mhurhangee/ep-ind-claims huggingface dataset:
A device configured for making a wire aerial of an element of radio frequency identification (RFID), which device comprises: ▪ a main body, extending along a longitudinal direction and adapted to be constrained to a support, which main body has a longitudinal seat adapted to house a wire for the realization of the aerial; ▪ a putting-wire head arranged at one end of said main body and constrained to the latter main body, said putting-wire head comprising: a guide element, preferably rotatable according to an axis parallel to said longitudinal direction, which guide element is adapted to engage the wire and to deposit it on a substrate and has a degree of freedom of translation along said longitudinal direction with respect to said main body; and a restraining element of the wire, adapted to selectively abut in abutment on said guide element and preferably shaped like a beak, the overall arrangement being such that said putting-wire head is adapted to assume a first rest configuration, wherein said restraining element is attested on said guide element and the wire is retained between them, and a second operative configuration, wherein said restraining element is spaced from said guide element in such a way that the wire can slide within said seat and be deposed on the substrate by means of said guide element. ▪ a main body, extending along a longitudinal direction and adapted to be constrained to a support, which main body has a longitudinal seat adapted to house a wire for the realization of the aerial; ▪ a putting-wire head arranged at one end of said main body and constrained to the latter main body, said putting-wire head comprising: a guide element, preferably rotatable according to an axis parallel to said longitudinal direction, which guide element is adapted to engage the wire and to deposit it on a substrate and has a degree of freedom of translation along said longitudinal direction with respect to said main body; and a restraining element of the wire, adapted to selectively abut in abutment on said guide element and preferably shaped like a beak, the overall arrangement being such that said putting-wire head is adapted to assume a first rest configuration, wherein said restraining element is attested on said guide element and the wire is retained between them, and a second operative configuration, wherein said restraining element is spaced from said guide element in such a way that the wire can slide within said seat and be deposed on the substrate by means of said guide element. a guide element, preferably rotatable according to an axis parallel to said longitudinal direction, which guide element is adapted to engage the wire and to deposit it on a substrate and has a degree of freedom of translation along said longitudinal direction with respect to said main body; and a restraining element of the wire, adapted to selectively abut in abutment on said guide element and preferably shaped like a beak,
A rubber composition for tires, comprising: a diene polymer; silica; and a liquid resin having a softening point of -20°C to 20°C, the diene polymer being a modified diene polymer obtained by reacting a component and a component, the liquid resin being present in an amount of 3 to 40 parts by mass per 100 parts by mass of a rubber component of the rubber composition, the component being an active alkali metal-terminated conjugated diene polymer obtained by polymerizing a conjugated diene monomer alone or with an aromatic vinyl monomer, in the presence of a component, the component being a modifier containing a functional group, and the component being a chemical species obtained by reacting an organic alkali metal compound and a compound represented by the following Formula: wherein R 1 and R 2 are the same as or different from each other, each representing a hydrogen atom, a branched or unbranched alkyl group, a branched or unbranched aryl group, a branched or unbranched alkoxy group, a branched or unbranched silyloxy group, a branched or unbranched acetal group, a carboxyl group, a mercapto group, or a derivative thereof; and A represents a branched or unbranched alkylene group, a branched or unbranched arylene group, or a derivative thereof. a diene polymer; silica; and a liquid resin having a softening point of -20°C to 20°C,
Fuel cell device which is provided for being operated with a natural gas (12a; 12b), having a fuel cell unit (14a; 14b) and having a reformer unit (16a; 16b) which is provided for at least partially reforming the natural gas (12a; 12b), characterized by a feedback control unit (18a; 18b) which is at least provided for performing feedback control of an inlet volume flow and/or inlet mass flow (20a; 20b) of the natural gas (12a; 12b) in a manner dependent on at least a volume flow and/or mass flow (22a; 22b) at an outlet (24a; 24b) of the reformer unit (16a; 16b) and/or at least a volume flow and/or mass flow (26a; 26b) at an anode outlet (28a; 28b) of the fuel cell unit (14a; 14b) such that the volume flow and/or mass flow (22a; 22b) at the outlet (24a; 24b) of the reformer unit (16a; 16b) and/or at least the volume flow and/or mass flow (26a; 26b) at the anode outlet (28a; 28b) of the fuel cell unit (14a; 14b) is substantially constant.
Passenger service unit for use in an aircraft, comprising - a reading light having a light source and a reflector partially enclosing the light source, and - an emergency oxygen supply device comprising an oxygen source, a starter unit for releasing oxygen flow from said oxygen source to an oxygen mask, a control unit for controlling oxygen flow rate from said oxygen source to said oxygen mask and an electrical energy storage device like a rechargeable battery pack or a condensator, for providing electrical energy to said control unit and/or said starter unit, Characterized by an energy harvesting unit adjacent to or integrated into said reflector of said reading light wherein said energy harvesting unit is electrically connected to said electrical energy storage device. - a reading light having a light source and a reflector partially enclosing the light source, and - an emergency oxygen supply device comprising an oxygen source, a starter unit for releasing oxygen flow from said oxygen source to an oxygen mask, a control unit for controlling oxygen flow rate from said oxygen source to said oxygen mask and an electrical energy storage device like a rechargeable battery pack or a condensator, for providing electrical energy to said control unit and/or said starter unit, Characterized by an energy harvesting unit adjacent to or integrated into said reflector of said reading light wherein said energy harvesting unit is electrically connected to said electrical energy storage device.
Mounting for attaching at least one item of electrical equipment, said mounting comprising at least one crosspiece to be connected between return portions of lateral flanges (12, 13) of a wireway baseplate, which return portions are directed towards one another, and said electrical equipment comprising at least one electrical connection terminal (400; 400'), characterised in that said crosspiece comprises at least one access opening (111, 112, 113; 111') leading to said electrical connection terminal (400; 400').
A method for manufacturing a 3D item by means of fused deposition modeling, the method comprising layer-wise depositing a 3D printable material with particles embedded therein, wherein the 3D printable material comprises a continuous phase of a thermoplastic polymeric material, wherein the particles comprise a crosslinked polymeric material, wherein at least part of the total number of the particles have a first dimension selected from the range of 0.2-100 μm, the first dimension being a length or a diameter, characterized in that the 3D printable material and the particles comprise a light transmissive material, and wherein the light transmissive material of the particles has an index of refraction selected from the range of 1.2-1.8.
An image processing device (23, 33) adapted to obtain a depth information image representing a distribution of depth information about an object on the basis of a first image and a second image that have different degrees of blurring, the first and second images being captured under different focus positions and/or different aperture diameters by an image sensor including a plurality of groups of pixels, each group including a red pixel for obtaining red information, a green pixel for obtaining green information, and a blue pixel for obtaining blue information, wherein the first image and the second image are decomposed into red, green, blue images, and, by interpolating missing pixels, a first RGB format image having signal values for red, green, blue of all pixels of the image is generated from the first image and a second RGB format image having signal values for red, green, blue of all pixels of the image is generated from the second image, and wherein the image processing device comprises: a generation unit configured to generate a first mixed image from the first RGB format image and a second mixed image from the second RGB format image, wherein a mixed signal corresponding to each pixel of the mixed images is generated by calculating a weighted average of signal values for red, green, blue in the same group; an extracting unit configured to extract signals, each corresponding to one of the plurality of pixels of each group, from each of the first mixed image and the second mixed image and generate a first extracted image and a second extracted image respectively corresponding to the first mixed image and the second mixed image, wherein the extracted signals are signals corresponding to pixels of the first image and of the second image that obtain the same color information; and a calculating unit configured to calculate the depth information image from a difference in degree of blurring between regions in the first extracted image and corresponding regions in the second extracted image. a generation unit configured to generate a first mixed image from the first RGB format image and a second mixed image from the second RGB format image, wherein a mixed signal corresponding to each pixel of the mixed images is generated by calculating a weighted average of signal values for red, green, blue in the same group; an extracting unit configured to extract signals, each corresponding to one of the plurality of pixels of each group, from each of the first mixed image and the second mixed image and generate a first extracted image and a second extracted image respectively corresponding to the first mixed image and the second mixed image, wherein the extracted signals are signals corresponding to pixels of the first image and of the second image that obtain the same color information; and a calculating unit configured to calculate the depth information image from a difference in degree of blurring between regions in the first extracted image and corresponding regions in the second extracted image.
A method for transmitting a reference signal to a user equipment at a base station in a wireless communication system, comprising: transmitting a control channel and the reference signal having a first pattern for the control channel to the user equipment; and transmitting a data channel and the reference signal having a second pattern for the data channel to the user equipment, wherein the first and second patterns define positions of resource elements for the reference signal in a resource grid, wherein reference signal density of the second pattern is determined based on a coherence time of the data channel, and wherein the first pattern includes the second pattern. transmitting a control channel and the reference signal having a first pattern for the control channel to the user equipment; and transmitting a data channel and the reference signal having a second pattern for the data channel to the user equipment, wherein the first and second patterns define positions of resource elements for the reference signal in a resource grid, wherein reference signal density of the second pattern is determined based on a coherence time of the data channel, and wherein the first pattern includes the second pattern.
An exhaust system for treating an exhaust gas from an internal combustion engine, comprising: (a) a modified lean NO x trap, wherein the modified LNT comprises platinum, palladium, barium, and a ceria-containing material and the modified LNT has a platinum:palladium molar ratio of at least 3:1; (b) a urea injection system; and (c) an ammonia-selective catalytic reduction (NH 3 -SCR) catalyst, characterised in that the modified LNT stores NO x at temperatures below about 200°C and releases the stored NO x at temperatures above about 200°C; wherein the NH 3 -SCR catalyst is an ammonia-selective catalytic reduction filter (NH 3 -SCRF). (a) a modified lean NO x trap, wherein the modified LNT comprises platinum, palladium, barium, and a ceria-containing material and the modified LNT has a platinum:palladium molar ratio of at least 3:1; (b) a urea injection system; and (c) an ammonia-selective catalytic reduction (NH 3 -SCR) catalyst,
A chairback support structure, comprising a back element having a plurality of insertion holes, a central back board and two lateral back boards extending from two lateral edges of the central back board, respectively; a plurality of resilient bend plates each having a bendable portion, two insertion portions extending from two ends of the bendable portion, respectively, and two abutting portions disposed at two ends of the bendable portion, respectively, the two insertion portions being insertable into the insertion holes of the back element, and the two abutting portions being adapted to abut against the back element; and a pad for covering the back element and the resilient bend plates; wherein the insertion holes of the back element are disposed on the two lateral back boards. a back element having a plurality of insertion holes, a central back board and two lateral back boards extending from two lateral edges of the central back board, respectively; a plurality of resilient bend plates each having a bendable portion, two insertion portions extending from two ends of the bendable portion, respectively, and two abutting portions disposed at two ends of the bendable portion, respectively, the two insertion portions being insertable into the insertion holes of the back element, and the two abutting portions being adapted to abut against the back element; and a pad for covering the back element and the resilient bend plates; wherein the insertion holes of the back element are disposed on the two lateral back boards.
An adhesive composition comprising: (a) one or more epoxy resins; (b) acrylic crosslinked particles containing an alkyl (meth)acrylate unit and a polyfunctional acrylate unit; (c) a core-shell rubber in the form of secondary particles in which two or more core-shell rubbers in the form of primary particles are aggregated; (d) one or more epoxy curing agents; and (e) a urethane resin having a polyether structure; wherein the cores in the core-shell rubber in the form of primary particles have an average particle diameter of 180 to 495 nm; wherein the average particle diameter is measured according to the measurement method of the description. (a) one or more epoxy resins; (b) acrylic crosslinked particles containing an alkyl (meth)acrylate unit and a polyfunctional acrylate unit; (c) a core-shell rubber in the form of secondary particles in which two or more core-shell rubbers in the form of primary particles are aggregated; (d) one or more epoxy curing agents; and (e) a urethane resin having a polyether structure; wherein the cores in the core-shell rubber in the form of primary particles have an average particle diameter of 180 to 495 nm; wherein the average particle diameter is measured according to the measurement method of the description.
A method for suppressing interference in a wireless communication, comprising the steps of: receiving a burst of symbols; generating a plurality of timing hypotheses for the burst of symbols; calculating a corresponding plurality of weights for each of the plurality of timing hypotheses based on a subset of the burst of symbols; filtering the subset of the burst of symbols using an interference suppression filter (240, 540) with the corresponding plurality of weights for each of the plurality of timing hypotheses; selecting one of the plurality of timing hypotheses based on a midamble estimation error of the selected timing hypothesis; filtering the burst of symbols using the interference suppression filter (240, 540) with a first plurality of weights corresponding to the selected timing hypothesis; decoding the filtered burst of symbols to generate data corresponding to the burst of symbols; encoding the data to generate a re-encoded burst of symbols; re-calculating the first plurality of weights based upon the re-encoded burst of symbols to form a second plurality of weights for the interference suppression filter (240, 450); filtering the re-encoded burst of symbols using the interference suppression filter (240, 450) with the second plurality of weights; and decoding the filtered re-encoded burst of symbols. receiving a burst of symbols; generating a plurality of timing hypotheses for the burst of symbols; calculating a corresponding plurality of weights for each of the plurality of timing hypotheses based on a subset of the burst of symbols; filtering the subset of the burst of symbols using an interference suppression filter (240, 540) with the corresponding plurality of weights for each of the plurality of timing hypotheses; selecting one of the plurality of timing hypotheses based on a midamble estimation error of the selected timing hypothesis; filtering the burst of symbols using the interference suppression filter (240, 540) with a first plurality of weights corresponding to the selected timing hypothesis; decoding the filtered burst of symbols to generate data corresponding to the burst of symbols; encoding the data to generate a re-encoded burst of symbols; re-calculating the first plurality of weights based upon the re-encoded burst of symbols to form a second plurality of weights for the interference suppression filter (240, 450); filtering the re-encoded burst of symbols using the interference suppression filter (240, 450) with the second plurality of weights; and decoding the filtered re-encoded burst of symbols.
A method of producing a lithium-tantalate crystal with increased electric conductivity, characterised in that a piece of lithium tantalate which has been reduced at a temperature of T1, T1 being the Curie temperature of lithium tantalate or higher, is brought into contact with a lithium-tantalate crystal at a temperature of T2 that is lower than the temperature of T1 in a reducing atmosphere.
Device for assembling an aiming device on a hand-held weapon with a mounting which contains at least one fixed supporting element and an opposite supporting element rotatable about an axis of rotation relative to the mounting, which supporting element is adjustable with respect to the fixed supporting element by an actuating element, wherein the actuating element is rotatable relative to the rotatable supporting element about its axis of rotation, and wherein the actuating element is connected to the rotatable supporting element so that the rotatable supporting element, during rotation of the actuating element into a clamping position, is first co-rotated and after reaching a locking position is displaced only in the direction of the axis of rotation without further rotation.
A container comprising a cup-shaped box and a lid connected to the cup-shaped box, further comprising a box side wall (5, 6) and an adjacent box front wall, wherein an attachment tab (13, 14) depends from the box side wall (5, 6) of the container, wherein the attachment tab (13, 14) is attached to the box front wall of the container, further comprising a tab cover panel depending from the box front wall, wherein the tab cover panel at least partially overlies the attachment tab (13, 14) of the box, the container further comprising an inner cover panel depending from a tab cover panel, wherein the inner cover panel covers an inside portion of a wall of the container, wherein the inner cover panel at least partially covers the inside of a top wall of the lid, and characterized in that the container further comprises a lifting panel capable of at least partially lifting the consumer goods within the container upon opening of the container, wherein the lifting panel is connected over a folding mechanism to the inner cover panel.
Use of a powderous catalytic system, which comprises a metal alloy carrier, wherein the metal alloy comprises (i) 45 weight-% (wt-%) - 80 wt-%, based on the total weight of the metal alloy, of Fe, and (ii) 0.5 wt-% - 30 wt-%, based on the total weight of the metal alloy, of Ni, and (iii) 0 wt-% - 20 wt-%, based on the total weight of the metal alloy, of Co, and (iv) 0 wt-% - 8 wt-%, based on the total weight of the metal alloy, of Mo, and (v) 0 wt-% - 30 wt-%, based on the total weight of the metal alloy, of Cr, and wherein the metal alloy is coated by a metal oxide layer and impregnated with Pd, characterized in that the metal oxide layer comprises CeO 2 and ZnO in a ratio of from 2:1 to 1:2, in selective catalytic hydrogenation with hydrogen of organic starting material comprising a carbon-carbon triple bond (preferably alkynol compounds). (i) 45 weight-% (wt-%) - 80 wt-%, based on the total weight of the metal alloy, of Fe, and (ii) 0.5 wt-% - 30 wt-%, based on the total weight of the metal alloy, of Ni, and (iii) 0 wt-% - 20 wt-%, based on the total weight of the metal alloy, of Co, and (iv) 0 wt-% - 8 wt-%, based on the total weight of the metal alloy, of Mo, and (v) 0 wt-% - 30 wt-%, based on the total weight of the metal alloy, of Cr, and wherein the metal alloy is coated by a metal oxide layer and impregnated with Pd, characterized in that the metal oxide layer comprises CeO 2 and ZnO in a ratio of from 2:1 to 1:2, in selective catalytic hydrogenation with hydrogen of organic starting material comprising a carbon-carbon triple bond (preferably alkynol compounds).
A computer-implemented method comprising: receiving, by a token pool, a power allowance request from a first power consuming device, of a plurality of power consuming devices, of an integrated circuit; in response to receiving the power allowance request, the token pool determining whether a second power consuming device, of the plurality of power consuming devices, has a power allowance surplus; in response to determining the second power consuming device has a power allowance surplus, receiving the power allowance surplus from the second power consuming device; transferring, via the token pool, the power allowance surplus to the first power consuming device; and in response to transferring the power allowance surplus to the first power consuming device: (i) increasing a first power usage limit corresponding to the first power consuming device, based on the power allowance surplus, and (ii) decreasing a second power usage limit corresponding to the second power consuming device, based on the power allowance surplus. receiving, by a token pool, a power allowance request from a first power consuming device, of a plurality of power consuming devices, of an integrated circuit; in response to receiving the power allowance request, the token pool determining whether a second power consuming device, of the plurality of power consuming devices, has a power allowance surplus; in response to determining the second power consuming device has a power allowance surplus, receiving the power allowance surplus from the second power consuming device; transferring, via the token pool, the power allowance surplus to the first power consuming device; and in response to transferring the power allowance surplus to the first power consuming device: (i) increasing a first power usage limit corresponding to the first power consuming device, based on the power allowance surplus, and (ii) decreasing a second power usage limit corresponding to the second power consuming device, based on the power allowance surplus.