mhurhangee/patent-ind-claim-en huggingface dataset:
A vibratory actuator comprising a stationary body and a movable body that is provided to be reciprocatorily movable with respect to the stationary body , wherein one of the stationary body and the movable body includes at least a magnet of a group comprising: the magnet , a core that is disposed to face a magnetic pole surface of the magnet and is made of a magnetic body, and a coil that is disposed around an outer periphery of the core , another of the stationary body and the movable body includes at least the core of the group, the stationary body includes a case having a curved surface section curved in a concave manner to be disposed along skin as a bottom surface of the case ; and the movable body is provided in the case so as to reciprocate on the curved surface section with respect to the stationary body and to apply a vibratory stimulus caused by a reciprocating movement to mechanoreceptors in skin tissue of the skin via the curved surface section . the magnet , a core that is disposed to face a magnetic pole surface of the magnet and is made of a magnetic body, and a coil that is disposed around an outer periphery of the core ,
An organic light emitting device comprising: an anode ; a cathode ; and a first emissive layer disposed between the anode and the cathode , the first emissive layer consisting of an electron transporting compound and a phosphorescent emissive dopant compound; wherein the phosphorescent emissive dopant compound has a concentration gradient in the emissive layer , characterized in that the concentration gradient varies according to one or more of the following: (i) linearly towards the cathode side of the first emissive layer ; (ii) non-linearly towards the cathode side of the first emissive layer , wherein said non-linearity corresponds to a polynomial function selected from the group consisting of a quadratic function, a cubic function, or a higher order function; and (iii) a step wise form; wherein when the concentration gradient varies in a step wise form, the phosphorescent emissive dopant compound is dispersed in the emissive layer as a plurality of high concentration dopant regions and as a plurality of low concentration dopant regions; or when the concentration gradient varies in a step wise form, the phosphorescent emissive dopant compound is dispersed in the emissive layer as a plurality of first dopant regions and as a plurality of second dopant regions, and the first dopant regions are wider than the second dopant regions. an anode ; a cathode ; and a first emissive layer disposed between the anode and the cathode , the first emissive layer consisting of an electron transporting compound and a phosphorescent emissive dopant compound; wherein the phosphorescent emissive dopant compound has a concentration gradient in the emissive layer , characterized in that the concentration gradient varies according to one or more of the following: (i) linearly towards the cathode side of the first emissive layer ; (ii) non-linearly towards the cathode side of the first emissive layer , wherein said non-linearity corresponds to a polynomial function selected from the group consisting of a quadratic function, a cubic function, or a higher order function; and (iii) a step wise form; (i) linearly towards the cathode side of the first emissive layer ; (ii) non-linearly towards the cathode side of the first emissive layer , wherein said non-linearity corresponds to a polynomial function selected from the group consisting of a quadratic function, a cubic function, or a higher order function; and (iii) a step wise form; wherein when the concentration gradient varies in a step wise form, the phosphorescent emissive dopant compound is dispersed in the emissive layer as a plurality of high concentration dopant regions and as a plurality of low concentration dopant regions; or when the concentration gradient varies in a step wise form, the phosphorescent emissive dopant compound is dispersed in the emissive layer as a plurality of first dopant regions and as a plurality of second dopant regions, and the first dopant regions are wider than the second dopant regions.
A method for detecting an untrustworthy security certificate, comprising: receiving a log entry from a certificate transparency log, wherein the log entry describes a security certificate issued by a certificate authority; rendering an image of a domain name listed in the log entry; performing optical character recognition on the image to generate a text string version of the domain name; performing a comparison between the text string version and brand data in a brand data store to determine that the text string version of the domain name matches an instance of brand data in the brand data store; determining that the security certificate is not associated with the matched instance of brand data and in response to said determining, adding the security certificate to a list of un-trusted security certificates. receiving a log entry from a certificate transparency log, wherein the log entry describes a security certificate issued by a certificate authority; rendering an image of a domain name listed in the log entry; performing optical character recognition on the image to generate a text string version of the domain name; performing a comparison between the text string version and brand data in a brand data store to determine that the text string version of the domain name matches an instance of brand data in the brand data store; determining that the security certificate is not associated with the matched instance of brand data and in response to said determining, adding the security certificate to a list of un-trusted security certificates.
Folding seat for a rail vehicle , comprising - a backrest ; - a seat element ; wherein - the seat element is specified to be reversibly pivotable in a reciprocating manner between two positions; - in a first and a second position of the seat element , the seat element is in each case folded out such that the folding seat is specified for seating one person on the seat element , characterized in that - the seat element is specified to be reversibly pivotable in a reciprocating manner between three positions, - in a third position of the seat element , the seat element is folded in and conjointly with the backrest forms a resting face for a standing person to rest on; - the seat element in the first and the second position thereof in terms of the third position is pivoted in mutually opposite directions. - a backrest ; - a seat element ; wherein - the seat element is specified to be reversibly pivotable in a reciprocating manner between two positions; - in a first and a second position of the seat element , the seat element is in each case folded out such that the folding seat is specified for seating one person on the seat element , characterized in that - the seat element is specified to be reversibly pivotable in a reciprocating manner between three positions, - in a third position of the seat element , the seat element is folded in and conjointly with the backrest forms a resting face for a standing person to rest on; - the seat element in the first and the second position thereof in terms of the third position is pivoted in mutually opposite directions.
Method for operating a permanent magnet synchronous motor , the method comprising the following steps: - setting a maximum power, - determining a current vector (I dq ) in the dq coordinate system, - determining an output voltage vector (U* dq ) in the dq coordinate system, - calculating a setpoint amount (|U dq |) for a setpoint voltage vector on the basis of the maximum power, the current vector (I dq ) and the output voltage vector (U*dq), - generating the setpoint voltage vector with the setpoint amount (|U dq |), and then - operating the permanent magnet synchronous motor at least with the setpoint voltage vector, characterized in that an angle of the setpoint voltage vector is set equal to the angle of the output voltage vector (U* dq ). - setting a maximum power, - determining a current vector (I dq ) in the dq coordinate system, - determining an output voltage vector (U* dq ) in the dq coordinate system, - calculating a setpoint amount (|U dq |) for a setpoint voltage vector on the basis of the maximum power, the current vector (I dq ) and the output voltage vector (U*dq), - generating the setpoint voltage vector with the setpoint amount (|U dq |), and then - operating the permanent magnet synchronous motor at least with the setpoint voltage vector, characterized in that
A method performed by a system, comprising: receiving a hardware description file specifying a plurality of processors and a plurality of hardware resources available within a heterogeneous System-on-Chip, SoC, , wherein the plurality of processors are configured to execute program code and are available for use by a design for the heterogeneous SoC , and wherein the plurality of hardware resources are available for use by embedded applications; creating a plurality of domains for the heterogeneous SoC , by including in each domain a processor from the plurality of processors and assigning different hardware resources selected from the plurality of hardware resources to each of the different domains that are created; assigning an operating system to each domain; generating a platform comprising configuration data that, when loaded onto the heterogeneous SoC, implements the plurality of domains within the heterogeneous SoC and implements logical separation between the plurality of domains, using the platform to build the embedded applications for different domains of the plurality of domains within the heterogeneous SoC , wherein the platform includes a plurality of files for the plurality of domains for use by a software development environment, wherein the plurality of files includes a linker script for each of the domains. receiving a hardware description file specifying a plurality of processors and a plurality of hardware resources available within a heterogeneous System-on-Chip, SoC, , wherein the plurality of processors are configured to execute program code and are available for use by a design for the heterogeneous SoC , and wherein the plurality of hardware resources are available for use by embedded applications; creating a plurality of domains for the heterogeneous SoC , by including in each domain a processor from the plurality of processors and assigning different hardware resources selected from the plurality of hardware resources to each of the different domains that are created; assigning an operating system to each domain; generating a platform comprising configuration data that, when loaded onto the heterogeneous SoC, implements the plurality of domains within the heterogeneous SoC and implements logical separation between the plurality of domains, using the platform to build the embedded applications for different domains of the plurality of domains within the heterogeneous SoC , wherein the platform includes a plurality of files for the plurality of domains for use by a software development environment, wherein the plurality of files includes a linker script for each of the domains.
A method for adjusting a measuring system comprising: operating a process; mounting a measuring device with respect to the process for measuring a parameter associated with the process; applying power to the measuring device ; positioning an adjustment member against or proximal to a target area of the measuring device and within a pre-determined period of time after applying power to the measuring device to place the measuring device in an adjustment mode that enables subsequent adjustment of one or more features of the measuring device via subsequent positioning of the adjustment member against or proximal to the target area; subsequently positioning the adjustment member against or proximal to the target area while the measuring device is in the adjustment mode to adjust one or more features of the measuring device . operating a process; mounting a measuring device with respect to the process for measuring a parameter associated with the process; applying power to the measuring device ; positioning an adjustment member against or proximal to a target area of the measuring device and within a pre-determined period of time after applying power to the measuring device to place the measuring device in an adjustment mode that enables subsequent adjustment of one or more features of the measuring device via subsequent positioning of the adjustment member against or proximal to the target area; subsequently positioning the adjustment member against or proximal to the target area while the measuring device is in the adjustment mode to adjust one or more features of the measuring device .
Method for applying at least one material layer to a workpiece made of a material containing a titanium aluminide, in particular consisting thereof, the method comprising the steps of: - heating the workpiece in a locally delimited area by means of induction to a predetermined preheating temperature; - applying a preferably powdery additive to the heated surface of the workpiece by means of deposition welding, in particular laser, laser powder, plasma, micro-plasma, TIG or micro-TIG deposition welding, the additive comprising a titanium aluminide; and - cooling the workpiece at a defined cooling rate to a cooling temperature between 500°C and 650°C, characterized in that the cooling rate is between 5 K/min and 50 K/min. - heating the workpiece in a locally delimited area by means of induction to a predetermined preheating temperature; - applying a preferably powdery additive to the heated surface of the workpiece by means of deposition welding, in particular laser, laser powder, plasma, micro-plasma, TIG or micro-TIG deposition welding, the additive comprising a titanium aluminide; and - cooling the workpiece at a defined cooling rate to a cooling temperature between 500°C and 650°C,
Valve device for a compressed air system which has a pressure medium inlet which can be connected to a pressure medium source, at least one pressure medium outlet which can be connected to a consumer, and at least one ventilation means which leads to atmosphere, the valve device having a valve piston which is arranged movably in a housing and, for opening and closing an inlet valve , has an aeration piston which is arranged separately with respect to the valve piston , the valve device having an electromechanical linear drive which drives the valve piston in a linear manner in order to control pressures which prevail at the pressure medium outlet , for example brake pressures in a brake system, in a manner which is dependent on an electric control signal which is fed to the linear drive , characterized in that the valve device is of pressure-equalized construction, to which end passage openings are provided in the valve piston and the aeration piston.
A method for producing a surface structure on a pressing tool, which is designed as a pressing plate , an endless belt or an embossing roller, comprising at least the steps: - at least a onetime application of a mask in order to cover partial regions and - at least a onetime application of a metal layer to the non-covered regions in order to construct a surface structure composed of elevations, characterized in that the mask and the metal layer are applied several times, layer by layer, and that etching of the pressing plate , the endless belt and/or the embossing roller is entirely dispensed with during these method steps. - at least a onetime application of a mask in order to cover partial regions and - at least a onetime application of a metal layer to the non-covered regions in order to construct a surface structure composed of elevations,
A method performed by a user equipment (UE) for performing a random access procedure in a wireless communication system, the method comprising: determining a transmission power with which the UE is to transmit a random access preamble while operating within a certain coverage enhancement level, wherein the transmission power is determined as a function of: a target receive power with which the random access preamble transmission is targeted to be received by a network node , and a path loss between the UE and the network node ; transmitting the random access preamble using the determined transmission power while operating within the certain coverage enhancement level; determining another transmission power with which the UE is to transmit a connection request in the random access procedure, wherein the other transmission power is determined as a function of the target receive power with which the random access preamble transmission was targeted to be received; and transmitting the connection request using the determined other transmission power; characterized in that the target receive power is a function of a configured UE transmission power minus at least a path loss threshold for operating within with the certain coverage enhancement level. determining a transmission power with which the UE is to transmit a random access preamble while operating within a certain coverage enhancement level, wherein the transmission power is determined as a function of: a target receive power with which the random access preamble transmission is targeted to be received by a network node , and a path loss between the UE and the network node ; a target receive power with which the random access preamble transmission is targeted to be received by a network node , and a path loss between the UE and the network node ; transmitting the random access preamble using the determined transmission power while operating within the certain coverage enhancement level; determining another transmission power with which the UE is to transmit a connection request in the random access procedure, wherein the other transmission power is determined as a function of the target receive power with which the random access preamble transmission was targeted to be received; and transmitting the connection request using the determined other transmission power; characterized in that the target receive power is a function of a configured UE transmission power minus at least a path loss threshold for operating within with the certain coverage enhancement level.
A lubricant additive concentrate comprising from 30 to 80 mass% oil of lubricating viscosity and from 20 to 70 mass% of additive; wherein from 30 to 90 mass% of said additive comprises, on an active ingredient (AI) basis (i) hybrid overbased colloidal detergent derived from sulfonate surfactant and hydroxybenzoate surfactant; and (ii) polyalkenyl succinimide dispersant derived from a polyalkene having a number average molecular weight (M n ) of from 1300 to 2500 daltons; and wherein the mass ratio of said polyalkenyl succinimide dispersant (ii) to said hybrid overbased colloidal detergent (i) in said lubricant additive concentrate is from 25:1 to 1:1.
A catalytically active variant of arylalkylamine N-acetyltransferase (AANAT) from Streptomyces griseofuscus (SEQ ID NO:1), the variant AANAT having at least 85% sequence identity to SEQ ID NO:1, comprising a mutation in residue D63 and providing for an increased yield in vivo of N-acetylserotonin from serotonin relative to native enzyme having the amino acid sequence of SEQ ID NO:1, wherein the mutation in residue D63 is an amino acid substitution selected from D63G, D63A, D63V, D63L and D63I.
A pallet sled comprising: a base ; a pair of tines including a first tine and a second tine extending from the base ; a first load wheel and a second load wheel supporting outer ends of the first tine and the second tine , respectively, wherein each of the first load wheel and the second load wheel is mounted to an arm pivotably mounted to the respective tine ; and a rod in each tine configured to pivot the arm to move the respective load wheel toward and away from the respective tine , characterised in that the first load wheel includes a first hub motor secured below the first tine and configured to drive the first load wheel for driving the pallet sled . a base ; a pair of tines including a first tine and a second tine extending from the base ; a first load wheel and a second load wheel supporting outer ends of the first tine and the second tine , respectively, wherein each of the first load wheel and the second load wheel is mounted to an arm pivotably mounted to the respective tine ; and a rod in each tine configured to pivot the arm to move the respective load wheel toward and away from the respective tine , characterised in that the first load wheel includes a first hub motor secured below the first tine and configured to drive the first load wheel for driving the pallet sled .
A resin sheet having: a base layer having hair-like bodies arranged regularly on one surface thereof; and a substrate layer on the surface opposite the hair-like bodies of the base layer , wherein a thickness (a) of the substrate layer is 10 μm or greater and 250 μm or less, the thickness (a) of the substrate layer and a thickness (b) of the base layer satisfy a ≤ b, the substrate layer comprises a polycarbonate-based resin, the base layer and the hair-like bodies comprise a thermoplastic polyurethane resin, and stiffness of the resin sheet measured in accordance with the 45° cantilever method of JIS L 1096:2010 is 150 mm or less. a thickness (a) of the substrate layer is 10 μm or greater and 250 μm or less, the thickness (a) of the substrate layer and a thickness (b) of the base layer satisfy a ≤ b, the substrate layer comprises a polycarbonate-based resin, the base layer and the hair-like bodies comprise a thermoplastic polyurethane resin, and stiffness of the resin sheet measured in accordance with the 45° cantilever method of JIS L 1096:2010 is 150 mm or less.
A communication method, comprising: receiving radio resource control, RRC, signaling, wherein the RRC signaling indicates candidate spatial information of a physical downlink shared channel, PDSCH; and receiving medium access control control element, MAC-CE, signaling, wherein the MAC-CE signaling indicating one or more pieces of spatial information in the candidate spatial information of the PDSCH, to indicate spatial information of a first control resource set, wherein the candidate spatial information of the PDSCH is reused as candidate spatial information of the first control resource set, and the first control resource set is a control resource set whose identifier is 0; wherein, the first control resource set is a control resource set used at least for scheduling system information, and the spatial information is quasi-co-location, QCL, information. receiving radio resource control, RRC, signaling, wherein the RRC signaling indicates candidate spatial information of a physical downlink shared channel, PDSCH; and receiving medium access control control element, MAC-CE, signaling, wherein the MAC-CE signaling indicating one or more pieces of spatial information in the candidate spatial information of the PDSCH, to indicate spatial information of a first control resource set, wherein the candidate spatial information of the PDSCH is reused as candidate spatial information of the first control resource set, and the first control resource set is a control resource set whose identifier is 0; wherein, the first control resource set is a control resource set used at least for scheduling system information, and the spatial information is quasi-co-location, QCL, information.