mhurhangee/ep-ind-claims huggingface dataset:
A remote control device that is configured for use in a load control system comprising a load control device, the load control device configured to control an amount of power delivered to an electrical load that is electrically connected to the load control device, the remote control device comprising: an adapter plate configured to be attached to a yoke of a mechanical switch that controls whether power is delivered to the electrical load, the adapter plate defining a first opening; a mounting frame that defines a plate, a second opening therethrough and a mounting ring extending from the plate and surrounding the second opening a control unit configured to be attached to the mounting ring, the control unit comprising a user interface and a wireless communication circuit, the control unit configured to translate a user input received via the user interface into a control signal that controls the load control device, and to cause the wireless communication circuit to transmit the control signal; and a faceplate configured to be attached to the adapter plate, the faceplate defining a third opening therethrough, wherein when the mechanical switch is mounted in a wallbox, the mounting frame is attached to the adapter plate and the adapter plate is attached to the faceplate, and wherein when the mechanical switch is mounted in the wallbox, the mounting frame abuts a bezel of the mechanical switch such that the faceplate is spaced away from the bezel of the mechanical switch to enable the mounting ring to extend through the first opening and the third opening, and wherein a portion of the mechanical switch extends through the second opening. an adapter plate configured to be attached to a yoke of a mechanical switch that controls whether power is delivered to the electrical load, the adapter plate defining a first opening; a mounting frame that defines a plate, a second opening therethrough and a mounting ring extending from the plate and surrounding the second opening a control unit configured to be attached to the mounting ring, the control unit comprising a user interface and a wireless communication circuit, the control unit configured to translate a user input received via the user interface into a control signal that controls the load control device, and to cause the wireless communication circuit to transmit the control signal; and a faceplate configured to be attached to the adapter plate, the faceplate defining a third opening therethrough, wherein when the mechanical switch is mounted in a wallbox, the mounting frame is attached to the adapter plate and the adapter plate is attached to the faceplate, and wherein when the mechanical switch is mounted in the wallbox, the mounting frame abuts a bezel of the mechanical switch such that the faceplate is spaced away from the bezel of the mechanical switch to enable the mounting ring to extend through the first opening and the third opening, and wherein a portion of the mechanical switch extends through the second opening.
A sound insulating trim part comprising at least one absorbing area, which has predominantly sound absorbing characteristics, whereby the absorbing area comprises at least one porous fibrous layer, and at least an insulating area, which has acoustic mass-spring characteristics, whereby the insulating area consists of at least a mass layer and a decoupling layer, wherein the mass layer consists of the same porous fibrous layer as the absorbing area, wherein said porous fibrous layer in the insulating area is compressed to have a dynamic Young's modulus expressed in Pa of at least 96.AW.t with AW being the area weight expressed in g/m 2, and t being the thickness expressed in mm of the porous fibrous layer, and at least an air impermeable thin barrier layer between the porous fibrous layer and the decoupling layer, and whereby the thickness of the porous fibrous layer in the absorbing area is larger than the thickness of the same layer in the insulating area.
A multi-access point controller, comprising: hardware processing circuitry; one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: receiving, from each of a plurality of access points, APs, (702a, 702b, 702c) first received signal strength indication, RSSI, values determined by each of the plurality of APs based on signals received from other APs, receiving, from a first AP, a second RSSI value measured by a wireless terminal for each of a signal generated by the first AP and a signal generated by a second AP, determining, for each of the first and second APs, a number of wireless terminals (704d, 704e, 704f) associated with each of the first and second APs, aggregating the received first RSSI values, and instructing the wireless terminal to transition from the first AP to the second AP based on the number of wireless terminals associated with each of the first and second APs, the aggregated received first RSSI values, and the received first and second RSSI values. hardware processing circuitry; one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations comprising: receiving, from each of a plurality of access points, APs, (702a, 702b, 702c) first received signal strength indication, RSSI, values determined by each of the plurality of APs based on signals received from other APs, receiving, from a first AP, a second RSSI value measured by a wireless terminal for each of a signal generated by the first AP and a signal generated by a second AP, determining, for each of the first and second APs, a number of wireless terminals (704d, 704e, 704f) associated with each of the first and second APs, aggregating the received first RSSI values, and instructing the wireless terminal to transition from the first AP to the second AP based on the number of wireless terminals associated with each of the first and second APs, the aggregated received first RSSI values, and the received first and second RSSI values. receiving, from each of a plurality of access points, APs, (702a, 702b, 702c) first received signal strength indication, RSSI, values determined by each of the plurality of APs based on signals received from other APs, receiving, from a first AP, a second RSSI value measured by a wireless terminal for each of a signal generated by the first AP and a signal generated by a second AP, determining, for each of the first and second APs, a number of wireless terminals (704d, 704e, 704f) associated with each of the first and second APs, aggregating the received first RSSI values, and instructing the wireless terminal to transition from the first AP to the second AP based on the number of wireless terminals associated with each of the first and second APs, the aggregated received first RSSI values, and the received first and second RSSI values.
An electrical connecting device for a machine, which machine has a wall element which separates an internal space of the machine from its surroundings, which connecting device comprises a fitting element suited to being fitted in an aperture of the wall element, at least one connecting element which has a first end with a first connection unit for an electric cable which is situated outside the wall element, a second end with a second connecting element for an electric cable which is situated within the internal space, and an intermediate portion suited to being fitted in a hole which runs through the fitting element, and a sealing means suited to making a tight connection between the connecting element and the fitting element in the hole, wherein the fitting element is made integrally from a first material, wherein the connecting element is made integrally from a second material and that the connecting element and the fitting element are provided with mutually cooperating surfaces (2c 1, 2c 2, 3e 1, 3e 2) which define a predetermined fitting position for the connecting element in the hole, wherein the intermediate portion of the connecting element has a region with a circular cross-section comprising a recess which extends round the connecting element in which the sealing means is fitted, and a region with a non-circular cross-section, and wherein a transitional portion between the circular cross-section and the non-circular cross-section of the intermediate portion of the connecting element comprises a stop surface (3e 1) mutually cooperating with a stop surface (2c 1) of the fitting element which define a predetermined axial fitting position for the connecting element within the hole, characterised in that the hole running through the fitting element 2 have a circular cross-sectional shape from an aperture in a first side up to the stop surface (2c 1) and thereafter a semicircular cross -sectional shape up to an aperture on a second side, that the connecting element has a circular cross-sectional area at the first end, a semicircular cross-sectional area at the second end, and an intermediate portion having a transition between the circular-cross sectional shape and the semicircular cross-sectional shape defining said stop surface (3e i), and that said circular cross sectional-shapes of the hole and the connecting element at the first side (2a, 3a) have the same radius as the semicircular cross-sectional shapes of the hole and the connecting element at the second side (2b, 3c).
A computer-implemented method for generating correspondences for transferring information between objects, the method comprising: receiving a first mesh and a second mesh; receiving a pair of feature curve networks associated with the first mesh and the second mesh, at least one feature curve in a first feature curve network of the pair of feature curve networks authored by a user on or near the first mesh separately from the geometry of the first mesh and in curve correspondence with at least one feature curve in the second feature curve network of the pair of feature curve networks authored on or near the second mesh by a user separately from the geometry of the second mesh, wherein at least one feature curve in at least one feature curve network of the pair of feature curve networks is defined by a point that lies in the interior of a face associated with one of the first mesh or the second mesh, or wherein at least a portion of the feature curves in at least one feature curve network in the pair of feature curve networks is determined in response to at least a 2D parameterization associated with a surface of the first mesh or the second mesh; and generating a surface correspondence between the at least one surface of the first mesh and at least one surface of the second mesh based on curve correspondences between feature curves in the pair of feature curve networks., whereby a full correspondence is created between all points of the source mesh and all points of the destination mesh. receiving a first mesh and a second mesh; receiving a pair of feature curve networks associated with the first mesh and the second mesh, at least one feature curve in a first feature curve network of the pair of feature curve networks authored by a user on or near the first mesh separately from the geometry of the first mesh and in curve correspondence with at least one feature curve in the second feature curve network of the pair of feature curve networks authored on or near the second mesh by a user separately from the geometry of the second mesh, wherein at least one feature curve in at least one feature curve network of the pair of feature curve networks is defined by a point that lies in the interior of a face associated with one of the first mesh or the second mesh, or wherein at least a portion of the feature curves in at least one feature curve network in the pair of feature curve networks is determined in response to at least a 2D parameterization associated with a surface of the first mesh or the second mesh; and generating a surface correspondence between the at least one surface of the first mesh and at least one surface of the second mesh based on curve correspondences between feature curves in the pair of feature curve networks.
Method for the closed-loop and open-loop control of lateral guidance of a vehicle by means of a lane-keeping assistant, wherein the method comprises the following steps of: reading in a detection signal representing hands-free or non-hands-free driving of the vehicle, wherein a predefined open-loop control profile which is activated by the driver and represents a progression of a steering torque for steering assistance on the basis of a lateral position of the vehicle in a lane is also read in, wherein the steering torque is equal to zero or at least tends towards zero within a predefined distance (304; 306) from a centre of the lane; and providing a closed-loop control signal for the closed-loop control of the lateral guidance if the detection signal represents hands-free driving, wherein, during closed-loop control by means of a closed sequence of action, deviations of an actual value of a distance between a vehicle and a centre or a boundary of a lane with respect to a target value of a distance are continuously controlled towards zero in a closed-loop manner by means of interventions in the steering, and providing an open-loop control signal for the open-loop control of the lateral guidance if the detection signal represents non-hands-free driving, in order to output a warning to the driver in the form of a haptic signal depending on the detected distance to the boundary or centre of the lane, wherein the open-loop control signal is provided using the open-loop control profile in order to control the lateral guidance of the vehicle in an open-loop manner according to the open-loop control profile. reading in a detection signal representing hands-free or non-hands-free driving of the vehicle, wherein a predefined open-loop control profile which is activated by the driver and represents a progression of a steering torque for steering assistance on the basis of a lateral position of the vehicle in a lane is also read in, wherein the steering torque is equal to zero or at least tends towards zero within a predefined distance (304; 306) from a centre of the lane; and providing a closed-loop control signal for the closed-loop control of the lateral guidance if the detection signal represents hands-free driving, wherein, during closed-loop control by means of a closed sequence of action, deviations of an actual value of a distance between a vehicle and a centre or a boundary of a lane with respect to a target value of a distance are continuously controlled towards zero in a closed-loop manner by means of interventions in the steering, and providing an open-loop control signal for the open-loop control of the lateral guidance if the detection signal represents non-hands-free driving, in order to output a warning to the driver in the form of a haptic signal depending on the detected distance to the boundary or centre of the lane, wherein the open-loop control signal is provided using the open-loop control profile in order to control the lateral guidance of the vehicle in an open-loop manner according to the open-loop control profile.
A radio frequency, the RF filter comprising: a plurality of metal resonators (1, 2, 3, 4, 5, 6) comprising a first, a second and at least a third resonator; and a coupling contacting the first resonator characterised in that the coupling contacts the second resonator without contacting the at least third resonator (2; 3), wherein the first and the second resonators (1, 4) are not adjacent to one another, and wherein the coupling is connected via dielectric means to each of the resonators (2; 3) positioned between the first and second resonators. a plurality of metal resonators (1, 2, 3, 4, 5, 6) comprising a first, a second and at least a third resonator; and a coupling contacting the first resonator characterised in that the coupling contacts the second resonator without contacting the at least third resonator (2; 3), wherein the first and the second resonators (1, 4) are not adjacent to one another, and wherein the coupling is connected via dielectric means to each of the resonators (2; 3) positioned between the first and second resonators.
Process for the ex-situ presulfuration of a catalyst for the hydroconversion of hydrocarbons, said catalyst containing at least one element of group VIII or group VI of the periodic classification deposited on an oxide support, said process of presulfuration being carried out in the presence of hydrogen and in the presence of at least one sulfurated compound, process consisting in that - before the presulfuration treatment, at least part of the pore volume of the catalyst is filled by impregnation with at least one hydrocarbon compound, said hydrocarbon compound(s) being chosen from the group constituted by the liquid hydrocarbons, oil bases, diesel oils, white spirits, vegetable oils, nitrogenous compounds, and the compounds containing oxygen chosen from the group constituted by alcohols, acids, ketones and aldehydes and in that - the presulfuration phase is carried out in the presence of an hydrocarbon compound at atmospheric pressure in a rotary system heated to between 200 and 500°C, in the presence of hydrogen, presulfuration wherein the sulfurated compound is hydrogen sulfide, the introduction of the reagents which are a gaseous hydrogen/ hydrogen sulfide mixture wherein the partial hydrogen sulfide pressures vary within the range of 0.05 to 0.7, is carried out at the point of injection of the initial solid or at the point of ejection of the final solid. - before the presulfuration treatment, at least part of the pore volume of the catalyst is filled by impregnation with at least one hydrocarbon compound, said hydrocarbon compound(s) being chosen from the group constituted by the liquid hydrocarbons, oil bases, diesel oils, white spirits, vegetable oils, nitrogenous compounds, and the compounds containing oxygen chosen from the group constituted by alcohols, acids, ketones and aldehydes and in that - the presulfuration phase is carried out in the presence of an hydrocarbon compound at atmospheric pressure in a rotary system heated to between 200 and 500°C, in the presence of hydrogen, presulfuration wherein the sulfurated compound is hydrogen sulfide, the introduction of the reagents which are a gaseous hydrogen/ hydrogen sulfide mixture wherein the partial hydrogen sulfide pressures vary within the range of 0.05 to 0.7, is carried out at the point of injection of the initial solid or at the point of ejection of the final solid.
A method for operating a production and packaging installation for hygiene products, such as diapers, sanitary napkins or the like, in the case of which the hygiene products are produced by a production machine as the production unit for producing the same and the hygiene products produced are packaged by at least two production units, namely packaging machines (A-D), which are assigned to the production machine and are intended for packaging the hygiene products in particular so that they are ready for dispatch, wherein, prior to the packaging operation, the hygiene products produced by the production machine are supplied individually, and one after the other, to a preferably continuously circulating grouping conveyor which has individual holders for the hygiene products and to which the at least two packaging machines (A-D) are assigned, wherein the individual holders are filled in each case with a hygiene product or, so as to form a hygiene-product group, in each case with a plurality of hygiene products, and wherein the individual hygiene product or the hygiene-product group of each holder is then removed from the respective holder of the grouping conveyor and supplied to one of the packaging machines (A-D) which is assigned to the grouping conveyor and then packages the hygiene product or the hygiene-product group, preferably together with one or more hygiene products or hygiene-product groups from one or more further holders, into a suitable pack, in particular into a bag or a folding box or the like, characterized in that at least two of the packaging machines (A-D) assigned to the grouping conveyor form a machine group, wherein the number of hygiene products with which the individual holders of the grouping conveyor are filled in each case is selected automatically for each holder in dependence on which of the packaging machines (A-D) of the machine group the hygiene product or the hygiene-product group of the respective holder is intended for.
A boron-free and halogen-free treatment composition for timber and/or wood, comprising a) a fire retardant comprising the moiety -N-C(=X)-N- with X being O, S and substituted or unsubstituted nitrogen; and at least one of the components b) or c): b) a cross-linking agent c) a fixing agent; wherein the fire retardant is a salt, wherein the -N-C(=X)-N- moiety carries one or more positive charges, and wherein anions for balancing the positive charge of the - N-C(=X)-N- moiety can be selected from carbonates and/or phosphates. a) a fire retardant comprising the moiety -N-C(=X)-N- with X being O, S and substituted or unsubstituted nitrogen; b) a cross-linking agent c) a fixing agent; wherein the fire retardant is a salt, wherein the -N-C(=X)-N- moiety carries one or more positive charges, and wherein anions for balancing the positive charge of the - N-C(=X)-N- moiety can be selected from carbonates and/or phosphates.
A process for preparing a colloidal dispersion, comprising: (a) preparing an aqueous acidic colloidal dispersion of cerium-containing oxide nanoparticles; (b) adding a monocarboxylic acid having from 7 to 9 carbon atoms; (c) mixing the liquid mixture of step (b) to form an emulsion; (d) separating the emulsion at a predetermined temperature for a predetermined time into a non-polar colloidal phase and a remnant aqueous phase; and, (e) collecting the separated non-polar colloidal dispersion of cerium-containing oxide nanoparticles, wherein the process further comprises either adding a non-polar solvent to the emulsion formed in step (c) within 0 to 1 hour after the end of step (c), or adding a non-polar solvent after the emulsion formed in step (c) has separated into the non-polar colloidal phase and the remnant aqueous phase. (a) preparing an aqueous acidic colloidal dispersion of cerium-containing oxide nanoparticles; (b) adding a monocarboxylic acid having from 7 to 9 carbon atoms; (c) mixing the liquid mixture of step (b) to form an emulsion; (d) separating the emulsion at a predetermined temperature for a predetermined time into a non-polar colloidal phase and a remnant aqueous phase; and, (e) collecting the separated non-polar colloidal dispersion of cerium-containing oxide nanoparticles,