mhurhangee/ep-ind-claims huggingface dataset:
A phthalonitrile resin comprising a polymerized unit derived from a compound of Formula 1 below: wherein, R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group, an aryl group or a substituent of Formula 2 below, provided that at least one of R 1 to R 5 is a substituent of Formula 2 below and at least one of R 6 to R 10 is a substituent of Formula 2 below, and X is an alkylene group or an alkylidene group, wherein, L is an alkylene group, an alkylidene group, an oxygen atom or a sulfur atom, wherein the polymerized unit derived from the compound of Formula 1 comprises polymerized units of two or more compounds of Formulas 3 to 5 below: wherein, R 1 to R 10 are each independently hydrogen, an alkyl group, an alkoxy group or an aryl group, X is an alkylene group or an alkylidene group, and L is an alkylene group, an alkylidene group, an oxygen atom or a sulfur atom.
Pneumatic vehicle tyre, in particular for use under winter driving conditions, having a tread, which is subdivided into profile blocks by grooves, for example circumferentially oriented grooves, transverse grooves, diagonal grooves and the like, wherein profile blocks having at least three sipes (6, 6'), two outer sipes and at least one inner sipe extending therebetween, are provided, wherein all the sipes (6, 6') extend at least substantially parallel to one another and at least substantially in an axial direction and have central portions that extend in an undulating manner in plan view, wherein the wave shape of the portions of the at least one inner sipe that extend in an undulating manner has a greater amplitude (a 1) than the wave shape of the portions of the outer sipes that extend in an undulating manner, characterized in that the wave shape of the portions of the at least one inner sipe that extend in an undulating manner has a greater wavelength (λ 1) than the wave shape of the portions of the outer sipes that extend in an undulating manner.
A low-carbon martensitic chromium-containing steel comprising: 0.02% to 0.10% by mass of carbon and 0.02% to 0.10% by mass of nitrogen, the total content of carbon and nitrogen being 0.08% to 0.16% by mass; 0.5% by mass or less of silicon; 0.1% by mass or less of aluminum; 0.3% to 3.0% by mass of manganese; 10.5% to 13.5% by mass of chromium; 0.05% to 0.60% by mass of niobium and 0.15% to 0.80% by mass of vanadium, the total content of niobium and vanadium being 0.25% to 0.95% by mass; 0.02% to 2.0% by mass of nickel; 1.5% by mass or less of copper; optionally further comprising one or more elements selected from 0.1% to 2.0% by mass of molybdenum, tungsten, and tantalum, 0.0002% to 0.0030% by mass of calcium and magnesium, and 0.0002% to 0.0060% by mass of boron; the balance comprising iron and incidental impurities, the steel having an Fp value of 80.0 to 96.0, a hardness after quenching of HRC 31 to 40, and a hardness after tempering at 700°C for one hour of HRC 31 or more, the Fp value represented by equation: Fp value = - 230 ⁢ C + 5 ⁢ Si - 5 ⁢ Mn - 6 ⁢ Cu + 10 ⁢ Cr - 12 ⁢ Ni + 32 ⁢ Nb + 22 ⁢ V + 12 ⁢ Mo + 8 ⁢ W + 10 ⁢ Ta + 40 ⁢ Al - 220 ⁢ N wherein the element symbols denote the contents of the respective elements (% by mass). 0.02% to 0.10% by mass of carbon and 0.02% to 0.10% by mass of nitrogen, the total content of carbon and nitrogen being 0.08% to 0.16% by mass; 0.5% by mass or less of silicon; 0.1% by mass or less of aluminum; 0.3% to 3.0% by mass of manganese; 10.5% to 13.5% by mass of chromium; 0.05% to 0.60% by mass of niobium and 0.15% to 0.80% by mass of vanadium, the total content of niobium and vanadium being 0.25% to 0.95% by mass; 0.02% to 2.0% by mass of nickel; 1.5% by mass or less of copper; optionally further comprising one or more elements selected from 0.1% to 2.0% by mass of molybdenum, tungsten, and tantalum, 0.0002% to 0.0030% by mass of calcium and magnesium, and 0.0002% to 0.0060% by mass of boron; the balance comprising iron and incidental impurities, the steel having an Fp value of 80.0 to 96.0, a hardness after quenching of HRC 31 to 40, and a hardness after tempering at 700°C for one hour of HRC 31 or more, the Fp value represented by equation: Fp value = - 230 ⁢ C + 5 ⁢ Si - 5 ⁢ Mn - 6 ⁢ Cu + 10 ⁢ Cr - 12 ⁢ Ni + 32 ⁢ Nb + 22 ⁢ V + 12 ⁢ Mo + 8 ⁢ W + 10 ⁢ Ta + 40 ⁢ Al - 220 ⁢ N wherein the element symbols denote the contents of the respective elements (% by mass).
A method of manufacturing an aluminium alloy rolled sheet product with excellent formability and paint bake hardenability and particularly suitable for use for an automotive body, the method comprising: (a) casting an ingot of an aluminium alloy having a composition consisting of, in wt.%: Si 0.5 to 1.5, Mg 0.2 to 0.7, Fe 0.03 to 0.25, Cu up to 0.30, optionally one or more elements selected from the group consisting of: (Mn 0.01 to 0.5, Zr 0.01 to 0.15, Cr 0.01 to 0.15, V 0.01 to 0.2), Zn up to 0.3, Ti up to 0.15, impurities each <0.05, total <0.20, balance aluminium; (b) homogenising the cast ingot at a temperature of 450°C or more; (c) hot rolling the ingot to a hot-rolled product; (d) cold rolling of the hot-rolled product to a cold-rolled product of intermediate gauge; (e) continuous intermediate annealing of the cold-rolled product of intermediate gauge at a temperature in the range of 360°C to 580°C, wherein the heat-up rate of the cold-rolled product at intermediate gauge for the continuous intermediate annealing treatment is at least 10°C/s; (f) cold rolling of the intermediate annealed cold-rolled product to a sheet product of final gauge up to 2.5 mm; (g) solution heat treating said sheet product at a temperature range of 500°C or more; and (h) quenching said solution heat treated sheet product. (a) casting an ingot of an aluminium alloy having a composition consisting of, in wt.%: Si 0.5 to 1.5, Mg 0.2 to 0.7, Fe 0.03 to 0.25, Cu up to 0.30, optionally one or more elements selected from the group consisting of: (Mn 0.01 to 0.5, Zr 0.01 to 0.15, Cr 0.01 to 0.15, V 0.01 to 0.2), Zn up to 0.3, Ti up to 0.15, impurities each <0.05, total <0.20, balance aluminium; (b) homogenising the cast ingot at a temperature of 450°C or more; (c) hot rolling the ingot to a hot-rolled product; (d) cold rolling of the hot-rolled product to a cold-rolled product of intermediate gauge; (e) continuous intermediate annealing of the cold-rolled product of intermediate gauge at a temperature in the range of 360°C to 580°C, wherein the heat-up rate of the cold-rolled product at intermediate gauge for the continuous intermediate annealing treatment is at least 10°C/s; (f) cold rolling of the intermediate annealed cold-rolled product to a sheet product of final gauge up to 2.5 mm; (g) solution heat treating said sheet product at a temperature range of 500°C or more; and (h) quenching said solution heat treated sheet product.
Optical article comprising, in that order: (a) a transparent substrate of organic glass, preferably a substrate of an ophthalmic lens, (b) an adhesive layer covering at least one of the faces of the transparent substrate, (c) a transparent film of thermoplastic polymer fixed on the transparent substrate by means of the adhesive layer, (d) an anti-abrasion hard coating covering the transparent film of thermoplastic polymer, and (e) a multilayer antireflection coating formed from alternating mineral layers with high and low refractive index, characterized in that the thermoplastic polymer forming the transparent film is selected from cellulose triacetate CTA and poly(ethylene terephthalate) PET; and the adhesive layer is a layer of pressure-sensitive adhesive or a layer of hot-melt adhesive. (a) a transparent substrate of organic glass, preferably a substrate of an ophthalmic lens, (b) an adhesive layer covering at least one of the faces of the transparent substrate, (c) a transparent film of thermoplastic polymer fixed on the transparent substrate by means of the adhesive layer, (d) an anti-abrasion hard coating covering the transparent film of thermoplastic polymer, and (e) a multilayer antireflection coating formed from alternating mineral layers with high and low refractive index,
A wireless communication device (10; 100; 300) configured for operation in a wireless communication system, wherein the wireless communication device (10; 100; 300) is configured with an uplink, UL, carrier of a first radio access technology, RAT, wherein the wireless communication device (10; 100; 300) is configured with a downlink, DL, carrier of the first RAT, wherein the wireless communication device (10; 100; 300) is configured to transmit the UL carrier of the first RAT in an uplink frequency channel overlapping with an uplink frequency channel of a second RAT, wherein the wireless communication device (10; 100; 300) is configured to receive and demodulate and/or decode the DL carrier of the first RAT in a frequency channel of the first RAT that is higher than a frequency channel of the second RAT. wherein the wireless communication device (10; 100; 300) is configured with an uplink, UL, carrier of a first radio access technology, RAT, wherein the wireless communication device (10; 100; 300) is configured with a downlink, DL, carrier of the first RAT, wherein the wireless communication device (10; 100; 300) is configured to transmit the UL carrier of the first RAT in an uplink frequency channel overlapping with an uplink frequency channel of a second RAT, wherein the wireless communication device (10; 100; 300) is configured to receive and demodulate and/or decode the DL carrier of the first RAT in a frequency channel of the first RAT that is higher than a frequency channel of the second RAT.
A computing device implemented method for timeframe based data analysis, comprising: providing a number of performance metrics (352-1...352-N) selected from a group of performance metrics; causing a display of data for the number of performance metrics (352-1...352-N) in a number of graphs (358-1...358-M) on a graphical user interface, wherein the data displayed include data from a timeframe indicated by a timeframe selector, and wherein the timeframe selector can be placed at any place along a time range display to indicate a range of time for which to display data for the performance metrics (352-1...352-N) in the graphs (358-1...358-M); selecting a performance metric (352- 1...352-N) as a reference performance metric; and displaying the reference performance metric on the time range display of the graphical user interface proximate to the timeframe selector. providing a number of performance metrics (352-1...352-N) selected from a group of performance metrics; causing a display of data for the number of performance metrics (352-1...352-N) in a number of graphs (358-1...358-M) on a graphical user interface, wherein the data displayed include data from a timeframe indicated by a timeframe selector, and wherein the timeframe selector can be placed at any place along a time range display to indicate a range of time for which to display data for the performance metrics (352-1...352-N) in the graphs (358-1...358-M); selecting a performance metric (352- 1...352-N) as a reference performance metric; and displaying the reference performance metric on the time range display of the graphical user interface proximate to the timeframe selector.
A method of producing a polyvinyl chloride-free top layer for a decking element, the method comprising the method steps indicated below: A) Providing a base layer comprising and/or consisting of plastic; B) Printing a décor on a top side of the base layer facing a usable side; C) Bonding, namely laminating by pressure and/or heat, a, preferably transparent, wearing surface to the printed base layer to form a, preferably solid, layer composite; D) Embossing the layer composite at least in some areas, preferably over the entire surface, with a structure at least substantially synchronous with the décor, the structure being embossed in such a way that it is visible both on the top side facing the usable side and at least in some areas on the bottom side of the layer composite facing away from the usable side; E) Application of a surface sealing layer, preferably a lacquer layer, to the top side of the layer composite facing the usable side; F) optionally: curing of the surface sealing layer, preferably the lacquer layer. A) Providing a base layer comprising and/or consisting of plastic; B) Printing a décor on a top side of the base layer facing a usable side; C) Bonding, namely laminating by pressure and/or heat, a, preferably transparent, wearing surface to the printed base layer to form a, preferably solid, layer composite; D) Embossing the layer composite at least in some areas, preferably over the entire surface, with a structure at least substantially synchronous with the décor, the structure being embossed in such a way that it is visible both on the top side facing the usable side and at least in some areas on the bottom side of the layer composite facing away from the usable side; E) Application of a surface sealing layer, preferably a lacquer layer, to the top side of the layer composite facing the usable side; F) optionally: curing of the surface sealing layer, preferably the lacquer layer.
An industrial process transmitter comprising: a main housing containing transmitter circuitry and comprising a first threaded portion; a sensor body comprising a process sensor and a second threaded portion in threaded engagement with the first threaded portion, wherein one of the first and second threaded portions comprises a threaded cylindrical projection, and the other of the first and second threaded portions comprises a threaded cylindrical bore, wherein relative rotation between the sensor body and the main housing about an axis of the bore causes relative movement between the sensor body and the main housing along the axis; and a flange member received within a groove of the projection; wherein: movement of the sensor body relative to the housing along the axis of the bore is restricted to an axial distance that is bounded through engagement between the flange member and the first or second threaded portion that includes the threaded cylindrical bore, and engagement between the main housing and the sensor body; and rotation of the sensor body relative to the main housing about the axis is limited by the axial distance. a main housing containing transmitter circuitry and comprising a first threaded portion; a sensor body comprising a process sensor and a second threaded portion in threaded engagement with the first threaded portion, wherein one of the first and second threaded portions comprises a threaded cylindrical projection, and the other of the first and second threaded portions comprises a threaded cylindrical bore, wherein relative rotation between the sensor body and the main housing about an axis of the bore causes relative movement between the sensor body and the main housing along the axis; and a flange member received within a groove of the projection; wherein: movement of the sensor body relative to the housing along the axis of the bore is restricted to an axial distance that is bounded through engagement between the flange member and the first or second threaded portion that includes the threaded cylindrical bore, and engagement between the main housing and the sensor body; and rotation of the sensor body relative to the main housing about the axis is limited by the axial distance. movement of the sensor body relative to the housing along the axis of the bore is restricted to an axial distance that is bounded through engagement between the flange member and the first or second threaded portion that includes the threaded cylindrical bore, and engagement between the main housing and the sensor body; and rotation of the sensor body relative to the main housing about the axis is limited by the axial distance.
A computer-implemented method for performing privacy transformations of data to protect privacy in data analytics by a first server at a first level of trust to one or more sensing devices, the method comprising: receiving, by the first server, a privacy policy, wherein the privacy policy includes one or more techniques for transforming data for privacy protection; receiving data, wherein the data includes data captured by the one or more sensing devices; evaluating the data to recognize at least one portion of data that is associated with personal identifiable information; selecting, based on a combination of the received privacy policy and available resources at the first server, a technique from the one or more techniques for performing a privacy transformation, wherein each of the one or more techniques indicates a different level of trustworthiness for protecting privacy in the data, and wherein the one or more techniques for performing the privacy transformation include reducing a resolution of image data of the data for protecting privacy of the data and wherein the first server and a second server collectively form a video analytics pipeline with descending levels of privacy protection for the data; altering the data by transforming the at least one portion of data using the selected technique, wherein the transformation of the at least one portion of data prevents exposure of the personal identifiable information; and transmitting the altered data including the at least one transformed portion of data to the second server. receiving, by the first server, a privacy policy, wherein the privacy policy includes one or more techniques for transforming data for privacy protection; receiving data, wherein the data includes data captured by the one or more sensing devices; evaluating the data to recognize at least one portion of data that is associated with personal identifiable information; selecting, based on a combination of the received privacy policy and available resources at the first server, a technique from the one or more techniques for performing a privacy transformation, wherein each of the one or more techniques indicates a different level of trustworthiness for protecting privacy in the data, and wherein the one or more techniques for performing the privacy transformation include reducing a resolution of image data of the data for protecting privacy of the data and wherein the first server and a second server collectively form a video analytics pipeline with descending levels of privacy protection for the data; altering the data by transforming the at least one portion of data using the selected technique, wherein the transformation of the at least one portion of data prevents exposure of the personal identifiable information; and transmitting the altered data including the at least one transformed portion of data to the second server.
A composition of matter comprising: a) at least one compound of formula in the form of any one of its isomers or a mixture thereof; wherein R 1 represents a hydrogen atom or a C 1-2 alkyl group; and R represents a group of formula -CH 2 C(Me) 2 OH; said R being, relative to position 1, a meta, a para substituent of the aromatic ring or a mixture thereof; and b) at least one compound of formula in the form of any one of its isomers or a mixture thereof; wherein R and R 1 have the same meaning as in formula; said R being, relative to position 1, an ortho, a meta, a para substituent of the aromatic ring or a mixture thereof. a) at least one compound of formula in the form of any one of its isomers or a mixture thereof; wherein R 1 represents a hydrogen atom or a C 1-2 alkyl group; and R represents a group of formula -CH 2 C(Me) 2 OH; said R being, relative to position 1, a meta, a para substituent of the aromatic ring or a mixture thereof; and b) at least one compound of formula in the form of any one of its isomers or a mixture thereof; wherein R and R 1 have the same meaning as in formula; said R being, relative to position 1, an ortho, a meta, a para substituent of the aromatic ring or a mixture thereof.
Method for advancing a continuous strip of corrugated board along a double facer, comprising a heating section with a plurality of hot plates and a cold traction section, placed downstream of the heating section; the method comprising the following steps: a) pulling the corrugated board along the hot plates by means of an upper flexible member and a lower flexible member; the upper flexible member and the lower flexible member being pressed against each other and holding the corrugated board gripped therebetween; the lower flexible member being driven by a first electric motor and the upper flexible member being driven by a second electric motor; the upper flexible member extending along the heating section and along the cold traction section; and the lower flexible member being arranged in the cold traction section; b) checking at least a first electric parameter of at least one of said first electric motor and second electric motor, and modifying the speed of at least one of said first electric motor and second electric motor with respect to the speed of the other of said first electric motor and second electric motor depending on at least said first electric parameter, to maintain a desired ratio between the speed of the upper flexible member and of the lower flexible member within a predetermined range. a) pulling the corrugated board along the hot plates by means of an upper flexible member and a lower flexible member; the upper flexible member and the lower flexible member being pressed against each other and holding the corrugated board gripped therebetween; the lower flexible member being driven by a first electric motor and the upper flexible member being driven by a second electric motor; the upper flexible member extending along the heating section and along the cold traction section; and the lower flexible member being arranged in the cold traction section; b) checking at least a first electric parameter of at least one of said first electric motor and second electric motor, and modifying the speed of at least one of said first electric motor and second electric motor with respect to the speed of the other of said first electric motor and second electric motor depending on at least said first electric parameter, to maintain a desired ratio between the speed of the upper flexible member and of the lower flexible member within a predetermined range.
A radar sensor (6, 7) comprising a transceiver unit which is operable to emit a radar beam at at least two different wavelengths along a beam path in an outgoing direction and receiving radar radiation along said beam path in an incoming direction, and a reference object placed in said beam path for redirecting part of the outgoing radar beam in the incoming direction, characterized in that the reference object comprises two identical grids (14, 17), each grid (14, 17) being formed of regularly spaced elements arranged at a distance d from each other in a first direction perpendicular to the beam path, the grids (14, 17) being spaced from one another along the beam path by a distance L, and in that the transceiver unit is operable at a wavelength λ which satisfies L = n 2 d λ 2, n being an integer.