mhurhangee/ep-ind-claims huggingface dataset:
An adjustment method for an optoelectronic distance meter, which comprises: ▪ a module having ▪ a radiation source for emitting optical emission radiation, ▪ a detector for receiving optical reception radiation, and ▪ a printed circuit board, which are arranged in a rigid spatial relation to one another, and ▪ an optics carrier having ▪ emission optics and ▪ reception optics, an emission direction being defined by the radiation source and the emission optics, and a reception direction being defined by the detector and the reception optics, and the emission optics and the reception optics having different focal lengths, and the adjustment method establishes a desired orientation of the emission direction relative to the reception direction, characterized in that adjustment is carried out by displacing the entire module relative to the optics carrier, the displacement causing displacement-induced direction angle changes of the emission direction and the reception direction by a lever action of the different focal lengths of respectively different size, so that the orientation of the emission direction relative to the reception direction is varied. ▪ a module having ▪ a radiation source for emitting optical emission radiation, ▪ a detector for receiving optical reception radiation, and ▪ a printed circuit board, which are arranged in a rigid spatial relation to one another, and ▪ a radiation source for emitting optical emission radiation, ▪ a detector for receiving optical reception radiation, and ▪ a printed circuit board, ▪ an optics carrier having ▪ emission optics and ▪ reception optics, an emission direction being defined by the radiation source and the emission optics, and a reception direction being defined by the detector and the reception optics, and the emission optics and the reception optics having different focal lengths, ▪ emission optics and ▪ reception optics,
A method for receiving broadcast signals, the method comprising; receiving two broadcast signals and demodulating the received two broadcast signals by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein each of the demodulated two broadcast signals includes a signal frame, wherein the signal frame includes a preamble and data symbols, wherein the de-modulating further includes obtaining a P1 symbol and an AP1 symbol from the preamble, the P1 symbol carrying a transmission type and a corresponding preamble identifier and the AP1 symbol carrying additional transmission parameters to detect a broadcast signal for a mobile service, wherein the P1 symbol includes a main part and two guard intervals and the AP1 symbol includes an additional main part and two additional guard intervals wherein a length of each of the two additional guard intervals in the AP1 symbol is different from a length of each of the two guard intervals in the P1 symbol, wherein the data symbols carries PLPs, Physical Layer Pipes, each PLP including at least one service or at least one service component; frequency de-interleaving the demodulated two broadcast signals by a pair of consecutive cells; parsing each of the two signal frames from the frequency de-interleaved two broadcast signals; decoding data in the parsed two signal frames, wherein the decoding further comprises a first decoding for PLPs for Multi-Input Single-Output, MISO, processing, a second decoding for PLPs for Multi-Input Multi-Output, MIMO, processing and a third decoding for L1 signaling information for MISO processing, wherein the second decoding includes; time de-interleaving data corresponding to the PLPs for MIMO processing; cell de-interleaving the time de-interleaved data by a cell unit; MIMO processing the cell de-interleaved data to output two output signals; Quadrature Amplitude Modulation, QAM, de-mapping data of the two output signals; and Forward error correction, FEC, decoding the QAM de-mapped data, wherein the two output signals of the MIMO processed data are signals mapped by the pair of consecutive cells.
A pinion, which corresponds with a toothed piston of a door closer or of a door operator, which has at least one toothing and, at each end of the pinion, a square shaft end (4a, 4b), at which at least one cone (12a, 12b) is provided, and a cylindrically shaft (3a, 3b) is disposed between each square shaft end (4a, 4b) and the toothing, characterized in that the toothing is mounted position-oriented with regard to the two square shaft ends (4a, 4b) located at the end of the pinion, the central lines serving to determine the position of the toothing, and the toothing having a collar at one end.
A multi-layer metal sheet comprising a core layer comprising an aluminum alloy comprising 0.16-0.5% Si, 0.5-1.1% Cu, 0.001-0.20% Ti, 0.15-0.55% Fe, 0-0.35% Mg, and 1.3-1.80% Mn, up to 0.15% of impurities, with the remainder as Al, wherein optionally at least one impurity in the impurities is from scrap metal, wherein optionally the at least one impurity is 0.05%, below 0.05%, below 0.04%, below 0.03%, or below 0.02%, and the sum of all impurities is up to 0.15%, and wherein further optionally the at least one impurity is Cr, Zr or V; wherein the core layer has a first side and a second side, and at least one cladding layer on the first side or the second side; and wherein the multi-layer sheet optionally comprises a second cladding layer on the core layer, optionally wherein the first side of the core layer is adjacent to the first cladding layer to form a first interface and the second side of the core layer is adjacent to the second cladding layer to form a second interface; wherein the first cladding layer and the optional second cladding layer are made of an alloy comprising from 6 to 13% Si, up to 0.4% Fe, up to 0.1% Cu, up to 0.1% Mn, up to 0.20% Mg, up to 0.05% Cr, from 2.5 to 4.0% Zn, up to 0.05% Ti, up to 0.02% Sr, up to 0.15% impurities, and the remainder Al; and wherein further optionally the core layer is made of an alloy comprising 0.16- 0.25% Si, 0.15-0.25% Fe, from 0.5 to 0.6% Cu, from 1.4 to 1.6% Mn, from 0.06 to 0.14% Mg, up to 0.05% Cr, up to 0.04% Zn, from 0.1 to 0.2% Ti, up to 0.05% Sr, up to 0.15% impurities, and the remainder Al.
Method of arranging an add-on construction (6, 7) with internal cavity around a top part of a base construction, the add-on construction comprising a work platform, a cage construction, a mooring construction and/or a J-tube construction of an offshore wind turbine, and the base construction comprising a monopile or jacket foundation of said offshore wind turbine, the method comprising: - providing a device comprising a first and a second part (10, 30) which are coupled displaceably relative to each other along a common axis, extending in a longitudinal direction (11, 31) of both parts, between two positions (A, B) in which positions Z the parts (10, 30) can be secured to each other; wherein the first part comprises first coupling means for connecting to the add-on construction (6, 7); wherein the second part comprises second coupling means for connection to the base construction; and wherein the second part is configured to be received in the cavity of the add-on construction (6, 7) for the purpose of supporting the add-on construction (6, 7); - connecting the first part to the add-on construction (6, 7) with the first coupling means; - displacing the second part relative to the first part until the second part has been received in the cavity of the add-on construction (6, 7) for the purpose of supporting it; - hoisting the thus coupled first and second parts (10, 30) and the add-on construction (6, 7) onto the base construction; - connecting the second part to the base construction with the second coupling means; - displacing the first part and the add-on construction (6, 7) coupled thereto relative to the second part, wherein the internal cavity of the add-on construction (6, 7) is arranged around the top part of the base construction. - providing a device comprising a first and a second part (10, 30) which are coupled displaceably relative to each other along a common axis, extending in a longitudinal direction (11, 31) of both parts, between two positions (A, B) in which positions Z the parts (10, 30) can be secured to each other; wherein the first part comprises first coupling means for connecting to the add-on construction (6, 7); wherein the second part comprises second coupling means for connection to the base construction; and wherein the second part is configured to be received in the cavity of the add-on construction (6, 7) for the purpose of supporting the add-on construction (6, 7); - connecting the first part to the add-on construction (6, 7) with the first coupling means; - displacing the second part relative to the first part until the second part has been received in the cavity of the add-on construction (6, 7) for the purpose of supporting it; - hoisting the thus coupled first and second parts (10, 30) and the add-on construction (6, 7) onto the base construction; - connecting the second part to the base construction with the second coupling means; - displacing the first part and the add-on construction (6, 7) coupled thereto relative to the second part, wherein the internal cavity of the add-on construction (6, 7) is arranged around the top part of the base construction.
A fluid container comprising: a first vessel; a second vessel connected or connectable to the first vessel; a sealing partition preventing fluid flow from the second vessel; and a spherical opening element initially supported within the second vessel by the sealing partition and configured to be contacted with the sealing partition to open the sealing partition and permit fluid flow from the second vessel, wherein the first vessel comprises a first collapsible blister supported on a planar substrate, and the second vessel comprises a second collapsible blister supported on the substrate. a first vessel; a second vessel connected or connectable to the first vessel; a sealing partition preventing fluid flow from the second vessel; and a spherical opening element initially supported within the second vessel by the sealing partition and configured to be contacted with the sealing partition to open the sealing partition and permit fluid flow from the second vessel, wherein the first vessel comprises a first collapsible blister supported on a planar substrate, and the second vessel comprises a second collapsible blister supported on the substrate.
Installation switching device which can be covered by a covering hood and which comprises an insulating-material housing that can be fastened to a wall by way of a fastening side, and which has at least one operating element on a front side and to the connection terminals of which electrical connection conductors can be connected, comprising a covering hood which can be coupled in a detachable manner to the installation switching device and which covers the installation switching device on all sides, leaving free the fastening side and the operating element, in order to prevent unauthorized access to the connection terminals, wherein a coupling element is connected in a detachable manner to the insulating-material housing of the installation switching device, wherein the coupling element has a latching element for securely holding the covering hood and a lead-sealing apparatus for preventing unauthorized removal of the covering hood, characterized in that the latching element comprises a latching head which is fitted to a pin and which has a latching lug, wherein, in the assembled state, the latching lug snaps behind the surface of the front side of the covering hood and firmly holds the said covering hood.
A device for atomising, spraying or injecting liquid into a working area, wherein at least one multi-jet nozzle with at least two jet channels (2, 3) is provided for generating at least two jets of liquid which at least partially impact against one another in an impact zone so that a substantially fan-shaped jet can be generated and the extent of said fan-shaped jet, in a fan plane, is greater than or at least twice as large as in the transverse direction to this fan plane, characterised in that at least the two jet channels (2, 3) have a positive conicity factor, wherein the conicity factor K = (D inner - D outer) * 100/L, wherein D inner is an inlet or inner diameter and D outer is an outlet or outer diameter of the jet channels (2, 3) and where L is the length of the jet channels (2, 3), and that an inlet cross-sectional area of the jet channels (2, 3) is greater than an outlet cross-sectional area of the jet channels (2, 3) and wherein the inlet cross-section of the jet channels (2, 3) is arranged in the direction of flow of the liquid in front of the outlet cross-section.
A communication method, wherein the method comprises: determining, by a first device, a phase tracking reference signal, PTRS, pattern based on a scheduled bandwidth, wherein the PTRS pattern comprises multiple non-consecutive PTRS chunks in time domain, and each PTRS chunk of the multiple non-consecutive PTRS chunks comprises multiple consecutive PTRS samples in time domain; wherein the multiple non-consecutive PTRS chunks of the PTRS pattern are in one symbol; mapping, by the first device, the PTRS pattern to one or more symbols, and sending the one or more symbols to a second device. determining, by a first device, a phase tracking reference signal, PTRS, pattern based on a scheduled bandwidth, wherein the PTRS pattern comprises multiple non-consecutive PTRS chunks in time domain, and each PTRS chunk of the multiple non-consecutive PTRS chunks comprises multiple consecutive PTRS samples in time domain; wherein the multiple non-consecutive PTRS chunks of the PTRS pattern are in one symbol; mapping, by the first device, the PTRS pattern to one or more symbols, and sending the one or more symbols to a second device.
A holding device for an operating device to be held on a front cover of an electric appliance, wherein the holding device: - is designed for attachment to the front cover and for that purpose has a front cover attachment part (17, 18) and a lighting ring part which is fitted onto the front of the front cover attachment part, - has a feedthrough for a rotating shaft of a rotary encoder of the operating device, and - is embodied in an annular fashion around the feedthrough, wherein the lighting ring part essentially covers the front cover attachment part (17, 18) toward the front, and wherein the front cover attachment part and the lighting ring part have a circular-ring-like intermediate space between them, in which intermediate space at least one component carrier is arranged, characterized in that the component carrier has at least one LED on the side toward the front cover attachment part (17, 18). - is designed for attachment to the front cover and for that purpose has a front cover attachment part (17, 18) and a lighting ring part which is fitted onto the front of the front cover attachment part, - has a feedthrough for a rotating shaft of a rotary encoder of the operating device, and - is embodied in an annular fashion around the feedthrough,
A positive electrode plate, comprising a positive current collector, a positive active material layer on at least one side of the positive current collector, and a safety layer between the positive active material layer and the positive current collector, wherein the positive active material layer comprises a positive active material, and the safety layer comprises a binding material, a conductive material, and an overcharge-sensitive material; the overcharge-sensitive material is a polymer that comprises a monosaccharide structural unit and that comprises at least one of a carbonate group and a phosphate group; an average diameter x of the conductive material and a weight-average molecular weight y of the overcharge-sensitive material satisfy Formula 1: 0.001 ≤ x / y ≤ 0.25 wherein, x is in units of nm, and y is in units of 1; and wherein the weight-average molecular weight of the overcharge-sensitive material satisfies 2,000 ≤ y ≤ 20,000; and wherein a mass percent of the binding material in relation to a total mass of the safety layer is 30% to 60%; wherein in the safety layer, a mass ratio of the overcharge-sensitive material to the conductive material is not less than 2: 1, wherein the average diameter x of the conductive material is measured with an electron microscope and is a mean value of major axis diameters and minor axis diameters. the overcharge-sensitive material is a polymer that comprises a monosaccharide structural unit and that comprises at least one of a carbonate group and a phosphate group; an average diameter x of the conductive material and a weight-average molecular weight y of the overcharge-sensitive material satisfy Formula 1: 0.001 ≤ x / y ≤ 0.25 wherein, x is in units of nm, and y is in units of 1; and wherein the weight-average molecular weight of the overcharge-sensitive material satisfies 2,000 ≤ y ≤ 20,000; and wherein a mass percent of the binding material in relation to a total mass of the safety layer is 30% to 60%; wherein in the safety layer, a mass ratio of the overcharge-sensitive material to the conductive material is not less than 2: 1, wherein the average diameter x of the conductive material is measured with an electron microscope and is a mean value of major axis diameters and minor axis diameters.
Copper/zinc alloy consisting of: - 63.5 to 63.8 % by weight Cu, - 35.2 to 35.6 % by weight Zn, - 0.17 to 0.20 % by weight Pb, - 0.32 to 0.40 % by weight Al, - 0.11 to 0.13 % by weight As, - 0.16 to 0.20 % by weight Fe, - 0.0 to 0.20 % by weight Sn, - 0.0 to 0.02 % by weight Mn, and remaining constituents up to a maximum of 0.02 % in each case. - 63.5 to 63.8 % by weight Cu, - 35.2 to 35.6 % by weight Zn, - 0.17 to 0.20 % by weight Pb, - 0.32 to 0.40 % by weight Al, - 0.11 to 0.13 % by weight As, - 0.16 to 0.20 % by weight Fe, - 0.0 to 0.20 % by weight Sn, - 0.0 to 0.02 % by weight Mn,
A method for a structural characterization of polysaccharides, comprising steps of characterizing a polysaccharide by physical measurements in a device comprising a determination of a mass of the polysaccharide by means of mass spectrometry, a further determination of a rotationally averaged cross section of the polysaccharide by means of ion mobility spectrometry, the method being characterized in that it further comprises a determination of an infrared spectrum of the polysaccharide by means of cryogenic, messenger-tagging IR spectroscopy.
A mobile device comprising: an air conduction microphone adapted to convert acoustic waves of a speech signal of a user of the mobile device into an electric microphone signal; an alternative sensor (112, 114) adapted to provide an electric alternative sensor signal comprising information indicative of speech of the user of the mobile device to be used to remove noise from the speech signal, wherein the electric alternative sensor signal indicates whether the user of the mobile device is speaking; a clean signal estimator adapted to estimate an enhanced clean speech signal of the user of the mobile device from the electric microphone signal and the electric alternative sensor signal; and a communication interface adapted to permit the mobile device to communicate directly the enhanced clean speech signal with other mobile device, wherein the communication interface is further adapted to permit communication with a server on a network of computing devices, wherein the communication with the server comprises audio and video, and further comprises data corresponding to an image of a document that is shared with another computing device in communication with the server. an air conduction microphone adapted to convert acoustic waves of a speech signal of a user of the mobile device into an electric microphone signal; an alternative sensor (112, 114) adapted to provide an electric alternative sensor signal comprising information indicative of speech of the user of the mobile device to be used to remove noise from the speech signal, wherein the electric alternative sensor signal indicates whether the user of the mobile device is speaking; a clean signal estimator adapted to estimate an enhanced clean speech signal of the user of the mobile device from the electric microphone signal and the electric alternative sensor signal; and a communication interface adapted to permit the mobile device to communicate directly the enhanced clean speech signal with other mobile device, wherein the communication interface is further adapted to permit communication with a server on a network of computing devices, wherein the communication with the server comprises audio and video, and further comprises data corresponding to an image of a document that is shared with another computing device in communication with the server.
Method for determining cleaning-active substances in a treatment liquid, wherein firstly the treatment liquid is filtered, and then the proportion of unspent cleaning-active substances in the filtered treatment liquid is measured prior to the re-use thereof and visible properties of a partial amount, which are brought about by the addition of an indicator medium, are determined, characterized in that the partial amount is removed with an exact defined volume from the filtered treatment liquid, and the proportion of the cleaning-active substances in the partial amount, serving as a sample, is measured, wherein, when the treatment liquid is filtered, turbidity-causing constituents are completely removed therefrom, and wherein the measurement of the proportion of the cleaning-active substances in the treatment liquid is realized cyclically with each separation of the treatment liquid from the respectively washed batch of laundry.