mhurhangee/ep-ind-claims huggingface dataset:
A wireless local area network, WLAN, communication device, comprising: a data processing module configured to digitally process first data for a first wireless station, STA, and second data for a second wireless station, STA; a space-time block code, STBC, encoding module operative to receive and encode the processed first data to produce first orthogonal block-encoded symbol data; a semi-orthogonal multiple access, SOMA, encoding module configured to apply quadrature-based modulation constellation mapping to the first orthogonal block-encoded symbol data and to the processed second data, to produce STBC-based SOMA-symbol data; and a communication module configured to transmit the STBC-based SOMA-symbol data to the first and second STAs. a data processing module configured to digitally process first data for a first wireless station, STA, and second data for a second wireless station, STA; a space-time block code, STBC, encoding module operative to receive and encode the processed first data to produce first orthogonal block-encoded symbol data; a semi-orthogonal multiple access, SOMA, encoding module configured to apply quadrature-based modulation constellation mapping to the first orthogonal block-encoded symbol data and to the processed second data, to produce STBC-based SOMA-symbol data; and a communication module configured to transmit the STBC-based SOMA-symbol data to the first and second STAs.
A radio field intensity measurement device comprising: an antenna configured to convert a received radiowave to an induction signal; a signal processing circuit; a rectifier circuit configured to output a direct signal by rectifying the induction signal; a battery to be charged by the direct signal; a control circuit configured to compare a potential of the direct signal with an output potential of the battery; an amplifier circuit configured to amplify the direct signal; and a display element which is operated depending on the direct signal amplified by the amplifier circuit, wherein the control circuit is configured to charge the battery when the potential of the direct signal is higher than the output potential of the battery, and supply power of the battery to the amplifier circuit when the potential of the direct signal is lower than the output potential of the battery; wherein transistors (1300a-f) of the signal processing circuit are formed on a single substrate; and the battery, being a thin-film battery, is formed thereover. an antenna configured to convert a received radiowave to an induction signal; a signal processing circuit; a rectifier circuit configured to output a direct signal by rectifying the induction signal; a battery to be charged by the direct signal; a control circuit configured to compare a potential of the direct signal with an output potential of the battery; an amplifier circuit configured to amplify the direct signal; and a display element which is operated depending on the direct signal amplified by the amplifier circuit, wherein the control circuit is configured to charge the battery when the potential of the direct signal is higher than the output potential of the battery, and supply power of the battery to the amplifier circuit when the potential of the direct signal is lower than the output potential of the battery; wherein transistors (1300a-f) of the signal processing circuit are formed on a single substrate; and the battery, being a thin-film battery, is formed thereover.
A method in a wireless device, operable in a wireless communication network, of identifying Sounding Reference Signal, SRS, resources to be used in a transmission by the wireless device, the method comprising: receiving signaling configuring the wireless device with a plurality of SRS resources; receiving an indication, in a control channel, of SRS resources to be used; determining from the indication at least a first and a second SRS resource out of the plurality of SRS resources that should be used in a transmission, wherein the first and second SRS resources are permitted to be any of the plurality of the SRS resources, except where the first and second SRS resources are the same; and transmitting first and second MIMO layers that are mapped to the first and second SRS resources, respectively; and wherein determining the at least first and second SRS resources includes identifying the first and second SRS resources from among the plurality of SRS resources by a first and second index, respectively; and characterized in that the first and second indexes further indicate an order in which the first and second SRS resources are to be mapped to the first and a second MIMO layers. receiving signaling configuring the wireless device with a plurality of SRS resources; receiving an indication, in a control channel, of SRS resources to be used; determining from the indication at least a first and a second SRS resource out of the plurality of SRS resources that should be used in a transmission, wherein the first and second SRS resources are permitted to be any of the plurality of the SRS resources, except where the first and second SRS resources are the same; and transmitting first and second MIMO layers that are mapped to the first and second SRS resources, respectively; and wherein determining the at least first and second SRS resources includes identifying the first and second SRS resources from among the plurality of SRS resources by a first and second index, respectively; and characterized in that the first and second indexes further indicate an order in which the first and second SRS resources are to be mapped to the first and a second MIMO layers.
A tubular titanium oxide structure comprising titanium oxide particles connected to one another, wherein the titanium oxide particles comprise anatase titanium oxide.
Method for determining a monitoring speed for a winding bobbin of a winding machine for winding a material to be wound onto the winding bobbin, rotating at a winding bobbin actual speed during the winding of the material to be wound, - wherein, in the winding machine, a feed bobbin is placed upstream of the winding bobbin, so that, during the winding, the material to be wound can be fed to the winding bobbin over the feed bobbin rotating at a feed bobbin actual speed, in which - a ratio variable describing an actual winding thickness on the winding bobbin is formed from the winding bobbin actual speed and the feed bobbin actual speed, and - the monitoring speed of the winding bobbin is determined from a predefined limiting speed for the unwound winding bobbin and the ratio variable describing the actual winding thickness on the winding bobbin. - wherein, in the winding machine, a feed bobbin is placed upstream of the winding bobbin, so that, during the winding, the material to be wound can be fed to the winding bobbin over the feed bobbin rotating at a feed bobbin actual speed, - a ratio variable describing an actual winding thickness on the winding bobbin is formed from the winding bobbin actual speed and the feed bobbin actual speed, and - the monitoring speed of the winding bobbin is determined from a predefined limiting speed for the unwound winding bobbin and the ratio variable describing the actual winding thickness on the winding bobbin.
A method for operating an authorization device for a keyless access and start of a vehicle, comprising a portable ID transmitter, which has a movement sensor, wherein a wireless communication connection can be established between the authorization device and the ID transmitter in order to exchange data telegrams and wherein the keyless access to the vehicle is allowed only if a point in time of a last ID transmitter movement detected by the movement sensor lies within a specified time interval, wherein the authorization device allows the keyless start of the vehicle only if the keyless access to the vehicle was allowed beforehand, characterized in that the authorization device receives the point in time from the ID transmitter and aligns with the time interval.
A hearing apparatus comprising: a battery; a coil; a coil operation mode selector configured to select either a communicating mode for communicating using the coil, the communicating mode being a first coil operation mode for communicating with a wireless communication terminal or a charging mode for charging using the coil, the charging mode being a second coil operation mode for wirelessly charging the battery of the hearing apparatus; a sensor configured to sense recognition information indicating whether the hearing apparatus has remained motionless for a predetermined time and whether wireless charging of the hearing apparatus is to be performed; and a processor configured to generate a control signal to control the coil operation mode selector to select the charging mode, based on the recognition information. a battery; a coil; a coil operation mode selector configured to select either a communicating mode for communicating using the coil, the communicating mode being a first coil operation mode for communicating with a wireless communication terminal or a charging mode for charging using the coil, the charging mode being a second coil operation mode for wirelessly charging the battery of the hearing apparatus; a sensor configured to sense recognition information indicating whether the hearing apparatus has remained motionless for a predetermined time and whether wireless charging of the hearing apparatus is to be performed; and a processor configured to generate a control signal to control the coil operation mode selector to select the charging mode, based on the recognition information.
A computing system, comprising: initialization logic that receives a service request and identifies a set of workflows to be executed, and a set of application programming interface, API, calls (194, 196) to be made, in responding to the service request and generates an initialization output signal indicative of the set of workflows and the set of API calls (194, 196); an API calling engine that makes the set of API calls (194, 196), concurrently with one another, based on the initialization output signal, and receives API call results; request handling workflow logic that executes the set of workflows to obtain workflow results, to respond to the service request, the request handling workflow logic executing the set of workflows concurrently with, and asynchronously with respect to, the API calling engine making the set of API calls (194, 196), wherein results of a given workflow, in the set of workflows, are dependent on the API call results of one of the set of API calls (194, 196), wherein the given workflow is configured to access the API call results from the API calling engine; and response logic that generates a response to the service request based on the workflow results. initialization logic that receives a service request and identifies a set of workflows to be executed, and a set of application programming interface, API, calls (194, 196) to be made, in responding to the service request and generates an initialization output signal indicative of the set of workflows and the set of API calls (194, 196); an API calling engine that makes the set of API calls (194, 196), concurrently with one another, based on the initialization output signal, and receives API call results; request handling workflow logic that executes the set of workflows to obtain workflow results, to respond to the service request, the request handling workflow logic executing the set of workflows concurrently with, and asynchronously with respect to, the API calling engine making the set of API calls (194, 196), wherein results of a given workflow, in the set of workflows, are dependent on the API call results of one of the set of API calls (194, 196), wherein the given workflow is configured to access the API call results from the API calling engine; and response logic that generates a response to the service request based on the workflow results.
An aqueous gel composition for whitening teeth, comprising: (i) at least one photosensitizer which is selected from a xanthene class of dye; (ii) maximum of 10 wt% organic solvent; (iii) less than 0.1 wt% oxidising agent; and, (iv) a polymeric gelling agent other than those containing galactose, galactomannan or glucosamine units in their chemical structure. (i) at least one photosensitizer which is selected from a xanthene class of dye; (ii) maximum of 10 wt% organic solvent; (iii) less than 0.1 wt% oxidising agent; and, (iv) a polymeric gelling agent other than those containing galactose, galactomannan or glucosamine units in their chemical structure.
A method of repairing or joining nickel base superalloy components, the method utilizing first and second heat sources, the method comprising: a) heating the weld location to a temperature above about 1149 deg. C. (2100 deg. F.) with the second heat source; b) welding or laser cladding said nickel base superalloy components with the first heat source at a temperature above about 1149 deg. C. (2100 deg. F.); c) removing said first heat source immediately upon completion of said welding; and, d) performing a controlled step and hold cooling of said weld location such that no more than about 30 weight percent of the γ' phase is formed at any hold portion of the cooling process. a) heating the weld location to a temperature above about 1149 deg. C. (2100 deg. F.) with the second heat source; b) welding or laser cladding said nickel base superalloy components with the first heat source at a temperature above about 1149 deg. C. (2100 deg. F.); c) removing said first heat source immediately upon completion of said welding; and, d) performing a controlled step and hold cooling of said weld location such that no more than about 30 weight percent of the γ' phase is formed at any hold portion of the cooling process.
A frictional connection comprising a connecting element and two components (3, 4), the two components (3, 4) being frictionally joined with the connecting element, wherein the connecting element comprises a metal substrate having a first joining surface on one side of the substrate and a second joining surface on an opposite side of the substrate, wherein each joining surface (10, 11) comprises hard particles fixed on the metal substrate by a metallic binder layer, and wherein each of the two components (3, 4) has a component joining surface (5, 6), and wherein at least one part of the component joining surface (5, 6) of at least one component (3, 4) comprises a polymeric material (7, 8), and wherein the polymeric material (7, 8) comprises at least one continuous layer, and wherein the hardness of the at least one continuous layer of the polymeric material is at least 3H, and wherein the hardness is measured according to DIN EN ISO 15184:2012.
A photonic spectrometry device, comprising several identical sensors, each sensor being capable of detecting photons, at least two photon-emitting calibrating sources (S1, S2) having different reference spectral lines, each sensor statistically receiving substantially a same quantity of photons coming from each calibrating source (S1, S2) for a same time interval, and processing means (8, 16) capable of providing, for each sensor, a measurement spectrum corresponding to the measurements, made by each sensor, of the radiation from a product and each calibrating source (S1, S2) during a time interval and establishing, on the basis of each measurement spectrum, a net corrected spectrum by recalibrating each measurement spectrum so as to make, for each calibrating source (S1, S2), a characteristic spectral line measured by each sensor coincide with the reference spectral line of that calibrating source (S1, S2).
An inorganic oxide powder for use in forming an inorganic oxide porous membrane having insulation performance on at least one surface of a positive electrode, a negative electrode and a separator which constitute a lithium ion secondary battery, characterized in that the powder has 1) an oxide purity of 90% by weight or higher, 2) an average particle diameter of 1 μm or less, wherein the "average particle diameter" means a particle diameter corresponding to 50% cumulative percentage on a mass basis measured by a laser diffraction method, 3) an average three-dimensional particle unevenness of 3.0 or higher, and 4) when 5% cumulative percentage and 100% cumulative percentage on a mass basis from the smaller side of a particle diameter distribution are d5 and d100, respectively, (d100-d5)/average particle diameter] is 5 or less, wherein the inorganic oxide is α-alumina. 1) an oxide purity of 90% by weight or higher, 2) an average particle diameter of 1 μm or less, wherein the "average particle diameter" means a particle diameter corresponding to 50% cumulative percentage on a mass basis measured by a laser diffraction method, 3) an average three-dimensional particle unevenness of 3.0 or higher, and 4) when 5% cumulative percentage and 100% cumulative percentage on a mass basis from the smaller side of a particle diameter distribution are d5 and d100, respectively, (d100-d5)/average particle diameter] is 5 or less,
A method comprising: receiving a higher layer configuration message, the higher layer being higher than a physical layer; determining, based on the higher layer configuration message, a first region of a subframe for receiving data packets, the first region comprising a first set of resource elements, the first set of resource elements being a subset of a second set of resource elements in the first region, where the first region is used for control channel monitoring, where the data packets are mapped to at least one resource element of the first set of resource elements; monitoring the first region, where monitoring includes attempting to decode the data packets in the first region; and decoding data in a data packet in the first region. receiving a higher layer configuration message, the higher layer being higher than a physical layer; determining, based on the higher layer configuration message, a first region of a subframe for receiving data packets, the first region comprising a first set of resource elements, the first set of resource elements being a subset of a second set of resource elements in the first region, where the first region is used for control channel monitoring, where the data packets are mapped to at least one resource element of the first set of resource elements; monitoring the first region, where monitoring includes attempting to decode the data packets in the first region; and decoding data in a data packet in the first region.
A microelectromechanical transducer (1; 20; 30; 50), comprising: - a semiconductor body, having a first surface and a second surface opposite to one another; - a first structural body, coupled to the first surface of the semiconductor body; - a first sealed cavity extending between the semiconductor body and the first structural body, characterized by an active area in the first sealed cavity, including at least two trenches (4; 34) and a sensor element (6a-6d; 60) between the trenches (4; 34), said trenches (4; 34) extending along a vertical direction from the first surface towards the second surface of the semiconductor body. - a semiconductor body, having a first surface and a second surface opposite to one another; - a first structural body, coupled to the first surface of the semiconductor body; - a first sealed cavity extending between the semiconductor body and the first structural body,
A method, comprising: coupling a plurality of receivers in a wireless mobile device to a first frequency reference to communicate with a first station over a corresponding plurality of signal paths; and selectively coupling (325, 329) one of the plurality of receivers to a second frequency reference to communicate with a second station over a signal path not included in the plurality of signal paths. coupling a plurality of receivers in a wireless mobile device to a first frequency reference to communicate with a first station over a corresponding plurality of signal paths; and selectively coupling (325, 329) one of the plurality of receivers to a second frequency reference to communicate with a second station over a signal path not included in the plurality of signal paths.
A light emitting device comprising: a first light emitting element and a second light emitting element, each having a peak emission wavelength in a range of 430 nm to 480 nm; a first light transmissive member disposed on an upper face of the first light emitting element and containing a first phosphor; a second light transmissive member disposed on an upper face of the second light emitting element; and an encapsulant covering the first light transmissive member and the second light transmissive member and containing a second phosphor, wherein the first light emitting element and the second light emitting element are configured to be independently driven, and wherein a chromaticity of light exiting from the first light transmissive member differs from a chromaticity of light exiting from the second light transmissive member, characterized in that the first light transmissive member does not cover lateral faces of the first light emitting element, wherein the second light transmissive member does not cover lateral faces of the second light emitting element, and wherein the encapsulant covers the lateral faces of the first light emitting element and the lateral faces of the second light emitting element. a first light emitting element and a second light emitting element, each having a peak emission wavelength in a range of 430 nm to 480 nm; a first light transmissive member disposed on an upper face of the first light emitting element and containing a first phosphor; a second light transmissive member disposed on an upper face of the second light emitting element; and an encapsulant covering the first light transmissive member and the second light transmissive member and containing a second phosphor, wherein the first light emitting element and the second light emitting element are configured to be independently driven, and wherein a chromaticity of light exiting from the first light transmissive member differs from a chromaticity of light exiting from the second light transmissive member, characterized in that the first light transmissive member does not cover lateral faces of the first light emitting element, wherein the second light transmissive member does not cover lateral faces of the second light emitting element, and wherein the encapsulant covers the lateral faces of the first light emitting element and the lateral faces of the second light emitting element.