mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing coloured glass-ceramic slab articles from a base mix, comprising the following steps: a) preparing a mix comprising a preponderant amount, greater than 45% by weight, of a glass frit, at least one binder and a colouring agent or pigment; b) distributing the mix in a support or in a forming mould; c) compacting the mix contained in the support or in the mould; d) drying the compacted mix; e) sintering the compacted and dried mix by firing and obtaining the glass-ceramic slab article; f) cooling the article obtained from the firing under conditions which avoid a devitrification and/or crystallization, even only partial, of the glass frit; characterized in that the glass frit comprises: - a weight amount of silica (SiO 2) comprised between 55% and 62% relative to the overall weight of the frit; - a weight amount of alumina (Al 2 O 3) comprised between 16% and 22% relative to the overall weight of the frit; - a weight amount of sodium oxide (Na 2 O) comprised between 0,3% and 3% relative to the overall weight of the frit; - a weight amount of potassium oxide (K 2 O) comprised between 2% and 6% relative to the overall weight of the frit; - a weight amount of calcium oxide (CaO) comprised between 12% and 18% relative to the overall weight of the frit; - a weight amount of magnesium oxide (MgO) comprised between 0,4% and 3% relative to the overall weight of the frit. a) preparing a mix comprising a preponderant amount, greater than 45% by weight, of a glass frit, at least one binder and a colouring agent or pigment; b) distributing the mix in a support or in a forming mould; c) compacting the mix contained in the support or in the mould; d) drying the compacted mix; e) sintering the compacted and dried mix by firing and obtaining the glass-ceramic slab article; f) cooling the article obtained from the firing under conditions which avoid a devitrification and/or crystallization, even only partial, of the glass frit; - a weight amount of silica (SiO 2) comprised between 55% and 62% relative to the overall weight of the frit; - a weight amount of alumina (Al 2 O 3) comprised between 16% and 22% relative to the overall weight of the frit; - a weight amount of sodium oxide (Na 2 O) comprised between 0,3% and 3% relative to the overall weight of the frit; - a weight amount of potassium oxide (K 2 O) comprised between 2% and 6% relative to the overall weight of the frit; - a weight amount of calcium oxide (CaO) comprised between 12% and 18% relative to the overall weight of the frit; - a weight amount of magnesium oxide (MgO) comprised between 0,4% and 3% relative to the overall weight of the frit.
An inspection system for inspecting an object, the system comprising: a. a conveyance capable of on-road travel having an axis along a direction of road travel; b. a source of penetrating radiation disposed on a deployable member coupled to the conveyance for providing a beam of penetrating radiation, and wherein the beam of penetrating radiation is a pencil beam configured to be swept in a plane substantially transverse to the axis of road travel; c. at least one detector (106, 116), mechanically coupled to the conveyance, for detecting penetrating radiation from the source after interaction of the object with the penetrating radiation and for generation of a detector signal corresponding to detected radiation; and d. a controller for creating an image of contents of the object based at least on the detector signal characterized in that: the source is arranged to provide the beam of penetrating radiation directed in a substantially vertically downward direction; and the at least one detector comprises a transmission detector for generating a transmission signal and a scatter detector for detecting penetrating radiation scattered by contents of the object and for generating a scatter signal. a. a conveyance capable of on-road travel having an axis along a direction of road travel; b. a source of penetrating radiation disposed on a deployable member coupled to the conveyance for providing a beam of penetrating radiation, and wherein the beam of penetrating radiation is a pencil beam configured to be swept in a plane substantially transverse to the axis of road travel; c. at least one detector (106, 116), mechanically coupled to the conveyance, for detecting penetrating radiation from the source after interaction of the object with the penetrating radiation and for generation of a detector signal corresponding to detected radiation; and d. a controller for creating an image of contents of the object based at least on the detector signal the source is arranged to provide the beam of penetrating radiation directed in a substantially vertically downward direction; and the at least one detector comprises a transmission detector for generating a transmission signal and a scatter detector for detecting penetrating radiation scattered by contents of the object and for generating a scatter signal.
An active garment, which comprises a functional component comprising at least one of a heating element, a cooling element or a sensor element, and an electrical connector, which is connected to the functional component by an electrical conductor of a piece of material of the active garment, wherein the electrical connector comprises a male element and a female element configured to form a rivet for fastening the electrical connector to the piece of material; characterized in that the electrical connector further comprises a neck washer, which has a washer portion and a neck portion and which is configured to be placed between the male element and the female element of the rivet, the washer portion of the neck washer is configured to form an electrical connection area for the electrical conductor of the piece of material and the neck portion of the neck washer is configured to electrically connect the washer portion to at least one of the male element and the female element; and the neck portion of the neck washer extends in the longitudinal direction of the male element when the neck washer is placed between the male element and the female element of the rivet. the electrical connector further comprises a neck washer, which has a washer portion and a neck portion and which is configured to be placed between the male element and the female element of the rivet, the washer portion of the neck washer is configured to form an electrical connection area for the electrical conductor of the piece of material and the neck portion of the neck washer is configured to electrically connect the washer portion to at least one of the male element and the female element; and the neck portion of the neck washer extends in the longitudinal direction of the male element when the neck washer is placed between the male element and the female element of the rivet.
A combine harvester comprising a driver assist system which controls the distribution of a crop flow issuing from the combine harvester on the ground and which has a computing unit and at least one display unit, wherein the computing unit processes information generated by machine-internal sensor systems, external information and information which can be stored in the computing unit and the crop flow to be distributed on the ground in the rearward region of the combine harvester passes through a chopping device and/or distribution device (23, 29, 42, 127), wherein selectable distribution strategies are stored in the driver assist system for controlling the distribution of the crop flow issuing from the combine harvester, characterised in that upon selection of a distribution strategy one or more partial strategies associated with the respective distribution strategy are processed.
A laundry system door assembly for a laundering system, comprising a display unit configured for media display during laundering-specific operating conditions, characterized in that the door assembly further comprises: an outer door assembly including an outer pane and an outer door skin with an outer opening; an inner door assembly including an inner pane and an inner door skin with an inner opening; and a display assembly positioned at least partially within the outer opening and the inner opening, the display assembly comprising the display unit and a display mount bracket that couples the display unit to the inner door skin. an outer door assembly including an outer pane and an outer door skin with an outer opening; an inner door assembly including an inner pane and an inner door skin with an inner opening; and a display assembly positioned at least partially within the outer opening and the inner opening, the display assembly comprising the display unit and a display mount bracket that couples the display unit to the inner door skin.
A leveling apparatus for orienting a test article relative to a load acting along an axial loading axis, comprising: a first member having a concave surface; a second member having a convex surface configured to engage the concave surface in a manner such that the second member is movable relative to the first member, the test article being coupled to one of the first and second members (100, 120) such that relative movement thereof facilitates general alignment of the test article with the axial loading axis; and a plurality of positioning devices configured to facilitate adjustment of an orientation of the first member relative to the second member for adjusting the alignment of the test article relative to the axial loading axis, wherein the positioning devices are threadably engaged to the second member, and the positioning devices are configured to engage the first member by placing the tips of the positioning devices into contact with the first member. a first member having a concave surface; a second member having a convex surface configured to engage the concave surface in a manner such that the second member is movable relative to the first member, the test article being coupled to one of the first and second members (100, 120) such that relative movement thereof facilitates general alignment of the test article with the axial loading axis; and a plurality of positioning devices configured to facilitate adjustment of an orientation of the first member relative to the second member for adjusting the alignment of the test article relative to the axial loading axis, wherein the positioning devices are threadably engaged to the second member, and the positioning devices are configured to engage the first member by placing the tips of the positioning devices into contact with the first member.
A lap joint structure comprised of a plurality of sheet members (10, 20) with an overlapping part joined at a plurality of joined parts in a point manner by mechanical joining means or friction stir spot joining means and with the joined parts formed with, at least at one of the sheet members (10, 20), holes through which the mechanical joining means are inserted or holes formed at a time of spot joining by the friction stir spot joining means, in which lap joint structure, the overlapping part of at least one of the sheet members (10, 20) among the above sheet members (10, 20) is formed with a cutaway recessed part between adjacent joined parts in a direction from an end part (22C, 24C) of the overlapping part to the joined parts, and an inside bottom part of the cutaway recessed part is formed at a position of K or more apart from the end part (22C, 24C) of the overlapping part, where K is an inside diameter of the hole, characterized in that, at least one of the holes is positioned so that a distance L between an end part of the hole and an end part (22C, 24C) of a sheet member at which the cutaway recessed part is formed satisfies the relationship of L ≥ 0.8K with respect to the inside diameter K of the hole. the overlapping part of at least one of the sheet members (10, 20) among the above sheet members (10, 20) is formed with a cutaway recessed part between adjacent joined parts in a direction from an end part (22C, 24C) of the overlapping part to the joined parts, and an inside bottom part of the cutaway recessed part is formed at a position of K or more apart from the end part (22C, 24C) of the overlapping part, where K is an inside diameter of the hole, characterized in that, at least one of the holes is positioned so that a distance L between an end part of the hole and an end part (22C, 24C) of a sheet member at which the cutaway recessed part is formed satisfies the relationship of L ≥ 0.8K with respect to the inside diameter K of the hole.
A compound represented by the following general formula or a salt thereof: wherein R 1 represents hydrogen or a group represented by the following general formula: (wherein * represents the binding position; R 11, R 12, R 13 are the same or different and each represents hydrogen, alkyl or alkoxy) R 2 represents a group represented by the following general formula or: (wherein * is defined as described above; R 4 represents alkyl, arylmethyl or aryloxymethyl; R 5, R 6 are the same or different and each represents alkyl) R 3 represents a hydroxy group which may be protected by trialkylsilyl or diphenylalkylsilyl, or a group represented by the following general formula: (wherein * is defined as described above; X represents O or S; Y represents dialkylamino or alkoxy; Z represents halogen).
A centrifugal liquid separation machine comprising: an outer bowl; a conveyor; a separation region defined by said outer bowl and said conveyor; a solids baffle; a heavy phase flow passing between said solids baffle and said outer bowl and radially inward between said solids baffle and a head wall; and a back drive maintaining a separate rotational velocity between said outer bowl and said conveyor, wherein the separate rotational velocity provides a sweeping action between said outer bowl and said conveyor, and an air delivery path via said back drive, said air delivery path delivering air adjacent said solids baffle on one side of said solids baffle to resuspend settled items into said heavy phase flow path. an outer bowl; a conveyor; a separation region defined by said outer bowl and said conveyor; a solids baffle; a heavy phase flow passing between said solids baffle and said outer bowl and radially inward between said solids baffle and a head wall; and a back drive maintaining a separate rotational velocity between said outer bowl and said conveyor, wherein the separate rotational velocity provides a sweeping action between said outer bowl and said conveyor, and an air delivery path via said back drive, said air delivery path delivering air adjacent said solids baffle on one side of said solids baffle to resuspend settled items into said heavy phase flow path.
A layer system for thin-film solar cells, comprising: - an absorber layer for absorbing light, - a buffer layer arranged on the absorber layer, containing Na x In y-x/3 S with 0.063 ≤ x ≤ 0.625, 0.681 ≤ y ≤ 1.50 wherein the percentage of all elements of Na x In y-x/3 S in the buffer layer is at least 75 atom-%, wherein in the buffer layer the ratio of the mole fractions of sodium and indium is greater than 0.2. - an absorber layer for absorbing light, - a buffer layer arranged on the absorber layer, containing Na x In y-x/3 S with 0.063 ≤ x ≤ 0.625, 0.681 ≤ y ≤ 1.50 0.063 ≤ x ≤ 0.625, 0.681 ≤ y ≤ 1.50
A method for cleaning a machine for making liquid and/or semi-liquid food products for the ice cream, pastry or catering trade, wherein the machine comprises: - a product processing container; a receiving device for receiving a capsule containing a basic preparation for making the product; - a transfer device for transferring the content of the capsule into the container; the method being characterized in that it comprises the steps of: - feeding the machine with a capsule containing a preparation for cleaning the machine; - extracting the preparation for cleaning the machine from the capsule; - causing the cleaning preparation extracted from the capsule to pass at least through the product processing container in order to carry out a cleaning cycle in the machine, wherein it further comprises the steps of identifying the type of capsule (8, 17) fed to the machine and automatically switching between normal operating mode of the machine and cleaning operating mode of the machine as a function of the type of capsule (8, 17) identified. - a product processing container; a receiving device for receiving a capsule containing a basic preparation for making the product; - a transfer device for transferring the content of the capsule into the container; - feeding the machine with a capsule containing a preparation for cleaning the machine; - extracting the preparation for cleaning the machine from the capsule; - causing the cleaning preparation extracted from the capsule to pass at least through the product processing container in order to carry out a cleaning cycle in the machine, wherein it further comprises the steps of identifying the type of capsule (8, 17) fed to the machine and automatically switching between normal operating mode of the machine and cleaning operating mode of the machine as a function of the type of capsule (8, 17) identified.
A method for producing a compound of the following formula I: LiM 1-x-y-z N y Q z Fe x PO 4 Formula I wherein: - M is a transition element selected from Co, Ni and Mn, - N is a doping element different from M and Q, preferably a doping element selected from boron, aluminium and mixtures thereof, and/or a deficiency on the sites of lithium and/or M and/or Q. and/or P and/or O, - Q is a transition element selected from Co, Ni, Mn and Fe but different from M, - 0.2 ≤ x ≤ 0.6, - 0 ≤ y ≤ 0.15, - z = 0, and - 0 ≤ x + y + z < 1, characterised in that the compound of formula I has a specific surface area greater than or equal to 15m 2 /g, and in that it comprises the following steps: a) mixing precursors of Li, M, N, Fe, P and ascorbic acid in an aqueous solvent, preferably containing a glycol compound, preferably containing ethylene glycol and/or diethylene glycol and/or triethylene glycol and/or tetraethylene glycol, b) microwave heating the mixture obtained in step a) at a temperature of 160°C and a pressure of between 0.5 and 50 bars, preferably 3 bars, for a period of between 1 and 60 minutes, preferably 30 minutes, and c) washing the product with ethanol and water obtained in step b). - M is a transition element selected from Co, Ni and Mn, - N is a doping element different from M and Q, preferably a doping element selected from boron, aluminium and mixtures thereof, and/or a deficiency on the sites of lithium and/or M and/or Q. and/or P and/or O, - Q is a transition element selected from Co, Ni, Mn and Fe but different from M, - 0.2 ≤ x ≤ 0.6, - 0 ≤ y ≤ 0.15, - z = 0, and - 0 ≤ x + y + z < 1, a) mixing precursors of Li, M, N, Fe, P and ascorbic acid in an aqueous solvent, preferably containing a glycol compound, preferably containing ethylene glycol and/or diethylene glycol and/or triethylene glycol and/or tetraethylene glycol, b) microwave heating the mixture obtained in step a) at a temperature of 160°C and a pressure of between 0.5 and 50 bars, preferably 3 bars, for a period of between 1 and 60 minutes, preferably 30 minutes, and c) washing the product with ethanol and water obtained in step b).
A line guide system for receiving and guiding supply lines between two connection points (2.1, 2.2) which are movable relative to each other in a circular movement with respect to a rotary axis (d) over a rotary angle range, wherein the line guide system has an elongate strand (3.1, 3.2, 3.3) which is coupled to the connection points (2.1, 2.2) and at or in which the supply lines can be arranged in guided relationship, and the strand (3.1, 3.2, 3.3) is reciprocatingly displaceable guidedly over a circular arc within the rotary angle range, forming a first run (4.1), a second run (4.2) and a deflection arc connecting the first and second runs together, wherein at least two strands are provided, a first strand (3.1) and a second strand (3.2), which are arranged coupled one behind the other, the connection points (2.1, 2.2, 2.3) of the strands (3.1, 3.2, 3.3) are in the form of a front connection point (2.1) and a rear connection point (2.2) with respect to a direction of succession (a) from the first strand (3.1) towards the second strand (3.2), wherein the rear connection point (2.2) of the first strand (3.1) is arranged stationarily relative to the front connection point (2.1) of the second strand (3.2) and wherein for guiding the strands (3.1, 3.2, 3.3) there is provided a guide system having three guide units which are rotationally movable relative to each other with respect to the rotary axis (d), with respect to the direction of succession (a) a front guide unit (8.1), a central guide unit (8.2) and a rear guide unit (8.3), wherein the front connection point (2.1) of the first strand (3.1) is fixed to the front guide unit (8.1), the rear connection point (2.2) of the first strand (3.1) and the front connection point (2.1) of the second strand (3.2) is fixed to the central guide unit (8.2) and the rear connection point (2.2) of the second strand (3.2) is fixed to the rear guide unit (8.3) characterised in that the guide units (8.1, 8.2, 8.3) are arranged in two axially spaced planes, that means a first plane (E.1) and a second plane (E.2), perpendicularly to the axis of rotation (d).
Method for determining and updating an occupancy map in a parking area having a plurality of parking spaces, more particularly a ground-level car park or multistorey car park, wherein the occupancy map is stored in a central computing device having a communication device configured for communication with motor vehicles (5, 6, 12) located within the parking area and contains a data structure, in or from which for each particular parking space, as additional attribute, at least its position and its occupancy state is contained or derivable, wherein, for the determining and updating of the occupancy map, sensor data received via the communication device from at least one surroundings sensor of at least one motor vehicle (5, 6, 12) located within the parking area are used, characterised in that, as additional attributes, also at least one position of a motor vehicle parked on the parking space relative to the parking space and/or at least one dimension of the parked motor vehicle and/or at least one identification feature of the parked motor vehicle are used.
A method of transmitting a symbol from a plurality of antennas, the method comprising: transmitting simultaneously, from each antenna, the symbol multiplied by a respective element of a selected column of a matrix; wherein the number of rows of the matrix is at least the number of antennas, the number of columns of the matrix is at least 9, and the matrix comprises or is a sub-matrix of a real Hadamard matrix of maximum excess. transmitting simultaneously, from each antenna, the symbol multiplied by a respective element of a selected column of a matrix; wherein the number of rows of the matrix is at least the number of antennas, the number of columns of the matrix is at least 9, and the matrix comprises or is a sub-matrix of a real Hadamard matrix of maximum excess.