mhurhangee/ep-ind-claims huggingface dataset:
A method used to distribute a multitude of articles of a disordered mass flow to a plurality of adjacent lanes (4a, 4b, 4c, 4d), wherein the method comprises at least the following steps (S1, S2): - transporting of a multitude of articles in a disordered mass flow, - sensor-detecting of the individual actual positions of the multitude of articles during their transport in the disordered mass flow, characterised by the steps (S3, S4): - collecting of the multitude of articles from the disordered mass flow in consideration of the sensor-detected individual actual positions and transfer of the multitude of collected articles each into a particular target position, with the result that the individual articles, which have each been transferred into their particular target positions, are in each instance aligned with one of the plurality of lanes (4a, 4b, 4c, 4d), - conveying of the multitude of articles, which have each been transferred into their particular target positions, into the plurality of lanes (4a, 4b, 4c, 4d) along a particular transfer path, wherein the individual articles of the multitude of articles each maintain their aligned orientation in relation to their particular lane (4a, 4b, 4c, 4d) while being conveyed along the particular transfer path. - transporting of a multitude of articles in a disordered mass flow, - sensor-detecting of the individual actual positions of the multitude of articles during their transport in the disordered mass flow, - collecting of the multitude of articles from the disordered mass flow in consideration of the sensor-detected individual actual positions and transfer of the multitude of collected articles each into a particular target position, with the result that the individual articles, which have each been transferred into their particular target positions, are in each instance aligned with one of the plurality of lanes (4a, 4b, 4c, 4d), - conveying of the multitude of articles, which have each been transferred into their particular target positions, into the plurality of lanes (4a, 4b, 4c, 4d) along a particular transfer path, wherein the individual articles of the multitude of articles each maintain their aligned orientation in relation to their particular lane (4a, 4b, 4c, 4d) while being conveyed along the particular transfer path.
A method of turbo-interleaving blocks of indexed data having indices, the blocks having a varying length, the method including the steps of: providing a set of basic turbo interleavers comprising permutations of the indexed data; selecting one of the basic turbo interleavers of length 2 m based upon a desired interleaver length L, wherein m is the smallest integer for which 2 m ≥ L such that the selected interleaver has the shortest length 2 m which is greater than or equal to the desired interleaver length L; and adapting the selected basic turbo interleaver to produce a new interleaver having the desired interleaver length L, wherein the selected basic turbo interleaver defines mappings of positions of indexed data to new mapped positions, wherein each mapping is of a position of indexed data to a new mapped position, and wherein for each mapping, the mapping of the selected basic turbo interleaver is retained, if the position of indexed data in the selected basic turbo interleaver is less than L, otherwise the mapping is rejected, wherein the step of adapting comprises puncturing the selected interleaver by only accepting mappings of positions of indexed data into the desired interleaver from the selected interleaver if each position of indexed data is smaller than the number of elements in the smaller interleaver. providing a set of basic turbo interleavers comprising permutations of the indexed data; selecting one of the basic turbo interleavers of length 2 m based upon a desired interleaver length L, wherein m is the smallest integer for which 2 m ≥ L such that the selected interleaver has the shortest length 2 m which is greater than or equal to the desired interleaver length L; and adapting the selected basic turbo interleaver to produce a new interleaver having the desired interleaver length L, wherein the selected basic turbo interleaver defines mappings of positions of indexed data to new mapped positions, wherein each mapping is of a position of indexed data to a new mapped position, and wherein for each mapping, the mapping of the selected basic turbo interleaver is retained, if the position of indexed data in the selected basic turbo interleaver is less than L, otherwise the mapping is rejected, wherein the step of adapting comprises puncturing the selected interleaver by only accepting mappings of positions of indexed data into the desired interleaver from the selected interleaver if each position of indexed data is smaller than the number of elements in the smaller interleaver.
An augmented reality system for an amusement ride, comprising: a facial recognition sensor configured to detect a guest's face; a skeletal recognition sensor configured to detect a guest's body; a presence sensor configured to detect a guest's presence; and a controller comprising a processor and a memory, wherein the controller is configured to: generate an augmented reality animation based on a first signal indicative of the guest's presence received from the presence sensor; provide the augmented reality animation to a display assembly for viewing by the guest; in response to receiving a second signal indicative of the guest's body from the skeletal recognition sensor, update the augmented reality animation based on the guest's body; and in response to receiving a third signal indicative of the guest's face from the facial recognition sensor, update the augmented reality animation based on the guest's face. a skeletal recognition sensor configured to detect a guest's body; a presence sensor configured to detect a guest's presence; and a controller comprising a processor and a memory, wherein the controller is configured to: generate an augmented reality animation based on a first signal indicative of the guest's presence received from the presence sensor; provide the augmented reality animation to a display assembly for viewing by the guest; in response to receiving a second signal indicative of the guest's body from the skeletal recognition sensor, update the augmented reality animation based on the guest's body; and in response to receiving a third signal indicative of the guest's face from the facial recognition sensor, update the augmented reality animation based on the guest's face. generate an augmented reality animation based on a first signal indicative of the guest's presence received from the presence sensor; provide the augmented reality animation to a display assembly for viewing by the guest; in response to receiving a second signal indicative of the guest's body from the skeletal recognition sensor, update the augmented reality animation based on the guest's body; and in response to receiving a third signal indicative of the guest's face from the facial recognition sensor, update the augmented reality animation based on the guest's face.
A composition comprising at least one biodiesel and, i) at least one hindered phenolic compound; ii) at least one N,N'-di-substituted para-phenylene diamine; and iii) at least one N,N'-disalicylidene-1,2-alkyldiamine, wherein the combined amount of i) - iii) is in the range of from 50 ppm to 5000 ppm based on the biodiesel, and wherein i) is present in an amount in the range of from 10 to 90 wt.%, based on the total weight of i)-iii); ii) is present in an amount in the range of from 10 to 90 wt.%, based on the total weight of i)- iii); and iii) is present in an amount in the range of from 0.01 to 10 wt.%, based on the total weight of i)-iii). i) at least one hindered phenolic compound; ii) at least one N,N'-di-substituted para-phenylene diamine; and iii) at least one N,N'-disalicylidene-1,2-alkyldiamine, wherein the combined amount of i) - iii) is in the range of from 50 ppm to 5000 ppm based on the biodiesel, and wherein i) is present in an amount in the range of from 10 to 90 wt.%, based on the total weight of i)-iii); ii) is present in an amount in the range of from 10 to 90 wt.%, based on the total weight of i)- iii); and iii) is present in an amount in the range of from 0.01 to 10 wt.%, based on the total weight of i)-iii).
Torsional vibration damper having an absorber system and having a damping device, the absorber system having a first absorber mass carrier for receiving at least one first absorber mass unit with at least one absorber mass and a second absorber mass carrier for receiving at least one second absorber mass unit with at least one second absorber mass, and the damping device at least having a damping inlet which is operatively connected to a drive-side damping unit, and having a clutch device which is configured with a friction disc clutch, radially inner friction disc elements of the friction disc clutch being in toothing engagement with a friction disc element carrier which acts on the damping inlet of the damping device, a damping intermediate part being active between the drive-side damping unit and an output-side damping unit, and the output-side damping unit being configured with a damping outlet which is connected to an output, the absorber mass carriers (3a, 3b) being operatively assigned to the damping outlet, characterized in that the at least two absorber mass carriers (3a, 3b) receive the said respectively assigned absorber mass units (8a, 8b) in such a way that the absorber masses (7a, 7b) are at different spacings (R1, R2; R2', R2'') with respect to a central axis in relation to their respective mean extent radius (36a, 36b) during driving operation.
A di (fluorosulfonyl) imide salt, said salt having a K content of 5,000 ppm or less, wherein contents of Si, B, Fe, Cr, Mo and Ni are 500 ppm or less, respectively, a total content of metal elements selected from the group consisting of Zn, Cu and Bi is 1,000 ppm or less, further a content of by-products containing fluorine atoms as impurities is 10,000 ppm or less, and the salt is a sodium salt or the salt is lithium di(fluorosulfonyl)imide.
A fluidic connector (300, 800) for providing aspiration and irrigation to a wound site, comprising: a proximal end and a distal end and an elongate length extending therebetween; a first fluid passage and a second fluid passage positioned side -by-side and joined together along at least a portion of the elongate length, each of the fluid passages containing an elongate spacer material; and at least one applicator portion at the distal end; wherein the first fluid passage is configured to provide aspiration to a wound site, and the second fluid passage is configured to provide irrigation fluid to the wound site. a proximal end and a distal end and an elongate length extending therebetween; a first fluid passage and a second fluid passage positioned side -by-side and joined together along at least a portion of the elongate length, each of the fluid passages containing an elongate spacer material; and at least one applicator portion at the distal end; wherein the first fluid passage is configured to provide aspiration to a wound site, and the second fluid passage is configured to provide irrigation fluid to the wound site.
A synergistic composition comprising extracts derived from Cissus quadrangularis and Curcuma longa for use as a medicament defined by its function for providing an onset and steady maintenance of energy and for improving muscle strength, muscle mass and mental alertness in a warm blooded animal or mammal in need thereof.
Elevator system, in which an elevator car can be moved in an elevator shaft between two adjacent floors (40.1, 40. 2) of a building using a traction sheave drive, wherein an elevator control unit for moving the elevator car from one of the floors to the other of the floors controls the traction sheave drive by means of a control signal determined using a value for the traction sheave diameter, wherein the elevator system has a device (8.1, 8.2) for determining the car position, and the device (8.1, 8.2) has a sensor device (8.1) which detects during the travel of the elevator car position flags (9.1, 9.2) fastened in the elevator shaft, characterized in that the elevator control unit is designed to control after an initial configuration of the elevator system an iterative adaptation of the value for the traction sheave diameter used to determine the control signal in order to increase the landing accuracy of the elevator car, wherein the position flags (9.1, 9.2) each have a predetermined length in the direction of travel of the elevator car, and a defined amount by which the value of the traction sheave diameter is changed during the iterative adaptation is dependent on the length of the position flags.
A method of encoding a signal in a color image comprising: obtaining CIELAB L*, a*, b* values representing a color image comprising Cyan, Magenta, and Yellow channels; obtaining information representing a contour representing a constant L* for different values of CMY; at a color image location being changed, determining gradients of L*, a*, b* with respect to changes in the CMY; using the determined L* gradient information to determine a direction in CMY-space which moves towards target a*, b* values representing the color image including the encoded signal while keeping L* unchanged or within a predetermined tolerance; using the determined a*, b* gradient information to determine a scale along the direction to achieve the target a*, b* values; applying the scale to change the CMY channels, said applying yielding changed CMY channels; and determining whether L* has changed above or below the predetermined tolerance, and if so changed, determining a direction in CMY-space that changes L* while keeping a*, b* unchanged or within a predetermined tolerance. obtaining CIELAB L*, a*, b* values representing a color image comprising Cyan, Magenta, and Yellow channels; obtaining information representing a contour representing a constant L* for different values of CMY; at a color image location being changed, determining gradients of L*, a*, b* with respect to changes in the CMY; using the determined L* gradient information to determine a direction in CMY-space which moves towards target a*, b* values representing the color image including the encoded signal while keeping L* unchanged or within a predetermined tolerance; using the determined a*, b* gradient information to determine a scale along the direction to achieve the target a*, b* values; applying the scale to change the CMY channels, said applying yielding changed CMY channels; and determining whether L* has changed above or below the predetermined tolerance, and if so changed, determining a direction in CMY-space that changes L* while keeping a*, b* unchanged or within a predetermined tolerance.
Household appliance, in particular refrigeration appliance, having an electronic control device, which is embodied to control at least one function of the household appliance, and which comprises an electronic printed circuit board and an input apparatus which is connected to the printed circuit board and has at least one input means and which is embodied to feed an assigned control signal to the printed circuit board on the basis of a manual actuation of the input means, wherein the input apparatus has a flexible support arranged on a rear side of a wall of the household appliance which is embodied to be at least translucent at least in sections, on which support the at least one input means is arranged, furthermore having a light guide component which has one or more light ducts, which are embodied to guide the light emitted from at least one light-emitting electrical component, which is arranged on the electronic printed circuit board, to the surface of the flexible support facing away from the wall and a pressing device which is embodied to press the flexible support at least in sections against the rear side of the wall which is embodied to be at least translucent at least in sections, characterised in that the pressing device is embodied on the light guide component and is formed by one or more of the light ducts, by these light ducts being spring-mounted on the light guide component such that in an arrangement of the input apparatus mounted behind the wall, the flexible support is pressed against the rear side of the wall by means of the spring-mounted light ducts.
Equipped flexible electronic support (100; 300), of the equipped "flexboard" type, for a motor vehicle headlight, said equipped electronic support comprising: - a flat flexible insulating support (202; 302) equipped on a first face (106; 306) with a plurality of flat conductive tracks (203; 303); - at least one light source of the light emitting diode type disposed on the first face of the flexible insulating support, and connected to at least one of the flat conductive tracks; characterised in that a second face (107; 307) of the flexible insulating support is at least partially covered with a layer (201; 301) of thermally conductive material for dissipating the heat produced by said light emitting diode, said layer comprising a contact zone at the connection between said light emitting diode and said equipped flexible electronic support, and at least one extended zone extending out of this contact zone, said layer of thermally conductive material at least partially covering said second face of the flexible insulating support at the extended zone, the dissipation of the heat taking place mainly at this extended zone. - a flat flexible insulating support (202; 302) equipped on a first face (106; 306) with a plurality of flat conductive tracks (203; 303); - at least one light source of the light emitting diode type disposed on the first face of the flexible insulating support, and connected to at least one of the flat conductive tracks;
Method for assembling conductive pins in a transfer device, each conductive pin being formed of at least one conductive segment and being intended to be electrically connected to at least one other conductive pin in order to form an electrical winding of a wound part of a rotary electric machine, the transfer device comprising a spindle body having an axis and a plurality of guide strips radially extending from the body, lateral spaces intended to house at least one conductive segment being defined between two adjacent guide strips, the conductive pins are split into a first set of pins and a second set of pins, the first set of pins being divided into a first sub-set of pins and a second sub-set of pins, the method being characterized in that it comprises, in a first part, at least one supply step comprising arranging the pins of the first set of pins in lateral spaces of the transfer device; and, in a second part: - a lifting step, in which the pins of the first sub-set are moved so as to create an insertion space between said first sub-set and the second sub-set of pins; - an insertion step, in which the pins of the second set are inserted into the insertion space so that the conductive pins of the second set are circumferentially aligned with the conductive pins of the second sub-set; - a lowering step, in which the pins of the first sub-set are moved so that said conductive pins of said first sub-set are circumferentially aligned with the conductive pins of the second set. - a lifting step, in which the pins of the first sub-set are moved so as to create an insertion space between said first sub-set and the second sub-set of pins; - an insertion step, in which the pins of the second set are inserted into the insertion space so that the conductive pins of the second set are circumferentially aligned with the conductive pins of the second sub-set; - a lowering step, in which the pins of the first sub-set are moved so that said conductive pins of said first sub-set are circumferentially aligned with the conductive pins of the second set.
Optical position measuring device for detecting the relative position between a measurement standard (210; 310) and at least one scanning head (220; 320), which are movable relative to one another along at least one measurement direction (x), wherein the optical scanning means are embodied in such a way that the effective measurement point of the scan lies spaced apart at a defined distance (ΔZ NP) from the measurement standard (210; 310) in the direction which is oriented facing away from the scanning head (220; 320), wherein the effective measurement point corresponds to that point about which tilting of the scanning head (220; 320) or of the measurement standard (210; 310) does not lead to a displacement of the position measurement value to a linear approximation, and - a beam experiences splitting into two partial beams (TS1, TS2) for optical scanning of the measurement standard (210; 310), with each one of the two partial beams (TS1, TS2) only impinging once on a reflection grating (212; 312) of the measurement standard (210; 310) and, thereby, experiencing a diffraction in such a way that an angular bisector (W, W') between the partial beam (TS1, TS2) incident on the reflection grating (212; 312) and the partial beam reflected therefrom intersects an optical axis at a point lying on the side of the measurement standard (210; 310) facing away from the scanning head (220; 320) and representing the effective measurement point of the scan, and - the beam is split into the two partial beams (TS1, TS2) at least prior to an impingement on the reflection grating (212; 312) and - the partial beams (TS1, TS2) are respectively deflected away from the optical axis during a diffraction at the reflection grating (212; 312) and - there is a deflection back to the optical axis, where the partial beams (TS1, TS2) are reunited, by way of at least one deflection element. - a beam experiences splitting into two partial beams (TS1, TS2) for optical scanning of the measurement standard (210; 310), with each one of the two partial beams (TS1, TS2) only impinging once on a reflection grating (212; 312) of the measurement standard (210; 310) and, thereby, experiencing a diffraction in such a way that an angular bisector (W, W') between the partial beam (TS1, TS2) incident on the reflection grating (212; 312) and the partial beam reflected therefrom intersects an optical axis at a point lying on the side of the measurement standard (210; 310) facing away from the scanning head (220; 320) and representing the effective measurement point of the scan, and - the beam is split into the two partial beams (TS1, TS2) at least prior to an impingement on the reflection grating (212; 312) and - the partial beams (TS1, TS2) are respectively deflected away from the optical axis during a diffraction at the reflection grating (212; 312) and - there is a deflection back to the optical axis, where the partial beams (TS1, TS2) are reunited, by way of at least one deflection element.
A ballistic material system comprising: a first set of ballistic fabric layers having a first finish; a second set of fabric layers positioned having a first side positioned facing the first set of ballistic fabric layers and having a second finish different to the first finish; a third set of fabric layers having the first finish and positioned facing a second side of the second set of fabric layers; and wherein the first finish is a scoured and water repel treated finish. a first set of ballistic fabric layers having a first finish; a second set of fabric layers positioned having a first side positioned facing the first set of ballistic fabric layers and having a second finish different to the first finish; a third set of fabric layers having the first finish and positioned facing a second side of the second set of fabric layers; and