mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: aggregating one or more sensor reports of a road event reported from one or more vehicles traveling in an area of interest, wherein the one or more sensor reports are collected from one or more sensors of the one or more vehicles; retrieving weather data records for the area of interest for a time period corresponding to the one or more reports; calculating a data freshness parameter for the one or more reports based on an age of each of the one or more reports; determining a number of the one or more vehicles generating the one or more reports; determining a quality factor associated with each of the one or more vehicles, a vehicle type of each of the one or more vehicles, a manufacturer of each of the one or more vehicles, or a combination thereof, wherein the quality factor respectively accounts for potentially different quality among the one or more sensor reports received from the respective one or more vehicles; calculating a confidence level for the road event based on (i) the weather data records, (ii) the quality factor, and (iii) at least one of the data freshness parameter and the number of the one or more vehicles; and transmitting the road event message for the area of interest based on the confidence level and/or providing instructions for configuring autonomous function of a vehicle based on the confidence level. aggregating one or more sensor reports of a road event reported from one or more vehicles traveling in an area of interest, wherein the one or more sensor reports are collected from one or more sensors of the one or more vehicles; retrieving weather data records for the area of interest for a time period corresponding to the one or more reports; calculating a data freshness parameter for the one or more reports based on an age of each of the one or more reports; determining a number of the one or more vehicles generating the one or more reports; determining a quality factor associated with each of the one or more vehicles, a vehicle type of each of the one or more vehicles, a manufacturer of each of the one or more vehicles, or a combination thereof, wherein the quality factor respectively accounts for potentially different quality among the one or more sensor reports received from the respective one or more vehicles; calculating a confidence level for the road event based on (i) the weather data records, (ii) the quality factor, and (iii) at least one of the data freshness parameter and the number of the one or more vehicles; and the data freshness parameter and the number of the one or more vehicles; and transmitting the road event message for the area of interest based on the confidence level and/or providing instructions for configuring autonomous function of a vehicle based on the confidence level.
A method performed by a network device, for enhancing security of Voice Over Internet Protocol, VOIP, calls, the method comprising: determining, by reference to a record of the duration of calls initiated by a caller, whether a scrutiny of the caller is required when the caller initiates a call to a callee; responsive to determining that the scrutiny is required: requesting the caller's geographical location information; and checking veracity of the caller's geographical location to determine whether the caller is suspicious. determining, by reference to a record of the duration of calls initiated by a caller, whether a scrutiny of the caller is required when the caller initiates a call to a callee; responsive to determining that the scrutiny is required: requesting the caller's geographical location information; and checking veracity of the caller's geographical location to determine whether the caller is suspicious. requesting the caller's geographical location information; and checking veracity of the caller's geographical location to determine whether the caller is suspicious.
Composite material, especially for use in a stator stack and/or rotor stack, comprising - a first and a second electrical steel strip layer, and - a polymeric layer arranged in between, where the polymeric layer consists of a crosslinked acrylate-based copolymer of high molecular weight and has a layer thickness in the range from 3 to 20 μm. - a first and a second electrical steel strip layer, and - a polymeric layer arranged in between, where the polymeric layer consists of a crosslinked acrylate-based copolymer of high molecular weight and has a layer thickness in the range from 3 to 20 μm.
A skylight cover being in one piece and comprising: a periphery and an apex defined within the periphery, where the skylight cover projects upward from the periphery, a first surface and a second surface, the first surface being parallel to the second surface; a third surface and a fourth surface, the third surface being parallel to the fourth surface; a fifth surface and a sixth surface, the fifth surface being parallel to the sixth surface; a seventh surface and an eighth surface, the seventh surface being parallel to the eighth surface; in which none of the first, third, fifth, and seventh surfaces (21, 23, 25 and 27) are parallel, said skylight cover being characterised by further including a first corrugation and a second corrugation, the skylight cover defining a longitude with the first corrugation and the second corrugation oriented transverse to the longitude, the first corrugation and the second corrugation being integral with the skylight cover, the seventh surface being bisected by the first corrugation, the eighth surface being bisected by the second corrugation. a periphery and an apex defined within the periphery, where the skylight cover projects upward from the periphery, a first surface and a second surface, the first surface being parallel to the second surface; a third surface and a fourth surface, the third surface being parallel to the fourth surface; a fifth surface and a sixth surface, the fifth surface being parallel to the sixth surface; a seventh surface and an eighth surface, the seventh surface being parallel to the eighth surface; in which none of the first, third, fifth, and seventh surfaces (21, 23, 25 and 27) are parallel, said skylight cover being characterised by further including a first corrugation and a second corrugation, the skylight cover defining a longitude with the first corrugation and the second corrugation oriented transverse to the longitude, the first corrugation and the second corrugation being integral with the skylight cover, the seventh surface being bisected by the first corrugation, the eighth surface being bisected by the second corrugation.
A method of enhancing speech of a headphone user, the method comprising: receiving a primary signal (310;446) derived from at least one microphone (302;410;420) associated with the headphone, the primary signal configured to include a component of speech from the user; receiving, at an echo canceller (318;480), an echo reference signal representative of a combination of right and left playback signals, the right and left playback signals provided by an audio source to be rendered into an acoustic signal by an acoustic driver associated with the headphone, the echo reference signal being generated by combining and pre-filtering the right and left playback signals by means of a pre-filter and being provided to the echo canceller by the pre-filter; receiving, at noise canceller (314;440), a noise reference signal (312;448) representative of acoustic noise in the environment of the headphone; and filtering the primary signal to reduce components correlated to the noise reference signal and to reduce components correlated to the echo reference signal, to provide a voice estimate signal (326;462). receiving a primary signal (310;446) derived from at least one microphone (302;410;420) associated with the headphone, the primary signal configured to include a component of speech from the user; receiving, at an echo canceller (318;480), an echo reference signal representative of a combination of right and left playback signals, the right and left playback signals provided by an audio source to be rendered into an acoustic signal by an acoustic driver associated with the headphone, the echo reference signal being generated by combining and pre-filtering the right and left playback signals by means of a pre-filter and being provided to the echo canceller by the pre-filter; receiving, at noise canceller (314;440), a noise reference signal (312;448) representative of acoustic noise in the environment of the headphone; and filtering the primary signal to reduce components correlated to the noise reference signal and to reduce components correlated to the echo reference signal, to provide a voice estimate signal (326;462).
A cooling system for a nuclear reactor module, comprising: a reactor pressure vessel that houses primary coolant; a steam generator located in the reactor pressure vessel and configured to lower a temperature of the reactor pressure vessel by transferring heat from the primary coolant to a secondary coolant that circulates through the steam generator and releasing at least a portion of the secondary coolant as steam; a containment vessel at least partially surrounding the reactor pressure vessel in a containment region, wherein the containment region is dry during normal operation of the nuclear reactor module; a source of water located external to the containment vessel, wherein the source of water comprises a reactor bay pool, and wherein the containment vessel is at least partially submerged in the reactor bay pool; and a controller configured to cause a non-emergency reactor shut down operation of the nuclear reactor module in response to a non-emergency reactor shut down request, the non-emergency reactor shut down operation comprising: the controller causing the steam generator to release steam to lower the temperature of the reactor pressure vessel, the controller causing water from the source of water to be introduced into the containment region after the steam generator has initially lowered the temperature of the reactor pressure vessel in response to releasing the steam. a reactor pressure vessel that houses primary coolant; a steam generator located in the reactor pressure vessel and configured to lower a temperature of the reactor pressure vessel by transferring heat from the primary coolant to a secondary coolant that circulates through the steam generator and releasing at least a portion of the secondary coolant as steam; a containment vessel at least partially surrounding the reactor pressure vessel in a containment region, wherein the containment region is dry during normal operation of the nuclear reactor module; a source of water located external to the containment vessel, wherein the source of water comprises a reactor bay pool, and wherein the containment vessel is at least partially submerged in the reactor bay pool; and a controller configured to cause a non-emergency reactor shut down operation of the nuclear reactor module in response to a non-emergency reactor shut down request, the non-emergency reactor shut down operation comprising: the controller causing the steam generator to release steam to lower the temperature of the reactor pressure vessel, the controller causing water from the source of water to be introduced into the containment region after the steam generator has initially lowered the temperature of the reactor pressure vessel in response to releasing the steam. the controller causing the steam generator to release steam to lower the temperature of the reactor pressure vessel, the controller causing water from the source of water to be introduced into the containment region after the steam generator has initially lowered the temperature of the reactor pressure vessel in response to releasing the steam.
Solid fuel heater with three-zone combustion air supply, comprising a lower outlet orifice and a first inlet orifice (14.1) of a lower primary air, wherein the lower primary air between the first inlet orifice (14.1) and the lower outlet orifice runs in a first independent vent, and an upper outlet orifice and a second inlet orifice (14.2) of an upper primary air between the second inlet orifice (14.2) and the upper outlet orifice runs in a second independent vent, and, an outlet orifice and an inlet orifice (14.3) of a secondary air, wherein the secondary air between the inlet orifice (14.3) and the outlet orifice runs in a third independent vent; wherein three dampers are attached to three respective arms assigned to three respective inlet orifices (14.1, 14.2 and 14.3), characterized in that the arms are connected to a shaft, and in that the inlet orifices (14.1, 14.2 and 14.3) are equipped with a common moving orifice.
Abase station, comprising: a processing module, configured to determine to start scheduling point to multipoint, PTM, transmission in a first cell provided by said base station, wherein the scheduling PTM transmission is used to enable user equipment, UE, in the first cell to receive data on a scheduling PTM transmission resource; and a sending module, configured to: send configuration information of the scheduling PTM transmission to the UE in the first cell, wherein the configuration information is used to enable the UE in the first cell to receive data according to an indication of the configuration information; and send, on the scheduling PTM transmission resource, data according to the indication of the configuration information; wherein the configuration information of the scheduling PTM transmission comprises: a radio network temporary identity, RNTI, of the scheduling PTM transmission, a temporary multicast group identity, TMGI, corresponding to the scheduling PTM transmission, and resource configuration information used in the scheduling PTM transmission, wherein the RNTI of the scheduling PTM transmission is used to indicate, to the UE, the RNTI used in the scheduling PTM transmission, the TMGI corresponding to the scheduling PTM transmission is used to indicate an MBMS service identifier of RNTI scheduling of the scheduling PTM transmission, and the resource configuration information used in the scheduling PTM transmission comprises subframe and frequency resource configuration information used in the scheduling PTM transmission. a processing module, configured to determine to start scheduling point to multipoint, PTM, transmission in a first cell provided by said base station, wherein the scheduling PTM transmission is used to enable user equipment, UE, in the first cell to receive data on a scheduling PTM transmission resource; and a sending module, configured to: send configuration information of the scheduling PTM transmission to the UE in the first cell, wherein the configuration information is used to enable the UE in the first cell to receive data according to an indication of the configuration information; and send, on the scheduling PTM transmission resource, data according to the indication of the configuration information; wherein the configuration information of the scheduling PTM transmission comprises: a radio network temporary identity, RNTI, of the scheduling PTM transmission, a temporary multicast group identity, TMGI, corresponding to the scheduling PTM transmission, and resource configuration information used in the scheduling PTM transmission, wherein the RNTI of the scheduling PTM transmission is used to indicate, to the UE, the RNTI used in the scheduling PTM transmission, the TMGI corresponding to the scheduling PTM transmission is used to indicate an MBMS service identifier of RNTI scheduling of the scheduling PTM transmission, and the resource configuration information used in the scheduling PTM transmission comprises subframe and frequency resource configuration information used in the scheduling PTM transmission.
Control device for entering control commands into an electronic device, wherein the control device comprises a touch screen, and various control menus can be displayed on the touch screen, wherein the touch screen is disposed behind a colored transparent cover, wherein transparent or semitransparent sensors (7, 11, 12, 13) are disposed behind the colored transparent cover, wherein the sensors (7, 11, 12, 13) are implemented for detecting the presence of an input organ in front of the colored transparent cover, wherein illuminable symbols (2, 3, 4, 5) and/or illuminable characters are disposed in front of the transparent or semitransparent sensors (7, 11, 12, 13), and wherein light sources for illuminating the touch screen and the illuminable symbols and/or characters (2, 3, 4, 5, 6) are present, characterized in that adjacent to the touch screen the sensors (7,11,12,13) are disposed.
Method for treating surfaces of plastics objects produced in a 3D printing process, wherein, in a dyeing step, - a dye mixture is prepared, wherein a dye selected from the group including metal complex dyes, acid dyes, reactive dyes, azo dyes, disperse dyes, and mixtures thereof, is dissolved in a solvent, wherein between 0.05 g and 50 g of the dye is added to the solvent based on one liter, - the dye mixture is heated to a dyeing temperature between 60°C and 180°C, - the plastics objects to be dyed are placed in the heated dye mixture for a period between 5 minutes and 6 hours, wherein the dyeing temperature does not exceed the melting point of the material of the plastics objects, and wherein, in a surface treatment step, - the surface of the plastics objects is blasted using plastics balls in order to smooth the surface of the molded parts, and wherein, in an impregnation step of a post-treatment step carried out after the dyeing step, the plastics objects are first dried and then the surface of the plastics objects is impregnated, wherein a polymer-based impregnation solution is used for the impregnation. wherein, in a dyeing step, - a dye mixture is prepared, wherein a dye selected from the group including metal complex dyes, acid dyes, reactive dyes, azo dyes, disperse dyes, and mixtures thereof, is dissolved in a solvent, wherein between 0.05 g and 50 g of the dye is added to the solvent based on one liter, - the dye mixture is heated to a dyeing temperature between 60°C and 180°C, - the plastics objects to be dyed are placed in the heated dye mixture for a period between 5 minutes and 6 hours, - a dye mixture is prepared, wherein a dye selected from the group including metal complex dyes, acid dyes, reactive dyes, azo dyes, disperse dyes, and mixtures thereof, is dissolved in a solvent, wherein between 0.05 g and 50 g of the dye is added to the solvent based on one liter, - the dye mixture is heated to a dyeing temperature between 60°C and 180°C, - the plastics objects to be dyed are placed in the heated dye mixture for a period between 5 minutes and 6 hours, wherein the dyeing temperature does not exceed the melting point of the material of the plastics objects, and wherein, in a surface treatment step, - the surface of the plastics objects is blasted using plastics balls in order to smooth the surface of the molded parts, and - the surface of the plastics objects is blasted using plastics balls in order to smooth the surface of the molded parts, and wherein, in an impregnation step of a post-treatment step carried out after the dyeing step, the plastics objects are first dried and then the surface of the plastics objects is impregnated, wherein a polymer-based impregnation solution is used for the impregnation.
A power steering system comprising: a torque modifier module (914, 1014) that generates a modified torque command in response to a current sensor fault, a magnitude of the modified torque command changes over a time period; characterized by a feedforward selection module (918, 1008) that applies a dynamic feedforward compensation to a motor current command, thereby generating a motor voltage that is applied to a motor of the power steering system, the dynamic feedforward compensation modifies a frequency response of the power steering system, the motor current command is based on the modified torque command. a torque modifier module (914, 1014) that generates a modified torque command in response to a current sensor fault, a magnitude of the modified torque command changes over a time period; characterized by a feedforward selection module (918, 1008) that applies a dynamic feedforward compensation to a motor current command, thereby generating a motor voltage that is applied to a motor of the power steering system, the dynamic feedforward compensation modifies a frequency response of the power steering system, the motor current command is based on the modified torque command.
An on-body system for sensing an analyte in a living body, comprising: a cover at least partially containing a continuous glucose monitoring sensor having a microcontroller, the cover having a first bottom surface adapted to be adhered to a first area of a user's body; and an e-paper display; wherein the cover has a recess for removably receiving the e-paper display; wherein the e-paper display is adapted to be coupled to a second area of a user's body and adapted to display data transmitted by the microcontroller; and wherein the microcontroller includes a transceiver compatible with a transceiver integral with the e-paper display, wherein the transceivers are configured to use a capacitively coupled personal area network to transceive data between microcontroller and the e-paper display through the user's skin. a cover at least partially containing a continuous glucose monitoring sensor having a microcontroller, the cover having a first bottom surface adapted to be adhered to a first area of a user's body; and an e-paper display; wherein the cover has a recess for removably receiving the e-paper display; wherein the e-paper display is adapted to be coupled to a second area of a user's body and adapted to display data transmitted by the microcontroller; and wherein the microcontroller includes a transceiver compatible with a transceiver integral with the e-paper display, wherein the transceivers are configured to use a capacitively coupled personal area network to transceive data between microcontroller and the e-paper display through the user's skin.
An OLED lighting tile (350, 200, 400) comprising a substrate bearing an OLED structure extending laterally over said substrate and sandwiched between first and second electrode layers, wherein said first electrode layer defines a plurality of electrically conductive tracks and said second electrode layer comprises a substantially continuous electrically conducting layer, said OLED lighting tile having an electrical busbar connected to said electrically conductive tracks, said busbar extending substantially completely along each lateral edge of said lighting element, wherein said tracks run generally radially from a central location within said OLED lighting tile towards said busbar, and wherein a said track subdivides into a plurality of tracks with increasing distance from said central location, characterised in that said electrically conductive tracks fan out in a tree structure with increasing radial distance, wherein each track is connected to the busbar.