mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for anchoring a work machine to a foundation comprising: a mounting plate for placing on a foundation; a counter-plate for casting in the foundation; a hollow pipe that connects the mounting plate to the counter-plate and that is accessible toward its inner side from the side of the mounting plate remote from the counter-plate; and a tensile element for introduction into the hollow pipe, wherein the tensile element is releasably anchorable to the counter-plate by a rotational movement, and an element providing security against rotation that is connected to an outer contour of the tensile element and arranges it in a rotationally fixed manner, characterized in that the element providing security against rotation is arranged at the side of the mounting plate remote from the counter-plate or is formed by the mounting plate, with the element providing security against rotation comprising a passage hole whose inner cross-section corresponds to an outer cross-section of the tensile element, and with a locking means for a rotationally rigid fixing of the element providing security against rotation or of the tensile element operatively connected therewith being provided that is arranged in a fixed position on the side of the mounting plate remote from the counter-plate. a mounting plate for placing on a foundation; a counter-plate for casting in the foundation; a hollow pipe that connects the mounting plate to the counter-plate and that is accessible toward its inner side from the side of the mounting plate remote from the counter-plate; and a tensile element for introduction into the hollow pipe, wherein the tensile element is releasably anchorable to the counter-plate by a rotational movement, and an element providing security against rotation that is connected to an outer contour of the tensile element and arranges it in a rotationally fixed manner, characterized in that the element providing security against rotation is arranged at the side of the mounting plate remote from the counter-plate or is formed by the mounting plate, with the element providing security against rotation comprising a passage hole whose inner cross-section corresponds to an outer cross-section of the tensile element, and with a locking means for a rotationally rigid fixing of the element providing security against rotation or of the tensile element operatively connected therewith being provided that is arranged in a fixed position on the side of the mounting plate remote from the counter-plate.
Composition characterized in that the composition is a UV-crosslinkable and meltable pressure-sensitive adhesive comprising (i) mixtures of UV-crosslinkable polyacrylate polymers, selected from (i.a) mixtures of UV-crosslinkable polymers with at least one photoinitiator bonded covalently to the backbone of the polymers and (i.b) mixtures of UV-crosslinkable polyacrylate polymers, acrylate monomers and at least one photoinitiator, and (ii) at least one UV stabilizer; (iii) at least one stabilizer with respect to thermal reactions and ageing processes, from the group of primary and secondary ageing inhibitors; and in that the UV stabilizer is present in the composition with a defined concentration which is harmonized with the concentration of the photoinitiator and is dependent on the ratio of the absorption maxima according to formulae 1 and 2 below, which are each applied subject to conditions I) and II): I) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus less than 50 nm, 0.01 ≤ c UV − stabilizer c photoinitiator ≤ 0.25, where c is the concentration of the respective substance in mol/100 g polymer, II) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus greater than or equal to 50 nm, 0.05 ≤ c UV − stabilizer c photoinitiator ≤ 0.55, where c is the concentration of the respective substance in mol/100 g polymer. (i) mixtures of UV-crosslinkable polyacrylate polymers, selected from (i.a) mixtures of UV-crosslinkable polymers with at least one photoinitiator bonded covalently to the backbone of the polymers and (i.b) mixtures of UV-crosslinkable polyacrylate polymers, acrylate monomers and at least one photoinitiator, and (i.a) mixtures of UV-crosslinkable polymers with at least one photoinitiator bonded covalently to the backbone of the polymers and (i.b) mixtures of UV-crosslinkable polyacrylate polymers, acrylate monomers and at least one photoinitiator, and (ii) at least one UV stabilizer; (iii) at least one stabilizer with respect to thermal reactions and ageing processes, from the group of primary and secondary ageing inhibitors; and I) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus less than 50 nm, 0.01 ≤ c UV − stabilizer c photoinitiator ≤ 0.25, where c is the concentration of the respective substance in mol/100 g polymer, II) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus greater than or equal to 50 nm, 0.05 ≤ c UV − stabilizer c photoinitiator ≤ 0.55, where c is the concentration of the respective substance in mol/100 g polymer.
A keyboard assembly, comprising a keyboard substrate, a keycap array comprising a plurality of keycaps, and a lifting support array comprising a plurality of lifting supports one-to-one corresponding to the keycaps, wherein each keycap is connected to the keyboard substrate by using a lifting support corresponding to the keycap, wherein the keyboard substrate is configured to be connected to a bottom plate and a top plate, characterised in that the top plate is rotatably connected to the bottom plate, the bottom plate comprises a plurality of key accommodation grooves one-to-one corresponding to the plurality of keycaps; each key accommodation groove comprises a concave slope; the lifting support is located in the key accommodation groove; one end of the lifting support abuts against the concave slope and is capable of sliding on the concave slope; and the keyboard assembly is further configured such that: when the top plate rotates to a first specified location relative to the bottom plate, the top plate drives the keyboard substrate to move relative to the bottom plate, so that each lifting support slides in a first direction on the concave slope, and each lifting support descends, to drive each keycap to descend; and when the top plate rotates to a second specified location relative to the bottom plate, the top plate drives the keyboard substrate to move relative to the bottom plate, so that each lifting support slides in a second direction on the concave slope, and each lifting support ascends, to drive each keycap to ascend, thereby increasing a key travel distance of the keycap; wherein a direction in which the top plate rotates to the first specified location is opposite to a direction in which the top plate rotates to the second specified location. when the top plate rotates to a first specified location relative to the bottom plate, the top plate drives the keyboard substrate to move relative to the bottom plate, so that each lifting support slides in a first direction on the concave slope, and each lifting support descends, to drive each keycap to descend; and when the top plate rotates to a second specified location relative to the bottom plate, the top plate drives the keyboard substrate to move relative to the bottom plate, so that each lifting support slides in a second direction on the concave slope, and each lifting support ascends, to drive each keycap to ascend, thereby increasing a key travel distance of the keycap; wherein a direction in which the top plate rotates to the first specified location is opposite to a direction in which the top plate rotates to the second specified location.
Induction heating device, in particular induction hob device, having at least one heat frequency unit (20, 22, 24, 26), at least one induction heating unit (30, 32, 34, 36), which is provided to be operated by the heat frequency unit (20, 22, 24, 26), and at least one control unit and having at least one sensor unit (40, 42, 44, 46), characterised in that the control unit is provided to operate the heat frequency unit (20, 22, 24, 26) in a pulsed manner in at least one operating mode, wherein the heat frequency unit (20, 22, 24, 26) alternately provides high-frequency alternating current in pulse phases or no current in rest phases, wherein the control unit is provided to fix pulse parameters at least as a function of at least one sensor value of the sensor unit (40, 42, 44, 46), wherein the control unit is provided to fix the pulse parameters at least as a function of a fluctuation (S, S') of the sensor value of the sensor unit (40, 42, 44, 46).
An X-ray shielding glass having a composition comprising: 15 mass% to 25 mass% B 2 O 3; 7 mass% to 50 mass% La 2 O 3; 7 mass% to 50 mass% Gd 2 O 3; 10 mass% to 25 mass% WO 3; 0 mass% to 7 mass% SiOz; 0 mass% to 10 mass% ZrOz; 0 mass% to 8 mass% Nb 2 O 5; 0 mass% to 10 mass% Ta 2 O 5; 0 mass% to 5 mass% Bi 2 O 3; 0 mass% to 3 mass% CeOz; and 0 mass% to 1 mass% Sb 2 O 3, wherein the glass contains no ZnO, a total content of La 2 O 3 and Gd 2 O 3 is 45 mass% to 65 mass%, and when a thickness of the glass is 3 mm, a transmittance of the glass to an X-ray from an X-ray tube with a tube voltage of 60 kV is 0.0050 % or less, and a transmittance of the glass to an X-ray from an X-ray tube with a tube voltage of 100 kV is 0.1500 % or less. 15 mass% to 25 mass% B 2 O 3; 7 mass% to 50 mass% La 2 O 3; 7 mass% to 50 mass% Gd 2 O 3; 10 mass% to 25 mass% WO 3; 0 mass% to 7 mass% SiOz; 0 mass% to 10 mass% ZrOz; 0 mass% to 8 mass% Nb 2 O 5; 0 mass% to 10 mass% Ta 2 O 5; 0 mass% to 5 mass% Bi 2 O 3; 0 mass% to 3 mass% CeOz; and 0 mass% to 1 mass% Sb 2 O 3, wherein the glass contains no ZnO, a total content of La 2 O 3 and Gd 2 O 3 is 45 mass% to 65 mass%, and when a thickness of the glass is 3 mm, a transmittance of the glass to an X-ray from an X-ray tube with a tube voltage of 60 kV is 0.0050 % or less, and a transmittance of the glass to an X-ray from an X-ray tube with a tube voltage of 100 kV is 0.1500 % or less.
Apparatus for deposition of polycrystalline silicon, comprising a reactor chamber with a reactor wall, at least 20 filament rods and gas inlet orifices for reaction gas in the reactor chamber, wherein each filament rod - except for the filament rods next to the reactor wall - has, at a distance of 150 to 450 mm, three further adjacent filament rods and one to three adjacent gas inlet orifices, wherein the reactor chamber has a hexagonal cross section.
Rifle having a housing, a rifle barrel attached to the housing, a breech body for closing a chamber provided in the rifle barrel and a hammer mechanism for actuating a firing pin arranged in the breech body, wherein the hammer mechanism contains a hammer strut arranged between the firing pin and a firing pin piece and offset parallel to the firing pin, characterised in that the hammer strut runs above and along a magazine shaft arranged in the housing and open at the bottom.
Spray device for an agricultural sprayer, having - a distributor boom on which a plurality of dispensing elements for dispensing a spray liquid are arranged; and - an active vibration reducing device which is set up to actively reduce vibrations of the distributor boom; characterized by a dispensing-quantity control device which is set up to adapt the dispensing quantity of spray liquid at a plurality of, groups of or all of the dispensing elements, independently of one another, to vibrations of the distributor boom. - a distributor boom on which a plurality of dispensing elements for dispensing a spray liquid are arranged; and - an active vibration reducing device which is set up to actively reduce vibrations of the distributor boom;
A light emitting device having a plurality of vertically stacked light emitting diodes, each vertically stacked light emitting diode comprising: a substrate; a lower semiconductor layer of a first conductivity type positioned on the substrate; a semiconductor layer of a second conductivity type positioned on the lower semiconductor layer; a lower active layer interposed between the lower semiconductor layer and the semiconductor layer of the second conductivity type; an upper semiconductor layer of the first conductivity type positioned on the semiconductor layer of the second conductivity type; an upper active layer interposed between the semiconductor layer of the second conductivity type and the upper semiconductor layer; a first-type lower electrode formed on the lower semiconductor layer; a first second-type electrode formed on the semiconductor layer of the second conductivity type; and a first-type upper electrode formed on the upper semiconductor layer; characterized by a second second-type electrode, formed on the semiconductor layer of the second conductivity type in a region opposite to the first second-type electrode with respect to the upper active layer; an electrical connection between the first-type lower electrode of a first vertically stacked light emitting diode and the first second-type electrode of a second vertically stacked light emitting diode; an electrical connection between the second second-type electrode of the first vertically stacked light emitting diode and the first-type upper electrode of the second vertically stacked light emitting diode. a substrate; a lower semiconductor layer of a first conductivity type positioned on the substrate; a semiconductor layer of a second conductivity type positioned on the lower semiconductor layer; a lower active layer interposed between the lower semiconductor layer and the semiconductor layer of the second conductivity type; an upper semiconductor layer of the first conductivity type positioned on the semiconductor layer of the second conductivity type; an upper active layer interposed between the semiconductor layer of the second conductivity type and the upper semiconductor layer; a first-type lower electrode formed on the lower semiconductor layer; a first second-type electrode formed on the semiconductor layer of the second conductivity type; and a first-type upper electrode formed on the upper semiconductor layer;
A method for monitoring the surface state of structural parts which have a surface that comprises one or more stacked layers, said method comprising the steps of: - illuminating at least portions of the surface of at least one structural part in a broadband or narrowband manner by means of electromagnetic radiation in the visible and/or infrared range using an illuminating unit, - detecting the electromagnetic radiation in the visible and/or infrared range reflected from the structural part using a capturing unit, and - evaluating the obtained detection in a frequency-selective manner using an evaluating unit, so that a damage, aging and/or thickness distribution of at least one structural part surface layer can be ascertained based on the frequency-dependent, substance-specific absorption behavior (15, 16, 17) or fluorescence behavior of said at least one structural part surface layer, characterized by either comparing the detected absorption or fluorescence behavior to substance-specific reference absorption spectrums or reference fluorescence spectrums of the surface layer materials to determine the source of the damage with regard to surface position and/or layer, or performing a frequency scan in a predefined narrowband or broadband frequency range and evaluating a detected absorption behavior or fluorescence behavior with regard to contained substance-specific reference absorption spectrums or reference fluorescence spectrums to determine the source of the damage with regard to surface position and/or layer. - illuminating at least portions of the surface of at least one structural part in a broadband or narrowband manner by means of electromagnetic radiation in the visible and/or infrared range using an illuminating unit, - detecting the electromagnetic radiation in the visible and/or infrared range reflected from the structural part using a capturing unit, and - evaluating the obtained detection in a frequency-selective manner using an evaluating unit, so that a damage, aging and/or thickness distribution of at least one structural part surface layer can be ascertained based on the frequency-dependent, substance-specific absorption behavior (15, 16, 17) or fluorescence behavior of said at least one structural part surface layer,
A bracket system comprising at least one first element and a second element, where the second element comprises a connecting element configured to connect to a flange on the first element, wherein the connecting element comprises two walls, where each wall comprises a slot configured to slide over the flange on the first element, where the distance between the two opposite walls of the connecting element narrows in the direction perpendicular of the central axis in such a way as to ensure a close connection between the flange on the first element and the connecting element, characterized in that each of the walls comprises a notch, wherein the notches are preferably centrally positioned.
Support apparatus for a sliding door, the support apparatus having a carriage for suspension in a guide track and a securing device with a locking element, wherein the locking element in a securing position prevents the support apparatus and/or the carriage from being lifted out of the guide track, wherein the locking element automatically assumes the securing position after the support apparatus is suspended in the guide track and/or wherein the locking element is linearly movable and/or displaceable into and/or out of the securing position, characterized in that the support apparatus has a securing element which is visible in the installed state and is in the form of a cover or cap and which, in the installed state, limits a movement of the locking element by means of a mechanical blocking, as a result of which an unintentional movement of the locking element is prevented, and in that the securing element is attachable to the support apparatus in a force-fitting and/or form-fitting manner exclusively in the securing position. wherein the locking element in a securing position prevents the support apparatus and/or the carriage from being lifted out of the guide track, wherein the locking element automatically assumes the securing position after the support apparatus is suspended in the guide track and/or wherein the locking element is linearly movable and/or displaceable into and/or out of the securing position, characterized in that the support apparatus has a securing element which is visible in the installed state and is in the form of a cover or cap and which, in the installed state, limits a movement of the locking element by means of a mechanical blocking, as a result of which an unintentional movement of the locking element is prevented, and in that the securing element is attachable to the support apparatus in a force-fitting and/or form-fitting manner exclusively in the securing position.
Apparatus for generating a spatially and/or temporally variable thermal radiation pattern for deflectometrically examining a surface, comprising: a radiation source (102; 302) for generating a variable pattern; and means (106; 306) for converting the variable pattern into a thermal spectral range for a non-directional emission of the variable pattern as the thermal radiation pattern, wherein the means (106; 306) for converting comprises a radiation-absorbent screen with a plurality of pattern generation areas, characterized by transport means for the screen so that the screen is movable such that, after applying a first pattern onto a first pattern generation area, the screen may be moved so that a second pattern may be applied to a second pattern generation area that differs from the first pattern generation area, wherein the transport means includes transport rollers, wherein the screen comprises a band forming a surrounding projection surface, arranged on the transport rollers in order to be transported by the transport rollers, wherein the transport means is configured, after applying the first pattern onto the first pattern generation area, to further move the screen for a pattern change via the transport rollers until a new unwritten surface is available on the screen for applying the second pattern, and wherein the radiation source for generating the variable pattern includes a sharply focused radiation source in the form of a laser configured to write a desired pattern onto the screen. a radiation source (102; 302) for generating a variable pattern; and means (106; 306) for converting the variable pattern into a thermal spectral range for a non-directional emission of the variable pattern as the thermal radiation pattern, wherein the means (106; 306) for converting comprises a radiation-absorbent screen with a plurality of pattern generation areas, characterized by transport means for the screen so that the screen is movable such that, after applying a first pattern onto a first pattern generation area, the screen may be moved so that a second pattern may be applied to a second pattern generation area that differs from the first pattern generation area, wherein the transport means includes transport rollers, wherein the screen comprises a band forming a surrounding projection surface, arranged on the transport rollers in order to be transported by the transport rollers, wherein the transport means is configured, after applying the first pattern onto the first pattern generation area, to further move the screen for a pattern change via the transport rollers until a new unwritten surface is available on the screen for applying the second pattern, and wherein the radiation source for generating the variable pattern includes a sharply focused radiation source in the form of a laser configured to write a desired pattern onto the screen.
A compound for use in a method of prophylaxis or treatment of a measles viral infection, wherein the compound has formula I: wherein R 1 is selected from the group consisting of: C5 to C20 alkyl optionally substituted with one, two or three substituents independently selected from the group consisting of F, Cl, Br and I; substituted C1 to C20 alkyl, wherein a substituent on said C1 to C20 alkyl is selected from the group consisting of R 2 O- and R 2 S-, where R 2 is selected from the group consisting of C1 to C15 alkyl optionally substituted with one, two or three substituents independently selected from the group consisting of F, Cl, Br and I; and substituted aryl, wherein a substituent on said aryl is selected from the group consisting of Cl to C6 alkyl optionally substituted with one, two or three substituents independently selected from the group consisting of F, Cl, Br and I; X is selected from the group consisting of O, S, NH, NMe, NEt and N i Pr; wherein "alkyl," independently at each occurrence above is either acyclic or cyclic, and either branched or unbranched, and either saturated or unsaturated with one, two or three bonds independently selected from the group consisting of -C=C- and -C≡C- bonds; or is a pharmacologically acceptable salt, ester or salt of an ester thereof. C5 to C20 alkyl optionally substituted with one, two or three substituents independently selected from the group consisting of F, Cl, Br and I; substituted C1 to C20 alkyl, wherein a substituent on said C1 to C20 alkyl is selected from the group consisting of R 2 O- and R 2 S-, where R 2 is selected from the group consisting of C1 to C15 alkyl optionally substituted with one, two or three substituents independently selected from the group consisting of F, Cl, Br and I; and substituted aryl, wherein a substituent on said aryl is selected from the group consisting of Cl to C6 alkyl optionally substituted with one, two or three substituents independently selected from the group consisting of F, Cl, Br and I;