mhurhangee/ep-ind-claims huggingface dataset:
Method of producing a guiding or rolling support, the guiding or rolling support comprising a guiding or rolling rail, a coating made of a filler material that partially coats the rail, and a channel filled with a sealing material, said guiding or rolling rail comprising a head of a shape suitable for the rolling of at least one guiding or rolling wheel, a base and a web joining the head to the base, method characterized in that:. before positioning the guiding or rolling rail in the channel, the coating is produced and set up around the guiding or rolling rail, continuously substantially over its full length, said coating comprising at least one lateral extension that protrudes toward the side and forms a lateral groove to facilitate the passage of the guiding or rolling wheel; and. the guiding or rolling rail, coated with the coating, is positioned in the channel, and the guiding or rolling rail, coated with the coating, is directly held in place by the sealing material, without using an intermediate fixing means for fixing the rail in the channel that requires interruption of the coating.. before positioning the guiding or rolling rail in the channel, the coating is produced and set up around the guiding or rolling rail, continuously substantially over its full length, said coating comprising at least one lateral extension that protrudes toward the side and forms a lateral groove to facilitate the passage of the guiding or rolling wheel; and. the guiding or rolling rail, coated with the coating, is positioned in the channel, and the guiding or rolling rail, coated with the coating, is directly held in place by the sealing material, without using an intermediate fixing means for fixing the rail in the channel that requires interruption of the coating.
A method, comprising: spawning within a server system a server process that communicates over a network; receiving node graph data and input attributes at the server system from a proxy node in a node graph application instance executed by a computing device, wherein the node graph data comprise one or more nodes (301, 303, 304) preceding the proxy node in a node graph of the node graph application instance and connections between the one or mode nodes and the proxy node, wherein the input attributes comprise a copy of user inputs (510, 511) associated with the one or more nodes preceding the proxy node in the node graph, and wherein the proxy node is a computer module used to intercept updates to the node graph for evaluation; evaluating the node graph data at the server process based on the input attributes, wherein evaluating the node graph data comprises evaluating a copy (301', 302', 303', 304') of the one or more nodes (301, 302, 303, 304) maintained on the server system using at least the copy of the user inputs; and transmitting the evaluated node graph data over the network to the proxy node for display on a viewport. spawning within a server system a server process that communicates over a network; receiving node graph data and input attributes at the server system from a proxy node in a node graph application instance executed by a computing device, wherein the node graph data comprise one or more nodes (301, 303, 304) preceding the proxy node in a node graph of the node graph application instance and connections between the one or mode nodes and the proxy node, wherein the input attributes comprise a copy of user inputs (510, 511) associated with the one or more nodes preceding the proxy node in the node graph, and wherein the proxy node is a computer module used to intercept updates to the node graph for evaluation; evaluating the node graph data at the server process based on the input attributes, wherein evaluating the node graph data comprises evaluating a copy (301', 302', 303', 304') of the one or more nodes (301, 302, 303, 304) maintained on the server system using at least the copy of the user inputs; and transmitting the evaluated node graph data over the network to the proxy node for display on a viewport.
Method for testing a mobile radio device with the following method steps: - determination of information about at least one real mobile radio network by means of a measuring device, and of additional information about the mobile radio network by means of a mobile radio device, the mobile radio device being designed to transmit the signals received from at least one base station of the mobile radio network and the response signals transmitted to the at least one base station to an analysis device, - analysis of the information obtained by the measuring device and of the additional information obtained by the mobile radio device by means of the analysis device, comprising the analysis of all the signals received at the mobile radio device and the transmitted response signals by means of the analysis device, - conversion of the information and of the additional information into a common sequence of instructions, and - simulation of the real mobile radio network by implementation of at least a part of the sequence of instructions by a test device. - determination of information about at least one real mobile radio network by means of a measuring device, and of additional information about the mobile radio network by means of a mobile radio device, - analysis of the information obtained by the measuring device and of the additional information obtained by the mobile radio device by means of the analysis device, - conversion of the information and of the additional information into a common sequence of instructions, and - simulation of the real mobile radio network by implementation of at least a part of the sequence of instructions by a test device.
A physical force capacitive touch sensor, comprising: a substrate; a capacitive sensor element on a face of the substrate comprising a plurality of electrodes (1012; 1212); a cover (1008; 1208) comprising a first section (1004; 1204) forming a substantially non-deformable spacer on the substrate that surrounds the capacitive sensor element (1012; 1212) and a second section forming a flexible cover covering the capacitive sensor element (1012; 1212); and an electrically conductive plane (1006; 1206) coupled with the flexible cover via a plurality of pedestals (1030; 1230) and being proximate to the capacitive sensor element (1012; 1212) and being arranged to at least partly cover each electrode of said plurality of electrodes (1012; 1212); wherein a density of pedestals (1030; 1230) coupled between the flexible cover (1008; 1208) and the electrically conductive plane (1006; 1206) is greater than a density of electrodes of the plurality of electrodes (1012; 1212); and wherein when a mechanical force is applied to the flexible cover, the flexible cover (1008; 1208) and the electrically conductive plane (1006; 1206) are biased toward the capacitive sensor element (1012; 1212), whereby the capacitive sensor element (1012; 1212) changes capacitance value. a substrate; a capacitive sensor element on a face of the substrate comprising a plurality of electrodes (1012; 1212); a cover (1008; 1208) comprising a first section (1004; 1204) forming a substantially non-deformable spacer on the substrate that surrounds the capacitive sensor element (1012; 1212) and a second section forming a flexible cover covering the capacitive sensor element (1012; 1212); and an electrically conductive plane (1006; 1206) coupled with the flexible cover via a plurality of pedestals (1030; 1230) and being proximate to the capacitive sensor element (1012; 1212) and being arranged to at least partly cover each electrode of said plurality of electrodes (1012; 1212); wherein a density of pedestals (1030; 1230) coupled between the flexible cover (1008; 1208) and the electrically conductive plane (1006; 1206) is greater than a density of electrodes of the plurality of electrodes (1012; 1212); and wherein when a mechanical force is applied to the flexible cover, the flexible cover (1008; 1208) and the electrically conductive plane (1006; 1206) are biased toward the capacitive sensor element (1012; 1212), whereby the capacitive sensor element (1012; 1212) changes capacitance value.
Motor vehicle with a roof opening in a fixed roof surface of the motor vehicle and with at least one roof mechanism, for optionally closing and at least partially opening the roof opening, wherein the roof mechanism has a front folding roof system and a rear folding roof system, wherein the front folding roof system comprises a front folding-top cloth and the rear folding roof system comprises a rear folding-top cloth, wherein a front region of the roof opening can be closed and opened by the front folding roof system by means of displacement along longitudinally running guide rails which are arranged on both sides of the roof opening, and a rear region of the roof opening can be closed and opened by the rear folding roof system by means of displacement along longitudinally running guide rails which are arranged on both sides of the roof opening, and wherein the front folding roof system and the rear folding roof system can be closed and opened independently of each other, characterized in that the rear folding-top cloth (4, 5) has a multiplicity of transparent elements, wherein the multiplicity of transparent elements are designed as stiff surface elements, wherein the rear region of the roof opening can be at least partially closed and opened forwards and rearwards, wherein the longitudinally running guide rails (8, 9) are respectively integrated in a front roof frame and in a rear roof frame, wherein the longitudinally running guide rails (8, 9) of the front roof frame and of the rear roof frame are not connected to each other.
Atomizer nozzle comprising a liquid connection for supplying a liquid to a liquid channel that is connected downstream to an annular mixing chamber that coaxially encloses a nozzle axis, a means (20, 25) that forms, in an end section of the liquid channel widening to the annular mixing chamber, a widening flow layer directed obliquely away from the nozzle axis, said flow layer flowing into the annular mixing chamber adjoining the end section of the liquid channel, at least one gas connection for supplying pressurized gas to a gas line system that comprises at least one outer injection channel and at least one inner injection channel, wherein the outer injection channel opens into the annular mixing chamber at an outer injection point at a radially outside location relative to the nozzle axis, and wherein the inner injection channel opens into the annular mixing chamber at an inner injection point at a radially inside location relative to the nozzle axis, characterized in that the means (20, 25) for generating the flow layer comprises a swirl-generating means (20, 21) that imparts a swirl to the liquid flowing in the liquid channel.
A recording control apparatus comprising: a capture-data acquisition unit configured to acquire capture-data items obtained by a camera configured to capture surroundings of a vehicle; an event detection unit configured to detect an event for the vehicle; a position-information acquisition unit configured to acquire an information item about the current position of the vehicle; a user-change determination unit configured to determine whether or not a change of users of the vehicle has occurred on the basis of the information item about the current position of the vehicle and the position-information item of a pre-recorded specific place, the user- change determination unit determines whether or not both the position-information items have matched with each other or fallen within a predetermined range; and a recording control unit configured to record the capture-data items acquired by the capture-data acquisition unit into a recording unit, configured to store one of the capture-data items as an event-record data item into the recording unit when the event detection unit has detected the event, the one of the capture-data items corresponding to the event, and configured to delete the capture-data items recorded in the recording unit when the user-change determination unit determines that the change of the users of the vehicle has occurred; and the position-information acquisition unit outputs information about the current position to the recording control unit. a capture-data acquisition unit configured to acquire capture-data items obtained by a camera configured to capture surroundings of a vehicle; an event detection unit configured to detect an event for the vehicle; a position-information acquisition unit configured to acquire an information item about the current position of the vehicle; a user-change determination unit configured to determine whether or not a change of users of the vehicle has occurred on the basis of the information item about the current position of the vehicle and the position-information item of a pre-recorded specific place, the user- change determination unit determines whether or not both the position-information items have matched with each other or fallen within a predetermined range; and a recording control unit configured to record the capture-data items acquired by the capture-data acquisition unit into a recording unit, configured to store one of the capture-data items as an event-record data item into the recording unit when the event detection unit has detected the event, the one of the capture-data items corresponding to the event, and configured to delete the capture-data items recorded in the recording unit when the user-change determination unit determines that the change of the users of the vehicle has occurred; and the position-information acquisition unit outputs information about the current position to the recording control unit.
An ink set for use in ink-jet printing, comprising: a cyan ink comprising from 1.25 wt% to 2 wt% solids of a cyan pigment and from 4 wt% to 15 wt% solids of a latex polymer, and wherein a 1:2,500 dilution in water of the cyan ink has a UV absorbance of 0.048 to 0.592 at its absorbance peak found at from 600 nm to 630 nm; and a black ink comprising from 1.25 wt% to 2 wt% solids of a black pigment and from 4 wt% to 15 wt% solids of a latex polymer, and wherein a 1:2,500 dilution in water of the black ink has a UV absorbance of 0.04 to 0.468 at 500 nm, wherein the path length for UV absorbance measurements is 1 cm. a cyan ink comprising from 1.25 wt% to 2 wt% solids of a cyan pigment and from 4 wt% to 15 wt% solids of a latex polymer, and wherein a 1:2,500 dilution in water of the cyan ink has a UV absorbance of 0.048 to 0.592 at its absorbance peak found at from 600 nm to 630 nm; and a black ink comprising from 1.25 wt% to 2 wt% solids of a black pigment and from 4 wt% to 15 wt% solids of a latex polymer, and wherein a 1:2,500 dilution in water of the black ink has a UV absorbance of 0.04 to 0.468 at 500 nm, wherein the path length for UV absorbance measurements is 1 cm.
Method for reducing the energy consumption of an electronic terminal, said method implementing: - a preliminary phase for computing statistics on the number of actions performed by and/or on said terminal during a recurrent predetermined period, delivering a function ( x(t)) variable as a function of time and representing an estimated number of actions during said predetermined period; - a step of comparing the value of the function ( x(t)) with at least one predetermined threshold ( x 0), and a step of determining at least two temporal categories, within said predetermined period, associated to values of the function ( x(t)) respectively greater than said predetermined threshold ( x 0) and lower than or equal to said predetermined threshold ( x 0); - a step for modifying the timeout-before-standby duration for said terminal after an action performed by and/or on said terminal at a current instant depending on the membership of the current instant in a given temporal category, from among said at least two temporal categories; said method being characterized in that said predetermined threshold ( x 0) is a function of an energy value (γ) representing the energy consumed by the terminal during said predetermined period and of a penalty value (α) variable according to time during said recurrent predetermined period and representing an estimated tolerance of a set of users of the terminal to a time lag for the execution of an action by said terminal, a high value of the penalty value indicating that the estimated tolerance of a set of users is low and that the user's waiting time must be reduced to the minimum. - a preliminary phase for computing statistics on the number of actions performed by and/or on said terminal during a recurrent predetermined period, delivering a function ( x(t)) variable as a function of time and representing an estimated number of actions during said predetermined period; - a step of comparing the value of the function ( x(t)) with at least one predetermined threshold ( x 0), and a step of determining at least two temporal categories, within said predetermined period, associated to values of the function ( x(t)) respectively greater than said predetermined threshold ( x 0) and lower than or equal to said predetermined threshold ( x 0); - a step for modifying the timeout-before-standby duration for said terminal after an action performed by and/or on said terminal at a current instant depending on the membership of the current instant in a given temporal category, from among said at least two temporal categories;
A heat exchanger comprising: a heat exchange layered body formed by laminating heat transfer sheets, and a first flow passage for a first fluid and a second flow passage for a second fluid formed between said heat transfer sheets alternately, said first fluid and said second fluid being a object for heat exchange, said first fluid and said second fluid being enable to exchange heat of the fluid; wherein said heat exchanger includes a corner member which has a L like shaped cross section being mounted at a corner portion of said heat transfer layered body, characterized in that an unvulcanized rubber in which a vulcanizing agent is mixed being inserted between said corner member and said corner portion of said heat transfer layered body in advance; and said unvulcanized rubber is foamed to inflate between said corner member and said corner portion of said heat exchange layered body by heating for proceeding a vulcanization of said rubber so that said rubber is foamed to inflate and advances into a clearance in the corner portion of the layered body and said rubber closes between said corner member and said corner portion of said heat exchange layered body in a state of airtight. a heat exchange layered body formed by laminating heat transfer sheets, and a first flow passage for a first fluid and a second flow passage for a second fluid formed between said heat transfer sheets alternately, said first fluid and said second fluid being a object for heat exchange, said first fluid and said second fluid being enable to exchange heat of the fluid; wherein said heat exchanger includes a corner member which has a L like shaped cross section being mounted at a corner portion of said heat transfer layered body, characterized in that an unvulcanized rubber in which a vulcanizing agent is mixed being inserted between said corner member and said corner portion of said heat transfer layered body in advance; and said unvulcanized rubber is foamed to inflate between said corner member and said corner portion of said heat exchange layered body by heating for proceeding a vulcanization of said rubber so that said rubber is foamed to inflate and advances into a clearance in the corner portion of the layered body and said rubber closes between said corner member and said corner portion of said heat exchange layered body in a state of airtight.
Use of a liquid-liquid extraction unit to contact an aqueous phase with an organic phase, separate them, and recover a desired extract from the thus separated aqueous phase and/or organic phase, the desired extract comprising one or more rare earth elements, said extraction unit comprising: an extraction/separation tank for receiving the aqueous phase and the organic phase, having a pair of horizontally opposed sidewalls (11, 12), an aqueous phase inlet disposed at an upper portion of one sidewall for admitting the aqueous phase in dispersed form wherein the dispersed form is a particle form or a sub-divided form, an organic phase inlet disposed at a lower portion of one sidewall for admitting the organic phase in dispersed form wherein the dispersed form is a particle form or a sub-divided form, an organic phase outlet disposed at an upper portion of the other sidewall for discharging the separated organic phase, and an aqueous phase outlet disposed at a lower portion of the other sidewall for discharging the separated aqueous phase, wherein the aqueous phase is admitted from the aqueous phase inlet to an upper interior of the tank, the organic phase is admitted from the organic phase inlet to a lower interior of the tank, the organic phase moving from the lower interior to the upper interior of the tank is contacted with the aqueous phase moving from the upper interior to the lower interior of the tank, the organic phase after contact is discharged and recovered through the organic phase outlet, and the aqueous phase after contact is discharged and recovered through the aqueous phase outlet. an extraction/separation tank for receiving the aqueous phase and the organic phase, having a pair of horizontally opposed sidewalls (11, 12), an aqueous phase inlet disposed at an upper portion of one sidewall for admitting the aqueous phase in dispersed form wherein the dispersed form is a particle form or a sub-divided form, an organic phase inlet disposed at a lower portion of one sidewall for admitting the organic phase in dispersed form wherein the dispersed form is a particle form or a sub-divided form, an organic phase outlet disposed at an upper portion of the other sidewall for discharging the separated organic phase, and an aqueous phase outlet disposed at a lower portion of the other sidewall for discharging the separated aqueous phase, wherein the aqueous phase is admitted from the aqueous phase inlet to an upper interior of the tank, the organic phase is admitted from the organic phase inlet to a lower interior of the tank, the organic phase moving from the lower interior to the upper interior of the tank is contacted with the aqueous phase moving from the upper interior to the lower interior of the tank, the organic phase after contact is discharged and recovered through the organic phase outlet, and the aqueous phase after contact is discharged and recovered through the aqueous phase outlet.