mhurhangee/patent-ind-claim-en huggingface dataset:
A fixing structure comprising: a plate-like member having an engaging portion that includes at least one of a through hole and a notch; a housing having a protrusion , the protrusion comprising an outer peripheral wall surface at least partly facing an inner peripheral wall surface of the plate-like member defining the engaging portion , characterized in that : the protrusion comprises a recess formed from a tip thereof along a protruding direction thereof, and the protrusion comprises a plurality of communicating portions that communicate between the recess and an outer periphery of the protrusion and that are distributed around an axis extending in the protruding direction; and an adhesion body is interposed between the engaging portion and the protrusion , and fixes the plate-like member to the housing , wherein the adhesion body is located from the recess to a space between the engaging portion and the protrusion through the plurality of communicating portions . a plate-like member having an engaging portion that includes at least one of a through hole and a notch; a housing having a protrusion , the protrusion comprising an outer peripheral wall surface at least partly facing an inner peripheral wall surface of the plate-like member defining the engaging portion , characterized in that : the protrusion comprises a recess formed from a tip thereof along a protruding direction thereof, and the protrusion comprises a plurality of communicating portions that communicate between the recess and an outer periphery of the protrusion and that are distributed around an axis extending in the protruding direction; and an adhesion body is interposed between the engaging portion and the protrusion , and fixes the plate-like member to the housing , wherein the adhesion body is located from the recess to a space between the engaging portion and the protrusion through the plurality of communicating portions . the protrusion comprises a recess formed from a tip thereof along a protruding direction thereof, and the protrusion comprises a plurality of communicating portions that communicate between the recess and an outer periphery of the protrusion and that are distributed around an axis extending in the protruding direction; and an adhesion body is interposed between the engaging portion and the protrusion , and fixes the plate-like member to the housing , wherein the adhesion body is located from the recess to a space between the engaging portion and the protrusion through the plurality of communicating portions .
A friction welding method where surfaces to be welded of two metal members to be welded are made slide in contact with each other, wherein; at least one of the metal members to be welded is a ferrous material, and a friction heat generated by the sliding of the two metal members to be welded, and a processing heat generated by plastic deformation of the metal members to be welded are utilized together, characterized in that a maximum temperature reached during welding is equal to or less than the A 3 point or equal to or less than the A cm point of the ferrous material. at least one of the metal members to be welded is a ferrous material, and a friction heat generated by the sliding of the two metal members to be welded, and a processing heat generated by plastic deformation of the metal members to be welded are utilized together, characterized in that a maximum temperature reached during welding is equal to or less than the A 3 point or equal to or less than the A cm point of the ferrous material.
An image processing apparatus comprising: an interface configured to acquire a surrounding image of a moveable body ; and a processor configured to overlay a display indicating a course trajectory of a specific portion of the moveable body in a travel direction of the moveable body on the surrounding image at a position corresponding to a height of the specific portion from a road surface (3; 3a, 3b, 3c), wherein the processor is configured to correct a vertical position of the display indicating the course trajectory in accordance with a height difference of the road surface (3; 3a, 3b, 3c), and to change the display indicating the course trajectory, when an obstacle , included in the surrounding image and present in the travel direction of the moveable body , and the course trajectory of the specific portion are in contact, wherein the processor is configured to change a portion, within the display indicating the course trajectory, where an image of the obstacle included in the surrounding image and the display of the course trajectory of the specific portion are in contact. an interface configured to acquire a surrounding image of a moveable body ; and a processor configured to overlay a display indicating a course trajectory of a specific portion of the moveable body in a travel direction of the moveable body on the surrounding image at a position corresponding to a height of the specific portion from a road surface (3; 3a, 3b, 3c), wherein the processor is configured to correct a vertical position of the display indicating the course trajectory in accordance with a height difference of the road surface (3; 3a, 3b, 3c), and to change the display indicating the course trajectory, when an obstacle , included in the surrounding image and present in the travel direction of the moveable body , and the course trajectory of the specific portion are in contact, wherein the processor is configured to change a portion, within the display indicating the course trajectory, where an image of the obstacle included in the surrounding image and the display of the course trajectory of the specific portion are in contact.
A fill level radar designed to determine a topology of a filling material surface , comprising: a first transmitter having a first phase-locked loop for generating a first transmit signal in the form of a first frequency ramp; a second transmitter having a second phase-locked loop for generating a second transmission signal in the form of a second frequency ramp; a receiver having a third phase-locked loop for receiving the transmitted signals reflected at the filling material surface; a single reference clock generator for all of said phase locked loops providing the same reference clock to each phase locked loop; a control unit for controlling the first phase-locked loop and the second phase-locked loop and for adjusting a phase offset of the output signals of the first and second phase-locked loops, for determining a first start phase for the output signal of the first phase-locked loop by means of a first trigger signal and a second start phase for the output signal of the second phase-locked loop by means of a second trigger signal, in order to control the main radiation direction of the level radar for scanning the filling material surface. a first transmitter having a first phase-locked loop for generating a first transmit signal in the form of a first frequency ramp; a second transmitter having a second phase-locked loop for generating a second transmission signal in the form of a second frequency ramp; a receiver having a third phase-locked loop for receiving the transmitted signals reflected at the filling material surface; a single reference clock generator for all of said phase locked loops providing the same reference clock to each phase locked loop; a control unit for controlling the first phase-locked loop and the second phase-locked loop and for adjusting a phase offset of the output signals of the first and second phase-locked loops, for determining a first start phase for the output signal of the first phase-locked loop by means of a first trigger signal and a second start phase for the output signal of the second phase-locked loop by means of a second trigger signal, in order to control the main radiation direction of the level radar for scanning the filling material surface.
A cable deterioration diagnosis device configured to diagnose deterioration of a cable having a plurality of electrical wires including one or more signal wires configured to transmit signals between a first device and a second device , the cable deterioration diagnosis device comprising: a test signal output unit configured to output a test signal having a wavelike shape to a test signal transmitting wire , the test signal transmitting wire being independent of the one or more signal wires among the plurality of electrical wires ; a test signal extraction unit configured to extract a received test signal corresponding to the test signal from a signal propagated in a test signal receiving wire , the test signal receiving wire being independent of the one or more signal wires and the test signal transmitting wire among the plurality of electrical wires ; and a deterioration detection unit configured to detect deterioration of the cable based on the test signal and the received test signal wherein the deterioration detection unit detects the deterioration of the cable when an amount of fluctuation in a difference between intensity of the test signal and intensity of the received test signal exceeds a predetermined deterioration detection level, characterized in that the test signal output unit outputs a test signal modulated wave, in which the test signal is superimposed on a carrier wave, to the test signal transmitting wire , and the test signal extraction unit extracts a test signal received wave corresponding to the test signal modulated wave from the signal propagated in the test signal receiving wire , and extracts the received test signal from the test signal received wave. a test signal output unit configured to output a test signal having a wavelike shape to a test signal transmitting wire , the test signal transmitting wire being independent of the one or more signal wires among the plurality of electrical wires ; a test signal extraction unit configured to extract a received test signal corresponding to the test signal from a signal propagated in a test signal receiving wire , the test signal receiving wire being independent of the one or more signal wires and the test signal transmitting wire among the plurality of electrical wires ; and a deterioration detection unit configured to detect deterioration of the cable based on the test signal and the received test signal wherein the deterioration detection unit detects the deterioration of the cable when an amount of fluctuation in a difference between intensity of the test signal and intensity of the received test signal exceeds a predetermined deterioration detection level, characterized in that the test signal output unit outputs a test signal modulated wave, in which the test signal is superimposed on a carrier wave, to the test signal transmitting wire , and the test signal extraction unit extracts a test signal received wave corresponding to the test signal modulated wave from the signal propagated in the test signal receiving wire , and extracts the received test signal from the test signal received wave.
A system comprising: a light source configured to produce an emitted light beam (C); at least one support structure ; at least one etalon positioned to receive the emitted light beam from the light source and configured to generate a plurality of product light beams (D) with a resultant interference pattern from the emitted light beam, the etalon being mounted to the support structure at one or more pivot points ; a detector positioned to receive the plurality of product light beams generated from the etalon, the detector being configured to measure intensity values for the plurality of product light beams based on the generated interference pattern; and a computing device coupled to the detector, the computing device comprising a processor and a memory coupled to the processor so that the processor executes programmed instructions stored in the memory that causes the computing device to: determine, based on the measured intensity values, modulation of the interference pattern for the plurality of product light beams; and determine a change in position of the etalon relative to the one or more pivot points based on the modulation of the interference pattern for the plurality of product light beams. a light source configured to produce an emitted light beam (C); at least one support structure ; at least one etalon positioned to receive the emitted light beam from the light source and configured to generate a plurality of product light beams (D) with a resultant interference pattern from the emitted light beam, the etalon being mounted to the support structure at one or more pivot points ; a detector positioned to receive the plurality of product light beams generated from the etalon, the detector being configured to measure intensity values for the plurality of product light beams based on the generated interference pattern; and a computing device coupled to the detector, the computing device comprising a processor and a memory coupled to the processor so that the processor executes programmed instructions stored in the memory that causes the computing device to: determine, based on the measured intensity values, modulation of the interference pattern for the plurality of product light beams; and determine a change in position of the etalon relative to the one or more pivot points based on the modulation of the interference pattern for the plurality of product light beams. determine, based on the measured intensity values, modulation of the interference pattern for the plurality of product light beams; and determine a change in position of the etalon relative to the one or more pivot points based on the modulation of the interference pattern for the plurality of product light beams.
A method for maintaining synchronization of a feedback actuator with a steering actuator in a steer-by-wire steering system of a motor vehicle, the steer-by-wire steering system having a steering wheel , a feedback actuator connected to the steering wheel for providing road feedback to a driver, a plurality of road wheels , and a steering actuator with an electric motor which operates in response to detected values of various steering parameters and orientates the road wheels in a desired direction, wherein movement of the feedback actuator is synchronized with movement of the steering actuator , characterized in that said method comprises the steps of: • Detecting a rotation of the electric motor's rotor caused by movement of the road wheels and detecting a movement of the steering wheel while the system is turned off by at least two angle sensors , being a rotor position sensor and a steering angle sensor on the steering column, respectively; • If a movement is detected, the position change is registered in a storage means; • On ignition on, moving the feedback actuator or the steering actuator in accordance with the stored position change to maintain the synchronization of the feedback actuator with the steering actuator . • Detecting a rotation of the electric motor's rotor caused by movement of the road wheels and detecting a movement of the steering wheel while the system is turned off by at least two angle sensors , being a rotor position sensor and a steering angle sensor on the steering column, respectively; • If a movement is detected, the position change is registered in a storage means; • On ignition on, moving the feedback actuator or the steering actuator in accordance with the stored position change to maintain the synchronization of the feedback actuator with the steering actuator .
An ethylene-vinyl alcohol copolymer composition, characterized in that the ethylene-vinyl alcohol copolymer composition comprises: an ethylene-vinyl alcohol copolymer; and a manganese content of 0.01 ppm to 0.49 ppm. an ethylene-vinyl alcohol copolymer; and a manganese content of 0.01 ppm to 0.49 ppm.
A method for identifying a microorganism in a fluid comprising interfering proteins from a mammalian source, wherein the interfering proteins preferably include one or more of hemoglobin, defensins, or proteolysis products thereof, the method comprising: preparing a lysate, the lysate comprising the interfering proteins and proteins from the microorganism; contacting the lysate with a chromatography medium, wherein the interfering proteins and the proteins from the microorganism bind to the chromatography medium; selectively eluting proteins bound to the chromatography medium to produce at least one eluted fraction, wherein the at least one eluted fraction is enriched in the proteins from the microorganism and depleted in the interfering proteins; and subjecting the at least one eluted fraction to protein mass spectrometry analysis, such as MALDI or ESI-MS, to identify the presence of one or more microorganisms in the fluid wherein the fluid is preferably one of blood, a blood culture, urine, or cerebrospinal fluid. preparing a lysate, the lysate comprising the interfering proteins and proteins from the microorganism; contacting the lysate with a chromatography medium, wherein the interfering proteins and the proteins from the microorganism bind to the chromatography medium; selectively eluting proteins bound to the chromatography medium to produce at least one eluted fraction, wherein the at least one eluted fraction is enriched in the proteins from the microorganism and depleted in the interfering proteins; and subjecting the at least one eluted fraction to protein mass spectrometry analysis, such as MALDI or ESI-MS, to identify the presence of one or more microorganisms in the fluid wherein the fluid is preferably one of blood, a blood culture, urine, or cerebrospinal fluid.
A coaxial compression driver comprising: - a housing ; - a first vibrating membrane for relatively lower frequencies housed in the housing , wherein the first vibrating membrane faces a first compression chamber in communication with a first acoustic conduit ; - a second vibrating membrane for relatively higher frequencies housed in the housing , wherein the second vibrating membrane faces a second compression chamber in communication with a second acoustic conduit ; wherein: - the first vibrating membrane and the second vibrating membrane are arranged in the housing coaxial or substantially coaxial with respect to each other; - the first acoustic conduit and the second acoustic conduit converge into a common output acoustic conduit ; characterized in that : - the compression driver comprises a passive low pass filter at least partially housed in the first acoustic conduit ; - the passive low pass filter is axially interposed between the first vibrating membrane and the second vibrating membrane . - a housing ; - a first vibrating membrane for relatively lower frequencies housed in the housing , wherein the first vibrating membrane faces a first compression chamber in communication with a first acoustic conduit ; - a second vibrating membrane for relatively higher frequencies housed in the housing , wherein the second vibrating membrane faces a second compression chamber in communication with a second acoustic conduit ; - the first vibrating membrane and the second vibrating membrane are arranged in the housing coaxial or substantially coaxial with respect to each other; - the first acoustic conduit and the second acoustic conduit converge into a common output acoustic conduit ; - the compression driver comprises a passive low pass filter at least partially housed in the first acoustic conduit ; - the passive low pass filter is axially interposed between the first vibrating membrane and the second vibrating membrane .
A turbine exhaust unit supporting device installed at a rear side of a turbine casing to support a turbine exhaust unit through which exhaust gas passing through a turbine is discharged, the supporting device comprising: a casing supporting block unit installed on an outer circumferential surface of the turbine casing ; an exhaust unit supporting block unit spaced from the casing supporting block unit and installed on an outer circumferential surface of the turbine exhaust unit ; and a rotary coupler having a first end rotatably coupled to the casing supporting block unit and a second end rotatably coupled to the exhaust unit supporting block unit . a casing supporting block unit installed on an outer circumferential surface of the turbine casing ; an exhaust unit supporting block unit spaced from the casing supporting block unit and installed on an outer circumferential surface of the turbine exhaust unit ; and a rotary coupler having a first end rotatably coupled to the casing supporting block unit and a second end rotatably coupled to the exhaust unit supporting block unit .
An antenna device , comprising: a first substrate ; a second substrate facing and spaced with the first substrate at a distance; at least one working element disposed between the first substrate and the second substrate , wherein the at least one working element is filled with a modulation material , characterized in that : at least one buffer element is connected with the at least one working element for adjusting the amount of the modulation material in the at least one working element , wherein the modulation material is not disposed out of the at least one working element and the at least one buffer element ; a first boundary layer with a first material is disposed on at least one of the first substrate and the second substrate and disposed corresponding to the at least one working element ; and a second boundary layer with a second material is disposed on at least one of the first substrate and the second substrate and disposed corresponding to the at least one buffer element , wherein an adhesive force between the modulation material and the first boundary layer is greater than an adhesive force between the modulation material and the second boundary layer . a first substrate ; a second substrate facing and spaced with the first substrate at a distance; at least one working element disposed between the first substrate and the second substrate , wherein the at least one working element is filled with a modulation material , characterized in that : at least one buffer element is connected with the at least one working element for adjusting the amount of the modulation material in the at least one working element , wherein the modulation material is not disposed out of the at least one working element and the at least one buffer element ; a first boundary layer with a first material is disposed on at least one of the first substrate and the second substrate and disposed corresponding to the at least one working element ; and a second boundary layer with a second material is disposed on at least one of the first substrate and the second substrate and disposed corresponding to the at least one buffer element , at least one buffer element is connected with the at least one working element for adjusting the amount of the modulation material in the at least one working element , wherein the modulation material is not disposed out of the at least one working element and the at least one buffer element ; a first boundary layer with a first material is disposed on at least one of the first substrate and the second substrate and disposed corresponding to the at least one working element ; and a second boundary layer with a second material is disposed on at least one of the first substrate and the second substrate and disposed corresponding to the at least one buffer element , wherein an adhesive force between the modulation material and the first boundary layer is greater than an adhesive force between the modulation material and the second boundary layer .