mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless device , the method comprising: determining a coverage level provided to the wireless device by each cell among a plurality of cells of a wireless communication network ; wherein determining the coverage level provided to the wireless device by each cell among the plurality of cells comprises making a radio-signal measurement with respect to each cell and yielding a resulting measurement value for each cell ; selecting one cell from among the plurality of cells as a camping cell , for camping on by the wireless device while the wireless device is in a dormant state, according to the determined coverage levels and one or more cell prioritizations corresponding to one or more possible multi-cell configurations, each multi-cell configuration corresponding to serving the wireless device using a respective combination of cells from among the plurality of cells ; wherein a multi-cell configuration is one of the one or more possible multi-cell configurations if each cell in the combination provides at least a threshold level of coverage to the wireless device ; and camping on the selected cell while the wireless device is in a dormant state. determining a coverage level provided to the wireless device by each cell among a plurality of cells of a wireless communication network ; wherein determining the coverage level provided to the wireless device by each cell among the plurality of cells comprises making a radio-signal measurement with respect to each cell and yielding a resulting measurement value for each cell ; selecting one cell from among the plurality of cells as a camping cell , for camping on by the wireless device while the wireless device is in a dormant state, according to the determined coverage levels and one or more cell prioritizations corresponding to one or more possible multi-cell configurations, each multi-cell configuration corresponding to serving the wireless device using a respective combination of cells from among the plurality of cells ; wherein a multi-cell configuration is one of the one or more possible multi-cell configurations if each cell in the combination provides at least a threshold level of coverage to the wireless device ; and camping on the selected cell while the wireless device is in a dormant state.
An apparatus comprising: (a) a bag having at least a first opening and a second opening, the bag comprising a first sheet coupled to a second sheet along a periphery of the first sheet and the second sheet ; (b) a first closing device coupled to the first opening, the first closing device able to repeatedly open and seal the first opening; and (c) a second closing device coupled to the second opening, the second closing device able to repeatedly open and seal the second opening; wherein the second closing device includes a collar affixed to the first sheet , and a cap , characterised in that the second closing device further includes a bottom cap , wherein the cap and the bottom cap releasably sealingly engage to define a watertight housing and the bottom cap forms a sealed relationship with the collar . (a) a bag having at least a first opening and a second opening, the bag comprising a first sheet coupled to a second sheet along a periphery of the first sheet and the second sheet ; (b) a first closing device coupled to the first opening, the first closing device able to repeatedly open and seal the first opening; and (c) a second closing device coupled to the second opening, the second closing device able to repeatedly open and seal the second opening; wherein the second closing device includes a collar affixed to the first sheet , and a cap , characterised in that the second closing device further includes a bottom cap , wherein the cap and the bottom cap releasably sealingly engage to define a watertight housing and the bottom cap forms a sealed relationship with the collar .
An anti-friction electrically insulated bearing system , comprising: a bracket disposed about a motor driveshaft ; a bearing disposed within the bracket configured to support the driveshaft for rotation; an outer bearing cap disposed proximal a drive end of the bracket ; an inner bearing cap ; and an electrical insulation sleeve press-fit into the bracket and radially abutting the bearing , wherein the outer bearing cap , the inner bearing cap and the electrical insulation sleeve are configured as modular components of the system. a bracket disposed about a motor driveshaft ; a bearing disposed within the bracket configured to support the driveshaft for rotation; an outer bearing cap disposed proximal a drive end of the bracket ; an inner bearing cap ; and an electrical insulation sleeve press-fit into the bracket and radially abutting the bearing , wherein the outer bearing cap , the inner bearing cap and the electrical insulation sleeve are configured as modular components of the system.
A method used in a User Equipment (UE) for Access Node (AN) search, the method including: determining (S510) an initial receiving time-spatial sweeping pattern based on a current state of the UE, which comprises: determining (S510) one or more AN search requirements based on the current state of the UE,wherein determining (S510) one or more AN search requirements based on the current state of the UE is characterized by : determining an AN search requirement as minimizing searching time if the UE is in a powering up state; determining an AN search requirement as minimizing searching time if the UE is in an idle state or connected state and Reference Signal Received Power (RSRP) of the UE is lower than a predetermined threshold; and determining an AN search requirement as minimizing power consumption for the UE, if the UE is in an idle state or connected state and RSRP of the UE is larger than or equal to the predetermined threshold; and selecting a receiving time-spatial sweeping pattern as the initial receiving time-spatial sweeping pattern from a predetermined receiving time-spatial sweeping pattern information table according to the determined one or more AN search requirements; and performing AN search (S520) by using the initial receiving time-spatial sweeping pattern. determining (S510) one or more AN search requirements based on the current state of the UE,wherein determining (S510) one or more AN search requirements based on the current state of the UE is characterized by : determining an AN search requirement as minimizing searching time if the UE is in a powering up state; determining an AN search requirement as minimizing searching time if the UE is in an idle state or connected state and Reference Signal Received Power (RSRP) of the UE is lower than a predetermined threshold; and determining an AN search requirement as minimizing power consumption for the UE, if the UE is in an idle state or connected state and RSRP of the UE is larger than or equal to the predetermined threshold; determining an AN search requirement as minimizing searching time if the UE is in a powering up state; determining an AN search requirement as minimizing searching time if the UE is in an idle state or connected state and Reference Signal Received Power (RSRP) of the UE is lower than a predetermined threshold; and determining an AN search requirement as minimizing power consumption for the UE, if the UE is in an idle state or connected state and RSRP of the UE is larger than or equal to the predetermined threshold; and selecting a receiving time-spatial sweeping pattern as the initial receiving time-spatial sweeping pattern from a predetermined receiving time-spatial sweeping pattern information table according to the determined one or more AN search requirements; and performing AN search (S520) by using the initial receiving time-spatial sweeping pattern.
Method for determining the absolute speed of a rail vehicle, sensor devices and a signal processing device being provided on board, comprising the following method steps: a. detecting the unevennesses of the rail , in each case, at a leading wheelset by means of a first sensor device and at least at a following wheelset by means of a further sensor device ; b. transmission of the sensor signals generated by the sensor devices to a signal processing device that is configured to determine, by means of an analysis of the sensor signals supplied, with the aid of an adaptive FIR filter (Finite Impulse Response Filter), the absolute speed wherein, for this purpose, the temporal position of the value maximum in the filter coefficients of the estimated transfer functions (UTF) between the sensor signals is used. a. detecting the unevennesses of the rail , in each case, at a leading wheelset by means of a first sensor device and at least at a following wheelset by means of a further sensor device ; b. transmission of the sensor signals generated by the sensor devices to a signal processing device that is configured to determine, by means of an analysis of the sensor signals supplied, with the aid of an adaptive FIR filter (Finite Impulse Response Filter), the absolute speed wherein, for this purpose, the temporal position of the value maximum in the filter coefficients of the estimated transfer functions (UTF) between the sensor signals is used.
A pericardial modification device comprising a shaft and an incisor , wherein the incisor comprises a tip and a cutting portion , and wherein the device is a reverse cutting device, wherein the cutting portion is sharpened for shearing pericardial tissue, and wherein the device includes nerve stimulation capabilities from a pacing probe. wherein the cutting portion is sharpened for shearing pericardial tissue, and wherein the device includes nerve stimulation capabilities from a pacing probe.
A water heating device with a heat pump for a building, connected to at least one domestic hot water circuit 3 and to at least one heating circuit 4, 5, and consisting of an interior module comprising a hot water tank 6 and the condenser 7 of the heat pump, and an exterior unit 2 of the heat pump comprising an evaporator, a pressure reducer and a compressor, characterised in that the interior module comprises two separate parts, a mobile unit 1 in the form of a movable cabinet placed on the floor and a fixed plate 20 comprising means for securing to a wall 100 of the building, said plate 20 comprising connection means 26, 26' between the mobile unit 1 and the respective domestic hot water 3 and heating 4, 5 circuits as well as the exterior unit 2 of the heat pump, the mobile unit 1 comprising a free space 10 inside the volume of the cabinet that can accommodate said plate 20 and opening into the wall of the cabinet opposite its front.
Anode controller-based request responding method, wherein the method comprises: receiving , by a first node controller, a snoop packet sent by an interface of a second node controller, wherein a destination node identifier DNID of the snoop packet indicates a first processor; characterised by acquiring processor presence information, wherein the processor presence information comprises information about whether a processor exists on a current node; identifying, according to the processor presence information, whether the first processor exists; and if the first processor does not exist, generating an invalid response packet and sending the invalid response packet to the interface of the second node controller, wherein a DNID of the invalid response packet is a source node identifier SNID of the snoop packet, and an SNID of the invalid response packet is a DNID of the snoop packet. receiving , by a first node controller, a snoop packet sent by an interface of a second node controller, wherein a destination node identifier DNID of the snoop packet indicates a first processor; characterised by acquiring processor presence information, wherein the processor presence information comprises information about whether a processor exists on a current node; identifying, according to the processor presence information, whether the first processor exists; and if the first processor does not exist, generating an invalid response packet and sending the invalid response packet to the interface of the second node controller, wherein a DNID of the invalid response packet is a source node identifier SNID of the snoop packet, and an SNID of the invalid response packet is a DNID of the snoop packet.
An ex vivo method for assessing whether a subject has an endometrial carcinoma, the method comprising determining a methylation state of a target gene as a biomarker in a sample derived from the endometrial tissue or cervical scraping cells of the subject, wherein the target gene is BHLHE22 or THY1; and the hypermethylation of the biomarker is an indication that the subject has an endometrial carcinoma.
Sensor arrangement comprising: - a wheel sensor which is arranged to detect wheels of rail vehicles, - a carrier , and - a connector , wherein - the wheel sensor is fixed on the carrier , characterised in that - the connector is fixed to the carrier , and - the connector is electrically connected with at least one electrical contact of the wheel sensor . - a wheel sensor which is arranged to detect wheels of rail vehicles, - a carrier , and - a connector , wherein - the wheel sensor is fixed on the carrier , - the connector is fixed to the carrier , and - the connector is electrically connected with at least one electrical contact of the wheel sensor .
Fog-generating device , adapted to produce fog to increase the safety level of an alarm system, of the type which comprises a heat accumulator adapted to store thermal energy and to release it to a fog-generating fluid, to produce steam, said fog-generating device comprising: - first heating means adapted to produce said thermal energy; - second means adapted to put said fog-generating fluid in contact with said heat accumulator; - third means adapted to support a thermal exchange between said heat accumulator and said fog-generating fluid, said thermal exchange being enough to support a production of steam; - fourth means adapted to expel the steam produced following a vaporization of said fog-generating fluid; wherein said third means, adapted to support a thermal exchange between said heat accumulator and said fog-generating fluid, comprise a thermal mass composed of a plurality of metal plates housed, inside a container , in order to locate a path of the fog-generating fluid adapted to cover the surface of said metal plates , generating a vaporization of said fog-generating fluid, said plates being composed of first plates and second plates and being assembled in order to locate meatuses adapted to allow a flow of the fog-generating fluid, means being provided which are adapted to hydraulically mutually connect said meatuses, said hydraulic connection means, adapted to hydraulically mutually connect said meatuses comprising a plurality of first holes or areas and a plurality of second holes or areas made on said plates , characterised in that said first holes or areas being made next to the external edge of said first plates , while said second holes or areas are arranged at the inside of said second plates next to the core of said fog-generating device, said first plates being alternated with said second plates inside said container . - first heating means adapted to produce said thermal energy; - second means adapted to put said fog-generating fluid in contact with said heat accumulator; - third means adapted to support a thermal exchange between said heat accumulator and said fog-generating fluid, said thermal exchange being enough to support a production of steam; - fourth means adapted to expel the steam produced following a vaporization of said fog-generating fluid;
A method, performed in a radio network node , of receiving transmission feedback, the method comprising: - transmitting (S1), using a set of transmission properties, a transport block to a receiving wireless device ; and - receiving (S2), from the receiving wireless device , an acknowledgement, ACK, confirming reception and successful decoding of the transport block in the receiving wireless device , the ACK defines a decoding margin of the decoding, wherein the decoding margin indicates a number of hardware units being activated or used during reception and/or decoding of the transport block. - transmitting (S1), using a set of transmission properties, a transport block to a receiving wireless device ; and - receiving (S2), from the receiving wireless device , an acknowledgement, ACK, confirming reception and successful decoding of the transport block in the receiving wireless device , the ACK defines a decoding margin of the decoding, wherein the decoding margin indicates a number of hardware units being activated or used during reception and/or decoding of the transport block.
A preform configured to form a container by stretch blow molding, the preform comprising: a finish portion at a first end of the preform , the finish portion is a container finish of the container ; a tip portion at a second end of the preform opposite to the first end , the tip portion configured to form a container base and a container heel of the container ; and an outer surface of the tip portion including a flat surface (F), a first radius (R 1 ) on a first side of the flat surface (F), a second radius (R 2 ) between the first radius (R 1 ) and the flat surface (F), a third radius (R 3 ) extending from the flat surface (F) on a second side of the flat surface (F), and a fourth radius (R 4 ) extending from the third radius (R 3 ) towards the second end of the preform through which a longitudinal axis (A) of the preform extends, characterized in that the second radius (R 2 ) is greater than the first radius (R 1 ),and the fourth radius (R 4 ) is greater than the third radius (R 3 ), and an inner surface of the preform includes a fifth radius (R 5 ) that extends entirely across the inner surface . a finish portion at a first end of the preform , the finish portion is a container finish of the container ; a tip portion at a second end of the preform opposite to the first end , the tip portion configured to form a container base and a container heel of the container ; and an outer surface of the tip portion including a flat surface (F), a first radius (R 1 ) on a first side of the flat surface (F), a second radius (R 2 ) between the first radius (R 1 ) and the flat surface (F), a third radius (R 3 ) extending from the flat surface (F) on a second side of the flat surface (F), and a fourth radius (R 4 ) extending from the third radius (R 3 ) towards the second end of the preform through which a longitudinal axis (A) of the preform extends, characterized in that the second radius (R 2 ) is greater than the first radius (R 1 ),and the fourth radius (R 4 ) is greater than the third radius (R 3 ), and an inner surface of the preform includes a fifth radius (R 5 ) that extends entirely across the inner surface .
A computer-implemented method of managing message content, comprising: receiving, by one or more computing devices , a message comprising textual data for an audio content and image data for a visual media content ; identifying the textual data as audio content of the message and the image data as visual media content of the message for respectively distributing them to an audio device (106A, 106B, 106D; 302; 704) and a display device (106B, 106C, 106D; 304); converting the textual data to an audio format; sending, by the one or more computing devices , a first set of data descriptive of the audio content to the audio device (106A, 106B, 106D; 302; 704), wherein the audio device (106A, 106B, 106D; 302) is configured to communicate the audio content in the audio format to the user of the audio device (106A, 106B, 106D; 302); sending, by the one or more computing devices , a second set of data descriptive of the visual media content to the display device (106B, 106C, 106D; 304), wherein the display device (106B, 106C, 106D; 304) is configured to display the visual media content for the user ; and providing, by the one or more computing devices , a notification to the user of the audio device (106A, 106B, 106D; 302) to view the visual media content on the display device (106B, 106C, 106D; 304). receiving, by one or more computing devices , a message comprising textual data for an audio content and image data for a visual media content ; identifying the textual data as audio content of the message and the image data as visual media content of the message for respectively distributing them to an audio device (106A, 106B, 106D; 302; 704) and a display device (106B, 106C, 106D; 304); converting the textual data to an audio format; sending, by the one or more computing devices , a first set of data descriptive of the audio content to the audio device (106A, 106B, 106D; 302; 704), wherein the audio device (106A, 106B, 106D; 302) is configured to communicate the audio content in the audio format to the user of the audio device (106A, 106B, 106D; 302); sending, by the one or more computing devices , a second set of data descriptive of the visual media content to the display device (106B, 106C, 106D; 304), wherein the display device (106B, 106C, 106D; 304) is configured to display the visual media content for the user ; and providing, by the one or more computing devices , a notification to the user of the audio device (106A, 106B, 106D; 302) to view the visual media content on the display device (106B, 106C, 106D; 304).
A method for wireless communication, characterized by comprising: transmitting a first control channel in a first period of time, wherein the first control channel carries scheduling information of a first data channel ; receiving or transmitting the first data channel in a second period of time according to the scheduling information of the first data channel ; and transmitting a second control channel in a frequency division multiplexing manner with the first data channel in part time of the second period of time, wherein a data channel scheduled by the second control channel does not comprise the first data channel, and a starting position of the part time is not earlier than an ending position of the first period of time ; wherein the first control channel is a first physical downlink control channel, PDCCH, and the second control channel is a second PDCCH, and wherein the first PDCCH, the second PDCCH, the first data channel, and the data channel scheduled by the second PDCCH are located in a plurality of symbols of three adjacent slots. transmitting a first control channel in a first period of time, wherein the first control channel carries scheduling information of a first data channel ; receiving or transmitting the first data channel in a second period of time according to the scheduling information of the first data channel ; and transmitting a second control channel in a frequency division multiplexing manner with the first data channel in part time of the second period of time, wherein a data channel scheduled by the second control channel does not comprise the first data channel, and a starting position of the part time is not earlier than an ending position of the first period of time ; wherein the first control channel is a first physical downlink control channel, PDCCH, and the second control channel is a second PDCCH, and wherein the first PDCCH, the second PDCCH, the first data channel, and the data channel scheduled by the second PDCCH are located in a plurality of symbols of three adjacent slots.