mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting module for a automotive vehicle comprising: a light source for producing a light beam; and a heat exchange system for transferring heat away from the light source , the heat exchange system comprising: a heat sink plate ; characterized in that the heat exchange system further comprises a plurality of non-anodized heat transfer airfoils and a pair of anodized heat transfer airfoils , wherein the pair of anodized heat transfer airfoils are at peripheral portion encompassing the plurality of non-anodized airfoils of the heat exchange system . a light source for producing a light beam; and a heat exchange system for transferring heat away from the light source , the heat exchange system comprising: a heat sink plate ; characterized in that the heat exchange system further comprises a plurality of non-anodized heat transfer airfoils and a pair of anodized heat transfer airfoils , wherein the pair of anodized heat transfer airfoils are at peripheral portion encompassing the plurality of non-anodized airfoils of the heat exchange system . a heat sink plate ; characterized in that the heat exchange system further comprises a plurality of non-anodized heat transfer airfoils and a pair of anodized heat transfer airfoils , wherein the pair of anodized heat transfer airfoils are at peripheral portion encompassing the plurality of non-anodized airfoils of the heat exchange system .
A system for joining buttress to the main tower shaft of a wind generator, wherein the main shaft comprises a joining ring and the joining system comprises: - at least one fastening structure located on the joining ring , to receive and fasten at least one buttress ; characterized in that the fastening structure comprises: - a closed curved structure ; and, - a central cross beam ; - further characterized in that : each buttress comprises an end, which in turn comprises a central web and a wing ; wherein the fastening structure is integrated in the joining ring , and wherein the wing of the end of the buttress is fastened to the central cross beam of the fastening structure of the joining ring . - at least one fastening structure located on the joining ring , to receive and fasten at least one buttress ; characterized in that the fastening structure comprises: - a closed curved structure ; and, - a central cross beam ; - a closed curved structure ; and, - a central cross beam ; - further characterized in that : each buttress comprises an end, which in turn comprises a central web and a wing ; wherein the fastening structure is integrated in the joining ring , and wherein the wing of the end of the buttress is fastened to the central cross beam of the fastening structure of the joining ring . each buttress comprises an end, which in turn comprises a central web and a wing ; wherein the fastening structure is integrated in the joining ring , and wherein the wing of the end of the buttress is fastened to the central cross beam of the fastening structure of the joining ring .
A method implemented by one or more processors, comprising: receiving a query directed to an automated assistant; generating a query encoding based on processing the query using a trained encoder model; comparing the query encoding to a plurality of pre-determined query encodings each stored in association with one or more corresponding actions; determining , based on the comparing, a given predetermined query encoding to which the query encoding is most similar; and in response to the query and based on the given predetermined query encoding being most similar to the query encoding, causing the automated assistant to perform the one or more corresponding actions that are stored in association with the given predetermined query encoding. receiving a query directed to an automated assistant; generating a query encoding based on processing the query using a trained encoder model; comparing the query encoding to a plurality of pre-determined query encodings each stored in association with one or more corresponding actions; determining , based on the comparing, a given predetermined query encoding to which the query encoding is most similar; and in response to the query and based on the given predetermined query encoding being most similar to the query encoding, causing the automated assistant to perform the one or more corresponding actions that are stored in association with the given predetermined query encoding.
Electrical machine , in particular for motorized adjustment of moving parts in motor vehicles, having a housing in which at least two permanent magnets are arranged, wherein a rotor having an approximately cylindrical circumferential surface is arranged in the housing , wherein the housing forms a magnetic return path, and the housing has flattened regions between the permanent magnets which are magnetized in the same sense in the radial direction , the housing wall forming mutually opposite magnetic consequent poles on said regions, and each of the flattened regions of the housing having two beads which run approximately parallel in the axial direction and which form an inner contour of the consequent poles and a transition to retaining regions of the permanent magnets , characterized in that the at least two permanent magnets are fastened in the housing by at least one magnet-retaining spring , wherein the magnet-retaining spring has a first limb and a second limb , which limbs are connected to one another by means of a clip , and the first and the second limb span a plane in space, wherein the clip projects out of the spanned plane , and the two limbs respectively bear against two side faces of the permanent magnets which are situated opposite one another in relation to the circumferential direction of the housing , and the clip overlaps the rotor in relation to the radial direction , wherein the magnet-retaining spring is produced as an integral bent part which is composed of spring steel.
Blade for a gas turbine, comprising a vane blade with a cover strip segment arranged on its upper end, which cover strip segment together with the cover strip segments of the adjacent blades of a blade row forms an annular cover strip delimiting the hot gas channel of the gas turbine, and which cover strip segment , at the sides at which it adjoins the adjacent cover strip segments of the cover strip, is provided with upwardly protruding side rails which run along the side edge to improve the seal against the hot gas channel, characterised in that to maximise cooling in the region of the side rails , slots (23, 24; 23.1, 23.2) which are open at the top are arranged in the side rails parallel or quasi-parallel to the rails, through which cooling air extracted from the interior of the vane blade can emerge via the cover strip segment into the space above the cover strip segment .
A light unit comprising: a light source and an optical member which transmits and converts light emitted from the light source , the optical member including: a light guide ; a low refractive index layer disposed on the light guide ; the low refractive index layer having a refractive index smaller than a refractive index of the light guide ; and a wavelength conversion layer disposed on the low refractive index layer and including quantum dots, characterized in that the low refractive index layer is made of metal and a thickness of the low refractive index layer is 3 to 10 nm. a light guide ; a low refractive index layer disposed on the light guide ; the low refractive index layer having a refractive index smaller than a refractive index of the light guide ; and a wavelength conversion layer disposed on the low refractive index layer and including quantum dots, characterized in that the low refractive index layer is made of metal and a thickness of the low refractive index layer is 3 to 10 nm.
A molybdenum alloy with 5 to 25 at % silicon, 0.5 to 25 at % boron, and 3 to 40 at % vanadium with optionally titanium (Ti) in an amount of 0,5 to 30 at %, with optionally one or more alloy elements selected from the group composed of Al, Fe, Zr, Mg, Li, Cr, Mn, Co, Ni, Cu, Zn, Ge, Ga, Y, Nb, Cd, Ca, and La, each in a content of 0.01 at % to 15 at %, and/or optionally one or more alloy elements selected from the group composed of Hf, Pb, Bi, Ru, Rh, Pd, Ag, Au, Ta, W, Re, Os, Ir, and Pt, each in a content of 0.01 at % to 5 at %, as well as the remainder of molybdenum, wherein the proportion of molybdenum is at least 40 at %, wherein the molybdenum alloy has a molybdenum-vanadium mixed crystal matrix and at least one silicide phase distributed therein, and the density of the molybdenum alloy is less than 8 g/cm 3 .
An organosiloxane compound of Formula I: wherein R 1 , R 2 , R 3 , and R 4 are each independently C n H 2n+1 , where n is an integer from 1 to 3; B is selected from -S- and -O-; L is selected from C 1 -C 6 alkylene, C 5 -C 6 cycloalkylene, and benzyl; and X is selected from -CO 2 M, -SO 3 M, and -NH 3 T, wherein M is selected from a countercation and hydrogen and T is a counteranion; or -B-L-X is -O-phenylene-SO 3 Na. wherein R 1 , R 2 , R 3 , and R 4 are each independently C n H 2n+1 , where n is an integer from 1 to 3; B is selected from -S- and -O-; L is selected from C 1 -C 6 alkylene, C 5 -C 6 cycloalkylene, and benzyl; and X is selected from -CO 2 M, -SO 3 M, and -NH 3 T, wherein M is selected from a countercation and hydrogen and T is a counteranion; or -B-L-X is -O-phenylene-SO 3 Na.
A method for operating a wireless communication network, wherein a first member of the network transmits a scheduling message to a secondary member of the network, the secondary member being a user equipment; the secondary member receives the scheduling message; and the secondary member schedules and transmits, utilising beam forming, sounding signal transmissions based on the scheduling message; wherein the scheduling message refers to a schedule for sounding signals based on a status of beam forming performed in the network and the scheduling message refers to a compact schedule of sounding signals, the compact schedule scheduling sounding of a bandwidth of a carrier or channel in a compact timeframe such that at least one subband is sounded at least twice in the compact timeframe, wherein the compact timeframe is one subframe. a first member of the network transmits a scheduling message to a secondary member of the network, the secondary member being a user equipment; the secondary member receives the scheduling message; and the secondary member schedules and transmits, utilising beam forming, sounding signal transmissions based on the scheduling message; wherein the scheduling message refers to a schedule for sounding signals based on a status of beam forming performed in the network and the scheduling message refers to a compact schedule of sounding signals, the compact schedule scheduling sounding of a bandwidth of a carrier or channel in a compact timeframe such that at least one subband is sounded at least twice in the compact timeframe, wherein the compact timeframe is one subframe.
Method in a first radio base station serving a first cell in a wireless communication system , for informing a second radio base station serving a second cell that has a neighbour relation with the first cell, of at least the cell type of the first cell, the method comprising: adding information of the cell type to a set of information to be signaled to the second base station during one of an X2 setup procedure, an S1 setup procedure and an eNodeB configuration update procedure, and signalling said cell type information as part of said set of information during one of said X2 setup procedure, S1 setup procedure and eNodeB configuration update procedure, wherein also cell type information of direct neighbors of the first and/or second base station is added to the set of information which is signaled to the second base station, and wherein said cell type information includes cell size and cell hierarchical level. adding information of the cell type to a set of information to be signaled to the second base station during one of an X2 setup procedure, an S1 setup procedure and an eNodeB configuration update procedure, and signalling said cell type information as part of said set of information during one of said X2 setup procedure, S1 setup procedure and eNodeB configuration update procedure, wherein also cell type information of direct neighbors of the first and/or second base station is added to the set of information which is signaled to the second base station, and wherein said cell type information includes cell size and cell hierarchical level.
A sintered ferrite magnet, containing: M-type Sr ferrite having a hexagonal crystal structure as a main component and an accessory component different from the Sr ferrite which is mainly contained in a grain boundary crystal grains of the Sr ferrite in the sintered ferrite magnet, wherein a total amount of Na and K is 0.02 to 0.09% by mass in terms of Na 2 O and K 2 O, an amount of Si is 0.1 to 0.29% by mass in terms of SiO 2 , an amount of Ca is 0.1 to 0.3 % by mass in terms of CaO, and the following Expression is satisfied: 2.5 ≤ Sr F + Ba + Ca + 2 Na + 2 K / Si ≤ 5.4 wherein in Expression , Sr F represents an amount of Sr, on a molar basis, other than Sr which constitutes the Sr ferrite, and Ba, Ca, Na, and K represent amounts of respective elements on a molar basis, wherein an average grain size of crystal grains of the Sr ferrite is 1.0 μm or less, and a ratio of the crystal grains, which have a grain size of 2.0 μm or more, on the number basis is 1% or less. M-type Sr ferrite having a hexagonal crystal structure as a main component and an accessory component different from the Sr ferrite which is mainly contained in a grain boundary crystal grains of the Sr ferrite in the sintered ferrite magnet, wherein a total amount of Na and K is 0.02 to 0.09% by mass in terms of Na 2 O and K 2 O, an amount of Si is 0.1 to 0.29% by mass in terms of SiO 2 , an amount of Ca is 0.1 to 0.3 % by mass in terms of CaO, and the following Expression is satisfied: 2.5 ≤ Sr F + Ba + Ca + 2 Na + 2 K / Si ≤ 5.4 wherein in Expression , Sr F represents an amount of Sr, on a molar basis, other than Sr which constitutes the Sr ferrite, and Ba, Ca, Na, and K represent amounts of respective elements on a molar basis, wherein an average grain size of crystal grains of the Sr ferrite is 1.0 μm or less, and a ratio of the crystal grains, which have a grain size of 2.0 μm or more, on the number basis is 1% or less.
Processing pincers for machining and/or processing of workpieces with high processing forces (F) comprising a pincer body with a first and second pincer arm (2.1, 2.2) and at least a tool having at least two tool parts (3.1, 3.2) which are movable relative to each other and which form a working area (AR), wherein at least the first tool part (3.1) is displaceable along a vertical tool axis (WA) on the first pincer arm (2.1) for closing the working area (AR) and the second tool part (3.2) is arranged on the second pincer arm (2.2) to form a workpiece abutment for at least one workpiece, wherein the first tool part (3.1) can be advanced from an initial position (AU) into a working position (AR) by means of an advancing device , wherein, in the working position (AR), the first tool part (3.1) or a functional element held on the first tool part (3.1) abuts against a workpiece supported on the second tool part (3.2) or only has a small distance from the same, wherein an actuating device is provided for applying a high processing force (F) acting along the tool axis (WA) to the first tool part (3.1) after the advancement into the working position (AR) by means of the advancing device , wherein the actuating device has an electric drive unit for generating the processing force (F) and directly transferring the generated processing force (F) to the first tool part (3.1), or the actuating device has an electric drive unit for generating an auxiliary processing force (HF) and a force transmission mechanism , drivingly connectable to the first tool part (3.1), which is designed to translate the auxiliary processing force (HF) into the processing force (F) and directly transfer the same to the first tool part (3.1), characterized in that the advancing device has another electric drive unit for generating the advancing movement of the first tool part (3.1).
A cushioning element (14; 26, 36; 60, 62, 64; 120; 230) comprising: a first layer including a depression defined by a first surface ; and a first component disposed within the depression of the first layer, the first component comprising a plurality of affixed foam particles each including a first thermoplastic elastomeric material; wherein the first component has one or more regions that include a plurality of unaffixed foam particles, wherein each individual affixed foam particle of the plurality of affixed foam particles includes one or more binding regions affixing an outer surface of the individual foam particle to an outer surface of one or more adjacent foam particles, the one or more binding regions include a binding material, and the one or more binding regions optionally include a first thermoplastic elastomeric material from the surface of the individual foam particle, a second thermoplastic elastomeric material from the surface of the one or more adjacent foam particles, or the first thermoplastic elastomeric material intermingled with the second thermoplastic elastomeric material; and wherein the cushioning element (14; 26, 36; 60, 62, 64; 120; 230) comprises a chamber having an interior defined by the first surface and a second surface opposing the first surface , wherein the first component is disposed within the interior of the chamber ; wherein the first surface is formed of a first sheet comprising a third thermoplastic material, and the second surface is formed of a second sheet comprising a fourth thermoplastic material. a first layer including a depression defined by a first surface ; and a first component disposed within the depression of the first layer, the first component comprising a plurality of affixed foam particles each including a first thermoplastic elastomeric material; wherein the first component has one or more regions that include a plurality of unaffixed foam particles, wherein each individual affixed foam particle of the plurality of affixed foam particles includes one or more binding regions affixing an outer surface of the individual foam particle to an outer surface of one or more adjacent foam particles, the one or more binding regions include a binding material, and the one or more binding regions optionally include a first thermoplastic elastomeric material from the surface of the individual foam particle, a second thermoplastic elastomeric material from the surface of the one or more adjacent foam particles, or the first thermoplastic elastomeric material intermingled with the second thermoplastic elastomeric material; and wherein the cushioning element (14; 26, 36; 60, 62, 64; 120; 230) comprises a chamber having an interior defined by the first surface and a second surface opposing the first surface , wherein the first component is disposed within the interior of the chamber ; wherein the first surface is formed of a first sheet comprising a third thermoplastic material, and the second surface is formed of a second sheet comprising a fourth thermoplastic material.
A data reading method comprising: i) obtaining, via an imager, an image containing at least one target item bearing target data; ii) selecting, via a processor, a starting boundary pixel coordinate on a subregion of the image by identifying a high-contrast region in the image ; iii) determining, via the processor, an initial local binarization threshold based on the selected starting boundary pixel coordinate and a region of pixels surrounding the selected starting boundary pixel; iv) analyzing, via the processor, the image beginning at the starting boundary pixel coordinate and moving through a plurality of pixels in a surrounding area centered on the starting boundary pixel, wherein said analyzing comprises binarizing said starting boundary pixel and said plurality of pixels; v) determining, via the processor, whether one or more pixels of the plurality of pixels satisfies the initial local binarization threshold to determine a presence of one or more boundaries in the subregion of the image ; and systematically repeating ii), iii), iv) and v) for an adjacent subregion until the entire image is analyzed; analyzing, via the processor, the one or more boundaries to identify the at least one target item in the image . i) obtaining, via an imager, an image containing at least one target item bearing target data; ii) selecting, via a processor, a starting boundary pixel coordinate on a subregion of the image by identifying a high-contrast region in the image ; iii) determining, via the processor, an initial local binarization threshold based on the selected starting boundary pixel coordinate and a region of pixels surrounding the selected starting boundary pixel; iv) analyzing, via the processor, the image beginning at the starting boundary pixel coordinate and moving through a plurality of pixels in a surrounding area centered on the starting boundary pixel, wherein said analyzing comprises binarizing said starting boundary pixel and said plurality of pixels; v) determining, via the processor, whether one or more pixels of the plurality of pixels satisfies the initial local binarization threshold to determine a presence of one or more boundaries in the subregion of the image ; and systematically repeating ii), iii), iv) and v) for an adjacent subregion until the entire image is analyzed; analyzing, via the processor, the one or more boundaries to identify the at least one target item in the image . systematically repeating ii), iii), iv) and v) for an adjacent subregion until the entire image is analyzed; analyzing, via the processor, the one or more boundaries to identify the at least one target item in the image .
A hot-repairing spraying material containing 65 to 95 mass% of a magnesian raw material, and 0.5 to 10 mass% of a phenolic resin, wherein the magnesian raw material is a magnesian raw material in which a content of MgO is 60 mass% or more, wherein a content of a fraction of the magnesian raw material having a particle size of less than 20 μm is 5 to 30 mass%, and a content of a fraction of the phenolic resin having a particle size of less than 20 μm is 0.3 to 9 mass%, and wherein "the content of the fraction of the magnesian raw material having a particle size of less than 20 μm / the content of the fraction of the phenolic resin having a particle size of less than 20 μm" is 0.6 to 30, and wherein a particle having a particle size of less than 20 μm means a particle which can pass through a sieve having a mesh size of 20 μm.