mhurhangee/patent-ind-claim-en huggingface dataset:
A secure computation device , wherein x, y, and z are real numbers, a, b, c, δ, and ζ are real number coefficients which are set according to an approximation function func of a desired elementary function, and a secret share value of · is [·], the secure computation device comprising: a first secure computation unit configured to obtain a secret share value [y] = [δx 2 + ax] through secure computation using a secret share value [x] of the real number x; and a second secure computation unit configured to obtain and output a secret share value [func(x)] = [y(ζy + b) + cx] of an elementary function approximation value z = func(x) of the real number x through secure computation using the secret share value [x] and the secret share value [y]. a first secure computation unit configured to obtain a secret share value [y] = [δx 2 + ax] through secure computation using a secret share value [x] of the real number x; and a second secure computation unit configured to obtain and output a secret share value [func(x)] = [y(ζy + b) + cx] of an elementary function approximation value z = func(x) of the real number x through secure computation using the secret share value [x] and the secret share value [y].
A mechanical circulatory support system comprising: a controller configured to generate a signal initiating an update process and configured to transmit update information; and an implantable blood pump communicatively coupled to the controller , the blood pump comprising: a rotor ; and a control unit communicatively coupled with the rotor and configured to: control the motion and position of the rotor ; receive the signal initiating the update process; and temporarily stop the rotor in response to the signal initiating the update process. a controller configured to generate a signal initiating an update process and configured to transmit update information; and an implantable blood pump communicatively coupled to the controller , the blood pump comprising: a rotor ; and a control unit communicatively coupled with the rotor and configured to: control the motion and position of the rotor ; receive the signal initiating the update process; and temporarily stop the rotor in response to the signal initiating the update process. a rotor ; and a control unit communicatively coupled with the rotor and configured to: control the motion and position of the rotor ; receive the signal initiating the update process; and temporarily stop the rotor in response to the signal initiating the update process. control the motion and position of the rotor ; receive the signal initiating the update process; and temporarily stop the rotor in response to the signal initiating the update process.
Solenoid valve , in particular shut-off valve suitable for a gas tank, comprising a lifting magnet armature , which is coupled to a lifting valve member , wherein the magnet armature is preloaded in the direction of the valve member by means of a spring , further comprising an annular solenoid coil for acting on the magnet armature , wherein the solenoid coil surrounds the magnet armature in portions, wherein the magnet armature has a portion (2.1) embodied as a solenoid plunger, wherein the portion (2.1) embodied as a solenoid plunger within the solenoid coil delimits a pressure chamber which by way of a restrictor is pneumatically connected to a control chamber , characterized in that the magnet armature has a portion (2.2) embodied as a flat armature, and that the control chamber can be relieved by opening a control valve which can also be operated by means of the solenoid coil .
A method for thermally processing a steel product, including differentiated cooling a steel product following rolling heating or repeated heating from a temperature no lower than the austenitizing temperature; wherein cooling is carried out using cooling medium, which is formed by means of a control system , characterized in that the cooling medium is formed directly in nozzle apertures of a plate which is installed on an outlet aperture of a collector , by way of ejection water by flows of gaseous medium fed from a gaseous medium pipework into the collector for smoothing of the gaseous flow over the area of the outlet aperture of the collector and further in the nozzle apertures of the plate ; but water being fed from a water pipework pulsewise or continuously through a distributor into channels of the plate and further in the nozzle apertures , wherein due to high velocity of gaseous medium water is ejected in said nozzle apertures from the channels , wherein the control system provides controlling and adjusting water feed into the nozzle apertures of the plate using a sensor , a batch meter and a valve , as well as controlling and adjusting the feed of gaseous medium through the collector into the nozzle apertures of the plate , wherein the gaseous medium feed is controlled by control system units for gaseous medium feed control of control system and water feed is controlled by control system units for water feed control of control system by changing the quantity of water/gas controlled in a programmed mode, wherein changing the cooling ability of the medium allows achieving a cooling rate necessary for quenching.
Stator (STT) for an electromechanical converter, in particular for a dynamo-electric machine, configured for interaction with a rotor (ROT), comprising: - a cooling system (CLS), - a winding system (WDS), - a core (CRE), comprising at least one magnetically conductive body (PMB), wherein the stator (STT) extends along a longitudinal axis (RTX), wherein the core (CRE) has recesses (RZS), in which winding strands (WWR) of the winding system (WDS) are arranged at least partially, wherein the cooling system (CLS) is configured for throughflow by means of a cooling medium (CMD), wherein the cooling system has at least one nozzle (FTO) which is flowed through by the cooling medium (CMD) during operation, with the result that the cooling medium (CMD) flows out downstream of the nozzle (FTO) as an accelerated jet, wherein the nozzle (FTO) is configured and directed onto a winding head (WDH) of the winding system (WDS) in such a way that a part of the winding system (WDS) is impinged on by the accelerated jet from the nozzle, wherein the cooling medium (CMD) is discharged at the winding head (WDH) and is conducted along the winding strands (WWR) through the recesses (RZS), wherein the core (CRE) has at least two bodies (PM1, PM2) which are arranged axially next to one another, a first body (PM1) and a second body (PM2), wherein the first body (PM1) is arranged spaced apart by an axial gap (AGP) from the second body (PMB), and wherein the cooling medium (CMD) is combined in the axial gap (AGP) from different flow paths (PFP) which are routed in parallel. - a cooling system (CLS), - a winding system (WDS), - a core (CRE), comprising at least one magnetically conductive body (PMB), wherein the stator (STT) extends along a longitudinal axis (RTX), wherein the core (CRE) has recesses (RZS), in which winding strands (WWR) of the winding system (WDS) are arranged at least partially, wherein the cooling system (CLS) is configured for throughflow by means of a cooling medium (CMD), wherein the cooling system has at least one nozzle (FTO) which is flowed through by the cooling medium (CMD) during operation, with the result that the cooling medium (CMD) flows out downstream of the nozzle (FTO) as an accelerated jet, wherein the nozzle (FTO) is configured and directed onto a winding head (WDH) of the winding system (WDS) in such a way that a part of the winding system (WDS) is impinged on by the accelerated jet from the nozzle, wherein the cooling medium (CMD) is discharged at the winding head (WDH) and is conducted along the winding strands (WWR) through the recesses (RZS), wherein the core (CRE) has at least two bodies (PM1, PM2) which are arranged axially next to one another, a first body (PM1) and a second body (PM2), wherein the first body (PM1) is arranged spaced apart by an axial gap (AGP) from the second body (PMB), and wherein the cooling medium (CMD) is combined in the axial gap (AGP) from different flow paths (PFP) which are routed in parallel.
Method for updating firmware (FW) for components (IM, PM, CPU, HMI) of an industrial automation system, wherein a respective number of versions (1.0, 1.1, 1.2, 1.3) of the respective firmware (FW) is available in a respective different release state for the components (IM, PM, CPU, HMI), and wherein compatibility relationships (OK, NOK) exist between at least some versions (1.0, 1.1, 1.2, 1.3) of the firmware (FW) of different components (IM, PM, CPU, HMI), wherein a device for updating the firmware (FW) of some or all of the components (IM, PM, CPU, HMI) of the industrial automation system is provided, wherein there is provision that, in a first step, for a number, preferably all, of the components (IM, PM, CPU, HMI), the compatibility relationships (OK, NOK) between the various versions (1.0, 1.1, 1.2, 1.3) of the firmware (FW) of the respective components (IM, PM, CPU, HMI) under consideration are stored in each case in pairs in a memory device of the device, that, in a second step, information about the versions (1.0, 1.1, 1.2, 1.3), currently being used in the components (IM, PM, CPU, HMI), of the respective firmware (FW) is stored in a or the memory device of the device, that, in a third step, the stored compatibility information and the information about the versions (1.0, 1.1, 1.2, 1.3) currently being used is used to determine the components (IM, PM, CPU, HMI) to be updated and the respective versions (1.0, 1.1, 1.2, 1.3), able to be used in this case, of the respective firmware (FW), and that, in a fourth step, the components (IM, PM, CPU, HMI) to be updated are updated automatically with firmware (FW) in the respectively determined version, characterized in that , prior to the fourth step, a functional simulation of at least part of the automation system is performed taking into consideration the constellation, planned by the update, of the firmware (FW).
Process for cleaning dishware soiled with fatty residue, characterized in that said process is carried out at a temperature in the range of from 45 to 65°C using at least one formulation, comprising (A) at least one complexing agent, selected from the alkali metal salts of citric acid, of aminocarboxylic acids and from sodium tripolyphosphate, (B) at least one non-ionic surfactant of general formula (I) R 1 -CH(OH)-CH 2 -O-(AO) x -R 2 (I) (C) at least one copolymer selected from polyalkoxylated polyalkylenimines wherein said polyalkoxylated polyalkylenimines contain at most 25 mol-% of ethylene oxide moieties in their polyalkylenoxide chains, referring to their total alkylenoxide content, wherein: R 1 selected from C 4 -C 30 -alkyl, straight-chain or branched, and from C 4 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, R 2 selected from C 1 -C 30 -alkyl, straight-chain or branched, and from C 2 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, x being selected from one to 100, AO identical or different alkylene oxides, selected from CH 2 -CH 2 -O, (CH 2 ) 3 -O, (CH 2 ) 4 -O, CH 2 CH(CH 3 )-O, CH(CH 3 )-CH 2 -O- and CH 2 CH(n-C 3 H 7 )-O. (A) at least one complexing agent, selected from the alkali metal salts of citric acid, of aminocarboxylic acids and from sodium tripolyphosphate, (B) at least one non-ionic surfactant of general formula (I) R 1 -CH(OH)-CH 2 -O-(AO) x -R 2 (I) (C) at least one copolymer selected from polyalkoxylated polyalkylenimines wherein said polyalkoxylated polyalkylenimines contain at most 25 mol-% of ethylene oxide moieties in their polyalkylenoxide chains, referring to their total alkylenoxide content, wherein: R 1 selected from C 4 -C 30 -alkyl, straight-chain or branched, and from C 4 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, R 2 selected from C 1 -C 30 -alkyl, straight-chain or branched, and from C 2 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, x being selected from one to 100, AO identical or different alkylene oxides, selected from CH 2 -CH 2 -O, (CH 2 ) 3 -O, (CH 2 ) 4 -O, CH 2 CH(CH 3 )-O, CH(CH 3 )-CH 2 -O- and CH 2 CH(n-C 3 H 7 )-O. R 1 selected from C 4 -C 30 -alkyl, straight-chain or branched, and from C 4 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, R 2 selected from C 1 -C 30 -alkyl, straight-chain or branched, and from C 2 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, x being selected from one to 100, AO identical or different alkylene oxides, selected from CH 2 -CH 2 -O, (CH 2 ) 3 -O, (CH 2 ) 4 -O, CH 2 CH(CH 3 )-O, CH(CH 3 )-CH 2 -O- and CH 2 CH(n-C 3 H 7 )-O.
A flying device comprising: a flying mechanism; and a covering member made from a mesh material and supported by a frame surrounding the flying mechanism and wherein the covering member comprises a first mesh material to cover the whole upper side of the flying device and a second mesh material to cover at least a portion of a lower side of the flying device. a flying mechanism; and a covering member made from a mesh material and supported by a frame surrounding the flying mechanism and wherein the covering member comprises a first mesh material to cover the whole upper side of the flying device and a second mesh material to cover at least a portion of a lower side of the flying device.
A system for the contactless transmission of electrical energy to a mobile part, wherein the system has a double floor in which there is arranged a primary part , the double floor has a first floor plate and second floor plates , bearing elements , supports and a rough floor , wherein the floor plates are received by bearing elements , in particular bearing elements forming a lower floor plate, wherein the bearing elements are held by supports above a rough floor , characterised in that the first floor plate is manufactured from aluminium, wherein at the underside of the first floor plate there is formed a receiving ring , ribs and a frame , wherein the ribs run from the receiving ring to the frame in a radial direction in the manner of the rays of a star, wherein the receiving ring is spaced apart from the frame , wherein the primary part has a receiving part and an upper part, wherein the upper part is received in the receiving part and a primary winding is arranged in the upper part, wherein the upper part is manufactured from a plastics material, wherein the receiving part is manufactured from aluminium, wherein the receiving part is received in the receiving ring . wherein the system has a double floor in which there is arranged a primary part , the double floor has a first floor plate and second floor plates , bearing elements , supports and a rough floor , wherein the floor plates are received by bearing elements , in particular bearing elements forming a lower floor plate, wherein the bearing elements are held by supports above a rough floor , characterised in that the first floor plate is manufactured from aluminium, wherein at the underside of the first floor plate there is formed a receiving ring , ribs and a frame , wherein the ribs run from the receiving ring to the frame in a radial direction in the manner of the rays of a star, wherein the receiving ring is spaced apart from the frame , wherein the primary part has a receiving part and an upper part, wherein the upper part is received in the receiving part and a primary winding is arranged in the upper part, wherein the upper part is manufactured from a plastics material, wherein the receiving part is manufactured from aluminium, wherein the receiving part is received in the receiving ring .
A composition comprising isolated human secreted vesicles produced by an enriched renal cell population for use in a method of reducing renal fibrosis in treating kidney disease in a human patient by in vivo administration of the composition to the patient, wherein the enriched renal cell population comprises a greater percentage of bioactive kidney cells than does a starting kidney cell population, wherein the starting kidney cell population comprises (i) a kidney sample isolated from a subject or (ii) an in vitro culture of cells isolated from the kidney sample of the subject, wherein the vesicles comprise exosomes comprising a paracrine factor that inhibits Plasminogen Activation Inhibitor-1 (PAI-1) signaling, and wherein the vesicles have been isolated from the enriched renal cell population. wherein the enriched renal cell population comprises a greater percentage of bioactive kidney cells than does a starting kidney cell population, wherein the starting kidney cell population comprises (i) a kidney sample isolated from a subject or (ii) an in vitro culture of cells isolated from the kidney sample of the subject, wherein the vesicles comprise exosomes comprising a paracrine factor that inhibits Plasminogen Activation Inhibitor-1 (PAI-1) signaling, and wherein the vesicles have been isolated from the enriched renal cell population.
Coupling member (200; 600) fixable to an end portion of a crossbar member , said coupling member being configured for coupling two crossbar members to each other or for coupling a crossbar member to a load carrier foot , said coupling member comprising at least two elongate coupling segments configured to be at least partially inserted in longitudinally extending interior spaces of said crossbar member , said interior spaces being separated by a common interior wall , wherein two adjacent coupling segments of said at least two elongate coupling segments are fixedly coupled to each other by means of a coupling portion , wherein said coupling portion is configured to hold said elongate coupling segments at a predetermined distance (d) with respect to each other to define a receiving space between the adjacent elongate coupling segments , wherein said receiving space is configured for receiving a portion of said interior wall of said crossbar member , characterized in that said coupling portion extends between outer circumferences of adjacent coupling segments and is configured receivable and accommodatable in a passage provided in said common interior wall for connecting said adjacent interior spaces . said coupling member comprising at least two elongate coupling segments configured to be at least partially inserted in longitudinally extending interior spaces of said crossbar member , said interior spaces being separated by a common interior wall , wherein two adjacent coupling segments of said at least two elongate coupling segments are fixedly coupled to each other by means of a coupling portion , wherein said coupling portion is configured to hold said elongate coupling segments at a predetermined distance (d) with respect to each other to define a receiving space between the adjacent elongate coupling segments , wherein said receiving space is configured for receiving a portion of said interior wall of said crossbar member , characterized in that said coupling portion extends between outer circumferences of adjacent coupling segments and is configured receivable and accommodatable in a passage provided in said common interior wall for connecting said adjacent interior spaces .
A liquid crystal display apparatus comprising a liquid crystal display and a light source , the liquid crystal display comprising: a first substrate and a second substrate which face each other and which are provided such that light emitted from the light source is obliquely incident on a surface of each of the first and second substrates ; a liquid crystal layer provided between the first substrate and the second substrate ; a switching element provided on the first substrate and including a gate electrode (GL), a semiconductor layer , a source electrode and a drain electrode , the gate electrode (GL) extending in a first direction, the semiconductor layer being provided above the gate electrode (GL), with a first insulating layer interposed, the source electrode and the drain electrode being provided on the semiconductor layer , the source electrode being located away from the drain electrode in a second direction perpendicular to the first direction; a first light-shielding film provided above the switching element , with a second insulating layer interposed, the first light-shielding film extending in the first direction; a pixel electrode provided above the first light-shielding film , with a third insulating layer interposed; and a second light-shielding film provided on the second substrate and in a boundary region between adjacent pixels, and located above the switching element , wherein a length of the first light-shielding film is less than that of the gate electrode (GL) in the second direction, and a length of the semiconductor layer is less than that of the first light-shielding film in the second direction. a first substrate and a second substrate which face each other and which are provided such that light emitted from the light source is obliquely incident on a surface of each of the first and second substrates ; a liquid crystal layer provided between the first substrate and the second substrate ; a switching element provided on the first substrate and including a gate electrode (GL), a semiconductor layer , a source electrode and a drain electrode , the gate electrode (GL) extending in a first direction, the semiconductor layer being provided above the gate electrode (GL), with a first insulating layer interposed, the source electrode and the drain electrode being provided on the semiconductor layer , the source electrode being located away from the drain electrode in a second direction perpendicular to the first direction; a first light-shielding film provided above the switching element , with a second insulating layer interposed, the first light-shielding film extending in the first direction; a pixel electrode provided above the first light-shielding film , with a third insulating layer interposed; and a second light-shielding film provided on the second substrate and in a boundary region between adjacent pixels, and located above the switching element , wherein a length of the first light-shielding film is less than that of the gate electrode (GL) in the second direction, and a length of the semiconductor layer is less than that of the first light-shielding film in the second direction.