mhurhangee/ep-ind-claims huggingface dataset:
Plastics material element for a vehicle, the plastics material element being formed as an extruded part or as an extruded part comprising a base, at least a portion of the outside of the extruded part being coated with a lacquer foil so as to form the plastics material element with a structured surface, the structured surface preferably having a structure as similar as possible to a lacquered surface, characterised in that the extruded part is produced from a mixture of a plastics material substance and particles, the particles being produced from a substance which does not fuse together with the plastics material substance or does so as little as possible so as to form a structured surface of the extruded part, the lacquer foil replicating the surface, structured by admixed particles, of the extruded part so as to form the structured surface of the plastics material element.
A bed, comprising: a support switching mechanism (14, 18, 27), the bed being composed of separably combining a wheelchair and a bed main body portion in a width direction of the bed main body portion, the wheelchair comprising: a seating bottom portion composed of bendably coupling a plurality of divided members (15a, 15b, 15c, 15d, 15e) to each other; and a chair bottom support member supporting the seating bottom portion, the bed main body portion comprising: a bed bottom portion composed of bendably coupling a plurality of divided members (17a, 17b, 17c) to each other; and a bed bottom support member supporting the bed bottom portion, the bed bottom support member having a protruding portion protruding from the bed bottom portion in the width direction of the bed main body portion, the protruding portion being positioned on a lower side of the seating bottom portion of the wheelchair and arranged so as to be capable of supporting the seating bottom portion of the wheelchair in a state where the wheelchair and the bed main body portion are combined, and the support switching mechanism switching a support member that supports the seating bottom portion of the wheelchair from below, from the chair bottom support member to only the bed bottom support member in the state where the wheelchair and the bed main body portion are combined, so that, in the state where the wheelchair and the bed main body portion are combined, the seating bottom portion is separated from the chair bottom support member. a seating bottom portion composed of bendably coupling a plurality of divided members (15a, 15b, 15c, 15d, 15e) to each other; and a chair bottom support member supporting the seating bottom portion, a bed bottom portion composed of bendably coupling a plurality of divided members (17a, 17b, 17c) to each other; and a bed bottom support member supporting the bed bottom portion, the bed bottom support member having a protruding portion protruding from the bed bottom portion in the width direction of the bed main body portion, the protruding portion being positioned on a lower side of the seating bottom portion of the wheelchair and arranged so as to be capable of supporting the seating bottom portion of the wheelchair in a state where the wheelchair and the bed main body portion are combined, and the support switching mechanism switching a support member that supports the seating bottom portion of the wheelchair from below, from the chair bottom support member to only the bed bottom support member in the state where the wheelchair and the bed main body portion are combined, so that, in the state where the wheelchair and the bed main body portion are combined, the seating bottom portion is separated from the chair bottom support member.
Anesthetic solution comprising: - a natural anesthetic agent selected from clove essential oil, isoeugenol, and/or eugenol, - food-grade β-cyclodextrins forming a water-soluble inclusion complex with the natural anesthetic agent, and - water selected from freshwater, seawater, ice slurry, or water with crushed ice, characterized in that the proportion of the natural anesthetic in the inclusion complex is comprised between 5 and 30% of the total mass of the complex, the proportion of β-cyclodextrins in the inclusion complex is comprised between 70 and 95% of the total mass of the complex, the anesthetic agent is at a concentration comprised between 5 and 60 mg of anesthetic agent/kg of water, and in that the β-cyclodextrins used for formulating the anesthetic solution have a moisture content between 1 and 4%. - a natural anesthetic agent selected from clove essential oil, isoeugenol, and/or eugenol, - food-grade β-cyclodextrins forming a water-soluble inclusion complex with the natural anesthetic agent, and - water selected from freshwater, seawater, ice slurry, or water with crushed ice, characterized in that the proportion of the natural anesthetic in the inclusion complex is comprised between 5 and 30% of the total mass of the complex, the proportion of β-cyclodextrins in the inclusion complex is comprised between 70 and 95% of the total mass of the complex, the anesthetic agent is at a concentration comprised between 5 and 60 mg of anesthetic agent/kg of water, and in that the β-cyclodextrins used for formulating the anesthetic solution have a moisture content between 1 and 4%.
Cooking device, in particular an induction cooking device, comprising at least one information unit that has at least one information storage unit in which at least one intrinsic placement unit characteristic of at least one placement unit provided for placing on at least one cooking surface for the purposes of heating can be stored, wherein the information unit is designed to be arranged on the placement unit outside of a heating region of the placement unit for the purpose of communicating with at least one communication unit, characterised in that the information unit is provided for an arrangement at least on a side wall of the placement unit, and wherein the information unit is provided for receiving at least one intrinsic placement unit characteristic from at least one further unit for the purpose of storing the received placement unit characteristic in the information storage unit.
A method for authentication of a user to an acceptance point, the authentication being performed by comparing a transaction number (TrxID) with a computed or stored transaction number (TrxID), wherein the acceptance point and/or a user terminal sends a request message to a central point and the central point provides and transmits a temporarily valid transaction number (TrxID) by means of which authentication of the user to the acceptance point can be performed, or wherein the acceptance point provides a temporarily valid transaction number (TrxID) by means of which authentication of the user to the central point can be performed, an authorization after successful authentication to the central point being performed by the generation and transmission of an authorization message from the central point to the acceptance point characterized in that the number of digits of the transaction number (TrxID) is adapted dynamically according to the number of parallel active transactions and/or according to an estimated traffic load.
A system for inhibiting electromagnetic interference of a refrigerant radiator, comprising: a refrigerant radiator; a drive circuit corresponding to the refrigerant radiator; a metal conductor; and a filter unit; wherein the metal conductor is respectively connected to the filter unit and the refrigerant radiator, the filter unit is connected to an N terminal or a P terminal of a DC power supply of the drive circuit, a closed-loop of electromagnetic interference is formed among the refrigerant radiator, the metal conductor, the filter unit, and the drive circuit corresponding to the refrigerant radiator; characterized in that the system comprises a plurality of metal conductors and a plurality of filter units, each of the metal conductors corresponds to a corresponding filter unit of the filter units and connects to a different connection position on the refrigerant radiator; each of the metal conductors connects the corresponding filter unit with the refrigerant radiator; each of the filter units is connected to the N terminal or the P terminal of the DC power supply of the drive circuit; and a closed-loop of electromagnetic interference is formed among the refrigerant radiator, each of the metal conductors, the filter unit corresponding to each of the metal conductors, and the drive circuit corresponding to the refrigerant radiator. a refrigerant radiator; a drive circuit corresponding to the refrigerant radiator; a metal conductor; and a filter unit; wherein the metal conductor is respectively connected to the filter unit and the refrigerant radiator, the filter unit is connected to an N terminal or a P terminal of a DC power supply of the drive circuit, a closed-loop of electromagnetic interference is formed among the refrigerant radiator, the metal conductor, the filter unit, and the drive circuit corresponding to the refrigerant radiator; characterized in that the system comprises a plurality of metal conductors and a plurality of filter units, each of the metal conductors corresponds to a corresponding filter unit of the filter units and connects to a different connection position on the refrigerant radiator; each of the metal conductors connects the corresponding filter unit with the refrigerant radiator; each of the filter units is connected to the N terminal or the P terminal of the DC power supply of the drive circuit; and a closed-loop of electromagnetic interference is formed among the refrigerant radiator, each of the metal conductors, the filter unit corresponding to each of the metal conductors, and the drive circuit corresponding to the refrigerant radiator.
An ignition plug comprising: an insulator having an axial hole; a metal shell that covers an outer periphery of the insulator; a center electrode disposed in the axial hole of the insulator and having a front end exposed at a front end of the insulator; and a ground electrode having a fixed end fixed to the metal shell, a free end including a center-electrode-facing portion that faces a front end surface of the center electrode, and an inner surface that faces the center electrode and the insulator, wherein the ground electrode includes a first layer and a second layer having a composition different from a composition of the first layer and stacked on an inner surface of the first layer, the second layer having a thermal conductivity of 40 w/m·K or more and extending at least from the center-electrode-facing portion to a location closer to the fixed end than the front end of the center electrode, and the second layer extending in cross section along a central line of the ground electrode in the width direction, characterized in that when a thickness of the ground electrode is T (mm) and a thickness of the second layer is t1 (mm), 0.2 mm ≤ t1 ≤ T-0.6 mm is satisfied. an insulator having an axial hole; a metal shell that covers an outer periphery of the insulator; a center electrode disposed in the axial hole of the insulator and having a front end exposed at a front end of the insulator; and a ground electrode having a fixed end fixed to the metal shell, a free end including a center-electrode-facing portion that faces a front end surface of the center electrode, and an inner surface that faces the center electrode and the insulator, wherein the ground electrode includes a first layer and a second layer having a composition different from a composition of the first layer and stacked on an inner surface of the first layer, the second layer having a thermal conductivity of 40 w/m·K or more and extending at least from the center-electrode-facing portion to a location closer to the fixed end than the front end of the center electrode, and the second layer extending in cross section along a central line of the ground electrode in the width direction, characterized in that when a thickness of the ground electrode is T (mm) and a thickness of the second layer is t1 (mm), 0.2 mm ≤ t1 ≤ T-0.6 mm is satisfied.
Use of a nanosystem comprising metal atomic quantum clusters (AQCs) of at least two different sizes encapsulated in a nanocavity with an inner diameter less than or equal to 10 nm as a luminescent nanosystem, wherein the nanosystem is an spheroid-like nanometric supramolecular structure formed by one or two layers of amphiphilic molecules, wherein said amphiphilic molecules form the nanocavity at the inside of the nanosystem.
An image acquisition device, comprising: a main body; a rotating portion provided on the main body; a camera arranged on the rotating portion; and a knob portion provided on the rotating portion at a lateral side of the camera in an axial direction of the rotating portion and arranged at an outer edge of the main body, and the knob portion being configured to drive the rotating portion to rotate, wherein the axial direction comprises a direction in which a connection between the camera and the knob portion is located, characterized in that the knob portion is provided with an adjustment scale configured to measure an adjustment angle of the camera, and wherein the camera protrudes out of the rotating portion, and the main body is provided with a notch adapted to the camera at a position opposite to the camera, the notch being configured to receive the camera when the camera is not used. a main body; a rotating portion provided on the main body; a camera arranged on the rotating portion; and a knob portion provided on the rotating portion at a lateral side of the camera in an axial direction of the rotating portion and arranged at an outer edge of the main body, and the knob portion being configured to drive the rotating portion to rotate, wherein the axial direction comprises a direction in which a connection between the camera and the knob portion is located, characterized in that the knob portion is provided with an adjustment scale configured to measure an adjustment angle of the camera, and wherein the camera protrudes out of the rotating portion, and the main body is provided with a notch adapted to the camera at a position opposite to the camera, the notch being configured to receive the camera when the camera is not used.
A combined lens for a portable electronic device or a camera, the camera having a flash and an image sensor, the combined lens comprising: an image sensor lens for covering the image sensor; and a flash lens for covering the flash, the flash lens defining a chamfer along a rectilinear side of the flash lens, adjacent to a rectilinear side of the image sensor lens wherein the chamfer defined by the flash lens is comprised in an angle range between 20 and 60 degrees measured starting from the front surface of the flash lens toward the rear surface of the flash lens. an image sensor lens for covering the image sensor; and a flash lens for covering the flash, the flash lens defining a chamfer along a rectilinear side of the flash lens, adjacent to a rectilinear side of the image sensor lens wherein the chamfer defined by the flash lens is comprised in an angle range between 20 and 60 degrees measured starting from the front surface of the flash lens toward the rear surface of the flash lens.
A method of non-destructive inspection of a weld seam, the method comprising: positioning an ultrasonic sensor including an array of transducer elements over a weld seam of a pipe, wherein the weld seam extends along the pipe substantially parallel to a longitudinal axis of the pipe and wherein the transducer elements are arranged in a direction substantially perpendicular to the weld seam; exciting each transducer element of the array of transducer elements to emit an ultrasonic signal in which the array of transducer elements is positioned to extend over at least part of a width of the weld seam; receiving a plurality of reflected ultrasonic signals at the array of transducer elements; and converting the reflected ultrasonic signals to electrical signals; measuring time of flight between all of the transducer elements and a surface of the weld seam; selecting at least one set of delay laws based on the measured time of flight; applying the selected at least one set of delay laws to the electrical signals to generate a plurality of virtual probes steered to a plurality of angles, foci, or a combination of angles and foci; and identifying, by at least one of the virtual probes, a defect in the weld seam. positioning an ultrasonic sensor including an array of transducer elements over a weld seam of a pipe, wherein the weld seam extends along the pipe substantially parallel to a longitudinal axis of the pipe and wherein the transducer elements are arranged in a direction substantially perpendicular to the weld seam; exciting each transducer element of the array of transducer elements to emit an ultrasonic signal in which the array of transducer elements is positioned to extend over at least part of a width of the weld seam; receiving a plurality of reflected ultrasonic signals at the array of transducer elements; and converting the reflected ultrasonic signals to electrical signals; measuring time of flight between all of the transducer elements and a surface of the weld seam; selecting at least one set of delay laws based on the measured time of flight; applying the selected at least one set of delay laws to the electrical signals to generate a plurality of virtual probes steered to a plurality of angles, foci, or a combination of angles and foci; and identifying, by at least one of the virtual probes, a defect in the weld seam.
An article comprising: a hook component of a hook-and-loop mechanical fastener, the hook component comprising a first organic polymer and a first laser-sensitive agent; and a first laser-induced print on the hook component created by the interaction of electromagnetic radiation with the first laser-sensitive agent. a hook component of a hook-and-loop mechanical fastener, the hook component comprising a first organic polymer and a first laser-sensitive agent; and a first laser-induced print on the hook component created by the interaction of electromagnetic radiation with the first laser-sensitive agent.
A method of making a part, comprising the steps of: placing at least two work pieces (22, 24) of steel into a joint; directing a stream of powder at the joint, the powder consisting of at least one of nickel and iron; melting with a laser beam a portion of each of the work pieces (22, 24) and the powder to produce a weld seam which includes at least one of nickel and iron and is entirely free of silicate islands; and without removing any material from the weld seam through material abrasion or chemical processes, applying a coating onto at least a portion of the weld seam through a painting, phosphating or electrocoating process, and providing a shielding gas while melting with the laser beam. placing at least two work pieces (22, 24) of steel into a joint; directing a stream of powder at the joint, the powder consisting of at least one of nickel and iron; melting with a laser beam a portion of each of the work pieces (22, 24) and the powder to produce a weld seam which includes at least one of nickel and iron and is entirely free of silicate islands; and without removing any material from the weld seam through material abrasion or chemical processes, applying a coating onto at least a portion of the weld seam through a painting, phosphating or electrocoating process, and providing a shielding gas while melting with the laser beam.
An X-ray image processing method comprising: (a) obtaining m, wherein m is an integer of 2 or more, number of divided projection images of a subject at each of predetermined n, wherein n is an integer of 1 or more, number of imaging angles by moving an X-ray detector in a width direction while rotating an X-ray source and an X-ray detector about a rotating axis with the subject interposed therebetween; (b) classifying the multi directional divided projection images, as or into associated image groups, according to predetermined imaging angles about the rotating axis; (c) generating a synthetic projection image at each of the imaging angles using the said associated image groups as or into which said divided projection images were classified according to said predetermined imaging angles; and (d) generating a reconstructed image by reconstructing the synthetic projection image, wherein the X-ray detector and the X-ray source are rotated about the rotating axis while facing each other, the X-ray source irradiating the X-rays to the X-ray detector at each of the predetermined imaging angles (θ) based on the rotating axis, while the rotating arm is rotated 360 degrees, and the size of the synthetic projection image is variable depending on the number of times that the X-ray detector is moved in the width direction of the X-ray detector. (a) obtaining m, wherein m is an integer of 2 or more, number of divided projection images of a subject at each of predetermined n, wherein n is an integer of 1 or more, number of imaging angles by moving an X-ray detector in a width direction while rotating an X-ray source and an X-ray detector about a rotating axis with the subject interposed therebetween; (b) classifying the multi directional divided projection images, as or into associated image groups, according to predetermined imaging angles about the rotating axis; (c) generating a synthetic projection image at each of the imaging angles using the said associated image groups as or into which said divided projection images were classified according to said predetermined imaging angles; and (d) generating a reconstructed image by reconstructing the synthetic projection image, wherein the X-ray detector and the X-ray source are rotated about the rotating axis while facing each other, the X-ray source irradiating the X-rays to the X-ray detector at each of the predetermined imaging angles (θ) based on the rotating axis, while the rotating arm is rotated 360 degrees, and the size of the synthetic projection image is variable depending on the number of times that the X-ray detector is moved in the width direction of the X-ray detector. wherein the X-ray detector and the X-ray source are rotated about the rotating axis while facing each other, the X-ray source irradiating the X-rays to the X-ray detector at each of the predetermined imaging angles (θ) based on the rotating axis, while the rotating arm is rotated 360 degrees, and the size of the synthetic projection image is variable depending on the number of times that the X-ray detector is moved in the width direction of the X-ray detector.