mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method comprising: during a Transmission Control Protocol, TCP, session between a sending endpoint computer and a receiving endpoint computer, monitoring, by the sending endpoint computer, amounts of data sent and patterns of data loss as data is sent to the receiving endpoint computer; periodically determining, by the sending endpoint computer, whether data is being sent below, at or above path capacity, based on the monitored amounts of data sent and patterns of data loss; and periodically dynamically adjusting, by the sending endpoint computer, a rate at which data is sent to the receiving endpoint computer, in response to determining whether data is being sent below, at or above path capacity; during sending of data by the sending endpoint computer to the receiving endpoint computer, the sending endpoint computer enforcing the periodically dynamically adjusted rate using a token bucket; dividing, by the sending endpoint computer, tokens of the token bucket into a plurality of slices; and pacing release of the plurality of slices and corresponding sending of data to the receiving endpoint computer across the management cycle, by the sending endpoint computer. during a Transmission Control Protocol, TCP, session between a sending endpoint computer and a receiving endpoint computer, monitoring, by the sending endpoint computer, amounts of data sent and patterns of data loss as data is sent to the receiving endpoint computer; periodically determining, by the sending endpoint computer, whether data is being sent below, at or above path capacity, based on the monitored amounts of data sent and patterns of data loss; and periodically dynamically adjusting, by the sending endpoint computer, a rate at which data is sent to the receiving endpoint computer, in response to determining whether data is being sent below, at or above path capacity; during sending of data by the sending endpoint computer to the receiving endpoint computer, the sending endpoint computer enforcing the periodically dynamically adjusted rate using a token bucket; dividing, by the sending endpoint computer, tokens of the token bucket into a plurality of slices; and pacing release of the plurality of slices and corresponding sending of data to the receiving endpoint computer across the management cycle, by the sending endpoint computer.
A harmonic time interleave, HTI, system , comprising: a sample clock configured to provide a reference signal; a summing component configured to receive the reference signal at a first input and a delayed harmonic signal derived from the reference signal at a second input, the summing component producing a summed reference signal; a splitter component configured to receive an input signal and having a plurality of outputs for developing at each of the plurality of outputs a respective output signal exhibiting substantially the same bandwidth as the input signal; a first plurality of delay blocks (112A-112n) each configured to receive a respective output signal from the splitter ; a plurality of mixing components (114A-114n) each configured to receive the summed reference signal from the summing component and an output signal from a corresponding one of the first plurality of delay blocks (112A-112n); a plurality of digitizing components (116A-116n) each configured to receive the reference signal from the sample clock and an output from a corresponding one of the plurality of mixing components (114A-114n); and a controller implementing a poly-phase filter matrix block configured to receive an output from each of the plurality of digitizing components, and implementing an interleave reconstruction block configured to receive an output from the poly-phase filter matrix block and interleave time domain signal samples from each digitizing component (116A-116n) to create a substantially full-bandwidth digital representation of the input signal. a sample clock configured to provide a reference signal; a summing component configured to receive the reference signal at a first input and a delayed harmonic signal derived from the reference signal at a second input, the summing component producing a summed reference signal; a splitter component configured to receive an input signal and having a plurality of outputs for developing at each of the plurality of outputs a respective output signal exhibiting substantially the same bandwidth as the input signal; a first plurality of delay blocks (112A-112n) each configured to receive a respective output signal from the splitter ; a plurality of mixing components (114A-114n) each configured to receive the summed reference signal from the summing component and an output signal from a corresponding one of the first plurality of delay blocks (112A-112n); a plurality of digitizing components (116A-116n) each configured to receive the reference signal from the sample clock and an output from a corresponding one of the plurality of mixing components (114A-114n); and a controller implementing a poly-phase filter matrix block configured to receive an output from each of the plurality of digitizing components, and implementing an interleave reconstruction block configured to receive an output from the poly-phase filter matrix block and interleave time domain signal samples from each digitizing component (116A-116n) to create a substantially full-bandwidth digital representation of the input signal.
A wavelength conversion device comprising: a substrate ; a phosphor layer supported by the substrate , the phosphor layer including a matrix containing zinc oxide and phosphor particles embedded in the matrix ; a seed crystal layer disposed between the substrate and the phosphor layer and functioning as a seed crystal for the matrix of the phosphor layer ; a protective layer contacting the seed crystal layer ; and a dielectric layer contacting the protective layer , characterized in that the protective layer has an isoelectric point equal to or larger than 7. a substrate ; a phosphor layer supported by the substrate , the phosphor layer including a matrix containing zinc oxide and phosphor particles embedded in the matrix ; a seed crystal layer disposed between the substrate and the phosphor layer and functioning as a seed crystal for the matrix of the phosphor layer ; a protective layer contacting the seed crystal layer ; and a dielectric layer contacting the protective layer , characterized in that the protective layer has an isoelectric point equal to or larger than 7.
A lens block for an optical connection, comprising: at least one optical channel having an optical interface portion , wherein the at least one optical channel further comprises a lens; a total internal reflection surface for turning the optical signal of the at least one optical channel ; at least one fiber lead-in aligned to the total internal reflection surface ; and one or more openings adapted for receiving one or more magnetic materials attached to the lens block . at least one optical channel having an optical interface portion , wherein the at least one optical channel further comprises a lens; a total internal reflection surface for turning the optical signal of the at least one optical channel ; at least one fiber lead-in aligned to the total internal reflection surface ; and one or more openings adapted for receiving one or more magnetic materials attached to the lens block .
Process for loading a blank composed of fused silica with hydrogen, wherein the loading comprises two steps, wherein the blank is loaded at a first temperature (T 1 ) and a first hydrogen partial pressure (p 1 ) in the first step and is loaded at a second temperature (T 2 ) which is different from the first temperature and a second hydrogen partial pressure (p 2 ) which is different from the first hydrogen partial pressure in the second step, wherein the first and second temperatures (T 1 , T 2 ) are lower than a limit temperature (T L ) at which thermal formation of silane in the fused silica of the blank commences and wherein the blank is loaded in the second step at a lower temperature (T 2 < T 1 ) than in the first step.
An X-ray tube comprising: a vacuum housing configured to include an internal space, the internal space being vacuum; a target unit disposed in the internal space, and configured to include a target (T) configured to generate an X-ray by using an electron beam incident therein, and a target support unit configured to support the target, the X-ray generated by the target being transmitted through the target support unit; an X-ray emission window provided so as to face the target support unit, and configured to seal an opening of the vacuum housing, the X-rays transmitted through the target support unit being transmitted through the X-ray emission window; characterized in that the x-ray tube further comprises an elastic member configured to press the target unit in such a direction as to approach the X-ray emission window; and a target shift unit configured to shift the target unit pressed by the elastic member in a direction crossing an incidence direction of the electron beam. a vacuum housing configured to include an internal space, the internal space being vacuum; a target unit disposed in the internal space, and configured to include a target (T) configured to generate an X-ray by using an electron beam incident therein, and a target support unit configured to support the target, the X-ray generated by the target being transmitted through the target support unit; an X-ray emission window provided so as to face the target support unit, and configured to seal an opening of the vacuum housing, the X-rays transmitted through the target support unit being transmitted through the X-ray emission window; characterized in that the x-ray tube further comprises an elastic member configured to press the target unit in such a direction as to approach the X-ray emission window; and a target shift unit configured to shift the target unit pressed by the elastic member in a direction crossing an incidence direction of the electron beam.
Compressor comprising a housing in which an impeller is mounted so as to be rotatable about an axis of rotation and is driven in order to compress a medium with the aid of a blading on an impeller front side , wherein an axial force is produced on the impeller , which has an impeller rear side facing a housing wall , wherein a pressure prevails in an impeller side space between the impeller rear side and the housing wall , said pressure bringing about an opposing axial force, which counteracts the axial force on the impeller front side , on the impeller rear side , characterized in that the impeller side space is divided into pressure sub-spaces by seals (11, 12; 38; 41) which are operative under centrifugal force.
An ophthalmic lens comprising: a lens having a diopter power, a blue-cut wafer attached to the lens, one or more of blue blocking dyes blended with a thermoplastic resin injection molded into the blue-cut wafer, or a thermoplastic blue-cut film thermoformed into the blue-cut wafer, wherein the blue-cut wafer is configured to reduce by absorption at least a portion of light having a first wavelength range from 400 nanometers to 500 nanometers, and homogenize a color appearance and a blue-cut performance level of the blue-cut wafer, wherein the blue-cut wafer has center thickness and edge thickness, the center-to-edge thickness variation of the blue-cut wafer being within twenty percent, in such a manner as ΔE ≤ 1, where ΔE is the color difference between the wafer center and the wafer edge calculated using the CIE76 color-difference formula. a lens having a diopter power, a blue-cut wafer attached to the lens, one or more of blue blocking dyes blended with a thermoplastic resin injection molded into the blue-cut wafer, or a thermoplastic blue-cut film thermoformed into the blue-cut wafer, wherein the blue-cut wafer is configured to reduce by absorption at least a portion of light having a first wavelength range from 400 nanometers to 500 nanometers, and homogenize a color appearance and a blue-cut performance level of the blue-cut wafer,
A power supply ready indicator circuit comprising: a first power-supply-ready-input coupled to a first power supply rail; a second power-supply-ready-input coupled to a second power supply rail; a power ready indicator output ; a voltage divider having an input coupled to the first power-supply-ready-input and a voltage divider output ; a comparator having a first comparator input coupled to the second power-supply-ready-input , a second input coupled to the voltage divider output , and an output coupled to the power ready indicator output ; wherein the comparator is configured to generate the power ready signal in response to the voltage at the voltage divider output exceeding the voltage at the second power-supply-ready-input; wherein the power supply ready indicator circuit is configured to output a power ready signal on the power ready indicator output in response to the divided voltage value being greater than the second power supply rail voltage value, wherein the final value of the first power supply rail voltage is greater than the final value of the second power supply rail voltage, and wherein the voltage divider has a further input coupled to the power ready indicator output and is configured to increase the divided voltage value in response to the power ready signal being generated. a first power-supply-ready-input coupled to a first power supply rail; a second power-supply-ready-input coupled to a second power supply rail; a power ready indicator output ; a voltage divider having an input coupled to the first power-supply-ready-input and a voltage divider output ; a comparator having a first comparator input coupled to the second power-supply-ready-input , a second input coupled to the voltage divider output , and an output coupled to the power ready indicator output ; wherein the comparator is configured to generate the power ready signal in response to the voltage at the voltage divider output exceeding the voltage at the second power-supply-ready-input; wherein the power supply ready indicator circuit is configured to output a power ready signal on the power ready indicator output in response to the divided voltage value being greater than the second power supply rail voltage value, wherein the final value of the first power supply rail voltage is greater than the final value of the second power supply rail voltage, and wherein the voltage divider has a further input coupled to the power ready indicator output and is configured to increase the divided voltage value in response to the power ready signal being generated.
A method of manufacture within a confined space defined in part by a wall, comprising: moving an inner end effector into the confined space, the inner end effector having a clamping block attached thereto; positioning an outer end effector over the target, the outer end effector carrying an electromagnet; energizing the electromagnet such that the outer end effector magnetically attracts the clamping block to clamp the wall between the inner and outer end effectors ; and using an actuator assembly and two and only two telescoping lead screw assemblies cantilevered from the actuator assembly to translate and rotate the inner end effector until the inner end effector achieves a desired orientation with respect to a target within the confined space, the two lead screw assemblies consisting of first and second parallel telescoping lead screw assemblies . moving an inner end effector into the confined space, the inner end effector having a clamping block attached thereto; positioning an outer end effector over the target, the outer end effector carrying an electromagnet; energizing the electromagnet such that the outer end effector magnetically attracts the clamping block to clamp the wall between the inner and outer end effectors ; and using an actuator assembly and two and only two telescoping lead screw assemblies cantilevered from the actuator assembly to translate and rotate the inner end effector until the inner end effector achieves a desired orientation with respect to a target within the confined space, the two lead screw assemblies consisting of first and second parallel telescoping lead screw assemblies .
A communication device (200a-c, 201a-d) configured to operate in a network-assisted communication mode and an ad-hoc communication mode, wherein there is only a control plane between the communication device (200a-200c) in the network-assisted communication mode and a base station of a cellular network, and there is both a control plane and a data plane between the communication devices (201a-d) in the ad-hoc communication mode, characterized in that in the network-assisted communication mode the communication device (200a-c) is configured to transmit control data related to the network-assisted communication mode using a first communication resource being associated with the network-assisted communication mode to another communication device (200a-c) within a control channel , and wherein in the ad-hoc communication mode the communication device (201a-d) is configured to transmit control data related to the ad-hoc communication mode using a second communication resource being associated with the ad-hoc communication mode to another communication device (201a-d) within the control channel .
Cutting head for a motor strimmer, comprising a divided main body having an upper main body part and a lower main body part ; wherein a screw element is disposed on the lower main body part ; wherein the screw element serves for fastening to an output shaft of a motor strimmer; wherein at least one receptacle for fastening a cutting tool is provided between the upper main body part and the lower main body part ; wherein the main body is able to be rotationally driven about its rotation axis during operation of a motor strimmer; wherein the upper main body part and the lower main body part are held to one another by means of a releasable snap-fit connection , characterized in that the snap-fit connection has a spacing (a) which is measured in the radial direction relative to the rotation axis and which is at most 40% of the diameter (d) of the cutting head . comprising a divided main body having an upper main body part and a lower main body part ; wherein a screw element is disposed on the lower main body part ; wherein the screw element serves for fastening to an output shaft of a motor strimmer; wherein at least one receptacle for fastening a cutting tool is provided between the upper main body part and the lower main body part ; wherein the main body is able to be rotationally driven about its rotation axis during operation of a motor strimmer; wherein the upper main body part and the lower main body part are held to one another by means of a releasable snap-fit connection , characterized in that the snap-fit connection has a spacing (a) which is measured in the radial direction relative to the rotation axis and which is at most 40% of the diameter (d) of the cutting head .
A system in a computing device to protect data stored by the computing device, comprising: a user input pattern monitor configured to determine whether a detected user interaction pattern with a user interface of the computing device indicates an interaction by an unauthorized user; and a data protection enactor configured to discretely enact a data protection response associated with data when the detected user interaction pattern is determined by the user input pattern monitor to indicate an interaction by an unauthorized user, wherein the user input pattern monitor is configured to compare the detected user interaction pattern with an acceptable user interaction pattern to determine whether the detected user interaction pattern indicates an interaction by an unauthorized user, wherein the user interface comprises a keyboard, and characterised in that the acceptable user interaction pattern for the keyboard includes a predetermined typographical error. a user input pattern monitor configured to determine whether a detected user interaction pattern with a user interface of the computing device indicates an interaction by an unauthorized user; and a data protection enactor configured to discretely enact a data protection response associated with data when the detected user interaction pattern is determined by the user input pattern monitor to indicate an interaction by an unauthorized user, wherein the user input pattern monitor is configured to compare the detected user interaction pattern with an acceptable user interaction pattern to determine whether the detected user interaction pattern indicates an interaction by an unauthorized user, wherein the user interface comprises a keyboard, and characterised in that the acceptable user interaction pattern for the keyboard includes a predetermined typographical error.
An organic electroluminescent device comprising a hole injection layer or a hole transport layer, comprising a composition comprising: (a) at least one conductive conjugated polymer doped with a redox dopant and upon doping possessing a band gap of less than 1 eV, said conductive conjugated polymer being a polythiophene ; and (b) at least one semiconducting matrix component possessing a band gap of from 1 eV to 3 eV that is different from the conductive conjugated polymer in (a); wherein the semiconducting matrix component is a semiconducting polymer selected from the group consisting of polymers comprised of repeat units comprising hole transporting compound units in the main-chain and/or in a side-chain, polyarylamine ketone polymers, polyaromatic polymers, polyvinyl aromatic polymers, fluorene-based polymers, poly(N,N'-bis(4-butylphenyl)-N, N' -bis(phenyl)benzidine and poly(copper phthalocyanine); and wherein the composition comprises less than 5 % (w/w) of an insulating matrix component calculated on the basis of the weight of all solids in the composition, wherein the insulating matrix component is a polymer possessing a band gap of greater than 3 eV. (a) at least one conductive conjugated polymer doped with a redox dopant and upon doping possessing a band gap of less than 1 eV, said conductive conjugated polymer being a polythiophene ; and (b) at least one semiconducting matrix component possessing a band gap of from 1 eV to 3 eV that is different from the conductive conjugated polymer in (a);
A method for manufacturing a tire with a monolayer belt component, the method comprising the steps of: winding a cord or a strip comprising at least one cord continuously about a first drum according to a pre-defined pattern to create a mesh of cords or strips defining a monolayer belt component ; applying a tread component to the monolayer belt component ; transferring the monolayer belt component and the tread component to a second drum; applying the monolayer belt component and the tread component to a carcass component on the second drum, the carcass component being inflated at a predetermined inflation pressure; reducing the predetermined inflation pressure of the carcass component by a predetermined amount; and stitching the monolayer belt component and the tread component to the carcass component. winding a cord or a strip comprising at least one cord continuously about a first drum according to a pre-defined pattern to create a mesh of cords or strips defining a monolayer belt component ; applying a tread component to the monolayer belt component ; transferring the monolayer belt component and the tread component to a second drum; applying the monolayer belt component and the tread component to a carcass component on the second drum, the carcass component being inflated at a predetermined inflation pressure; reducing the predetermined inflation pressure of the carcass component by a predetermined amount; and stitching the monolayer belt component and the tread component to the carcass component.