mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a display configured to display a screen; a display driver circuit configured to receive video information to control the display to display the screen; a module comprising a camera disposed in a first region of the display; and at least one processor operatively connected with the display driver circuit and the module, wherein at least one of the at least one processor or the display driver circuit is configured to: display a first image using the display; receive a user input to enlarge the first image; and in response to receiving the user input, compensate for a second image displayed in the first region based on a change in the second image of the first region of the screen or a change in a pixel value of the first region, wherein the second image is a partial image of the first image corresponding to the first region in the first image, wherein compensating for the second image displayed in the first region comprises setting a brightness value, a saturation value or a color value of the first region to gradually change from the module to an edge of the first region, such that the disturbance of the viewing of the screen by the module is reduced. a display configured to display a screen; a display driver circuit configured to receive video information to control the display to display the screen; a module comprising a camera disposed in a first region of the display; and at least one processor operatively connected with the display driver circuit and the module, wherein at least one of the at least one processor or the display driver circuit is configured to: display a first image using the display; receive a user input to enlarge the first image; and in response to receiving the user input, compensate for a second image displayed in the first region based on a change in the second image of the first region of the screen or a change in a pixel value of the first region, wherein the second image is a partial image of the first image corresponding to the first region in the first image, wherein compensating for the second image displayed in the first region comprises setting a brightness value, a saturation value or a color value of the first region to gradually change from the module to an edge of the first region, such that the disturbance of the viewing of the screen by the module is reduced. display a first image using the display; receive a user input to enlarge the first image; and in response to receiving the user input, compensate for a second image displayed in the first region based on a change in the second image of the first region of the screen or a change in a pixel value of the first region, wherein the second image is a partial image of the first image corresponding to the first region in the first image, wherein compensating for the second image displayed in the first region comprises setting a brightness value, a saturation value or a color value of the first region to gradually change from the module to an edge of the first region, such that the disturbance of the viewing of the screen by the module is reduced.
A gas turbine engine component (60A; 60B; 85), comprising: a body (62; 71; 87); a wall extending inside of said body (62; 71; 87) wherein said wall circumscribes a cavity formed through said body (62; 71; 87); and a plurality of vortex promoting features arranged in a helical pattern along said wall wherein said helical pattern extends along a direction of flow through said cavity ; characterised in that : the vortex promoting features are pedestals or hemispherical protrusions. a body (62; 71; 87); a wall extending inside of said body (62; 71; 87) wherein said wall circumscribes a cavity formed through said body (62; 71; 87); and a plurality of vortex promoting features arranged in a helical pattern along said wall wherein said helical pattern extends along a direction of flow through said cavity ; characterised in that : the vortex promoting features are pedestals or hemispherical protrusions.
A method for sending a channel state information, comprising: selecting , by a user equipment (UE), a first group of beams from a codebook of beams, the first group of beams having a predefined sequence; and transmitting , by the UE, a first group index to a base station (BS), the first group index uniquely identifying the first group of beams selected from the codebook of beams, a first number of bits representing the first group of beams being equal to ceiling log 2 N M , N being a number of codewords in the codebook of beams and M being a number of beams in the first group of beams. selecting , by a user equipment (UE), a first group of beams from a codebook of beams, the first group of beams having a predefined sequence; and transmitting , by the UE, a first group index to a base station (BS), the first group index uniquely identifying the first group of beams selected from the codebook of beams, a first number of bits representing the first group of beams being equal to ceiling log 2 N M , N being a number of codewords in the codebook of beams and M being a number of beams in the first group of beams.
A device comprising: at least one processor ; and at least one memory including computer program code ; the at least one memory and the computer program code configured to, with the at least one processor , cause the device to: send at an attack tracer to a first service function chain domain of a plurality of service function chain domains (205-1, 205-2, 205-3, 205-4), a request for tracing an attack source of an attacking data flow passing through the plurality of service function chain domains (205-1, 205-2, 205-3, 205-4) subsequently, characterized in that the request includes flow characteristics of the attacking data flow; receive, from the first service function chain domain , a first set of results of flow matching based on the flow characteristics; and identify the attack source in the plurality of service function chain domains (205-1, 205-2, 205-3, 205-4) at least in part based on the first set of results. at least one processor ; and at least one memory including computer program code ; the at least one memory and the computer program code configured to, with the at least one processor , cause the device to: send at an attack tracer to a first service function chain domain of a plurality of service function chain domains (205-1, 205-2, 205-3, 205-4), a request for tracing an attack source of an attacking data flow passing through the plurality of service function chain domains (205-1, 205-2, 205-3, 205-4) subsequently, characterized in that the request includes flow characteristics of the attacking data flow; receive, from the first service function chain domain , a first set of results of flow matching based on the flow characteristics; and identify the attack source in the plurality of service function chain domains (205-1, 205-2, 205-3, 205-4) at least in part based on the first set of results. send at an attack tracer to a first service function chain domain of a plurality of service function chain domains (205-1, 205-2, 205-3, 205-4), a request for tracing an attack source of an attacking data flow passing through the plurality of service function chain domains (205-1, 205-2, 205-3, 205-4) subsequently, characterized in that the request includes flow characteristics of the attacking data flow; receive, from the first service function chain domain , a first set of results of flow matching based on the flow characteristics; and identify the attack source in the plurality of service function chain domains (205-1, 205-2, 205-3, 205-4) at least in part based on the first set of results.
A method of controlling discontinuous reception between a mobile radio communications network device and a mobile radio communications device within a mobile radio communications network, comprising: controlling the magnitude of the discontinuous reception period in a manner responsive to the velocity of movement of the mobile radio communications device within the network in a direction towards, or away from, the mobile radio communications network device , and wherein the velocity of the of the mobile radio communications device is employed to decide how frequently the mobile radio communications device has to perform uplink timing update to keep uplink time synchronised, wherein the uplink timing update rate decides an upper limit of the discontinuous reception period, and wherein the discontinuous reception period increases when the velocity of the mobile radio communications device decreases. controlling the magnitude of the discontinuous reception period in a manner responsive to the velocity of movement of the mobile radio communications device within the network in a direction towards, or away from, the mobile radio communications network device , and wherein the velocity of the of the mobile radio communications device is employed to decide how frequently the mobile radio communications device has to perform uplink timing update to keep uplink time synchronised, wherein the uplink timing update rate decides an upper limit of the discontinuous reception period, and wherein the discontinuous reception period increases when the velocity of the mobile radio communications device decreases.
A method of weld repairing an aerospace honeycomb component , comprising: identifying a contaminant in the component ; immobilizing the contaminant within the component via a specific thermal cycle related to the contaminant; wherein the thermal cycle is adapted for controlled evaporation of contaminant volatiles and controlled coking of remaining contaminant; and weld repairing the component subsequent to immobilizing the contaminant. identifying a contaminant in the component ; immobilizing the contaminant within the component via a specific thermal cycle related to the contaminant; wherein the thermal cycle is adapted for controlled evaporation of contaminant volatiles and controlled coking of remaining contaminant; and weld repairing the component subsequent to immobilizing the contaminant.
A method of measuring a rotational position of a tool in a borehole penetrating a formation , comprising: using a gyroscope disposed on the tool to obtain a first measurement of rotation rate of the tool; using at least one accelerometer (308a; 308b) disposed on the tool to obtain a second measurement of rotation rate of the tool; and characterised by using a processor to: generate an estimate of the rotation rate of the tool using the first measurement of the rotation rate and the second measurement of the rotation rate, wherein the estimate of the rotation rate of the tool includes the first measurement of rotation rate for those time periods during which the first measurement of rotation rate is less than a threshold of the gyroscope and the second measurement of rotation rate for those time periods during which the first measurement of rotation rate is equal to or greater than the threshold, and use the estimate of the rotation rate to determine the rotational position of the tool during rotation of the tool. using a gyroscope disposed on the tool to obtain a first measurement of rotation rate of the tool; using at least one accelerometer (308a; 308b) disposed on the tool to obtain a second measurement of rotation rate of the tool; and characterised by using a processor to: generate an estimate of the rotation rate of the tool using the first measurement of the rotation rate and the second measurement of the rotation rate, wherein the estimate of the rotation rate of the tool includes the first measurement of rotation rate for those time periods during which the first measurement of rotation rate is less than a threshold of the gyroscope and the second measurement of rotation rate for those time periods during which the first measurement of rotation rate is equal to or greater than the threshold, and use the estimate of the rotation rate to determine the rotational position of the tool during rotation of the tool. generate an estimate of the rotation rate of the tool using the first measurement of the rotation rate and the second measurement of the rotation rate, wherein the estimate of the rotation rate of the tool includes the first measurement of rotation rate for those time periods during which the first measurement of rotation rate is less than a threshold of the gyroscope and the second measurement of rotation rate for those time periods during which the first measurement of rotation rate is equal to or greater than the threshold, and use the estimate of the rotation rate to determine the rotational position of the tool during rotation of the tool.
An aircraft loader for transferring loads into and out of an aircraft, comprising: a ground-engaging frame ; a loading platform adapted to raise and lower relative to the frame , wherein the loading platform comprises an upper deck having a top surface; and a plurality of cargo slider elements disposed on the upper deck of the loading platform to project above the upper deck to support loads carried by the loading platform and facilitate movement of the loads about the loading platform characterized in that the cargo slider elements are static upwardly convex cargo slider elements . a ground-engaging frame ; a loading platform adapted to raise and lower relative to the frame , wherein the loading platform comprises an upper deck having a top surface; and a plurality of cargo slider elements disposed on the upper deck of the loading platform to project above the upper deck to support loads carried by the loading platform and facilitate movement of the loads about the loading platform characterized in that the cargo slider elements are static upwardly convex cargo slider elements .
A method for wireless communication, comprising: Receiving a first message from a user equipment, UE, that has a first discontinuous reception, DRX, cycle used by a first network to page the UE and a second DRX cycle used by a second network to page the UE , wherein the first DRX cycle is longer than the second DRX cycle; and in that the method is characterized by : Determining an indication of whether the second DRX cycle can be ignored or is to be considered by the UE ; and sending a second message comprising the indication to the UE . Determining an indication of whether the second DRX cycle can be ignored or is to be considered by the UE ; and sending a second message comprising the indication to the UE .
A method for embedding an operating system, OS, in a smart card product , which is certified and which derives multiple variants from the operating system, the method comprising the steps of: certifying , a target of evaluation , the target of evaluation including an OS core mask and a plurality of components which includes OS components and placeholders for plugin components; building , by an image builder tool, romized content and runtime content including at least one of the plurality of components; customizing which of the plurality of components to include on the smart card product by removing some of the features from the romized content and runtime content, whereby the romized content and runtime content dynamically determine whether a component is present and how to react to the absence of a component; and providing, after said certifying, the operating system with at least one of the plugin components corresponding to said placeholders . certifying , a target of evaluation , the target of evaluation including an OS core mask and a plurality of components which includes OS components and placeholders for plugin components; building , by an image builder tool, romized content and runtime content including at least one of the plurality of components; customizing which of the plurality of components to include on the smart card product by removing some of the features from the romized content and runtime content, whereby the romized content and runtime content dynamically determine whether a component is present and how to react to the absence of a component; and providing, after said certifying, the operating system with at least one of the plugin components corresponding to said placeholders .
A multilayer film comprising at least one core layer comprising a polypropylene composition comprising: A) From 95 wt% to 60 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25 °C greater than 90 wt%; B) From 5wt% to 40 wt%; of an heterophasic propylene ethylene copolymer having: i) xylene soluble fraction at 25 °C ranging from 52 wt% to 74 wt%; ii) intrinsic viscosity of the fraction soluble in xylene at 25 °C ranging from 2.5 to 5 dl/g; iii) melt flow rate, MFR, Measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 0.2 g/10 min to 1.5 g/10 min; iv) flexural modulus lower than 300 MPa; and v) an ethylene derived units content ranging from 10 wt% to 30 wt%; the sum of the amounts of A) and B) being 100. A) From 95 wt% to 60 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25 °C greater than 90 wt%; B) From 5wt% to 40 wt%; of an heterophasic propylene ethylene copolymer having: i) xylene soluble fraction at 25 °C ranging from 52 wt% to 74 wt%; ii) intrinsic viscosity of the fraction soluble in xylene at 25 °C ranging from 2.5 to 5 dl/g; iii) melt flow rate, MFR, Measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 0.2 g/10 min to 1.5 g/10 min; iv) flexural modulus lower than 300 MPa; and v) an ethylene derived units content ranging from 10 wt% to 30 wt%; the sum of the amounts of A) and B) being 100. i) xylene soluble fraction at 25 °C ranging from 52 wt% to 74 wt%; ii) intrinsic viscosity of the fraction soluble in xylene at 25 °C ranging from 2.5 to 5 dl/g; iii) melt flow rate, MFR, Measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 0.2 g/10 min to 1.5 g/10 min; iv) flexural modulus lower than 300 MPa; and v) an ethylene derived units content ranging from 10 wt% to 30 wt%;
Apparatus comprising: electrodes configured to be placed upon a portion of a body of a subject; a user interface device ; and at least one computer processor configured to: apply a neuromodulation treatment to the subject, by driving electrical pulses into the portion of the subject's body via the electrodes; characterized in that the at least one computer processor is further configured to: generate an output on the user interface device that indicates to the subject a physiological effect that the neuromodulation treatment has upon the subject's body. electrodes configured to be placed upon a portion of a body of a subject; a user interface device ; and at least one computer processor configured to: apply a neuromodulation treatment to the subject, by driving electrical pulses apply a neuromodulation treatment to the subject, by driving electrical pulses into the portion of the subject's body via the electrodes; characterized in that the at least one computer processor is further configured to: generate an output on the user interface device that indicates to the subject a physiological effect that the neuromodulation treatment has upon the subject's body.
A transmitter for a wireless optical communication system comprising a M -PAM modulator transforming data to be transmitted into PAM alphabet symbols with M levels where M > 2 and an optical source for transmitting said data, characterised in that it comprises: - a conversion module adapted to convert, from a one-to-one conversion table, each M -PAM symbol into a plurality of logic outputs; - a plurality of parallel branches , each branch comprising a switched current source , mounted in series with the optical source, each switched current source being controlled by a logic output of the conversion module. - a conversion module adapted to convert, from a one-to-one conversion table, each M -PAM symbol into a plurality of logic outputs; - a plurality of parallel branches , each branch comprising a switched current source , mounted in series with the optical source, each switched current source being controlled by a logic output of the conversion module.
An introducer assembly for introducing an orthopedic implant into a subject comprising: a. an introducer ; and b. said implant , wherein said implant comprises a biocomposite material; wherein said introducer initiates a cavity for said implant, wherein said assembly is inserted into said cavity to thereby extend said cavity, and wherein said introducer is retracted from said assembly leaving said implant in said cavity; wherein said biocomposite material comprises a biocompatible absorbable polymer, reinforcement filler and a coupling agent; wherein said reinforcement filler comprises a volume of said implant selected from the group consisting of: more than 40% w/w; and more than 45% w/w; wherein the elastic modulus of said biocomposite material is selected from the group consisting of: 10 GPa, above 15 GPa, and above 20 GPa; wherein the elastic modulus of said biocomposite material is selected from the group consisting of: not exceeding 100 GPa; and not exceeding 60 GPa; and wherein the flexural modulus of said implant is selected from the group consisting of: more than 200 MPa; more than 300 MPa; and more than 400 MPa; characterized in that said introducer can bear an axial force of more than 50N. a. an introducer ; and b. said implant , wherein said implant comprises a biocomposite material; wherein said introducer initiates a cavity for said implant, wherein said assembly is inserted into said cavity to thereby extend said cavity, and wherein said introducer is retracted from said assembly leaving said implant in said cavity;