mhurhangee/ep-ind-claims huggingface dataset:
Ceiling strut particularly for mounting a cable guiding device, with an end piece and a strut body adjoining thereto, which is connectable to a cantilever, on which the cable guiding device can be placed, and with a segment anchor that is provided with a threaded rod and that on the one hand is connectable with the end piece and on the other hand can be anchored in the ceiling, characterized in that the end piece has a receiving opening which is closed in itself, through which a connecting element, which is mounted rotatably on the threaded rod, is guidable through and is laterally displaceable at least partially below that lower side of the end piece and is tightly screwable, whereafter the ceiling strut is positively connected to the segment anchor, wherein the receiving opening comprises a smaller second opening part and a larger first opening part, which is dimensioned such that the threaded rod and the connecting element connected thereto are guidable through it, and that the smaller second opening part is dimensioned such that the threaded rod is laterally insertable therein and that the edge adjacent to the second opening part, which is part of the end piece, serves as a flange for holding the connecting element, and wherein the end piece has a recessed seat and/or at least one barb at its lower side with which the connecting element is held below the second opening part, after the threaded rod has been inserted therein.
A method of fabricating diamond semiconductors, the method including the steps of: selecting a diamond material having a diamond lattice; introducing boron acceptor dopant atoms of a concentration of between 5 x 10 8 /cm 2 and 5 x 10 10 /cm 2 to the diamond lattice by ion implantation, to create ion tracks; introducing phosphorous substitutional dopant atoms to the diamond lattice by ion implantation, through the ion tracks; and annealing the diamond lattice. selecting a diamond material having a diamond lattice; introducing boron acceptor dopant atoms of a concentration of between 5 x 10 8 /cm 2 and 5 x 10 10 /cm 2 to the diamond lattice by ion implantation, to create ion tracks; introducing phosphorous substitutional dopant atoms to the diamond lattice by ion implantation, through the ion tracks; and annealing the diamond lattice.
Method for treating diesel motor exhaust gases containing nitrogen oxides (NO x) and hydrocarbons, comprising: a) the addition of ammonia (NH 3) as such, or a precursor compound which decomposes to ammonia from a source which does not form part of the exhaust gas line, to the exhaust gas stream containing nitrogen oxides and hydrocarbons; and b) the selective reaction of NO x with the NH 3 added to the exhaust gas stream on an SCR catalyst containing a zeolite exchanged with copper (Cu) and/or iron (Fe), characterized in that the hydrocarbons present in the exhaust gas are kept away, by the molecular sieve-like action of the zeolite, from the active sites in the catalyst on which the reactions take place, wherein the zeolite has a maximum lower channel width of 0.26 - 0.42 nm (2.6 Å - 4.2 Å) and is selected from the group consisting of ferrierite. a) the addition of ammonia (NH 3) as such, or a precursor compound which decomposes to ammonia from a source which does not form part of the exhaust gas line, to the exhaust gas stream containing nitrogen oxides and hydrocarbons; and b) the selective reaction of NO x with the NH 3 added to the exhaust gas stream on an SCR catalyst containing a zeolite exchanged with copper (Cu) and/or iron (Fe),
A method of making a garment (500, 700), the method comprising: providing a first panel of material; providing a second panel of material; providing a thermally insulating fill sheet having one or more voided portions; securing the thermally insulating fill sheet to at least the first panel of material; positioning the second panel of material such that the thermally insulating fill sheet is interposed between the first panel of material and the second panel of material; affixing the first panel of material to the second panel of material in one or more areas corresponding to the one or more voided portions in the thermally insulating fill sheet; and forming the garment using at least the first panel of material and the second panel of material, characterized in that the affixing step comprises applying an adhesive (128, 130) to an inner-facing surface (116, 126) of at least one of the first panel of material or the second panel of material in the one or more areas corresponding to the one or more voided portions in the thermally insulating fill sheet, wherein the applied adhesive (128, 130) is optionally activated by one of heat energy or ultrasonic energy.
A method of automatically rendering a lighting scene with a lighting system, comprising the steps of: - monitoring a rendered lighting scene for the occurrence of interference (14, 20, 22, 24) causing a deviation of the rendered lighting scene from an intended lighting scene, the monitoring further comprising the steps of - scanning the rendered lighting scene, and - detecting a significant deviation of the scanned lighting scene with respect to a reference lighting scene; and - automatically reconfiguring the lighting system for rendering a new lighting scene to counteract a monitored occurrence of interference, the automatically reconfiguring further comprising the steps of - triggering a process of characterisation of an interference from the detected significant deviation, and - performing a computation of configuration settings for the lighting system for rendering the new lighting scene to counteract the characterized interference depending on the characterisation. - monitoring a rendered lighting scene for the occurrence of interference (14, 20, 22, 24) causing a deviation of the rendered lighting scene from an intended lighting scene, the monitoring further comprising the steps of - scanning the rendered lighting scene, and - detecting a significant deviation of the scanned lighting scene with respect to a reference lighting scene; and - scanning the rendered lighting scene, and - detecting a significant deviation of the scanned lighting scene with respect to a reference lighting scene; and - automatically reconfiguring the lighting system for rendering a new lighting scene to counteract a monitored occurrence of interference, the automatically reconfiguring further comprising the steps of - triggering a process of characterisation of an interference from the detected significant deviation, and - performing a computation of configuration settings for the lighting system for rendering the new lighting scene to counteract the characterized interference depending on the characterisation. - triggering a process of characterisation of an interference from the detected significant deviation, and - performing a computation of configuration settings for the lighting system for rendering the new lighting scene to counteract the characterized interference depending on the characterisation.
A catalyst for the oxidation of NO, for the oxidation of ammonia and for the selective catalytic reduction of NOx, comprising (i) a flow-through substrate comprising an inlet end, an outlet end, a substrate axial length extending from the inlet end to the outlet end and a plurality of passages defined by internal walls of the flow-through substrate extending therethrough, wherein the interface between the passages and the internal walls is defined by the surface of the internal walls; (ii) a first coating comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iii) a second coating comprising a platinum group metal component supported on a non-zeolitic oxidic material and further comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iv) a third coating comprising a platinum group metal component supported on an oxidic material; wherein the third coating is disposed on the surface of the internal walls over z % of the axial length of the substrate from the outlet end to the inlet end, with z being in the range of from 20 to 80; wherein the second coating extends over y % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the surface of the internal walls, with y being in the range of from 20 to 80; wherein the first coating extends over x % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the second coating and on the third coating, with x being in the range of from 95 to 100. (i) a flow-through substrate comprising an inlet end, an outlet end, a substrate axial length extending from the inlet end to the outlet end and a plurality of passages defined by internal walls of the flow-through substrate extending therethrough, wherein the interface between the passages and the internal walls is defined by the surface of the internal walls; (ii) a first coating comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iii) a second coating comprising a platinum group metal component supported on a non-zeolitic oxidic material and further comprising one or more of a vanadium oxide and a zeolitic material comprising one or more of copper and iron; (iv) a third coating comprising a platinum group metal component supported on an oxidic material; wherein the third coating is disposed on the surface of the internal walls over z % of the axial length of the substrate from the outlet end to the inlet end, with z being in the range of from 20 to 80; wherein the second coating extends over y % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the surface of the internal walls, with y being in the range of from 20 to 80; wherein the first coating extends over x % of the axial length of the substrate from the inlet end to the outlet end and is disposed on the second coating and on the third coating, with x being in the range of from 95 to 100.
A solar heat absorber comprising: a heat collecting medium; an inlet through which the heat collecting medium enters the solar heat absorber; a passage member configured to be fluidly connected with the inlet such that the heat collecting medium enters the passage member through the inlet; and a collection member configured to be fluidly connected with the passage member such that the heat collecting medium enters the collection member through the passage member, wherein the heat collecting medium is a flow of ceramic particles, characterized in that the passage member comprises: a plurality of passage units, each comprising: a plurality of holes in which the heat collecting medium flows; and a base body surrounding the plurality of holes; and an outer layer portion surrounding the plurality of passage units and fixing the plurality of passage units to be integrated, wherein a vacuum gap is formed between the plurality of passage units and the outer layer portion, wherein the base body of each of the plurality of passage units and the outer layer portion are transparent to transmit sunlight. a heat collecting medium; an inlet through which the heat collecting medium enters the solar heat absorber; a passage member configured to be fluidly connected with the inlet such that the heat collecting medium enters the passage member through the inlet; and a collection member configured to be fluidly connected with the passage member such that the heat collecting medium enters the collection member through the passage member, wherein the heat collecting medium is a flow of ceramic particles, characterized in that the passage member comprises: a plurality of passage units, each comprising: a plurality of holes in which the heat collecting medium flows; and a base body surrounding the plurality of holes; and an outer layer portion surrounding the plurality of passage units and fixing the plurality of passage units to be integrated, wherein a vacuum gap is formed between the plurality of passage units and the outer layer portion, wherein the base body of each of the plurality of passage units and the outer layer portion are transparent to transmit sunlight. a plurality of passage units, each comprising: a plurality of holes in which the heat collecting medium flows; and a base body surrounding the plurality of holes; and an outer layer portion surrounding the plurality of passage units and fixing the plurality of passage units to be integrated, wherein a vacuum gap is formed between the plurality of passage units and the outer layer portion, wherein the base body of each of the plurality of passage units and the outer layer portion are transparent to transmit sunlight.
A securing device for securing a front panel of a drawer to a drawer frame, having a holding element for securing to the front panel and a closing element for securing to the drawer frame, the closing element comprising a support and a closure having a holding segment supported rotatably about an axis of rotation on the support, a spring having an operative connection to the closure, and the closure being implemented for exposing a holding region of the holding element in an open rotational position of the closure, and for blocking the holding region in a closed position of the closure, wherein a transmission element is hinged to the closure by means of a rotating/sliding connection on the closure side spaced apart from the axis of rotation of the closure, wherein a rotating/sliding connection on the opener side having a first bearing element is disposed on the transmission element opposite the rotating/sliding connection on the closure side, wherein the rotating/sliding connection on the opener side produces a connection to a displaceably supported opener, wherein the rotating/sliding connection on the opener side comprises a first and a second control curve (92, 93) on which the first bearing element is guided, and wherein the two control curves (92, 93) intersect, characterized in that the rotating/sliding connection on the closure side comprises a first and a second guide curve (90, 91), and that the two guide curves (90, 91) intersect. the closing element comprising a support and a closure having a holding segment supported rotatably about an axis of rotation on the support, a spring having an operative connection to the closure, and the closure being implemented for exposing a holding region of the holding element in an open rotational position of the closure, and for blocking the holding region in a closed position of the closure, wherein a transmission element is hinged to the closure by means of a rotating/sliding connection on the closure side spaced apart from the axis of rotation of the closure, wherein a rotating/sliding connection on the opener side having a first bearing element is disposed on the transmission element opposite the rotating/sliding connection on the closure side, wherein the rotating/sliding connection on the opener side produces a connection to a displaceably supported opener, wherein the rotating/sliding connection on the opener side comprises a first and a second control curve (92, 93) on which the first bearing element is guided, and wherein the two control curves (92, 93) intersect, characterized in that the rotating/sliding connection on the closure side comprises a first and a second guide curve (90, 91), and that the two guide curves (90, 91) intersect.
An elastomeric composition for tyres, comprising at least 100 phr of at least one diene elastomeric polymer, 0.5 to 50 phr of at least one phenolic product, optionally already partially cross-linked, 0.5 to 100 phr of at least one oxidised carbon allotrope selected from oxidised carbon nanotubes, oxidised graphite, oxidised graphene and oxidised carbon black, 0 to 50 phr of at least one aldehyde and/or at least one methylene donor product, 0 to 120 phr of at least one reinforcing filler, and 0.1 to 15 phr of at least one vulcanising agent. 100 phr of at least one diene elastomeric polymer, 0.5 to 50 phr of at least one phenolic product, optionally already partially cross-linked, 0.5 to 100 phr of at least one oxidised carbon allotrope selected from oxidised carbon nanotubes, oxidised graphite, oxidised graphene and oxidised carbon black, 0 to 50 phr of at least one aldehyde and/or at least one methylene donor product, 0 to 120 phr of at least one reinforcing filler, and 0.1 to 15 phr of at least one vulcanising agent.
A method of stirring, the method including: a) providing a number of electromagnetic stirrer units, each stirrer unit being moveably mounted; b) providing a number of locations (25, 27) at which stirring is to be provided by a stirrer unit; c) providing stirring at a first location from amongst the number of locations (25, 27) using a stirrer unit; d) providing stirring at a second location from amongst the number of locations (25, 27) using the same stirrer unit, the second location being different to the first location; characterised in that a coolant source is in fluid communication with an interface (9a; 9b) at the first location and the coolant source is in fluid communication with an interface (9a; 9b) at the second location, the interface or interfaces (9a; 9b) provide for fluid communication between the coolant source and the stirrer unit when the stirrer unit is at a location (25, 27); wherein the coolant source is fixed in position relative to the first location and the second location. a) providing a number of electromagnetic stirrer units, each stirrer unit being moveably mounted; b) providing a number of locations (25, 27) at which stirring is to be provided by a stirrer unit; c) providing stirring at a first location from amongst the number of locations (25, 27) using a stirrer unit; d) providing stirring at a second location from amongst the number of locations (25, 27) using the same stirrer unit, the second location being different to the first location;
A navigation system for tracking an object, the navigation system comprising: a tracking device (44, 46, 48) being attachable to the object and including a tracking head (212, 312, 412) having a tracking element (50, 60, 70) configured to produce a tracking signal, and wherein the tracking head (212, 312, 412) supports an error indicator including at least one light emitter (302, 402); a sensor configured to receive the tracking signal from the tracking element (50, 60, 70) to determine a position of the object; and a computing system configured to: - determine whether the sensor received the tracking signal from the tracking element (50, 60, 70) and - generate an error signal when the sensor does not receive the tracking signal, and said computing system being characterized in that it is further configured to control the error indicator such that: the at least one light emitter (302, 402) is activated to emit a colored light in response to absence of the error signal; and the at least one light emitter (302, 402) is deactivated in response to generation of the error signal. a tracking device (44, 46, 48) being attachable to the object and including a tracking head (212, 312, 412) having a tracking element (50, 60, 70) configured to produce a tracking signal, and wherein the tracking head (212, 312, 412) supports an error indicator including at least one light emitter (302, 402); a sensor configured to receive the tracking signal from the tracking element (50, 60, 70) to determine a position of the object; and a computing system configured to: - determine whether the sensor received the tracking signal from the tracking element (50, 60, 70) and - generate an error signal when the sensor does not receive the tracking signal, and - determine whether the sensor received the tracking signal from the tracking element (50, 60, 70) and - generate an error signal when the sensor does not receive the tracking signal, and said computing system being characterized in that it is further configured to control the error indicator such that: the at least one light emitter (302, 402) is activated to emit a colored light in response to absence of the error signal; and the at least one light emitter (302, 402) is deactivated in response to generation of the error signal. the at least one light emitter (302, 402) is activated to emit a colored light in response to absence of the error signal; and the at least one light emitter (302, 402) is deactivated in response to generation of the error signal.
Headrest for a seat, in particular vehicle seat, comprising at least - one headrest body; - one support element having at least one rod end (3.1) for mounting the headrest body; - one main support element having at least one bearing opening (5.1) through which the rod end (3.1) is routed, wherein the main support element is connected to the headrest body and conjointly with the latter is height-adjustable relative to the support element; and - one locking element for locking the main support element in an adjusted height position on the support element, wherein the locking element has at least one locking region (8.2) and one activation region (8.3); wherein - the locking region (8.2) extends so as to be substantially perpendicular to a direction of transverse extent of the main support element; - the locking region (8.2) in a locked position is releasably secured on the bearing opening (5.1), characterized in that - the activation region (8.3) extends from the main support element in a height direction; and - the locking region (8.2) by activating the activation region (8.3) is movable away from the bearing opening (5.1). - one headrest body; - one support element having at least one rod end (3.1) for mounting the headrest body; - one main support element having at least one bearing opening (5.1) through which the rod end (3.1) is routed, wherein the main support element is connected to the headrest body and conjointly with the latter is height-adjustable relative to the support element; and - one locking element for locking the main support element in an adjusted height position on the support element, wherein the locking element has at least one locking region (8.2) and one activation region (8.3); wherein - the locking region (8.2) extends so as to be substantially perpendicular to a direction of transverse extent of the main support element; - the locking region (8.2) in a locked position is releasably secured on the bearing opening (5.1), characterized in that - the activation region (8.3) extends from the main support element in a height direction; and - the locking region (8.2) by activating the activation region (8.3) is movable away from the bearing opening (5.1).