mhurhangee/ep-ind-claims huggingface dataset:
A color-treated substrate which has the intrinsic texture and gloss of metal, comprising: a matrix containing magnesium; a film formed on the matrix and containing a compound represented by the following Chemical Formula 1; and a wavelength conversion layer formed on the film, wherein an average thickness of the wavelength conversion layer is 200 nm or less, wherein the wavelength conversion layer includes one or more selected from the group consisting of metals including aluminum (Al), chromium (Cr), titanium (Ti), gold (Au), molybdenum (Mo), silver (Ag), manganese (Mn), zirconium (Zr), palladium (Pd), platinum (Pt), cobalt (Co), cadmium (Cd) or copper (Cu) and ions thereof: [Chemical Formula 1] M m wherein M includes one or more selected from the group consisting of Na, K, Mg, Ca and Ba, and m is 1 or 2, wherein a condition of the following Expression 1 is satisfied with respect to an arbitrary point A existing on the wavelength conversion layer: 0.1 ≤ T film / T ML ≤ 10 wherein T film represents an average thickness of the film at the point A, and T ML represents an average thickness of the wavelength conversion layer at the point A. a matrix containing magnesium; a film formed on the matrix and containing a compound represented by the following Chemical Formula 1; and a wavelength conversion layer formed on the film, wherein an average thickness of the wavelength conversion layer is 200 nm or less, wherein the wavelength conversion layer includes one or more selected from the group consisting of metals including aluminum (Al), chromium (Cr), titanium (Ti), gold (Au), molybdenum (Mo), silver (Ag), manganese (Mn), zirconium (Zr), palladium (Pd), platinum (Pt), cobalt (Co), cadmium (Cd) or copper (Cu) and ions thereof: [Chemical Formula 1] M m wherein M includes one or more selected from the group consisting of Na, K, Mg, Ca and Ba, and m is 1 or 2, wherein a condition of the following Expression 1 is satisfied with respect to an arbitrary point A existing on the wavelength conversion layer: 0.1 ≤ T film / T ML ≤ 10 wherein T film represents an average thickness of the film at the point A, and T ML represents an average thickness of the wavelength conversion layer at the point A.
An aircraft landing gear comprising: a bogie beam, a shock strut coupled to the bogie beam by a bogie pivot pin, and a bearing arrangement coupled to the bogie beam and the shock strut, the bearing arrangement comprising: a first element having: an inner race, and a first bearing surface, a second element, pivotable relative to the first element about a first axis, the second element comprising: an outer race, and a second bearing surface, which cooperates with the first bearing surface to form a plain bearing, and a roller element disposed between the inner and outer races to form a rolling bearing, wherein the inner and outer races are arcuate and subtend an angle (α) about the axis of less than 360°. a bogie beam, a shock strut coupled to the bogie beam by a bogie pivot pin, and a bearing arrangement coupled to the bogie beam and the shock strut, the bearing arrangement comprising: a first element having: an inner race, and a first bearing surface, a second element, pivotable relative to the first element about a first axis, the second element comprising: an outer race, and a second bearing surface, which cooperates with the first bearing surface to form a plain bearing, and a first element having: an inner race, and a first bearing surface, an inner race, and a first bearing surface, a second element, pivotable relative to the first element about a first axis, the second element comprising: an outer race, and a second bearing surface, which cooperates with the first bearing surface to form a plain bearing, and an outer race, and a second bearing surface, which cooperates with the first bearing surface to form a plain bearing, and a roller element disposed between the inner and outer races to form a rolling bearing, wherein the inner and outer races are arcuate and subtend an angle (α) about the axis of less than 360°.
Method for operating a communication system, particularly an alarm system comprising networked alarm indicators, having the following method steps: a. provision of a limit value for a reception strength in a message that is to be sent, b. sending of the message with the provided limit value by a sending system subscriber, c. reception of the message with the provided limit value and extraction of the selected and provided limit value from the message, d. reception of a message and ascertainment of the reception strength on reception of the message, e. comparison of the limit value from the received message sent in step b with the reception strength ascertained in step d, by the receiving system subscriber, and f. rejection of the message received in step d by the receiving system subscriber if the reception strength ascertained in step d is below the limit value sent in step b, characterized in that the sending subscriber selects the limit value on the basis of different criteria, particularly on the basis of its mode of operation or the type of the receiving equipment. a. provision of a limit value for a reception strength in a message that is to be sent, b. sending of the message with the provided limit value by a sending system subscriber, c. reception of the message with the provided limit value and extraction of the selected and provided limit value from the message, d. reception of a message and ascertainment of the reception strength on reception of the message, e. comparison of the limit value from the received message sent in step b with the reception strength ascertained in step d, by the receiving system subscriber, and f. rejection of the message received in step d by the receiving system subscriber if the reception strength ascertained in step d is below the limit value sent in step b,
Method for operating a light assistance system for a vehicle, which is equipped with a camera at least for detecting oncoming road users or road users traveling in front, and is equipped with a device for identifying an urban environment, the switching on of a high beam being suppressed when driving in the urban environment, and error messages relating to the restricted view of the camera which occur when driving in the urban environment being suppressed, characterized in that, when the vehicle leaves the urban environment and an error message relating to the restricted view of the camera is still present, this error message is displayed after a specified period of time from leaving the urban environment.
Method for producing a structural load bearing component in medical equipment, prosthetics, sports hardware, industrial robots, construction, vehicles, boats, cars, motors, or bicycles, the method comprises the steps of: a) providing a mould for said structural load bearing component; b) layering said mould with two or more layers forming the outer surface of said structural load bearing component; c) filling said layered mould with a mixture comprising non-expanded heat-expandable microspheres and a curable resin and closing said mould; d) subjecting said closed mould to an inner temperature of 80°C to 140°C during 2 to 230 minutes thereby providing a relative pressure in said closed mould of 2 to 10 bar through expansion of said heat-expandable microspheres thereby forming structural load bearing component in said mould with a foam enforced inner core and a multi-layered outer surface; and e) separating the structural load bearing component from said mould; wherein the mould is a sealable or closable mould capable of withstanding the pressures and temperatures generated during step (d) and providing the negative or reverse image of the structural load bearing component produced; and characterised in that said mixture further comprises strength enforcing fibres, preferably carbon nanotubes and/or carbon fibre. a) providing a mould for said structural load bearing component; b) layering said mould with two or more layers forming the outer surface of said structural load bearing component; c) filling said layered mould with a mixture comprising non-expanded heat-expandable microspheres and a curable resin and closing said mould; d) subjecting said closed mould to an inner temperature of 80°C to 140°C during 2 to 230 minutes thereby providing a relative pressure in said closed mould of 2 to 10 bar through expansion of said heat-expandable microspheres thereby forming structural load bearing component in said mould with a foam enforced inner core and a multi-layered outer surface; and e) separating the structural load bearing component from said mould;
Hot rolling mill system, including - several hot rolling stations, - at least one driver station, - at least one coiler station arranged consecutively along a longitudinal axis of the hot rolling mill system characterised in that aside from the driver station and/or coiler station viewed from the hot rolling stations in the direction of the coiler station, at least one driver roller storage station and at least one driver roller preparation station are present beyond the coiler station on the extension of the longitudinal axis of the hot rolling mill system, and that at least one moveable manipulator is present at least between the driver station and the driver roller preparation station and the driver roller storage station, if necessary also the hot rolling stations. - several hot rolling stations, - at least one driver station, - at least one coiler station arranged consecutively along a longitudinal axis of the hot rolling mill system characterised in that aside from the driver station and/or coiler station viewed from the hot rolling stations in the direction of the coiler station, at least one driver roller storage station and at least one driver roller preparation station are present beyond the coiler station on the extension of the longitudinal axis of the hot rolling mill system, and that at least one moveable manipulator is present at least between the driver station and the driver roller preparation station and the driver roller storage station, if necessary also the hot rolling stations.
A front end of a radar system comprising: a transmit front end device including a transmit planar component; and a receive front end device including a receive planar component, each of the transmit planar component and the receive planar component including: a first end (41a, 43a); a second end (41b, 43b) located opposite the first end, electromagnetic waves propagating in propagation directions between the first end and the second end; and a cavity space bounded by beam ports along a first side of the cavity space and by array ports along a second side of the cavity space, the cavity space being in operative communication with the beam ports and with the array ports to form a Rotman lens; characterized in that each of the transmit planar component and the receive planar component also includes a linear array of antennas (22, 24) located along the second end of the planar component, each of the antennas being in operative communication with a corresponding one of the array ports, wherein the transmit planar component and receive planar component are arranged such that the linear array of antennas of the transmit planar component and the linear array of antennas of the receive planar component are perpendicular to one another. a transmit front end device including a transmit planar component; and a receive front end device including a receive planar component, each of the transmit planar component and the receive planar component including: a first end (41a, 43a); a second end (41b, 43b) located opposite the first end, electromagnetic waves propagating in propagation directions between the first end and the second end; and a cavity space bounded by beam ports along a first side of the cavity space and by array ports along a second side of the cavity space, the cavity space being in operative communication with the beam ports and with the array ports to form a Rotman lens; a first end (41a, 43a); a second end (41b, 43b) located opposite the first end, electromagnetic waves propagating in propagation directions between the first end and the second end; and a cavity space bounded by beam ports along a first side of the cavity space and by array ports along a second side of the cavity space, the cavity space being in operative communication with the beam ports and with the array ports to form a Rotman lens; characterized in that each of the transmit planar component and the receive planar component also includes a linear array of antennas (22, 24) located along the second end of the planar component, each of the antennas being in operative communication with a corresponding one of the array ports, wherein the transmit planar component and receive planar component are arranged such that the linear array of antennas of the transmit planar component and the linear array of antennas of the receive planar component are perpendicular to one another.
A pressure governor (4, 4', 4") which comprises an input port (33, 83) into which air is input and a control output port (34, 85) from which a control order pressure is output to an outside, and the pressure governor (4, 4', 4") is configured to: not output the control order pressure from the control output port (34, 85) during a process where an air pressure in the input port (33, 83) increases from a first pressure to a second pressure higher than the first pressure, output the control order pressure from the control output port (34, 85) during a process where the air pressure in the input port (33, 83) decreases to the first pressure after reaching the second pressure, and stop the output of the control order pressure when the air pressure in the input port (33, 83) returns to the first pressure, wherein the pressure governor (4, 4', 4") further comprises: a first valve (11, 51, 11') provided in a first valve chamber (10a, 50a, 10a') to determine the first pressure, characterized in that the pressure governor (4, 4', 4") further comprises a second valve (12, 52, 12') provided in a second valve chamber (10b, 50b, 10b') communicated with the first valve chamber (10a, 50a, 10a') to determine the second pressure. not output the control order pressure from the control output port (34, 85) during a process where an air pressure in the input port (33, 83) increases from a first pressure to a second pressure higher than the first pressure, output the control order pressure from the control output port (34, 85) during a process where the air pressure in the input port (33, 83) decreases to the first pressure after reaching the second pressure, and stop the output of the control order pressure when the air pressure in the input port (33, 83) returns to the first pressure, wherein the pressure governor (4, 4', 4") further comprises: a first valve (11, 51, 11') provided in a first valve chamber (10a, 50a, 10a') to determine the first pressure, characterized in that the pressure governor (4, 4', 4") further comprises a second valve (12, 52, 12') provided in a second valve chamber (10b, 50b, 10b') communicated with the first valve chamber (10a, 50a, 10a') to determine the second pressure. a first valve (11, 51, 11') provided in a first valve chamber (10a, 50a, 10a') to determine the first pressure, characterized in that the pressure governor (4, 4', 4") further comprises a second valve (12, 52, 12') provided in a second valve chamber (10b, 50b, 10b') communicated with the first valve chamber (10a, 50a, 10a') to determine the second pressure.
A spark plug comprising: a tubular insulator having an axial hole extending in a direction of an axis thereof, the tubular insulator having an outer periphery with a tapered outer face where an outer diameter thereof decreases from a rear end to a front end thereof; a tubular metal shell having a through-hole extending in the axial direction through which the insulator is inserted, the tubular metal shell having a thread portion including an installation thread ridge on an outer periphery of the thread portion and a tapered inner face where an inner diameter thereof decreases from the rear end to the front end on an inner periphery of the thread portion; and a circular packing which is sandwiched between the tapered outer face of the insulator and the tapered inner face of the metal shell to seal a gap therebetween, characterized in that the thread portion has a nominal diameter of not more than 10 mm; and on at least one cross section including the axis the expressions of: (A/B) ≥ 3.1, B ≥ 0.25, and (A + B) ≤ 2.0 are satisfied, where A represents a length (mm) of (a difference between an effective diameter of the thread portion and an inner diameter at a rear end of the tapered inner face)/2, and B represents a length (mm) of (a difference between the inner diameter at the rear end of the tapered inner face and an inner diameter at a front end of the tapered inner face)/2. a tubular insulator having an axial hole extending in a direction of an axis thereof, the tubular insulator having an outer periphery with a tapered outer face where an outer diameter thereof decreases from a rear end to a front end thereof; a tubular metal shell having a through-hole extending in the axial direction through which the insulator is inserted, the tubular metal shell having a thread portion including an installation thread ridge on an outer periphery of the thread portion and a tapered inner face where an inner diameter thereof decreases from the rear end to the front end on an inner periphery of the thread portion; and a circular packing which is sandwiched between the tapered outer face of the insulator and the tapered inner face of the metal shell to seal a gap therebetween, characterized in that the thread portion has a nominal diameter of not more than 10 mm; and on at least one cross section including the axis the expressions of: (A/B) ≥ 3.1, B ≥ 0.25, and (A + B) ≤ 2.0 are satisfied, where A represents a length (mm) of (a difference between an effective diameter of the thread portion and an inner diameter at a rear end of the tapered inner face)/2, and B represents a length (mm) of (a difference between the inner diameter at the rear end of the tapered inner face and an inner diameter at a front end of the tapered inner face)/2.
A device providing an indication of eye disease in a patient comprising: a. a light emitter configured to illuminate the patient's eye; b. an optical assembly arranged so that light emitted from the light emitter reaches an eye of the patient in a diffuse manner; c. a camera arranged to image the eye of the patient; and d. a controller; wherein the controller is configured to measure the eye's pupil area using images received from the camera and to adjust luminance of the light emitted from the light emitter as a non-constant function of the eye's pupil area so as to create at least two stimulus intervals, wherein the at least two stimulus intervals have different, nonzero, average retinal illuminances, wherein at least one of the at least two stimulus intervals has a stimulus frequency between 4 Hz and 50 Hz, and wherein the controller is configured to analyze pupil measurements in the at least two stimulus intervals and to provide the indication of eye disease based on that analysis. a. a light emitter configured to illuminate the patient's eye; b. an optical assembly arranged so that light emitted from the light emitter reaches an eye of the patient in a diffuse manner; c. a camera arranged to image the eye of the patient; and d. a controller; wherein the controller is configured to measure the eye's pupil area using images received from the camera and to adjust luminance of the light emitted from the light emitter as a non-constant function of the eye's pupil area so as to create at least two stimulus intervals, wherein the at least two stimulus intervals have different, nonzero, average retinal illuminances, wherein at least one of the at least two stimulus intervals has a stimulus frequency between 4 Hz and 50 Hz, and wherein the controller is configured to analyze pupil measurements in the at least two stimulus intervals and to provide the indication of eye disease based on that analysis.
Spraying device comprising a cosmetic composition, said device comprising a container equipped with a spraying mechanism comprising: - a perforated membrane, the perforations of the membrane enabling communication of the interior of the container with the external environment, - an actuator to make the membrane vibrate, - a means for bringing the liquid cosmetic composition contained in the container into contact with an inner surface of the membrane, the cosmetic composition, under the effect of the vibrations of the membrane, flowing through the perforations to an outer surface of the membrane, where it emerges in the form of droplets, and the liquid cosmetic composition comprising, in a cosmetically acceptable medium, at least one fixing polymer, the fixing polymer(s) being chosen from anionic and amphoteric polymers. - a perforated membrane, the perforations of the membrane enabling communication of the interior of the container with the external environment, - an actuator to make the membrane vibrate, - a means for bringing the liquid cosmetic composition contained in the container into contact with an inner surface of the membrane,
A coordinate measuring apparatus for inspecting a series of substantially identical workpieces, comprising a workpiece-sensing probe which is movable into a position-sensing relationship with each workpiece and which is configured for taking a position reading (18,20), the apparatus being arranged for performing the following steps in any suitable order: (a) setting up an artefact having features, the size and location of which approximate the features of the workpieces, said artefact being calibrated not using said coordinate measuring apparatus; (b) measuring an artefact with the coordinate measuring apparatus at a desired speed which causes dynamic errors, the desired speed being used to measure subsequent workpieces; (c) generating an error map or error function corresponding to the difference between the calibration of said artefact and the measurement of said artefact; (d) measuring subsequent workpieces (32,34) with the coordinate measuring apparatus at said desired speed; and (e) correcting the measurements of the subsequent workpieces using the error map or error function and thereby removing or reducing both dynamic and static errors. (a) setting up an artefact having features, the size and location of which approximate the features of the workpieces, said artefact being calibrated not using said coordinate measuring apparatus; (b) measuring an artefact with the coordinate measuring apparatus at a desired speed which causes dynamic errors, the desired speed being used to measure subsequent workpieces; (c) generating an error map or error function corresponding to the difference between the calibration of said artefact and the measurement of said artefact; (d) measuring subsequent workpieces (32,34) with the coordinate measuring apparatus at said desired speed; and (e) correcting the measurements of the subsequent workpieces using the error map or error function and thereby removing or reducing both dynamic and static errors.
An interleaver for an apparatus for slicing food products, in particular for a high-performance slicer, comprising at least one driven roller; and at least one mating roller disposed opposite the roller for conveying a free end of at least one continuous web of an interleaved sheet material between the roller and the mating roller, wherein the roller has at least two individually drivable roller bodies (71a, 71b); wherein the roller bodies (71a, 71b) rotate about a common axis of rotation; and wherein the roller bodies (71a, 71b) are movably connected to one another via a bearing in the middle region. at least one driven roller; and at least one mating roller disposed opposite the roller for conveying a free end of at least one continuous web of an interleaved sheet material between the roller and the mating roller,