mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the size of particles for use in a system that comprises an adjustable light source constructed to direct a beam of electromagnetic radiation at a specimen chamber that allows a portion of the beam to scatter when illuminating the particles within the chamber , wherein the scattered portion is directed to a sensor , the sensor having a frame rate with a time period between frames, the method comprising: A. activating the light source and obtaining images from sensor; B. if the images from the sensor show that particles are blinking; i. reducing the frame rate ; ii. setting an exposure time to at least 60% of the time between frames ; iii. reducing illumination ; C. obtaining images from the sensor based on the new settings of step (B) ; D. processing images to mitigate blurring ; E. determining the Brownian motion of the particles from the processed images ; F. determining the sizes of the particles based on the Brownian motion . A. activating the light source and obtaining images from sensor; B. if the images from the sensor show that particles are blinking; i. reducing the frame rate ; ii. setting an exposure time to at least 60% of the time between frames ; iii. reducing illumination ; i. reducing the frame rate ; ii. setting an exposure time to at least 60% of the time between frames ; iii. reducing illumination ; C. obtaining images from the sensor based on the new settings of step (B) ; D. processing images to mitigate blurring ; E. determining the Brownian motion of the particles from the processed images ; F. determining the sizes of the particles based on the Brownian motion .
A system for determining frequency spacings of a multi-tone drive signal to prevent intermodulation distortion signal interference, the system comprising: a sensor assembly ; and a meter verification module communicatively coupled to the sensor assembly , the meter verification module being configured to: determine a frequency of a first signal to be applied to the sensor assembly of a vibratory meter; set a demodulation window about the frequency of the first signal; and determine a frequency of a second signal to be applied to the sensor assembly such that a frequency of an intermodulation distortion signal generated by the first signal and the second signal is outside the demodulation window. a sensor assembly ; and a meter verification module communicatively coupled to the sensor assembly , the meter verification module being configured to: determine a frequency of a first signal to be applied to the sensor assembly of a vibratory meter; set a demodulation window about the frequency of the first signal; and determine a frequency of a second signal to be applied to the sensor assembly such that a frequency of an intermodulation distortion signal generated by the first signal and the second signal is outside the demodulation window. determine a frequency of a first signal to be applied to the sensor assembly of a vibratory meter; set a demodulation window about the frequency of the first signal; and determine a frequency of a second signal to be applied to the sensor assembly such that a frequency of an intermodulation distortion signal generated by the first signal and the second signal is outside the demodulation window.
A visual compensation system allowing observation along an optical axis (X) of observation with an optical correction of variable power, comprising: - a first optical element rotatable with a rotary movement centred on the optical axis (X) and having a first cylindrical power along the optical axis (X); - a second optical element rotatable with a rotary movement centred on the optical axis (X) and having a second cylindrical power along the optical axis (X); - a lens having for axis said optical axis and of variable spherical power, characterised in that it comprises a mechanism driven by a motor designed to drive a ring for controlling the spherical power of the lens of variable spherical power to rotate. - a first optical element rotatable with a rotary movement centred on the optical axis (X) and having a first cylindrical power along the optical axis (X); - a second optical element rotatable with a rotary movement centred on the optical axis (X) and having a second cylindrical power along the optical axis (X); - a lens having for axis said optical axis and of variable spherical power,
A hybrid photosensitive resin, characterized in that the hybrid photosensitive resin has a structure represented by general formula (I): R 1 represents a C 1 -C 40 linear or branched m-valent alkyl group, a C 2 -C 20 m-valent alkenyl group, or a C 6 -C 40 m-valent aryl group, wherein -CH 2 - may be optionally substituted with an oxygen atom, -NH-, or a 1,4-phenylene group, provided that two -O-'s are not directly connected; and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 2 represents a C 1 -C 20 linear or branched alkylene group, wherein -CH 2 - in the main chain may be optionally substituted with an oxygen atom, provided that two -O-'s are not directly connected, and optionally, one or more hydrogen atoms in the group may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 3 represents hydrogen, a halogen, a nitro group, a C 1 -C 20 linear or branched alkyl group, a C 3 -C 20 cycloalkyl group, a C 4 -C 20 cycloalkylalkyl group, a C 4 -C 20 alkylcycloalkyl group, a C 2 -C 10 alkenyl group, or a C 6 -C 20 aryl group, and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; and R represents hydrogen or a methyl group; and m represents an integer of 1-8. R 1 represents a C 1 -C 40 linear or branched m-valent alkyl group, a C 2 -C 20 m-valent alkenyl group, or a C 6 -C 40 m-valent aryl group, wherein -CH 2 - may be optionally substituted with an oxygen atom, -NH-, or a 1,4-phenylene group, provided that two -O-'s are not directly connected; and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 2 represents a C 1 -C 20 linear or branched alkylene group, wherein -CH 2 - in the main chain may be optionally substituted with an oxygen atom, provided that two -O-'s are not directly connected, and optionally, one or more hydrogen atoms in the group may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 3 represents hydrogen, a halogen, a nitro group, a C 1 -C 20 linear or branched alkyl group, a C 3 -C 20 cycloalkyl group, a C 4 -C 20 cycloalkylalkyl group, a C 4 -C 20 alkylcycloalkyl group, a C 2 -C 10 alkenyl group, or a C 6 -C 20 aryl group, and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; and R represents hydrogen or a methyl group; and m represents an integer of 1-8.
A depth camera configured to emit infrared light to image a physical space , comprising: an infrared light source to emit infrared light into a physical space; an infrared camera to receive infrared light from the physical space; an imaging interface to output a depth map derived from the received infrared light ; and a control interface configured to receive an instruction indicating that an infrared remote control signal command for causing an action to be performed by an external device is to be emitted from the infrared light source , wherein the infrared light source is configured to emit the infrared remote control signal command responsive to the control interface receiving the instruction. an infrared light source to emit infrared light into a physical space; an infrared camera to receive infrared light from the physical space; an imaging interface to output a depth map derived from the received infrared light ; and a control interface configured to receive an instruction indicating that an infrared remote control signal command for causing an action to be performed by an external device is to be emitted from the infrared light source , wherein the infrared light source is configured to emit the infrared remote control signal command responsive to the control interface receiving the instruction.
A coaxial connector assembly for interconnection with a coaxial cable with a solid outer conductor , comprising: a monolithic connector body with a bore ; characterized in that it further comprises: a mating surface with a conical decreasing diameter toward a connector end provided on an outer diameter of the connector body proximate the connector end ; an interface end seated upon the mating surface ; the interface end provided with a desired connection interface ; the interface end coupled to the mating surface by a molecular bond interconnection. a monolithic connector body with a bore ; characterized in that it further comprises: a mating surface with a conical decreasing diameter toward a connector end provided on an outer diameter of the connector body proximate the connector end ; an interface end seated upon the mating surface ; the interface end provided with a desired connection interface ; the interface end coupled to the mating surface by a molecular bond interconnection. a mating surface with a conical decreasing diameter toward a connector end provided on an outer diameter of the connector body proximate the connector end ; an interface end seated upon the mating surface ; the interface end provided with a desired connection interface ; the interface end coupled to the mating surface by a molecular bond interconnection.
A surgical instrument , comprising: an elongate shaft assembly defining a shaft axis (SA-SA); a surgical end effector pivotally coupled to said elongate shaft assembly for selective articulation relative to said elongate shaft assembly about an articulation axis (B-B) that is transverse to, and laterally offset from, said shaft axis (SA-SA), said surgical end effector defining an end effector axis (EA), said surgical end effector configured to be selectively articulated between an unarticulated position wherein said end effector axis (EA) is coaxially aligned with or parallel with said shaft axis (SA-SA) to a maximum articulated position on one side of said shaft axis (SA-SA) wherein said end effector axis (EA) is perpendicular to said shaft axis (SA-SA); and an articulation system operably interfacing with said surgical end effector to selectively move said surgical end effector between said unarticulated position and said articulated position, wherein said articulation system comprises: an end effector driver link coupled to said surgical end effector ; and a distal articulation driver coupled to said end effector driver link and configured to selectively apply a pushing motion and a pulling motion thereto; and a de-articulation member attached to said surgical end effector and configured to only apply a pulling motion thereto. an elongate shaft assembly defining a shaft axis (SA-SA); a surgical end effector pivotally coupled to said elongate shaft assembly for selective articulation relative to said elongate shaft assembly about an articulation axis (B-B) that is transverse to, and laterally offset from, said shaft axis (SA-SA), said surgical end effector defining an end effector axis (EA), said surgical end effector configured to be selectively articulated between an unarticulated position wherein said end effector axis (EA) is coaxially aligned with or parallel with said shaft axis (SA-SA) to a maximum articulated position on one side of said shaft axis (SA-SA) wherein said end effector axis (EA) is perpendicular to said shaft axis (SA-SA); and an articulation system operably interfacing with said surgical end effector to selectively move said surgical end effector between said unarticulated position and said articulated position, wherein said articulation system comprises: an end effector driver link coupled to said surgical end effector ; and a distal articulation driver coupled to said end effector driver link and configured to selectively apply a pushing motion and a pulling motion thereto; and a de-articulation member attached to said surgical end effector and configured to only apply a pulling motion thereto. an end effector driver link coupled to said surgical end effector ; and a distal articulation driver coupled to said end effector driver link and configured to selectively apply a pushing motion and a pulling motion thereto; and a de-articulation member attached to said surgical end effector and configured to only apply a pulling motion thereto.
A core-coil assembly , comprising: a core column of a core assembly ; and a first coil received about the core column and forming a gap; characterized by an expandable sealing member (116a - 116n) including a cavity sealing the gap between the core column and the first coil , wherein the expandable sealing member is configured to be expanded by material being filled into the cavity of the expandable sealing member to fill the gap dimension between the core column and the first coil , thereby sealing the gap. a core column of a core assembly ; and a first coil received about the core column and forming a gap; characterized by an expandable sealing member (116a - 116n) including a cavity sealing the gap between the core column and the first coil , wherein the expandable sealing member is configured to be expanded by material being filled into the cavity of the expandable sealing member to fill the gap dimension between the core column and the first coil , thereby sealing the gap.
A method for searching a playback timing of multimedia content in an image display device, the method comprising: playing multimedia content; displaying an activated first image navigation bar and an inactivated second image navigation bar during the multimedia content playing ; detecting a touch input on the first image navigation bar ; determining a precision search section based on the detected touch input ; inactivating the first image navigation bar and activating the second image navigation bar ; matching the precision search section to the second image navigation bar ; detecting a touch input on the second image navigation bar ; and changing a play timing of the multimedia content based on the touch input on the second image navigation bar , wherein the inactivating further comprises controlling the inactivated first image navigation bar to cease interaction between a user and the first image navigation bar. playing multimedia content; displaying an activated first image navigation bar and an inactivated second image navigation bar during the multimedia content playing ; detecting a touch input on the first image navigation bar ; determining a precision search section based on the detected touch input ; inactivating the first image navigation bar and activating the second image navigation bar ; matching the precision search section to the second image navigation bar ; detecting a touch input on the second image navigation bar ; and changing a play timing of the multimedia content based on the touch input on the second image navigation bar , wherein the inactivating further comprises controlling the inactivated first image navigation bar to cease interaction between a user and the first image navigation bar.
An irradiation module for use in a device for irradiation with medical-cosmetic radiation, comprising a plurality of LEDs (42; 43) arranged on a carrier , a first group of first LEDs , which emit radiation in the UVA spectrum, and a second group of second LEDs , which emit radiation in the UVB spectrum, being arranged on the carrier , and the first LEDs making up between 50% and 90% of the total from the first and second LEDs, and the second LEDs making up between 50% and 10% of the total from the first and second LEDs, characterized in that the carrier is connected to a heat-transfer plate , and in that a reflector is assigned to each LED (42; 43), which reflector is connected to the carrier , in that the reflectors extending from the LEDs (42; 43) in a tapering manner are arranged as a field in a common modular unit , and in that the modular unit , the carrier , and the heat-transfer plate are interconnected. a first group of first LEDs , which emit radiation in the UVA spectrum, and a second group of second LEDs , which emit radiation in the UVB spectrum, being arranged on the carrier , and the first LEDs making up between 50% and 90% of the total from the first and second LEDs, and the second LEDs making up between 50% and 10% of the total from the first and second LEDs, characterized in that the carrier is connected to a heat-transfer plate , and in that a reflector is assigned to each LED (42; 43), which reflector is connected to the carrier , in that the reflectors extending from the LEDs (42; 43) in a tapering manner are arranged as a field in a common modular unit , and in that the modular unit , the carrier , and the heat-transfer plate are interconnected.
A method performed by a computing device , the method comprising: executing an operating system , the operating system managing the execution of arbitrary processes ; repeatedly obtaining time-stamped estimates of energy consumption of respective arbitrary processes and storing corresponding energy information, the energy information comprising process identifiers of the respective arbitrary processes stored in association with respective estimates of energy consumption of the arbitrary processes, the estimates having been computed based on obtained allotments of processor resources for execution of the respective arbitrary processes ; while executing the arbitrary processes , receiving, via an interface , tag requests associated with the estimating energy consumption, the tag requests submitted to the interface by the arbitrary processes when executing, each tag request comprising a respective tag determined by the corresponding process; responding to a tag request by determining a tagged energy consumption estimate, the tagged energy consumption estimate estimated for a period of execution of whichever process submitted the tag request , a start of the period corresponding to receipt of the tag request ; and storing the tag of the tag request and the tagged energy consumption estimate in the energy information in association with the process identifier of whichever process submitted the tag request. executing an operating system , the operating system managing the execution of arbitrary processes ; repeatedly obtaining time-stamped estimates of energy consumption of respective arbitrary processes and storing corresponding energy information, the energy information comprising process identifiers of the respective arbitrary processes stored in association with respective estimates of energy consumption of the arbitrary processes, the estimates having been computed based on obtained allotments of processor resources for execution of the respective arbitrary processes ; while executing the arbitrary processes , receiving, via an interface , tag requests associated with the estimating energy consumption, the tag requests submitted to the interface by the arbitrary processes when executing, each tag request comprising a respective tag determined by the corresponding process; responding to a tag request by determining a tagged energy consumption estimate, the tagged energy consumption estimate estimated for a period of execution of whichever process submitted the tag request , a start of the period corresponding to receipt of the tag request ; and storing the tag of the tag request and the tagged energy consumption estimate in the energy information in association with the process identifier of whichever process submitted the tag request.
Electrical socket contact device , for a copper or aluminium cable for the automotive sector, having a contact body and a mating contact receiver configured to be mounted on the contact body , wherein the mating contact receiver may be mounted on the contact body in at least two positions (I, II), as a result of which an electrical mating contact device may be inserted into the contact device on two mutually different axes of insertion (L 110 , Q 110 ), wherein the at least two positions (I, II) of the mating contact receiver in relation to the contact device , may be produced by a rotation of the mating contact receiver relative to an axis of rotation (H), characterised in that the axis of rotation (H) runs substantially through a centre of an electrical contact region of the contact body , and the mating contact receiver may be mounted on the contact region substantially in a 0°- (I), 90°- (II), 180°- (I) and/or 270°-position (II). the mating contact receiver may be mounted on the contact body in at least two positions (I, II), as a result of which an electrical mating contact device may be inserted into the contact device on two mutually different axes of insertion (L 110 , Q 110 ), wherein the at least two positions (I, II) of the mating contact receiver in relation to the contact device , may be produced by a rotation of the mating contact receiver relative to an axis of rotation (H), characterised in that the axis of rotation (H) runs substantially through a centre of an electrical contact region of the contact body , and the mating contact receiver may be mounted on the contact region substantially in a 0°- (I), 90°- (II), 180°- (I) and/or 270°-position (II).
Method of spatial high resolution determining, in one or more spatial dimensions, the position of an isolated molecule in a sample , the molecule being excitable with excitation light for emission of luminescence light , - wherein the excitation light is directed onto the sample with an intensity distribution having a zero point and intensity increasing regions which are adjoining the zero point on both sides in each of the spatial dimensions, - wherein the luminescence light emitted by the molecule is registered for each of different positions (A-D) of the zero point in the sample , and - wherein the position of the molecule in the sample is deduced from the intensities (I A -I D ) of the luminescence light registered for the different positions (A-D) of the zero point , characterised in that the zero point is arranged at not more than n x 3 different positions (A-D) in the sample to deduce the position of the molecule in the n spatial dimensions from the intensities (I A -I D ) of the luminescence light registered for the different positions (A-D) of the zero point , wherein the different positions (A-D) at which the zero point is arranged in the sample include, in each spatial dimension in which the position of the molecule is determined in the sample , one position (A-C) on both sides of a centre of a limited local area in the sample, in which the molecule is arranged. - wherein the excitation light is directed onto the sample with an intensity distribution having a zero point and intensity increasing regions which are adjoining the zero point on both sides in each of the spatial dimensions, - wherein the luminescence light emitted by the molecule is registered for each of different positions (A-D) of the zero point in the sample , and - wherein the position of the molecule in the sample is deduced from the intensities (I A -I D ) of the luminescence light registered for the different positions (A-D) of the zero point ,