting the target matrix to obtain a plurality of sub-matrices; and obtaining target travel control information of the target vehicle based on matrix elements in the sub-matrices and travel control information of a surrounding vehicle of the target vehicle, wherein the target travel control information is used for controlling the target vehicle. obtaining vehicle information of a target vehicle and environmental information of a reference environment in which the target vehicle is located; obtaining a target matrix based on the vehicle information and the environmental information, wherein an element in the target matrix is a probability value that the target vehicle transfers to a next state after performing an action in a current state; splitting the target matrix to obtain a plurality of sub-matrices; and obtaining target travel control information of the target vehicle based on matrix elements in the sub-matrices and travel control information of a surrounding vehicle of the target vehicle, wherein the target travel control information is used for controlling the target vehicle.
A dialysis machine for ultrafiltration comprising: a dialyser ; a first pump and a second pump , wherein the pumps are each adapted to deliver a fresh dialysate solution to the dialyser and remove a spent dialysate solution from the dialyser , at least one of the first and second pumps comprising a cartridge and a platen , the cartridge comprising a plurality of chambers and conduits covered by a flexible membrane , the platen and cartridge further defining a membrane valve in fluid connection with the pumps and comprising a valve cavity and a channel with an opening covered by the flexible membrane ; wherein the volume flow rate of the pumps are different; and wherein the operation of said pumps is configured to remove excess fluid from the dialyser and/or deliver excess fluid to the dialyser , the dialysis machine being configured to vary the volume of the valve cavity by controlling the pressure differential across the flexible membrane of the membrane valve in order to change the shape of the flexible membrane when the membrane valve is in a closed configuration in order to effect the removal of excess fluid from the dialyser(s) and/or delivery of excess fluid to the dialyser(s). a dialyser ; a first pump and a second pump , wherein the pumps are each adapted to deliver a fresh dialysate solution to the dialyser and remove a spent dialysate solution from the dialyser , at least one of the first and second pumps comprising a cartridge and a platen , the cartridge comprising a plurality of chambers and conduits covered by a flexible membrane , the platen and cartridge further defining a membrane valve in fluid connection with the pumps and comprising a valve cavity and a channel with an opening covered by the flexible membrane ; wherein the volume flow rate of the pumps are different; and wherein the operation of said pumps is configured to remove excess fluid from the dialyser and/or deliver excess fluid to the dialyser , the dialysis machine being configured to vary the volume of the valve cavity by controlling the pressure differential across the flexible membrane of the membrane valve in order to change the shape of the flexible membrane when the membrane valve is in a closed configuration in order to effect the removal of excess fluid from the dialyser(s) and/or delivery of excess fluid to the dialyser(s).
A thermowell or gas sampling probe comprising an elongate tubular body (12; 112; 212) having: an upper portion and a lower portion which is integral with the upper portion ; an internal bore which extends from the upper portion to the lower portion ; and at least three helical fins defining outer edges, the helical fins being integrally formed as part of the lower portion and which each wind along and around the lower portion to trace a three-dimensional curve, characterized by the helical fins having a constant height which is in the range 0.05 D to 0.5 D where D is an external diameter or width of the lower portion .
Reciprocating pump of an ink supply system for supplying printing machines with ink, in particular with UV ink, comprising: - a piston rod having a piston rod surface ; - a piston rod cylinder ; - a seal ; wherein the seal is attached between the piston rod and the piston rod cylinder such that ink is prevented from escaping; and the piston rod surface of the piston rod characterised by : comprising at least one depression and/or at least one elevation such that the at least one depression and/or the at least one elevation is guided past the seal during operation of the reciprocating pump , in order to remove polymerised ink or solid ink particles adhering to the seal . - a piston rod having a piston rod surface ; - a piston rod cylinder ; - a seal ;
An osteotome comprising: a handle ; a blade attachment assembly about a first end of the handle for receiving a blade ; and a wing assembly about a second end of the handle opposite the first end, the wing assembly having: a wing extending outwardly from the handle and comprising a base , an extension member extending from the base and an impact plate extending from the extension member; characterized in that the wing includes a guard pivotably attached to the extension member , wherein the guard is movable between a first position and a second position. a handle ; a blade attachment assembly about a first end of the handle for receiving a blade ; and a wing assembly about a second end of the handle opposite the first end, the wing assembly having: a wing extending outwardly from the handle and comprising a base , an extension member extending from the base and an impact plate extending from the extension member; characterized in that the wing includes a guard pivotably attached to the extension member , wherein the guard is a wing extending outwardly from the handle and comprising a base , an extension member extending from the base and an impact plate extending from the extension member; characterized in that the wing includes a guard pivotably attached to the extension member , wherein the guard is movable between a first position and a second position.
Optically variable security element having a relief layer with a multiplicity of structurally identical optical individual elements , which respectively comprise an individual element surface that is divided into subsurfaces which have different directional reflectances, and the subsurfaces are split into groups in such a way that each group comprises one subsurface of an individual element surface and each group encodes an associated observation angle-dependent reflection pattern visible to the naked eye, and having at least one planar region which extends between the optical individual elements and comprises subregions having diffraction gratings that as a result of the predetermined directional illumination produce at least one observation angle-dependent diffraction pattern which is visible to the naked eye, characterized in that the observation angle-dependent reflection patterns and the at least one observation angle-dependent diffraction pattern produce observation angle-dependent overall patterns which are visible to the naked eye.
Device for excavating a channel, comprising: - a container with standing side walls , a rear end and an open front end ,; which container is configured to be moved forward through the channel; - a rotor arranged in the container and provided with a number of knife elements , which rotor with knife elements is configured to dislodge and move soil to the rear end of the container between the flanks of the channel; wherein the rear end of the container is provided with a discharge opening through which the dislodged soil can be discharged characterized in that the open front end is provided with cutting edges configured to cut away flanks of the channel and that the cutting edges at the front end of the container comprise a lower cutting edge in the line of a bottom wall of the container and two standing cutting edges in the line of the standing side walls of the container. - a container with standing side walls , a rear end and an open front end ,; which container is configured to be moved forward through the channel; - a rotor arranged in the container and provided with a number of knife elements , which rotor with knife elements is configured to dislodge and move soil to the rear end of the container between the flanks of the channel; wherein the rear end of the container is provided with a discharge opening through which the dislodged soil can be discharged characterized in that the open front end is provided with cutting edges configured to cut away flanks of the channel and that the cutting edges at the front end of the container comprise a lower cutting edge in the line of a bottom wall of the container and two standing cutting edges in the line of the standing side walls of the container.
A convective device , comprising: a first inflatable section having a first opening , a second inflatable section having a second opening , and a flow control device disposed between the first inflatable section and the second inflatable section , the flow control device configured to open when the second inflatable section is inflated with inflating medium and remain closed when the first inflatable section is inflated with inflating medium; wherein the flow control device is disposed proximate the boundaries of the first inflatable section and the second inflatable section ; characterised in that the flow control device comprises an air permeable strip and an air impermeable strip, wherein the air permeable strip is formed from an air permeable material. a first inflatable section having a first opening , a second inflatable section having a second opening , and a flow control device disposed between the first inflatable section and the second inflatable section , the flow control device configured to open when the second inflatable section is inflated with inflating medium and remain closed when the first inflatable section is inflated with inflating medium; wherein the flow control device is disposed proximate the boundaries of the first inflatable section and the second inflatable section ; characterised in that the flow control device comprises an air permeable strip and an air impermeable strip, wherein the air permeable strip is formed from an air permeable material.
A method, comprising: receiving , by a master node from a secondary node hosting packet data convergence protocol for a data radio bearer that is terminated by the secondary node, a counter check request including a packet data convergence protocol count value approaching its maximum value, wherein the counter check request indicates that a count wrap-around event is to occur, wherein a user equipment is configured in multi-connectivity with the master node and the secondary node; determining, by the master node, that the packet data convergence protocol count value is approaching its maximum value; and in response to the determining, initiating , by the master node release of the data radio bearer and add of a new data radio bearer. receiving , by a master node from a secondary node hosting packet data convergence protocol for a data radio bearer that is terminated by the secondary node, a counter check request including a packet data convergence protocol count value approaching its maximum value, wherein the counter check request indicates that a count wrap-around event is to occur, wherein a user equipment is configured in multi-connectivity with the master node and the secondary node; determining, by the master node, that the packet data convergence protocol count value is approaching its maximum value; and in response to the determining, initiating , by the master node release of the data radio bearer and add of a new data radio bearer.
An optical signal control device comprising: a wavelength selective switch configured to output a combined signal obtained by combining all the wavelength division multiplexed signals to an output-side transmission line when wavelength division multiplexed signals, in which one or more optical signals are multiplexed, are transmitted through one or more input-side transmission lines; a first light intensity measuring unit configured to measure a light intensity of the combined signal; a second light intensity measuring unit configured to measure a light intensity of each of optical signals included in the combined signal; a leakage amount calculating unit configured to calculate, from the light intensity measured by the first light intensity measuring unit and the light intensity measured by the second light intensity measuring unit, a leakage amount of light leaking from other optical signals to each of the optical signals included in the combined signal; characterized in that the optical signal control device comprises an attenuation amount calculating unit configured to calculate, from the light intensity measured by the second light intensity measuring unit and the leakage amount of light, an attenuation amount of each of the optical signals included in the combined signal, and in that the wavelength selective switch is configured to attenuate each of the optical signals included in the combined signal depending on the attenuation amount calculated by the attenuation amount calculating unit. a wavelength selective switch configured to output a combined signal obtained by combining all the wavelength division multiplexed signals to an output-side transmission line when wavelength division multiplexed signals, in which one or more optical signals are multiplexed, are transmitted through one or more input-side transmission lines; a first light intensity measuring unit configured to measure a light intensity of the combined signal; a second light intensity measuring unit configured to measure a light intensity of each of optical signals included in the combined signal; a leakage amount calculating unit configured to calculate, from the light intensity measured by the first light intensity measuring unit and the light intensity measured by the second light intensity measuring unit, a leakage amount of light leaking from other optical signals to each of the optical signals included in the combined signal; characterized in that the optical signal control device comprises an attenuation amount calculating unit configured to calculate, from the light intensity measured by the second light intensity measuring unit and the leakage amount of light, an attenuation amount of each of the optical signals included in the combined signal, and in that the wavelength selective switch is configured to attenuate each of the optical signals included in the combined signal depending on the attenuation amount calculated by the attenuation amount calculating unit.
A flexible structure , constituting the flexible packaging of a lithium electrochemical accumulator such as a Li-ion accumulator, comprising a strain gauge that is elongate along a longitudinal axis X1 and that is intended to measure deformation of the flexible structure in a direction X parallel to the axis X1, the carrier of the gauge being adhesively bonded to the flexible structure only by its lateral ends .
A method comprising: measuring a first set of reference signals for radio link monitoring; receiving an indication of at least one physical uplink control channel resource and at least one physical random access channel resource for transmitting a beam failure recovery request, wherein each of the at least one physical uplink control channel resource and the at least one physical random access channel resource are associated with at least one downlink antenna port; and determining an association between the at least one physical uplink control channel resource, the at least one physical random access channel resource, and the at least one downlink antenna port based on the indication of the at least one physical uplink control channel resource and the at least one physical random access channel resource for transmitting the beam failure recovery request; receiving an indication of a second set of reference signals for radio link monitoring; and resetting a counter in response to reception of the indication of the second set of reference signals; wherein the first set of reference signals is associated with a first set of downlink antenna ports, the second set of reference signals is associated with a second set of downlink antenna ports, and the first set of downlink antenna ports is different from the second set of downlink antenna ports. measuring a first set of reference signals for radio link monitoring; receiving an indication of at least one physical uplink control channel resource and at least one physical random access channel resource for transmitting a beam failure recovery request, wherein each of the at least one physical uplink control channel resource and the at least one physical random access channel resource are associated with at least one downlink antenna port; and determining an association between the at least one physical uplink control channel resource, the at least one physical random access channel resource, and the at least one downlink antenna port based on the indication of the at least one physical uplink control channel resource and the at least one physical random access channel resource for transmitting the beam failure recovery request; receiving an indication of a second set of reference signals for radio link monitoring; and resetting a counter in response to reception of the indication of the second set of reference signals; wherein the first set of reference signals is associated with a first set of downlink antenna ports, the second set of reference signals is associated with a second set of downlink antenna ports, and the first set of downlink antenna ports is different from the second set of downlink antenna ports.
A motor vehicle tank comprising a main tank , wherein the main tank comprises at least one main extraction unit , wherein the main extraction unit comprises a main flow line for extracting fuel from the main tank, characterized in that the motor vehicle tank comprises an auxiliary tank arranged at the side of the main tank and tightly joined to the main tank , wherein the auxiliary tank comprises an auxiliary extraction unit, wherein the auxiliary extraction unit comprises an auxiliary flow line for extraction of fuel from the auxiliary tank , wherein the auxiliary tank comprises a filler connection for direct filling of the auxiliary tank , wherein the auxiliary tank is separated from the main tank by a partition wall , wherein the partition wall is formed as a wall without opening in a portion which is lower in the installation position, and wherein the partition wall has at least one opening in an upper portion above the lower portion so as to form an overflow between the auxiliary tank and the main tank .