mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing system for correcting brightness of saturated pixels in an image sensor, the image processing system comprising: a pixel brightness measurement engine configured to measure a pixel brightness of a plurality of pixels for image data captured by a camera; a pixel saturation comparator configured to compare a measured pixel brightness of at least one of the plurality of pixels with first and second saturation thresholds, wherein the second saturation threshold is greater than the first saturation threshold; a pixel brightness selector configured to select the measured pixel brightness of the at least one pixel as an output pixel brightness when the measured pixel brightness of the at least pixel is less than the first saturation threshold, and to select a measured pixel brightness of at least one neighboring pixel as the output pixel brightness when the measured pixel brightness of the at least pixel is greater than the second saturation threshold; a pixel brightness interpolator configured to calculate an interpolated brightness value as the output pixel brightness when the measured pixel brightness of at least one pixel is between the first and second saturation thresholds; and an image generator configured to display on a display device the image data having either the selected output pixel brightness of the at least one pixel of at least one of the plurality of pixels or the interpolated brightness value calculated by the pixel brightness interpolator when the measured pixel brightness of at least one pixel is between the first and second saturation thresholds. a pixel brightness measurement engine configured to measure a pixel brightness of a plurality of pixels for image data captured by a camera; a pixel saturation comparator configured to compare a measured pixel brightness of at least one of the plurality of pixels with first and second saturation thresholds, wherein the second saturation threshold is greater than the first saturation threshold; a pixel brightness selector configured to select the measured pixel brightness of the at least one pixel as an output pixel brightness when the measured pixel brightness of the at least pixel is less than the first saturation threshold, and to select a measured pixel brightness of at least one neighboring pixel as the output pixel brightness when the measured pixel brightness of the at least pixel is greater than the second saturation threshold; a pixel brightness interpolator configured to calculate an interpolated brightness value as the output pixel brightness when the measured pixel brightness of at least one pixel is between the first and second saturation thresholds; and an image generator configured to display on a display device the image data having either the selected output pixel brightness of the at least one pixel of at least one of the plurality of pixels or the interpolated brightness value calculated by the pixel brightness interpolator when the measured pixel brightness of at least one pixel is between the first and second saturation thresholds.
A method for controlling a communication system for an electric meter , the communication system being adapted to be connected to the electric meter and to transmit data from the electric meter to a user , the method being implemented by an electronic control device and comprising the following step: - acquisition of a first identifier, the first identifier being capable of uniquely identifying the user , characterised in that it further comprises the following steps: - receiving second and third identifiers from the communication system , the second identifier being capable of uniquely identifying the communication system and the third identifier being capable of uniquely identifying the electric meter , and - testing the validity of a pairing of the communication system with the electric meter , as a function of the first, second and third identifiers; the pairing being authorised in the event of a positive test and inhibited otherwise. - acquisition of a first identifier, the first identifier being capable of uniquely identifying the user , - receiving second and third identifiers from the communication system , the second identifier being capable of uniquely identifying the communication system and the third identifier being capable of uniquely identifying the electric meter , and - testing the validity of a pairing of the communication system with the electric meter , as a function of the first, second and third identifiers; the pairing being authorised in the event of a positive test and inhibited otherwise.
A system, comprising: a packet switch for routing network traffic, the packet switch including a system counter to increment a counter time in predetermined time segments, time stamping logic to associate each received packet with the counter time at an instant of arrival of each received packet, and an interval discriminator with a set of rules to assign each received packet to a selected interval counter of a set of interval counters (306_1-306_N) based upon the counter time associated with each received packet; and a computer connected to the packet switch, the computer including a memory with instructions executed by a processor to: associate the counter time of each received packet with a time of day, and collect the counter time of each received packet from the set of interval counters to generate network traffic activity data. a packet switch for routing network traffic, the packet switch including a system counter to increment a counter time in predetermined time segments, time stamping logic to associate each received packet with the counter time at an instant of arrival of each received packet, and an interval discriminator with a set of rules to assign each received packet to a selected interval counter of a set of interval counters (306_1-306_N) based upon the counter time associated with each received packet; and a computer connected to the packet switch, the computer including a memory with instructions executed by a processor to: associate the counter time of each received packet with a time of day, and collect the counter time of each received packet from the set of interval counters to generate network traffic activity data. associate the counter time of each received packet with a time of day, and collect the counter time of each received packet from the set of interval counters to generate network traffic activity data.
A method for controlling an unmanned aerial vehicle , wherein the method is performed by a control device , and the method comprises: acquiring a first setting instruction corresponding to a flight area of the unmanned aerial vehicle ; generating a flight area control parameter according to the first setting instruction; and transmitting the flight area control parameter to the unmanned aerial vehicle ; wherein the unmanned aerial vehicle is configured to determine the flight area based on the flight area control parameter and cruise within the flight area ; characterized by acquiring a flight path within the flight area selected by a user from a pre-set flight path library and transmitting the flight path to the unmanned aerial vehicle by transmitting an identification of the flight path selected by the user to the unmanned aerial vehicle so that the unmanned aerial vehicle flies on the flight path periodically in a reciprocating manner. acquiring a first setting instruction corresponding to a flight area of the unmanned aerial vehicle ; generating a flight area control parameter according to the first setting instruction; and transmitting the flight area control parameter to the unmanned aerial vehicle ; wherein the unmanned aerial vehicle is configured to determine the flight area based on the flight area control parameter and cruise within the flight area ; characterized by acquiring a flight path within the flight area selected by a user from a pre-set flight path library and transmitting the flight path to the unmanned aerial vehicle by transmitting an identification of the flight path selected by the user to the unmanned aerial vehicle so that the unmanned aerial vehicle flies on the flight path periodically in a reciprocating manner.
Device for use in negative pressure therapy of endoluminal wound sites in the gastrointestinal tract, comprising a sponge body , and a suction hose connected non-detachably to the sponge body by means of adhesive , wherein the suction hose has at least a first portion , a second portion and a third portion , and wherein the sponge body , at the production stage, encloses the first portion and the second portion of the suction hose , and wherein the sponge body does not enclose the third portion of the suction hose , and wherein, furthermore, at least one opening is present in the region of the first portion of the suction hose , characterized in that the suction hose is connected non-detachably to the sponge body by means of adhesive at the production stage in the region of the first portion , and in that the suction hose has no adhesive in the region of the second portion , wherein the first portion of the suction hose is present in the fluid system upstream from the second portion .
Method for detecting a valid ultrasonic signal in an ultrasonic system of a vehicle, having the steps of: • capturing an ultrasonic signal using an ultrasonic sensor, • filtering the ultrasonic signal using a first filter and at least one second filter , wherein the first filter generates a first filter signal and the second filter generates a second filter signal , • wherein the method step of filtering involves the ultrasonic signal being filtered by the first filter and by the second filter at the same time, ∘ wherein the first filter is a filter that is signal-matched to an ultrasonic signal transmitted by the ultrasonic sensor, ∘ wherein the second filter is a filter that is mismatched to an ultrasonic signal transmitted by the ultrasonic sensor and therefore signal-matched to an ultrasonic signal alien to the ultrasonic sensor, • the first filter signal represents a threshold value and • the method comprises the further steps of: • comparing the second filter signal with the threshold value and • detecting the valid ultrasonic signal and outputting the valid ultrasonic signal as an output signal if the second filter signal is below the threshold value. • capturing an ultrasonic signal using an ultrasonic sensor, • filtering the ultrasonic signal using a first filter and at least one second filter , wherein the first filter generates a first filter signal and the second filter generates a second filter signal , • wherein the method step of filtering involves the ultrasonic signal being filtered by the first filter and by the second filter at the same time, ∘ wherein the first filter is a filter that is signal-matched to an ultrasonic signal transmitted by the ultrasonic sensor, ∘ wherein the second filter is a filter that is mismatched to an ultrasonic signal transmitted by the ultrasonic sensor and therefore signal-matched to an ultrasonic signal alien to the ultrasonic sensor, ∘ wherein the first filter is a filter that is signal-matched to an ultrasonic signal transmitted by the ultrasonic sensor, ∘ wherein the second filter is a filter that is mismatched to an ultrasonic signal transmitted by the ultrasonic sensor and therefore signal-matched to an ultrasonic signal alien to the ultrasonic sensor, • the first filter signal represents a threshold value and • the method comprises the further steps of: • comparing the second filter signal with the threshold value and • detecting the valid ultrasonic signal and outputting the valid ultrasonic signal as an output signal if the second filter signal is below the threshold value. • comparing the second filter signal with the threshold value and • detecting the valid ultrasonic signal and outputting the valid ultrasonic signal as an output signal if the second filter signal is below the threshold value.
A method for quantifying ammonia, comprising providing an ammonia-containing sample, carrying out glutamine synthetase reaction using the ammonia-containing sample in a reaction system containing ammonia, adenosine triphosphate (ATP), and L-glutamate to generate adenosine diphosphate (ADP), and quantifying ammonia based on the amount of ADP produced or the amount of reaction product produced from the ADP, wherein said reaction system further contains a chelating agent.
Method for bending extruded profiled elements , comprising the steps: a. Step A: Providing an extruded profile extending along a profile axis (A) with at least one profile section in which the center of area (F2) of the cross-sectional shape (Q2) is offset with respect to the profile axis (A). b. Step B: Bending of the at least one profile section such that the center of area (F2') of the cross-sectional shape (Q2') is shifted in the direction of the profile axis (A) toward the inner side of the bending facing the center of curvature of the bending, and preferably coincides with the profile axis (A), characterised in that the profile section is arranged between two neighbouring sections adjacent along the profile axis (A) wherein in step B the cross-sectional shape (Q2) of the extruded profile in the profile section is aligned exactly or substantially to the cross-sectional shape (Q3) of the extruded profile in the neighbouring sections. a. Step A: Providing an extruded profile extending along a profile axis (A) with at least one profile section in which the center of area (F2) of the cross-sectional shape (Q2) is offset with respect to the profile axis (A). b. Step B: Bending of the at least one profile section such that the center of area (F2') of the cross-sectional shape (Q2') is shifted in the direction of the profile axis (A) toward the inner side of the bending facing the center of curvature of the bending, and preferably coincides with the profile axis (A),
An image processing apparatus comprising: an image data generation unit configured to generate recording image data by image capturing through an image capturing optical system ; and an information addition unit configured to add information to the recording image data, wherein the image data generation unit is configured to perform, on each of frame images of captured image data generated by image capturing, electronic image stabilization that clips a part of the frame image of the captured image data so as to reduce image blur, characterized in that the information addition unit is configured to add to the recording image data, when the image capturing optical system is an anamorphic optical system, information on a compression rate of the anamorphic optical system, and information indicating a center position of the anamorphic optical system in each of frame images constituting the recording image data, wherein each frame image of the recording image data is data of image area clipped by electronic image stabilization. an image data generation unit configured to generate recording image data by image capturing through an image capturing optical system ; and an information addition unit configured to add information to the recording image data, wherein the image data generation unit is configured to perform, on each of frame images of captured image data generated by image capturing, electronic image stabilization that clips a part of the frame image of the captured image data so as to reduce image blur, characterized in that the information addition unit is configured to add to the recording image data, when the image capturing optical system is an anamorphic optical system, information on a compression rate of the anamorphic optical system, and information indicating a center position of the anamorphic optical system in each of frame images constituting the recording image data, wherein each frame image of the recording image data is data of image area clipped by electronic image stabilization.
A radioimmunoconjugate that binds human CD37 comprising: a) an antibody molecule that binds to human CD37, and that is a chimeric antibody, defined by: i) a variable heavy chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO: 1; ii) a variable light chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:3, iii) constant heavy and light chains that are of human origin, wherein said constant heavy chain i) comprises amino acid sequences encoded by the nucleic acid sequences shown in SEQ ID NO:5, SEQ ID NO:6, and SEQ ID NO:7 and wherein said constant light chain ii) comprises an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:9, b) a linker, and c) a 212 Pb radionuclide. a) an antibody molecule that binds to human CD37, and that is a chimeric antibody, defined by: i) a variable heavy chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO: 1; ii) a variable light chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:3, iii) constant heavy and light chains that are of human origin, wherein said constant heavy chain i) comprises amino acid sequences encoded by the nucleic acid sequences shown in SEQ ID NO:5, SEQ ID NO:6, and SEQ ID NO:7 and wherein said constant light chain ii) comprises an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:9, i) a variable heavy chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO: 1; ii) a variable light chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:3, iii) constant heavy and light chains that are of human origin, wherein said constant heavy chain i) comprises amino acid sequences encoded by the nucleic acid sequences shown in SEQ ID NO:5, SEQ ID NO:6, and SEQ ID NO:7 and wherein said constant light chain ii) comprises an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:9, b) a linker, and c) a 212 Pb radionuclide.
An optical system comprising: a first lens , a second lens , a third lens , and a fourth lens sequentially arranged from an object side to an image side; wherein the first lens has a positive power, and includes a convex object-side surface and a concave image-side surface , the second lens has a negative power, and includes a concave object-side surface and an image-side surface which is concave or convex, the third lens has a positive power, and includes a concave object-side surface and a convex image-side surface , the fourth lens has a negative power, and includes a convex object-side surface and a concave image-side surface , characterized in that : an F value is 1.4 or less; a ratio (total top length (TTL)/F value) of a TTL to the F value is in a range of 2.6 to 2.9. a first lens , a second lens , a third lens , and a fourth lens sequentially arranged from an object side to an image side; wherein the first lens has a positive power, and includes a convex object-side surface and a concave image-side surface , the second lens has a negative power, and includes a concave object-side surface and an image-side surface which is concave or convex, the third lens has a positive power, and includes a concave object-side surface and a convex image-side surface , the fourth lens has a negative power, and includes a convex object-side surface and a concave image-side surface , characterized in that : an F value is 1.4 or less; a ratio (total top length (TTL)/F value) of a TTL to the F value is in a range of 2.6 to 2.9. an F value is 1.4 or less; a ratio (total top length (TTL)/F value) of a TTL to the F value is in a range of 2.6 to 2.9.
A method performed by a network node for supporting a Voice over IP, VoIP, service of a wireless device, the network node being operable in a wireless communication network, the method comprising, when a channel quality of a channel between the wireless device and the network node falls below a predetermined threshold: - determining aggregated Quality of Service, QoS, requirements with regard to Guaranteed Bit Rate, GBR, for services which the wireless device is currently using, - determining an achievable bitrate using Transmission Time Interval, TTI, bundling and - determining to enable TTI bundling of the wireless device based on the determined aggregated GBR requirement and the determined achievable bitrate. - determining aggregated Quality of Service, QoS, requirements with regard to Guaranteed Bit Rate, GBR, for services which the wireless device is currently using, - determining an achievable bitrate using Transmission Time Interval, TTI, bundling and - determining to enable TTI bundling of the wireless device based on the determined aggregated GBR requirement and the determined achievable bitrate.
A method for manufacturing a testing head of a non-destructive testing sensor based on eddy currents, this testing head comprising at least one coil (E, R; E, R + , R - ), at least one of which has a transmitting function and at least one of which has a receiving function, comprising the following steps: - optimising a geometric design (P i , P f ) of said at least one coil (E, R; E, R + , R - ) of the testing head (10; 10') on the basis of at least one predetermined optimisation criterion, - manufacturing the testing head (10; 10') in accordance with the geometric design (P i , P f ) of said at least one coil (E, R; E, R + , R - ) that carries out this optimisation , characterised in that said at least one predetermined optimisation criterion comprises a criterion (C1) for optimising compliance with a relationship of proportionality between a variation in the imaginary part of a complex electrical quantity induced in said at least one coil with a receiving function (R; R + , R - ) and a variation in the real part of this complex electrical quantity, when these variations, forming a complex variation in said induced electrical quantity, are due to a variation in the electrical conductivity and/or magnetic permeability of a part to be inspected. - optimising a geometric design (P i , P f ) of said at least one coil (E, R; E, R + , R - ) of the testing head (10; 10') on the basis of at least one predetermined optimisation criterion, - manufacturing the testing head (10; 10') in accordance with the geometric design (P i , P f ) of said at least one coil (E, R; E, R + , R - ) that carries out this optimisation ,
A computer-implemented method for selecting a myopia control treatment for an individual comprising: receiving, via an interface at a computer, data relating to refractive change in a prior pre-determined time period for the individual from a reference timepoint ; receiving, via the interface, data representing an age of the individual and data representing a current axial length value of the eye as measured at the reference timepoint ; predicting, by a processor, a future axial elongation of the eye as a function of the age of the individual, the current axial length value of the eye as measured at the reference timepoint, and said refractive change in the prior pre-determined time period ; generating, an output indication of said predicted future axial elongation of the eye via the interface, and using said output indication to select a myopia control treatment for said individual . receiving, via an interface at a computer, data relating to refractive change in a prior pre-determined time period for the individual from a reference timepoint ; receiving, via the interface, data representing an age of the individual and data representing a current axial length value of the eye as measured at the reference timepoint ; predicting, by a processor, a future axial elongation of the eye as a function of the age of the individual, the current axial length value of the eye as measured at the reference timepoint, and said refractive change in the prior pre-determined time period ; generating, an output indication of said predicted future axial elongation of the eye via the interface, and using said output indication to select a myopia control treatment for said individual .