mhurhangee/patent-ind-claim-en huggingface dataset:
A broadcast multicast service center applicable to multimedia broadcast multicast service (MBMS) broadcast service management, comprising: a monitoring module configured for monitoring a service connection of a mobile network between an application server and a user equipment , determining no network traffic in the service connection when no network traffic packet is transmitted in the service connection for a period of time, and generating a resource merging instruction upon determining no network traffic in the service connection; a resource merging module configured for searching for other service resources that are currently being executed and share a service when receiving the resource merging instruction from the monitoring module , analyzing the other service resources and the service connection through quality of service parameter screening and a broadcast service area comparison to determine a selected service resource from the other service resources, and merging network traffic of the service connection into the selected service resource by routing packets of the service connection via a routing path of the selected service resource; and an adjusting module configured for adjusting a scheduling period of the service connection to be smaller than a scheduling period of the selected service resource, wherein when the scheduling period of the service connection is smaller than the scheduling period of the selected service resource, the subsequent network traffic packets of the service connection are transmitted in real time when sharing network traffic of the selected service resource. a monitoring module configured for monitoring a service connection of a mobile network between an application server and a user equipment , determining no network traffic in the service connection when no network traffic packet is transmitted in the service connection for a period of time, and generating a resource merging instruction upon determining no network traffic in the service connection; a resource merging module configured for searching for other service resources that are currently being executed and share a service when receiving the resource merging instruction from the monitoring module , analyzing the other service resources and the service connection through quality of service parameter screening and a broadcast service area comparison to determine a selected service resource from the other service resources, and merging network traffic of the service connection into the selected service resource by routing packets of the service connection via a routing path of the selected service resource; and an adjusting module configured for adjusting a scheduling period of the service connection to be smaller than a scheduling period of the selected service resource, wherein when the scheduling period of the service connection is smaller than the scheduling period of the selected service resource, the subsequent network traffic packets of the service connection are transmitted in real time when sharing network traffic of the selected service resource.
A pole actuation booster mechanism , in particular a pole actuation booster mechanism adapted to operate on a pole of a four-poles low voltage circuit breaker , said pole comprising an operating shaft , at least a fixed contact and at least a movable contact operatively coupled to said operating shaft and engageable to/disengageable from said fixed contact by rotation of said operating shaft during an opening/closing operation of said circuit breaker , the booster mechanism comprises: a first operating member adapted to be operatively connected to said operating shaft and moving together with said shaft during its rotation from an open position to a closed position, and vice-versa, of said circuit breaker over a range of movement having a first, a second and a third portion of movement, said first operating member having a first operating end ; an operating assembly comprising at least an elastic element operatively connected to a lever , characterized in that the first operating member is disengaged from said operating assembly during said first portion of its movement and engaged with said lever during said second and third portions of its movement; wherein during a closing operation of said circuit breaker said first operating member moves first along said first portion of movement driven by said operating shaft and disengaged form said operating assembly , then moves along said second portion of movement driven by said operating shaft and engaged with said lever and transmitting energy to said operating assembly ; and finally moves along said third portion of movement driven by said lever and transmitting energy to said operating shaft .
Mattress consisting of a metallic support structure and an enclosure receiving this, wherein the support structure consists of elastically deformable support elements , wherein flexibilities of support elements vary dependently on location, wherein the pliancies of the support elements continuously increase from a central plane of the mattress towards the upper side and lower side, characterised in that the material thicknesses and/or densities of the support elements continuously decrease from the central plane of the mattress towards the upper side and lower side.
A method for interpolating a sound field captured by a plurality of N microphones each outputting said encoded sound field in a form comprising at least one captured pressure and an associated pressure gradient vector, said method comprising an interpolation of said sound field at an interpolation position outputting an interpolated encoded sound field as a linear combination of said N encoded sound fields each weighted by a corresponding weighting factor, characterised in that said interpolation comprises an estimation of said N weighting factors at least from: - said interpolation position; - a position of each of said N microphones, - said N pressures captured by said N microphones; and - an estimated power of said sound field at said interpolation position. said method comprising an interpolation of said sound field at an interpolation position outputting an interpolated encoded sound field as a linear combination of said N encoded sound fields each weighted by a corresponding weighting factor, characterised in that said interpolation comprises an estimation of said N weighting factors at least from: - said interpolation position; - a position of each of said N microphones, - said N pressures captured by said N microphones; and - an estimated power of said sound field at said interpolation position. - said interpolation position; - a position of each of said N microphones, - said N pressures captured by said N microphones; and - an estimated power of said sound field at said interpolation position.
An organic light emitting device, comprising: a first electrode ; a second electrode provided so as to be opposite to the first electrode ; one or more organic material layers for converting electrical energy to light energy provided between the first electrode and the second electrode; an auxiliary electrode spaced apart from the first electrode ; and a short-circuit preventing layer (3-1, 3-2) provided between the first electrode and the auxiliary electrode and electrically connecting the first electrode and the auxiliary electrode , wherein the short-circuit preventing layer (3-1, 3-2) is in contact with at least a part of the first electrode and at least a part of the auxiliary electrode , and characterized in that the resistance of the short-circuit preventing layer (3-1, 3-2) when a forward directional voltage is applied between the first electrode and the second electrode so that the organic material emits light is larger than the resistance of the short-circuit preventing layer when a reverse directional voltage is applied. a first electrode ; a second electrode provided so as to be opposite to the first electrode ; one or more organic material layers for converting electrical energy to light energy provided between the first electrode and the second electrode; an auxiliary electrode spaced apart from the first electrode ; and a short-circuit preventing layer (3-1, 3-2) provided between the first electrode and the auxiliary electrode and electrically connecting the first electrode and the auxiliary electrode , wherein the short-circuit preventing layer (3-1, 3-2) is in contact with at least a part of the first electrode and at least a part of the auxiliary electrode , and characterized in that the resistance of the short-circuit preventing layer (3-1, 3-2) when a forward directional voltage is applied between the first electrode and the second electrode so that the organic material emits light is larger than the resistance of the short-circuit preventing layer when a reverse directional voltage is applied.
A subscriber station capable of performing channel estimation in a wireless communication network , the subscriber station comprising: a processor ; a memory ; and the processor configured to: divide a codebook into two sets, send at least one of the two sets to a base station , wherein a first set of the two sets corresponds to codebook information that will cause an interference in a received signal to be less than an interference level threshold ε , wherein a second set of the two sets corresponds to codebook information that will cause an interference in a received signal to be equal to or greater than the interference level threshold ε , and wherein the interference level threshold ε is adjusted to increase or decrease an identified number of codebook vectors or matrices that will cause an interference in a received signal to be less than or equal to the interference level threshold ε . a processor ; a memory ; and the processor configured to: divide a codebook into two sets, send at least one of the two sets to a base station , divide a codebook into two sets, send at least one of the two sets to a base station , wherein a first set of the two sets corresponds to codebook information that will cause an interference in a received signal to be less than an interference level threshold ε , wherein a second set of the two sets corresponds to codebook information that will cause an interference in a received signal to be equal to or greater than the interference level threshold ε , and wherein the interference level threshold ε is adjusted to increase or decrease an identified number of codebook vectors or matrices that will cause an interference in a received signal to be less than or equal to the interference level threshold ε .
An article comprising a metal surface provided with a glass-, glass-ceramic- or ceramic-type protective layer, wherein the protective layer comprises a base layer comprising a matrix of an alkali and/or alkaline earth silicate and a top layer which is free of alkali metals and alkaline earth metals and comprises a matrix of an oxidic silicon compound, wherein the base layer has a layer thickness of 1 to 20 μm, characterized in that the base layer contains one or more pigments selected from an oxide of one or more elements selected from Al, Sn, Y, Ce, Ti, Zr, Fe, Co, Ni, Cu, Zn, Nb and Ta.
A method for information usage, - in which first sensor data are captured by means of sensors of a first sensor type and second sensor data are captured by means of sensors of a second sensor type, - wherein information items describing identical objects and/or object attributes in the first sensor data are associated with one another and information items describing identical objects and/or object attributes in the second sensor data are associated with one another, - wherein the first sensor data have first fuzziness afflictions and the second sensor data have second fuzziness afflictions, and characterized in that - a comparison of the values of the first and the second fuzziness afflictions of the information items describing identical objects and/or object attributes in the first and the second sensor data is effected, - wherein the information items describing identical objects and/or object attributes in the first and the second sensor data are associated with one another, if the values of the first and the second fuzziness afflictions deviate from one another by not more than 50% or by not more than 25%, and - wherein the information items describing identical objects and/or object attributes in the first sensor data are validated by the second sensor data, if the values of the first and the second fuzziness afflictions deviate from one another by more than 50% or by more than 25%. - in which first sensor data are captured by means of sensors of a first sensor type and second sensor data are captured by means of sensors of a second sensor type, - wherein information items describing identical objects and/or object attributes in the first sensor data are associated with one another and information items describing identical objects and/or object attributes in the second sensor data are associated with one another, - wherein the first sensor data have first fuzziness afflictions and the second sensor data have second fuzziness afflictions, and characterized in that - a comparison of the values of the first and the second fuzziness afflictions of the information items describing identical objects and/or object attributes in the first and the second sensor data is effected, - wherein the information items describing identical objects and/or object attributes in the first and the second sensor data are associated with one another, if the values of the first and the second fuzziness afflictions deviate from one another by not more than 50% or by not more than 25%, and - wherein the information items describing identical objects and/or object attributes in the first sensor data are validated by the second sensor data, if the values of the first and the second fuzziness afflictions deviate from one another by more than 50% or by more than 25%.
A method for performing a PCR on a fluid sample using a micro-fluidic device comprising: - a semiconductor substrate; - a first micro-fluidic channel , comprising an inlet and an outlet , embedded in the semiconductor substrate; - a single heating element thermally coupled to the first micro-fluidic channel and connected to a temperature control unit ; - a droplet generator ; - a second micro-fluidic channel connected on one side to an outlet of the droplet generator and on the other side to the inlet of the first micro-fluidic channel ; the method comprising: - providing a fluid sample in the micro-fluidic device ; - generating droplets of the fluid sample and pumping the droplets into the first micro-fluidic channel using the droplet generator at an adaptable flow rate; - cycling the temperature of the complete first micro-fluidic channel to perform PCR through at least two temperature values using the single heating element , characterized in that the method further comprises pre-heating the generated droplets in the second micro-fluidic channel by a heating element at a denaturation temperature before pumping the droplets into the first micro-fluidic channel . - a semiconductor substrate; - a first micro-fluidic channel , comprising an inlet and an outlet , embedded in the semiconductor substrate; - a single heating element thermally coupled to the first micro-fluidic channel and connected to a temperature control unit ; - a droplet generator ; - a second micro-fluidic channel connected on one side to an outlet of the droplet generator and on the other side to the inlet of the first micro-fluidic channel ; - providing a fluid sample in the micro-fluidic device ; - generating droplets of the fluid sample and pumping the droplets into the first micro-fluidic channel using the droplet generator at an adaptable flow rate; - cycling the temperature of the complete first micro-fluidic channel to perform PCR through at least two temperature values using the single heating element , characterized in that the method further comprises pre-heating the generated droplets in the second micro-fluidic channel by a heating element at a denaturation temperature before pumping the droplets into the first micro-fluidic channel .
Braking device for a movable door leaf comprising an electric motor which is operated as a generator and the motor shaft of which can be rotated by a movement of the door leaf and on the motor terminals of which a movement-dependent motor voltage is produced, and comprising a braking circuit , to which the motor voltage is applied and via which the motor terminals can be short-circuited to dampen movement of the door leaf, characterized in that the braking device additionally comprises an emergency braking circuit , to which the motor voltage is applied and via which the motor terminals can be short-circuited to dampen movement of the door leaf, wherein means which are designed to detect the presence of a malfunction of the braking circuit and to short-circuit the motor terminals via the emergency braking circuit in the presence of a malfunction of the braking circuit are provided. the braking device additionally comprises an emergency braking circuit , to which the motor voltage is applied and via which the motor terminals can be short-circuited to dampen movement of the door leaf, wherein means which are designed to detect the presence of a malfunction of the braking circuit and to short-circuit the motor terminals via the emergency braking circuit in the presence of a malfunction of the braking circuit are provided.
A system for monitoring the fetal movement of the fetus of an expectant mother, comprising: an acoustic sensor array configured to be positioned over the belly, each acoustic sensor of the acoustic sensor array configured to receive an acoustic signal generated by fetal heartbeat; and a processor configured to process the acoustic sensor signals received continuously over multiple predetermined time periods, characterised in that : the processor is adapted to determine a geometric center of spatial distribution from the acoustic sensor signals received each time for one predetermined time period and to determine a fetal movement by detecting a change in the position of the geometric center of the spatial distributions. an acoustic sensor array configured to be positioned over the belly, each acoustic sensor of the acoustic sensor array configured to receive an acoustic signal generated by fetal heartbeat; and a processor configured to process the acoustic sensor signals received continuously over multiple predetermined time periods, characterised in that : the processor is adapted to determine a geometric center of spatial distribution from the acoustic sensor signals received each time for one predetermined time period and to determine a fetal movement by detecting a change in the position of the geometric center of the spatial distributions.
A differential bore suck-back device (20, 125; 700; 900; 1000) comprising: a housing having an inlet for receiving fluid from a liquid outlet conduit of a pump , the housing having a small bore (123; 706; 906; 1006) having a first diameter and a large bore (124; 708; 908; 1008) having a second diameter, wherein the first diameter is smaller than the second diameter; a dual body piston (114; 720; 920; 1020) having a small piston (115; 722; 922; 1022) sized to contact a wall of the small bore (123; 706; 906; 1006) and a large piston (116; 724; 924; 1024) sized to contact a wall of the large bore (124; 708; 908; 1008), wherein the small piston (115; 722; 922; 1022) is connected to a body that includes a flow restrictor (131; 730; 930; 1030) and the pistons (115, 116; 722, 724; 922, 924; 1022, 1024) are biased upward by a biasing member (135; 748; 948; 1048); a suck-back chamber (145; 780; 980; 1080) formed at least in part by the large bore and the large piston; a foam outlet (136; 760; 960; 1060) for allowing foam to flow out of the suck-back chamber (145; 780; 980; 1080); wherein fluid flow through the flow restrictor (131; 730; 930; 1030) causes movement of the small piston (115; 722; 922; 1022) and the large piston (116; 724; 924; 1024) in a first direction and causes the suck-back chamber (145; 780; 980; 1080) to compress; wherein the biasing member (135; 748; 948; 1048) causes the first piston seal and the second piston seal to move in a second direction and expand the suck-back chamber (145; 780; 980; 1080). a housing having an inlet for receiving fluid from a liquid outlet conduit of a pump , the housing having a small bore (123; 706; 906; 1006) having a first diameter and a large bore (124; 708; 908; 1008) having a second diameter, wherein the first diameter is smaller than the second diameter; a dual body piston (114; 720; 920; 1020) having a small piston (115; 722; 922; 1022) sized to contact a wall of the small bore (123; 706; 906; 1006) and a large piston (116; 724; 924; 1024) sized to contact a wall of the large bore (124; 708; 908; 1008), wherein the small piston (115; 722; 922; 1022) is connected to a body that includes a flow restrictor (131; 730; 930; 1030) and the pistons (115, 116; 722, 724; 922, 924; 1022, 1024) are biased upward by a biasing member (135; 748; 948; 1048); a suck-back chamber (145; 780; 980; 1080) formed at least in part by the large bore and the large piston; a foam outlet (136; 760; 960; 1060) for allowing foam to flow out of the suck-back chamber (145; 780; 980; 1080); wherein fluid flow through the flow restrictor (131; 730; 930; 1030) causes movement of the small piston (115; 722; 922; 1022) and the large piston (116; 724; 924; 1024) in a first direction and causes the suck-back chamber (145; 780; 980; 1080) to compress; wherein the biasing member (135; 748; 948; 1048) causes the first piston seal and the second piston seal to move in a second direction and expand the suck-back chamber (145; 780; 980; 1080).
An integrated transmission for a transmission turbo machine of a machine train, having a drive pinion (2.1), which is non-rotatably connected to a driveshaft; a bull gear (2.2) that is in mesh with the drive pinion; and at least one turbo machine rotor (3.10, 3.20, 3.30) having a turbo machine shaft for the torque transmission having at least one impeller (3.12, 3.13, 3.22, 3.23, 3.32, 3.33, 3.34) of the transmission turbo machine, and a turbo machine pinion (3, 11, 3.21, 3.31) that is non-rotatably connected to the turbo machine shaft and in mesh with the bull gear; wherein an output pinion (2.3) of a rotational speed step-down power transmission is in mesh with the drive pinion (2.1), which is non-rotatably connected to an output shaft for driving a compressor driveshaft (4.1) that can be coupled to the output shaft, of a further compressor separated from the transmission turbo machine, in particular of a main compressor of the machine train, characterized in that the further compressor can be coupled on the side of the transmission turbo machine located opposite the drive unit and an axis of rotation of the drive pinion (2.1), of the bull gear (2.2), at least of one turbo machine pinion (3.11; 3.21; 3.31) and of the output pinion (2.3) are substantially arranged in a common horizontal plane and the bull gear (2.2) and the output pinion (2.3) are arranged in a common transversal plane of the drive pinion (2.1).