mhurhangee/ep-ind-claims huggingface dataset:
A hot-dip Al-Zn-Mg-Si coated steel sheet comprising a base steel sheet and a hot-dip coating on a surface of the base steel sheet, wherein the hot-dip coating includes an interfacial alloy layer present at an interface with the base steel sheet and a main layer present on the interfacial alloy layer, and contains from 25 mass% to 80 mass% of Al, from greater than 0.6 mass% to 15 mass% of Si, and from greater than 0.1 mass% to 25 mass% of Mg, and optionally 0.2 mass% to 25 mass% of Ca and/or one or more of Mn, V, Cr, Mo, Ti, Sr, Ni, Co, Sb, and B in a total amount of 0.01 mass% to 10 mass%, the balance being Zn and incidental impurities, and Mg content and Si content in the hot-dip coating satisfy formula: M Mg / M Si − 0.6 > 1.7 where M Mg represents the Mg content in mass% and M Si represents the Si content in mass%, characterized in that the main layer includes an α-Al phase dendritic region, and a mean dendrite diameter of the α-Al phase dendritic region and a thickness of the hot-dip coating satisfy formula: t / d ≥ 1.5 where t represents the thickness of the hot-dip coating in μm and d represents the mean dendrite diameter in μm, where the mean dendrite diameter is measured according to the method specified in the description, the main layer contains Mg 2 Si and the Mg 2 Si content in the main layer is 1.0 mass% or more and an area ratio of Mg 2 Si in a cross-section of the main layer is 1 % or more, the main layer contains Mg 2 Si particles that are finely and uniformly dispersed in the interdendritic regions, and the ratio of the minor diameter relative to the major diameter of the Mg 2 Si particles is 0.4 or less, where the "major diameter" refers to the longest diameter in a Mg 2 Si particle and the "minor diameter" refers to a shortest diameter in a Mg 2 Si particle.
A light vehicle, comprising one or more coupling mechanisms arranged to couple the light vehicle to a surface, the one or more coupling mechanisms comprising: a magnetic coupling device, configured to be attached to the light vehicle, and arranged such that it may be switched between a first mode and a second mode, wherein in the first mode the device generates an external magnetic field less than a first strength, and in the second mode the device generates an external magnetic field of at least a second strength, the second strength being greater than the first strength; a surface detection unit, configured to be attached to the light vehicle, and arranged to determine when the light vehicle is within a predetermined distance of a surface; and a coupling activation unit, configured to be attached to the light vehicle, and arranged to switch the magnetic coupling device between the first mode and the second mode, wherein in response to the surface detection unit determining that the light vehicle is within the predetermined distance, switching the magnetic coupling device from the first mode to the second mode, to couple the magnetic coupling device to the surface and thereby secure the light vehicle to the surface, wherein the magnetic coupling device comprises an electromagnet, and wherein switching the magnetic coupling device from the first mode to the second mode comprises: (i) increasing the electrical current supplied to the electromagnet; and/or (ii) adjusting the position of the electromagnet to be closer to the surface. a magnetic coupling device, configured to be attached to the light vehicle, and arranged such that it may be switched between a first mode and a second mode, wherein in the first mode the device generates an external magnetic field less than a first strength, and in the second mode the device generates an external magnetic field of at least a second strength, the second strength being greater than the first strength; a surface detection unit, configured to be attached to the light vehicle, and arranged to determine when the light vehicle is within a predetermined distance of a surface; and a coupling activation unit, configured to be attached to the light vehicle, and arranged to switch the magnetic coupling device between the first mode and the second mode, wherein in response to the surface detection unit determining that the light vehicle is within the predetermined distance, switching the magnetic coupling device from the first mode to the second mode, to couple the magnetic coupling device to the surface and thereby secure the light vehicle to the surface, wherein the magnetic coupling device comprises an electromagnet, and wherein switching the magnetic coupling device from the first mode to the second mode comprises: (i) increasing the electrical current supplied to the electromagnet; and/or (ii) adjusting the position of the electromagnet to be closer to the surface. (i) increasing the electrical current supplied to the electromagnet; and/or (ii) adjusting the position of the electromagnet to be closer to the surface.
A unitized segmented sheave assembly, comprising: sheaves arrayed in a side-to-side formation and respectively comprising bearings (31, 32) and an exterior running surface; spacers interleaved between neighboring sheaves, and respective inner races (310, 320) of the bearings (31, 32) of each sheave and respective interior portions of each spacer cooperatively forming an interior annular surface; characterized by a sleeve disposed in abutment with the interior annular surface; wherein the sleeve defines a bore into which a shaft is insertible. sheaves arrayed in a side-to-side formation and respectively comprising bearings (31, 32) and an exterior running surface; spacers interleaved between neighboring sheaves, and respective inner races (310, 320) of the bearings (31, 32) of each sheave and respective interior portions of each spacer cooperatively forming an interior annular surface; characterized by a sleeve disposed in abutment with the interior annular surface; wherein the sleeve defines a bore into which a shaft is insertible.
An elevator apparatus comprising: an elevator control unit for controlling an operation of a car; and an electronic safety controller, which detects an abnormality of an elevator and generates an instruction signal for shifting the elevator to a safe state, wherein: the electronic safety controller is capable of detecting an abnormality of the electronic safety controller itself; characterized in that when the abnormality of the electronic safety controller itself is detected, the electronic safety controller outputs a nearest floor stop instruction for stopping the car at a nearest floor to the elevator control unit; and after a predetermined time has elapsed from the output of the nearest floor stop instruction, the electronic safety controller outputs an emergency stop instruction for performing an emergency stop of the car to the elevator control unit. the electronic safety controller is capable of detecting an abnormality of the electronic safety controller itself; characterized in that when the abnormality of the electronic safety controller itself is detected, the electronic safety controller outputs a nearest floor stop instruction for stopping the car at a nearest floor to the elevator control unit; and after a predetermined time has elapsed from the output of the nearest floor stop instruction, the electronic safety controller outputs an emergency stop instruction for performing an emergency stop of the car to the elevator control unit.
A fixing apparatus for releasably fixing at least one functional component, in particular in the form of a tool holder, on a further functional component, in particular in the form of a tool disk, about at least one fixing axis, wherein the two functional components each have a bearing surface (7, 9) for mutual contact with one another, and both the one functional component and also the further functional component have at least one fixing element (11, 13), wherein, to form the fixing elements, the one functional component has two fixing bodies in fixed-position connection with the associated functional component on both sides of the fixing axis and spaced apart, and that each fixing body forms a fixing surface extending transversally to the fixing axis, which both from the same side may be placed against an associated positioning surface, which as fixing elements are located spaced apart on the other functional component, wherein each of the fixing bodies is formed by a strip body attached to opposite side faces of a base plate of the tool holder, wherein the strip bodies are fixed to the base plate by means of a threaded connection, characterised in that the threaded connection contains form locking elements for forming a precision-fit connection without the use of an adjusting device, and that, for forming the precision-fit form locking between screw and the associated holes (45, 47) in strip body and base plate, each threaded connection has a bushing snugly seated on the screw, the outer circumference of which bushing forms a match with the holes (45, 47) of the strip body and the base plate.
A method of providing a terminal comprising: providing a body with a flexible beam and a stationary beam that oppose each other, the body further including a first securing tab and a first slot; providing a covering with an upper section and lower section having a middle wall separating the sections, the middle wall having a stiffening beam formed therefrom, the covering further including a second securing tab; wherein the body and the covering are formed separately; joining the covering to the body by inserting the body into the lower section so the stiffening beam engages the flexible beam; and forming the covering so that the first securing tab and the second securing tab extend through the first slot. providing a body with a flexible beam and a stationary beam that oppose each other, the body further including a first securing tab and a first slot; providing a covering with an upper section and lower section having a middle wall separating the sections, the middle wall having a stiffening beam formed therefrom, the covering further including a second securing tab; wherein the body and the covering are formed separately; joining the covering to the body by inserting the body into the lower section so the stiffening beam engages the flexible beam; and forming the covering so that the first securing tab and the second securing tab extend through the first slot.
A method of data transmission by a terminal, the method comprising: generating first IP data to be transmitted via a first packet data network, PDN, connection installed with a small data packet filter; determining whether the first IP data satisfies a preset criterion of the small data packet filter, by determining whether a size of the first IP data is less than or equal to a predetermined size or the first IP data matches identification information of a preset service; transmitting, in case that the first IP data satisfies the preset criterion of the small data packet filter, the first IP data through a connection management layer to a base station by using a control message; generating second IP data to be transmitted via a second PDN connection not installed with a small data packet filter; and transmitting the second IP data to the base station by using a data bearer. generating first IP data to be transmitted via a first packet data network, PDN, connection installed with a small data packet filter; determining whether the first IP data satisfies a preset criterion of the small data packet filter, by determining whether a size of the first IP data is less than or equal to a predetermined size or the first IP data matches identification information of a preset service; transmitting, in case that the first IP data satisfies the preset criterion of the small data packet filter, the first IP data through a connection management layer to a base station by using a control message; generating second IP data to be transmitted via a second PDN connection not installed with a small data packet filter; and transmitting the second IP data to the base station by using a data bearer.
A method of selecting a lighting pattern of an aircraft, the aircraft comprising a light source and a photoluminescent element, the method comprising: exposing the photoluminescent element to electromagnetic radiation emitted from the light source of the aircraft, wherein the light source has (a) a spectral power distribution and (b) an illumination level; calculating a total energy absorbed by the photoluminescent element based on (a) the spectral power distribution of the light source, (b) the illumination level of the light source and (c) an exposure duration of the photoluminescent element to the electromagnetic radiation; using the total energy absorbed with a normalized photoluminescent response function of the photoluminescent element to calculate a discharge duration of the photoluminescent element; and selecting the lighting pattern based on the calculated discharge duration of the photoluminescent element. exposing the photoluminescent element to electromagnetic radiation emitted from the light source of the aircraft, wherein the light source has (a) a spectral power distribution and (b) an illumination level; calculating a total energy absorbed by the photoluminescent element based on (a) the spectral power distribution of the light source, (b) the illumination level of the light source and (c) an exposure duration of the photoluminescent element to the electromagnetic radiation; using the total energy absorbed with a normalized photoluminescent response function of the photoluminescent element to calculate a discharge duration of the photoluminescent element; and selecting the lighting pattern based on the calculated discharge duration of the photoluminescent element.
A method comprising: combining a control signal of a voltage regulator circuit of an apparatus with pseudo-random noise; using the control signal to provide an output voltage signal as attenuated by a power supply rejection ratio, PSRR, of an analog mixed-signal, AMS, circuit of the apparatus; self-testing the AMS circuit by cross-correlating a signal indicative of the output voltage signal from the AMS circuit with the pseudo-random noise and, in response, assessing results of the cross-correlation relative to a known threshold indicative of a performance level of the AMS circuit; characterized by passing the pseudo-random noise through a software-implemented model of the AMS circuit; and subtracting from an output signal of the AMS circuit the pseudo-random noise. combining a control signal of a voltage regulator circuit of an apparatus with pseudo-random noise; using the control signal to provide an output voltage signal as attenuated by a power supply rejection ratio, PSRR, of an analog mixed-signal, AMS, circuit of the apparatus; self-testing the AMS circuit by cross-correlating a signal indicative of the output voltage signal from the AMS circuit with the pseudo-random noise and, in response, assessing results of the cross-correlation relative to a known threshold indicative of a performance level of the AMS circuit; characterized by passing the pseudo-random noise through a software-implemented model of the AMS circuit; and subtracting from an output signal of the AMS circuit the pseudo-random noise.
A sensor patch, comprising: a light conductor including at least one fiber optic sensor element; a carrier structure, including: a first fastening element for fastening the light conductor at a first position; and spaced apart from the first fastening element, a second fastening element for fastening the light conductor at a second position, wherein the fiber optic sensor element is arranged between the first position and the second position; an intermediate carrier having a first surface, on which intermediate carrier the first and second fastening elements (301, 302) are attached at respective fastening positions (501, 502), and having an opposite second surface which can be attached to a measurement object; and a cover element which is arranged on and connected to the intermediate carrier and, together with the intermediate carrier, has a cross-sectional dimension oriented approximately vertically to a longitudinal extension of the light conductor such that the light conductor is running in the neutral fiber of the sensor patch, which fiber has no tensile or compressive stresses in the event of bending. a light conductor including at least one fiber optic sensor element; a carrier structure, including: a first fastening element for fastening the light conductor at a first position; and spaced apart from the first fastening element, a second fastening element for fastening the light conductor at a second position, wherein the fiber optic sensor element is arranged between the first position and the second position; a first fastening element for fastening the light conductor at a first position; and spaced apart from the first fastening element, a second fastening element for fastening the light conductor at a second position, wherein the fiber optic sensor element is arranged between the first position and the second position; an intermediate carrier having a first surface, on which intermediate carrier the first and second fastening elements (301, 302) are attached at respective fastening positions (501, 502), and having an opposite second surface which can be attached to a measurement object; and a cover element which is arranged on and connected to the intermediate carrier and, together with the intermediate carrier, has a cross-sectional dimension oriented approximately vertically to a longitudinal extension of the light conductor such that the light conductor is running in the neutral fiber of the sensor patch, which fiber has no tensile or compressive stresses in the event of bending.
A pressure sprayer nozzle comprising a main body portion having an inlet channel for accepting liquid from a pressure sprayer, an outlet head which is rotatably mounted on the main body portion and comprises a plurality of liquid outlet portions (41a, 41b, 41c), and a seal provided between the main body portion and the outlet head for sealing between an outlet of the inlet channel and a respective inlet of at least one of the liquid outlet portions, the outlet head being rotatable between: a first position in which a first of the plurality of outlet portions is in fluid communication with the inlet channel so that in use liquid can flow from the inlet channel to, and out of, the first of the plurality of outlet portions; and a second position in which a second of the plurality of outlet portions is in fluid communication with the inlet channel so that in use liquid can flow from the inlet channel to, and out of, the second of the plurality of liquid outlet portions, wherein the first of the plurality of liquid outlet portions differs from the second of the plurality of liquid outlet portions such as to allow the selection of a first outlet spray type by rotating the outlet head to the first position and the selection of a second outlet spray type by rotating the outlet head to the second position, in which a first of the liquid outlet portions comprises a mounting portion to which an outlet component is mountable by a user. a first position in which a first of the plurality of outlet portions is in fluid communication with the inlet channel so that in use liquid can flow from the inlet channel to, and out of, the first of the plurality of outlet portions; and a second position in which a second of the plurality of outlet portions is in fluid communication with the inlet channel so that in use liquid can flow from the inlet channel to, and out of, the second of the plurality of liquid outlet portions, wherein the first of the plurality of liquid outlet portions differs from the second of the plurality of liquid outlet portions such as to allow the selection of a first outlet spray type by rotating the outlet head to the first position and the selection of a second outlet spray type by rotating the outlet head to the second position, in which a first of the liquid outlet portions comprises a mounting portion to which an outlet component is mountable by a user.
A blade for applications in printing technology and/or paper production, comprising a flat and elongated base body with a working edge area formed in a longitudinal direction, wherein the working edge area is coated with at least one ceramic-based coating, characterized in that it is a thermal suspension sprayed ceramic-based coating, wherein a porosity of the ceramic-based coating is less than 5%.
A glazed wall comprising a first panel and a second panel and a connecting joint between the panels (2, 2') which cooperates with a face (23, 21') of each panel (2, 2'), the connecting joint comprising: - at least one support (7, 7') having a first external face (7A, 7'A) and a second external face (7B, 7'B), - a first fastening means arranged on the first external face (7A, 7'A) of the support, - a second fastening means arranged on the second external face (7B, 7'B) of the support, characterized in that the right-angle separation force of the first fastening means, measured on a glass panel with a mobile-jaw tensile testing machine with a 100 mm/min displacement speed of the mobile jaw, lies between 3 and 20 N/cm, preferably between 3 and 15 N/cm, while the right-angle separation force of the second fastening means, measured on a glass panel with a mobile-jaw tensile testing machine with a 100 mm/min displacement speed of the mobile jaw, is greater than or equal to 30 N/cm. - at least one support (7, 7') having a first external face (7A, 7'A) and a second external face (7B, 7'B), - a first fastening means arranged on the first external face (7A, 7'A) of the support, - a second fastening means arranged on the second external face (7B, 7'B) of the support, characterized in that the right-angle separation force of the first fastening means, measured on a glass panel with a mobile-jaw tensile testing machine with a 100 mm/min displacement speed of the mobile jaw, lies between 3 and 20 N/cm, preferably between 3 and 15 N/cm, while the right-angle separation force of the second fastening means, measured on a glass panel with a mobile-jaw tensile testing machine with a 100 mm/min displacement speed of the mobile jaw, is greater than or equal to 30 N/cm.
A drawer having a drawer body, the drawer having a pull-out device (28, 30, 34) adapted to displace the drawer body in a horizontal direction, and having a lifting device adapted to displace the drawer body in a vertical direction from a vertical first level to a vertical second level, wherein there is a guide (30, 38, 60) having at least one pivot element vertically displacing the drawer body, characterized in that the guide has a guide curve, in which a guide element is guided, wherein the guide curve has at least one section only running horizontally and a thereto connected section running in an inclined manner.
A laser processing method comprising the steps of: placing an object, including a conductor layer and an insulating layer which is comprised of a resin and is laminated on the conductor layer, onto an optical path of pulsed laser light; and irradiating the object with the pulsed laser light so as to remove a part of the insulating layer located in a predetermined region on the conductor layer; characterized in that a wavelength exhibiting an absorptance of less than 10% with respect to the conductor layer and a reflectance of 70% or more with respect to the insulating layer is selected as a wavelength of the pulsed laser light, wherein a fluence per one pulse of the pulsed laser light is set in relation to a predetermined level of a carbon concentration detected on a surface of the conductor layer after removing the insulating layer, wherein a repetition frequency of the pulsed laser light is set such that the pulsed laser light has a full width at half maximum of shorter than 5 ns; and wherein the predetermined region of the object is irradiated with the pulsed laser light having the selected wavelength, the fluence per one pulse, and the repetition frequency such that the pulsed laser light reaches the conductor layer after passing through the insulating layer.