mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a grid , a data processing unit and a database , wherein the grid comprises a plurality of luminaires (101a-d), wherein each luminaire in the plurality of luminaires (101a-d) comprises one or more acoustic sensors and preferably other sensors ; wherein the grid further comprises a controller supplied with the output signals of said sensors , wherein the controller is arranged for discriminating different sound categories in the output signals, including human voice sound, and to issue a sensor information signal representing at least the sound category, wherein the sensor information signal is stored in the database , the system being characterized in that the data processing unit is configured to analyze the database for evaluating correlations between sensor information signals of sensors of different categories and/or different luminaires (101a-d), and wherein the data processing unit is further configured to generate a sound map depicting a propagation of sound in an environment of the grid based on the sensor information signals stored in the database . wherein the grid comprises a plurality of luminaires (101a-d), wherein each luminaire in the plurality of luminaires (101a-d) comprises one or more acoustic sensors and preferably other sensors ; wherein the grid further comprises a controller supplied with the output signals of said sensors , wherein the controller is arranged for discriminating different sound categories in the output signals, including human voice sound, and to issue a sensor information signal representing at least the sound category, wherein the sensor information signal is stored in the database , the system being characterized in that the data processing unit is configured to analyze the database for evaluating correlations between sensor information signals of sensors of different categories and/or different luminaires (101a-d), and wherein the data processing unit is further configured to generate a sound map depicting a propagation of sound in an environment of the grid based on the sensor information signals stored in the database .
An abutment for being coupled to an upper part of a dental implant fixture, comprising: a coupler configured to be coupled to a polygonal groove or a polygonal protrusion of the fixture; and a body configured to be mounted with a crown which is an artificial tooth wherein the body has a shape to be connected to a mount driver used for coupling the abutment to the fixture and serves as a scan body for digital impression; wherein the body includes: a lower body having a trapezoidal shape with a diameter gradually increasing downwards; and an upper body formed on the lower body and having a polyprism shape, characterized in that the abutment further comprises a plurality of grooves formed at a specific height of the upper body along the circumference of the upper body . a coupler configured to be coupled to a polygonal groove or a polygonal protrusion of the fixture; and a body configured to be mounted with a crown which is an artificial tooth wherein the body has a shape to be connected to a mount driver used for coupling the abutment to the fixture and serves as a scan body for digital impression; wherein the body includes: a lower body having a trapezoidal shape with a diameter gradually increasing downwards; and an upper body formed on the lower body and having a polyprism shape, characterized in that the abutment further comprises a plurality of grooves formed at a specific height of the upper body along the circumference of the upper body . a lower body having a trapezoidal shape with a diameter gradually increasing downwards; and an upper body formed on the lower body and having a polyprism shape, characterized in that the abutment further comprises a plurality of grooves formed at a specific height of the upper body along the circumference of the upper body .
Procedure for operating a field device (T1, T2) used in process automation technology, wherein data are exchanged between the field device (F1, F2) and an operating program (P1, P2, P3, P4) by means of at least a protocol, wherein the protocol comprises basic commands, which each field device compatible with the corresponding protocol must have, and via said basic commands basic functions (F1, F2, F3, F4) of the field device are called, wherein each field device (T1, T2) compatible with the protocol has said basic functions (F1, F2, F3, F4), characterized in that only basic commands of the protocol are used to transmit data between the operating program (P1, P2, P3, P4) and the field device (T1, T2).
A method of manufacturing a gear component comprising: spraying a powdered metal to form an additive manufactured core by cold spraying the powdered metal onto a substrate ; cold spraying a different powdered metal to form an additive manufactured set of teeth around the core; heat-treating the additive manufactured set of teeth; removing the substrate ; and final machining the additive manufactured set of teeth ; characterised in that : said set of teeth is manufactured of a tool steel alloy powder; said core and said set of teeth are manufactured as a near net shape; and said substrate has an outer diameter that becomes a gear shaft inner diameter of the near net shape component. spraying a powdered metal to form an additive manufactured core by cold spraying the powdered metal onto a substrate ; cold spraying a different powdered metal to form an additive manufactured set of teeth around the core; heat-treating the additive manufactured set of teeth; removing the substrate ; and final machining the additive manufactured set of teeth ; characterised in that : said set of teeth is manufactured of a tool steel alloy powder; said core and said set of teeth are manufactured as a near net shape; and said substrate has an outer diameter that becomes a gear shaft inner diameter of the near net shape component. said core and said set of teeth are manufactured as a near net shape; and said substrate has an outer diameter that becomes a gear shaft inner diameter of the near net shape component.
A phase-locked loop, PLL, circuit , comprising: an error detector operable to generate an error signal in response to comparison of a reference signal having a reference frequency and a feedback signal having a feedback frequency; an oscillator , coupled to the error detector , operable to provide an output signal having an output frequency based on the error signal and a frequency band select signal , the output frequency being a frequency multiplier times the reference frequency; a frequency divider , coupled to the oscillator , operable to divide the output frequency of the output signal to generate the feedback signal based on a divider control signal ; a sigma-delta modulator, SDM , coupled to the frequency divider , operable to generate the divider control signal based on inputs indicative of an integer value and a fractional value of the frequency multiplier, the SDM responsive to an order select signal operable to select an order of the SDM ; and a finite state machine operable to, in an acquisition state, generate the frequency band select signal and set the order of the SDM through the order select signal , wherein the finite state machine comprises: a frequency compare unit operable to compare the reference signal with the feedback signal; a coarse control unit operable to select a frequency band of a plurality of frequency bands of the oscillator through the frequency band select signal based at least in part on output of the frequency compare unit ; and a lock detect unit operable to detect a lock state of the PLL. an error detector operable to generate an error signal in response to comparison of a reference signal having a reference frequency and a feedback signal having a feedback frequency; an oscillator , coupled to the error detector , operable to provide an output signal having an output frequency based on the error signal and a frequency band select signal , the output frequency being a frequency multiplier times the reference frequency; a frequency divider , coupled to the oscillator , operable to divide the output frequency of the output signal to generate the feedback signal based on a divider control signal ; a sigma-delta modulator, SDM , coupled to the frequency divider , operable to generate the divider control signal based on inputs indicative of an integer value and a fractional value of the frequency multiplier, the SDM responsive to an order select signal operable to select an order of the SDM ; and a finite state machine operable to, in an acquisition state, generate the frequency band select signal and set the order of the SDM through the order select signal , wherein the finite state machine comprises: a frequency compare unit operable to compare the reference signal with the feedback signal; a coarse control unit operable to select a frequency band of a plurality of frequency bands of the oscillator through the frequency band select signal based at least in part on output of the frequency compare unit ; and a lock detect unit operable to detect a lock state of the PLL.
An apparatus of a base station communicatively coupled to at least one UE by a 3GPP network, the apparatus operable to encode a physical uplink control channel, PUCCH, resource indicator field length for transmission to a user equipment, UE, for enhanced Ultra Reliable Low Latency Communications, URLLC, eURLLC, the apparatus comprising: one or more processors characterized by being configured to: determine , at the base station, the PUCCH resource indicator field length that indicates a length of a PUCCH resource indicator field, wherein the PUCCH resource indicator field length is related to transmission of a number of PUCCH symbols for eURLLC; and encode , at the base station for transmission to the UE, the length of the PUCCH resource indicator field in downlink control information, DCI,; a memory interface configured to send to a memory the PUCCH resource indicator field length; and a transceiver configured to transmit, to the UE, the PUCCH resource indicator field length and the DCI comprising a PUCCH resource indicator field of the determined PUCCH resource indicator field length. determine , at the base station, the PUCCH resource indicator field length that indicates a length of a PUCCH resource indicator field, wherein the PUCCH resource indicator field length is related to transmission of a number of PUCCH symbols for eURLLC; and encode , at the base station for transmission to the UE, the length of the PUCCH resource indicator field in downlink control information, DCI,; a memory interface configured to send to a memory the PUCCH resource indicator field length; and a transceiver configured to transmit, to the UE, the PUCCH resource indicator field length and the DCI comprising a PUCCH resource indicator field of the determined PUCCH resource indicator field length.
Human-machine interface comprising a touch-sensitive means comprising an upper façade facing a user and a casing , said casing comprising an edge delimiting an opening , said touch-sensitive means being accommodated in a receiving zone of the casing at least in line with said opening , characterized in that the casing comprises at least one reinforcing means formed by a metal plate comprising a first part embedded in said edge of the casing and a second part protruding from the edge at said opening , the second part of the plate being parallel to the lower face of the touch-sensitive means, the reinforcing means comprising a hole delimited by said second part , said touch-sensitive means being secured to said second part in line with the hole , the edge of the casing having a façade strip , said upper façade and said façade strip being contained in one and the same plane (C), and wherein a levelling filling is interposed, for the one part, between the edge of the casing and the touch-sensitive means and, for the other part, between the reinforcing means and the touch-sensitive means, wherein said second part has an upper face facing a user and a lower face on the opposite side from the upper face , said touch-sensitive means being secured to said upper face of the second part of the reinforcing means , the material of which the touch-sensitive means is made and the material of which the reinforcing means is made having a coefficient of expansion identical to +/- 33%.
An active filter for a radio receiver, the active filter comprising: a first prototype active band pass filter comprising a first low noise amplifier, hereinafter referred to as LNA; a second LNA ; and a first bandpass filter connected between the first LNA and the second LNA ; wherein an input terminal of the first LNA is responsive to a GPS signal in a GPS frequency band that has been down-converted to an intermediate frequency; the active filter further comprising: a second prototype active passband filter comprising a third LNA that receives a signal corresponding to the output of the second LNA ; a fourth LNA ; a second bandpass filter connected between the third LNA and the fourth LNA . a first low noise amplifier, hereinafter referred to as LNA; a second LNA ; and a first bandpass filter connected between the first LNA and the second LNA ; wherein an input terminal of the first LNA is responsive to a GPS signal in a GPS frequency band that has been down-converted to an intermediate frequency; the active filter further comprising: a second prototype active passband filter comprising a third LNA that receives a signal corresponding to the output of the second LNA ; a fourth LNA ; a second bandpass filter connected between the third LNA and the fourth LNA . a second prototype active passband filter comprising a third LNA that receives a signal corresponding to the output of the second LNA ; a fourth LNA ; a second bandpass filter connected between the third LNA and the fourth LNA .
A user equipment, comprising: a wireless interface operative for communication with a cellular communication network, the user equipment being operative to receive prioritization information (81; 101) for a plurality of unlicensed carriers (53-57) from a cellular network node , the user equipment being operative to use the prioritization information (81; 101) for channel measurements or carrier selection, wherein the prioritization information defines a first set of unlicensed carriers and a second set of unlicensed carriers which is different from the first set of unlicensed carriers; the user equipment being operative to perform channel measurements for at least one carrier of the first set of unlicensed carriers while not performing channel measurements for the unlicensed carriers in the second set until a trigger event occurs; anc characterised in that : in response to detecting the trigger event, start performing channel measurements for at least one carrier of the second set of unlicensed carriers, while continuing to perform the channel measurements for the at least one carrier of the first set of unlicensed carriers. a wireless interface operative for communication with a cellular communication network, the user equipment being operative to receive prioritization information (81; 101) for a plurality of unlicensed carriers (53-57) from a cellular network node , the user equipment being operative to use the prioritization information (81; 101) for channel measurements or carrier selection, wherein the prioritization information defines a first set of unlicensed carriers and a second set of unlicensed carriers which is different from the first set of unlicensed carriers; the user equipment being operative to perform channel measurements for at least one carrier of the first set of unlicensed carriers while not performing channel measurements for the unlicensed carriers in the second set until a trigger event occurs; anc characterised in that : in response to detecting the trigger event, start performing channel measurements for at least one carrier of the second set of unlicensed carriers, while continuing to perform the channel measurements for the at least one carrier of the first set of unlicensed carriers.
A method of labeling data using a data security labeling framework, the method comprising: receiving a request for a data instance; locating the data instance; defining one or more security attributes to be used under one or more different contexts; and applying a label to the located data instance, wherein the label includes or is otherwise associated with the one or more security attributes and includes a data type and semantic type for the data instance, the semantic type being associated with a context of the one or more different contexts, wherein the semantic type is based on an application where the data instance is used and the one or more security attributes are based on at least one of a security application or security requirement. receiving a request for a data instance; locating the data instance; defining one or more security attributes to be used under one or more different contexts; and applying a label to the located data instance, wherein the label includes or is otherwise associated with the one or more security attributes and includes a data type and semantic type for the data instance, the semantic type being associated with a context of the one or more different contexts, wherein the semantic type is based on an application where the data instance is used and the one or more security attributes are based on at least one of a security application or security requirement.
A charge-transporting varnish containing a charge-transporting material and an organic solvent, wherein the charge-transporting material contains a heteropolyacid compound as a charge-transporting substance, the heteropolyacid as charge-transporting substance exhibiting a hole-transporting property and/or electron-transporting property, and wherein the heteropolyacid compound is uniformly dissolved in the organic solvent.
A transparent colourless coating material for marking plastics containing a base and 0.001-1% w/w of fluorescent markers, wherein the fluorescent markers have a form of organic chemical compounds showing fluorescence and being chemically immobilised on a spherical polymer matrix with a diameter range 0.1-20 μm, preferably in the range of 1-3 μm, the most preferably 2 μm, dispersed in the whole volume of coating material, and wherein the chemical compounds are selected from the list of compounds consisting of: 1,8-naphtalimide, acenaphthene, anthracene, benzimidazole, benzoxasole, benzoxazine, benzothiadiazole, benzothiazole, quinazoline, quinoline, dansyl, diazobenzene, diphenylanthracene, dicarboximide, phenanthrene, phenanthroline, phenanthridine, phenoxazine, phenylethynyl, phenylimidazole, flavone, fluorene, naphthalene, oxadiazole, pyrazoline, spiropyran, stilbene, thiadiazole, thiazole derivatives, preferably diallyl-fluorescein (I) , allyl-rhodamine B (II) , 4'-allyloxy-3-hydroxyflavone (III) , 2,5-bis(5-tert-butyl-benzoxazol-2-yl)thiophene (IV) , tert-butyl-pyrene (V) or fluorescein (VI), and wherein the base of the coating material is lacquer, silicone or aqueous dispersion of resins, preferably acrylic and alkyd ones, and wherein the coating material forming an identification code revealing itself in the form of fluorescent radiation after irradiation of the coating material with radiation with 250-650 nm wavelength.
Leather-like fabric in the form of a fibrous structure comprising ultrafine fibers having an average monofilament fineness of 0.0001 dtex or more and 0.5 dtex or less, at least one surface of the fibrous structure being napped, characterised by the napped surface having resin layers located discontinuously, and each of the resin layers containing two or more layers.
Method for the positionally accurate installation of a wire guide on a torch head for a coating system for thermal coating, including the following steps: by using an image capture device that has a predetermined spatial relationship with respect to the torch head , capturing an image that shows at least a portion of the torch head and at least a portion of the wire guide positioned on the torch head; processing the image to identify at least one first feature of the wire guide , based on which first feature a position (x1) of the wire guide on an axis (X) in the image can be determined, and at least one second feature of the portion of the torch head , based on which second feature a reference position (M) of the portion of the torch head in the image can be determined; determining the position (x1) of the wire guide based on the at least one identified first feature; determining the reference position (M) of the portion of the torch head based on the at least one identified second feature; and moving the wire guide along the axis (X) until the position (x1) of the wire guide has a predetermined positional relationship with respect to the reference position (M) of the portion of the torch head . by using an image capture device that has a predetermined spatial relationship with respect to the torch head , capturing an image that shows at least a portion of the torch head and at least a portion of the wire guide positioned on the torch head; processing the image to identify at least one first feature of the wire guide , based on which first feature a position (x1) of the wire guide on an axis (X) in the image can be determined, and at least one second feature of the portion of the torch head , based on which second feature a reference position (M) of the portion of the torch head in the image can be determined; determining the position (x1) of the wire guide based on the at least one identified first feature; determining the reference position (M) of the portion of the torch head based on the at least one identified second feature; and moving the wire guide along the axis (X) until the position (x1) of the wire guide has a predetermined positional relationship with respect to the reference position (M) of the portion of the torch head .
A method of automatically placing a drill bit used to form an opening in a subsurface formation on a bottom of the opening being formed, comprising: a) increasing a flow rate in a drill string to a target flow; b) monitoring and controlling a flow rate of fluid into the drill string to be substantially the same as a flowrate of fluid out of the opening, wherein controlling the flow rate of fluid into the drill string to be substantially the same as the flow rate of fluid out of the opening comprises controlling at least one of the flow rates such that the difference in flow rate into the drill string and out of the drill string is within user set point limits; c) allowing a fluid pressure to reach a relatively steady state, comprising allowing a standpipe pressure to be in a steady state within predetermined set point limits; the method is characterized in further comprising: d) automatically moving the drill bit toward the bottom of the opening at a selected rate of advance until an increase in measured differential pressure indicates that the drill bit is at the bottom of the opening. a) increasing a flow rate in a drill string to a target flow; b) monitoring and controlling a flow rate of fluid into the drill string to be substantially the same as a flowrate of fluid out of the opening, wherein controlling the flow rate of fluid into the drill string to be substantially the same as the flow rate of fluid out of the opening comprises controlling at least one of the flow rates such that the difference in flow rate into the drill string and out of the drill string is within user set point limits; c) allowing a fluid pressure to reach a relatively steady state, comprising allowing a standpipe pressure to be in a steady state within predetermined set point limits;