mhurhangee/ep-ind-claims huggingface dataset:
Vibratory finishing apparatus (10, 101, 102) comprising: a receptacle to receive abrasive media; a vibration generator arranged to vibrate the receptacle and thereby cause movement of the abrasive media relative to the receptacle; a first fixture to: support an object within the receptacle; and move the object relative to the receptacle in at least a first direction to orient and/or position the object within the receptacle; and a first guide positioned in the receptacle and arranged to rotate relative to the receptacle between static orientations, the first guide being configured to direct the media moved within the receptacle toward a predetermined part of the object while the first guide is in one of the static orientations. a receptacle to receive abrasive media; a vibration generator arranged to vibrate the receptacle and thereby cause movement of the abrasive media relative to the receptacle; a first fixture to: support an object within the receptacle; and move the object relative to the receptacle in at least a first direction to orient and/or position the object within the receptacle; and a first guide positioned in the receptacle and arranged to rotate relative to the receptacle between static orientations, the first guide being configured to direct the media moved within the receptacle toward a predetermined part of the object while the first guide is in one of the static orientations.
An airfoil for use with a vehicle, the airfoil comprising: first and second skins (210, 212) at least partially defining an exterior of the vehicle, the first skin including first and third pivots (216, 220), the second skin including second and fourth pivots (218, 222); a first arm extending between the first and second pivots (216, 218), the first arm rotatable about the first and second pivots (216, 218); a closeout including fifth and sixth pivots (234, 236) rotatably coupled to the first and second skins (210, 212), respectively, wherein the closeout includes a wedge that converges along a direction away from the fifth and sixth pivots (234, 236); a second arm extending between the third and fourth pivots (220, 222), the second arm rotatable about the second and fourth pivots (220, 222), wherein the first arm is at a first distance to the closeout and the second arm is at a second distance to the closeout greater than the first distance, and wherein the first arm has a first length shorter than a second length of the second arm; a first movement line operatively coupled to the first pivot and a second movement line operatively coupled to the second pivot, wherein the first and second arms (214a, 214b) are c-shaped and include respective corners to guide the first and second movement lines (240a, 240b); and a nose block operatively coupled to the first and second skins (210, 212), the nose block to be rotatable about a spar. first and second skins (210, 212) at least partially defining an exterior of the vehicle, the first skin including first and third pivots (216, 220), the second skin including second and fourth pivots (218, 222); a first arm extending between the first and second pivots (216, 218), the first arm rotatable about the first and second pivots (216, 218); a closeout including fifth and sixth pivots (234, 236) rotatably coupled to the first and second skins (210, 212), respectively, wherein the closeout includes a wedge that converges along a direction away from the fifth and sixth pivots (234, 236); a second arm extending between the third and fourth pivots (220, 222), the second arm rotatable about the second and fourth pivots (220, 222), wherein the first arm is at a first distance to the closeout and the second arm is at a second distance to the closeout greater than the first distance, and wherein the first arm has a first length shorter than a second length of the second arm; a first movement line operatively coupled to the first pivot and a second movement line operatively coupled to the second pivot, wherein the first and second arms (214a, 214b) are c-shaped and include respective corners to guide the first and second movement lines (240a, 240b); and a nose block operatively coupled to the first and second skins (210, 212), the nose block to be rotatable about a spar.
A process for polymerizing ethylene or a mixture of ethylene with at least one additional olefinic monomer as comonomer in a loop reactor in the presence of a polymerization catalyst at from 20 to 150°C, but below the melting point of the polymer to be formed, and a pressure of from 5 to 100 bar, wherein the polymer formed is present in a suspension in a liquid or supercritical suspension medium and this suspension is circulated by means of an axial pump, wherein the polymerization is carried out at an average solids concentration in the reactor of more than 53% by weight, based on the total mass of the contents of the reactor, in the case of continuous product discharge and at an average solids concentration in the reactor of more than 45% by weight, based on the total mass of the contents of the reactor, in the case of discontinuous product discharge, and wherein the polymerization is carried out at an ethylene concentration of at least 10 mol%, based on the suspension medium and wherein ethylene is fed in at at least 2 points along the reactor tube and/or the polymerization is carried out at a pressure of from 43 to 80 bar.
An electrical control system for controlling the transmittance of a plurality of variable transmission windows (44a-44b), said control system characterized by comprising: a master control circuit for supplying control signals that are capable of changing the transmittance levels for the variable transmission windows (44a-44b); said master control circuit comprising a micro controller; an input device coupled to said micro controller for receiving an input from a user and supplying said input to said micro controller; and a plurality of window control circuits (1100a-1100b) each coupled to said master control circuit, each window control circuit (1100a-1100b) controls the transmittance of at least one of the variable transmission windows (44a-44b) in response to control signals received from said master control circuit, wherein said plurality of window control circuits (1100a-1100b) comprising an input device (46a-46c, 47a-47c) for receiving an input from a user to control the transmittance of a single variable transmission window (44a-44b). a master control circuit for supplying control signals that are capable of changing the transmittance levels for the variable transmission windows (44a-44b); said master control circuit comprising a micro controller; an input device coupled to said micro controller for receiving an input from a user and supplying said input to said micro controller; and a plurality of window control circuits (1100a-1100b) each coupled to said master control circuit, each window control circuit (1100a-1100b) controls the transmittance of at least one of the variable transmission windows (44a-44b) in response to control signals received from said master control circuit, wherein said plurality of window control circuits (1100a-1100b) comprising an input device (46a-46c, 47a-47c) for receiving an input from a user to control the transmittance of a single variable transmission window (44a-44b).
Method for an unobstructed-view check of a camera for a motor-vehicle environment, comprising the following steps: receiving a camera image via a receiving interface; dividing the camera image into a plurality of partial images; determining an unobstructed-view value for each of the partial images based on a number of objects detected in the respective partial image, wherein an unobstructed-view value of a partial image is set to a predetermined value which indicates that unobstructed view is assumed if the number of the objects detected in the respective partial image exceeds a predetermined object number, and in which an unobstructed-view value of a partial image is reduced by a difference value if no object is detected in the respective partial image within a predetermined time interval; and determining an unobstructed-view probability for each of the partial images based on the unobstructed-view values of the respective partial images, wherein the unobstructed-view probability defines the probability with which an unobstructed view of the camera is present in the region of the camera image that is covered by the respective partial image. receiving a camera image via a receiving interface; dividing the camera image into a plurality of partial images; determining an unobstructed-view value for each of the partial images based on a number of objects detected in the respective partial image, wherein an unobstructed-view value of a partial image is set to a predetermined value which indicates that unobstructed view is assumed if the number of the objects detected in the respective partial image exceeds a predetermined object number, and in which an unobstructed-view value of a partial image is reduced by a difference value if no object is detected in the respective partial image within a predetermined time interval; and determining an unobstructed-view probability for each of the partial images based on the unobstructed-view values of the respective partial images, wherein the unobstructed-view probability defines the probability with which an unobstructed view of the camera is present in the region of the camera image that is covered by the respective partial image.
A method for generating a reflectometry signal for the diagnosis of defects impacting a transmission line or a network of transmission lines, said method being executed by each of the devices of a plurality of diagnosis devices belonging to a distributed system comprising a plurality of diagnosis devices (S 1,..., S 6) connected to said line or to said network of lines, said method comprising the following steps: • generating an electrical signal comprising a plurality of frequency carriers dispersed at regular intervals over the whole of the useful frequency band subdivided into sub-carriers so that each device of said distributed system uses different sub-carriers from the other devices of said system, • injecting said electrical signal into said line or network of lines. • generating an electrical signal comprising a plurality of frequency carriers dispersed at regular intervals over the whole of the useful frequency band subdivided into sub-carriers so that each device of said distributed system uses different sub-carriers from the other devices of said system, • injecting said electrical signal into said line or network of lines.
Set of floor panels intended for installing a floor in a room, wherein the set comprises a plurality of first floor panels, wherein these first floor panels have a common shape and dimension, and the set further comprises one or more second floor panels, which are provided for an adaptation of the common shape and/or the common dimension, wherein said adaptation is corresponding to the aforementioned room; characterized in that the adaptation is performed by providing a break line between an excess portion and a useful portion of the respective second floor panel.
A steam turbine member comprising a substrate made of a stainless steel containing Fe as a main component, 9 to 13 wt% of Cr, and 0.1 to 1.0 wt% of Mn, the steam turbine member being characterized by having, on a surface of the substrate, an oxide film containing Cr, Mn and Fe, being constituent elements of the substrate, and the oxide film comprising an oxide of Mn produced in the form of nodules, the oxide film being 1 μm or less, and wherein the oxide film is obtained by oxidizing at a temperature in the range of 650°C to 690°C for 3-12 hours in an inert gas atmosphere or in an atmosphere of 1 x 10 -12 atm or less.
A tag manager for configuring an athlete tracking system that tracks a plurality of athletes with a plurality of tracking tags, comprising: a processor; a wireless transceiver configured to communicate with the tracking tags; and a memory storing a roster list of the athletes, a first list (2814) of tag identifiers corresponding to a first collection of the tracking tags allocated to a first location on the athletes, a second list (2814) of tag identifiers corresponding to a second collection of the tracking tags allocated to a second location on the athletes, and machine-readable instructions that, when executed by the processor, control the tag manager to: read, via the wireless transceiver, the tag identifier of one of the tacking tags associated with one of the athletes, assign, in the roster list, the tag identifier to the first location on said one of the athletes when the tag identifier is in the first list of tag identifiers, and assign, in the roster list, the tag identifier to the second location on said one of the athletes when the tag identifier is in the second list of tag identifiers. a processor; a wireless transceiver configured to communicate with the tracking tags; and a memory storing a roster list of the athletes, a first list (2814) of tag identifiers corresponding to a first collection of the tracking tags allocated to a first location on the athletes, a second list (2814) of tag identifiers corresponding to a second collection of the tracking tags allocated to a second location on the athletes, and machine-readable instructions that, when executed by the processor, control the tag manager to: read, via the wireless transceiver, the tag identifier of one of the tacking tags associated with one of the athletes, assign, in the roster list, the tag identifier to the first location on said one of the athletes when the tag identifier is in the first list of tag identifiers, and assign, in the roster list, the tag identifier to the second location on said one of the athletes when the tag identifier is in the second list of tag identifiers. read, via the wireless transceiver, the tag identifier of one of the tacking tags associated with one of the athletes, assign, in the roster list, the tag identifier to the first location on said one of the athletes when the tag identifier is in the first list of tag identifiers, and assign, in the roster list, the tag identifier to the second location on said one of the athletes when the tag identifier is in the second list of tag identifiers.
Roller shutter system for closing off openings in buildings, comprising a shutter shaft, two support elements (1, 1a, 1b) for said shaft, two guide rails for a shutter curtain and two infeed elements for insertion of the shutter curtain into the guide rails, characterised in that • the guide rails have a two-part configuration, the building-side part of the guide rails being connectable with the edge area of the opening in the building and the outward-facing part of the guide rails being connectable with the building-side part, • the infeed elements have a two-part configuration and comprise a first element, which is connectable with the building-side part of the guide rails, and a second element, which is connectable with the outward-facing part of the guide rails, so that when the two parts of the guide rails are connected with each other, the two parts of the infeed elements are also connected with each other and when one of the parts (10, 11) of the infeed elements is removed, the shutter curtain can be installed or de-installed, and • the support elements (1, 1a, 1b, 7) for the shutter shaft are attachable in the area of the guide rails. • the guide rails have a two-part configuration, the building-side part of the guide rails being connectable with the edge area of the opening in the building and the outward-facing part of the guide rails being connectable with the building-side part, • the infeed elements have a two-part configuration and comprise a first element, which is connectable with the building-side part of the guide rails, and a second element, which is connectable with the outward-facing part of the guide rails, so that when the two parts of the guide rails are connected with each other, the two parts of the infeed elements are also connected with each other and when one of the parts (10, 11) of the infeed elements is removed, the shutter curtain can be installed or de-installed, and • the support elements (1, 1a, 1b, 7) for the shutter shaft are attachable in the area of the guide rails.
A fusion protein that activates expression of glial cell line-derived neurotrophic factor (GDNF) for use in the treatment or prevention of a condition characterised by neuropathy, wherein the fusion protein comprises a transcriptional activation domain and a six finger zinc protein comprising the recognition helices shown in a single row below: F1 F2 F3 F4 F5 F6 QSGHLAR (SEQ ID NO:21) RSDDRKT (SEQ ID NO:7) DNPNLNR (SEQ ID NO:22) RSDDLSR (SEQ ID NO:23) DRSHLSR (SEQ ID NO:24) RSDHLSR (SEQ ID NO:25) QSGHLAR (SEQ ID NO:21) RSDDRKT (SEQ ID NO:7) RYPNLIR (SEQ ID NO:26) RSDDLSR (SEQ ID NO:23) DRSHLSR (SEQ ID NO:24) RSDHLSR (SEQ ID NO:25) QSGNLAR (SEQ ID NO:27) TSGNLTR (SEQ ID NO:28) RSDHLSE (SEQ ID NO:29) QNHHRIN (SEQ ID NO:30) RSADLTR (SEQ ID NO:31) QSSDLRR (SEQ ID NO:32) RSDNLSV (SEQ ID NO:33) RNASRIT (SEQ ID NO:34) QSGSLTR (SEQ ID NO:35) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37) RSDHLSQ (SEQ ID NO:38) RSAVRKN (SEQ ID NO:39) RSDHLST (SEQ ID NO:6) DRSHLAR (SEQ ID NO:40) DRSARTR (SEQ ID NO:41) QSGNLAR (SEQ ID NO:27) DRNQLIN (SEQ ID NO:42) RSADLSR (SEQ ID NO:43) QSSDLSR (SEQ ID NO:44) DRSNLTR (SEQ ID NO:45) RSDHLSA (SEQ ID NO:46) DRSDLSR (SEQ ID NO:4) RSANLSV (SEQ ID NO:47) RNASRIT (SEQ ID NO:34) YQGVLTR (SEQ ID NO:48) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37) RSDNLSV (SEQ ID NO:33) TKRALNQ (SEQ ID NO:49) QSGSLTR (SEQ ID NO:35) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37) RSDNLSV (SEQ ID NO:33) QQSARTL (SEQ ID NO:50) QSGSLTR (SEQ ID NO:35) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37) RSDNLSV (SEQ ID NO:33) HRSTLLM (SEQ ID NO:51) QSGSL TR (SEQ ID NO:35) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37) RADNLSV (SEQ ID NO:52) TTKGRTH (SEQ ID NO:53) QSGSLTR (SEQ ID NO:35) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37) RSDNLSV (SEQ ID NO:33) RRSSLRS (SEQ ID NO:54) QSGSLTR (SEQ ID NO: 35) RSDNLRE (SEQ ID NO:36) RSDHLST (SEQ ID NO:6) QNATRIN (SEQ ID NO:37)
A device comprising: - a substrate; - a first terminal and a second terminal; - an electrical conductor arranged on the substrate between the first terminal and the second terminal to obtain an inductor and being shaped for forming a first loop and a second loop, wherein at least a first crossing of the electrical conductor with itself is present between the first loop and the second loop, the first loop and the second loop defining a first enclosed area and a second enclosed area, respectively, and wherein the first loop and the second loop are arranged for generating magnetic fields (H1, H2) having substantially equal strength and opposite directions to obtain a reduction of a far field generated by the inductor, wherein the electrical conductor is provided with a second crossing with itself between the terminals (A,B) and the second loop for further defining the boundary of the second enclosed area. - a substrate; - a first terminal and a second terminal; - an electrical conductor arranged on the substrate between the first terminal and the second terminal to obtain an inductor and being shaped for forming a first loop and a second loop, wherein at least a first crossing of the electrical conductor with itself is present between the first loop and the second loop, the first loop and the second loop defining a first enclosed area and a second enclosed area, respectively, and wherein the first loop and the second loop are arranged for generating magnetic fields (H1, H2) having substantially equal strength and opposite directions to obtain a reduction of a far field generated by the inductor, wherein the electrical conductor is provided with a second crossing with itself between the terminals (A,B) and the second loop for further defining the boundary of the second enclosed area.
Process for applying noise-reducing elements to a tyre for vehicle wheels, said tyre having a radially inner surface comprising at least one service area and having a predetermined circumferential dimension, said process comprising: - determining the position in circumferential direction of said at least one service area on said radially inner surface of the tyre; - determining the position in circumferential direction of at least one target area on said radially inner surface of the tyre based on the position in circumferential direction of said at least one service area; - applying at least one noise-reducing element at said at least one target area; wherein determining the position in circumferential direction of said at least one service area comprises: - circumferentially inspecting said radially inner surface of the tyre starting from a predetermined reference position; -- detecting the angular position of said at least one service area with respect to said reference position; - determining the position in circumferential direction of said at least one service area based on said angular position and on the circumferential dimension of said radially inner surface of the tyre. - determining the position in circumferential direction of said at least one service area on said radially inner surface of the tyre; - determining the position in circumferential direction of at least one target area on said radially inner surface of the tyre based on the position in circumferential direction of said at least one service area; - applying at least one noise-reducing element at said at least one target area; wherein determining the position in circumferential direction of said at least one service area comprises: - circumferentially inspecting said radially inner surface of the tyre starting from a predetermined reference position; -- detecting the angular position of said at least one service area with respect to said reference position; -- detecting the angular position of said at least one service area with respect to said reference position; - determining the position in circumferential direction of said at least one service area based on said angular position and on the circumferential dimension of said radially inner surface of the tyre.