mhurhangee/ep-ind-claims huggingface dataset:
A method of installing a viewing panel within a through-aperture into a substantially vertical surface, wherein the viewing panel comprises at least three panes (11,61), at least a first pane has first and second ends (62,63) opposed to one another and projecting relative to corresponding first and second opposed ends (64,65) of the remaining panes and the first pane is located substantially between the remaining panes, the method comprising the steps of: (50,51) providing at least two opposed slots (50,51) within the surface of the through-aperture; sliding at least part.of the first end of the first pane in a first of the at least two opposed slots (50,51); rotating the panel relative to the substantially vertical surface until the second end of the first pane corresponds substantially to the second of the at least two opposed slots (50,51;) and sliding and abutting the second end of the first pane in the second slot, wherein at least a portion of the first end remains located in the first slot. providing at least two opposed slots (50,51) within the surface of the through-aperture; sliding at least part.of the first end of the first pane in a first of the at least two opposed slots (50,51); rotating the panel relative to the substantially vertical surface until the second end of the first pane corresponds substantially to the second of the at least two opposed slots (50,51;) and sliding and abutting the second end of the first pane in the second slot,
A method of operating a service robot of a ring spinning machine, • wherein the service robot is displaceable along a row of spinning units of a spinning machine, each spinning unit comprising a spindle, wherein the service robot can be stopped at a specific spinning unit in order to perform a service operation at the spinning unit; wherein it comprises the following steps: • displacing the service robot initially along the row of spinning units in order to detect a reference position; and • during the displacement of the service robot detecting by means of an eddy current sensor at least one reference element located between both ends of the row of spinning units, wherein the at least one detected reference element indicates a respective reference position; and • using the at least one reference position during the operation of the service robot to position the service robot before a specific spinning unit of the row of the spinning units in case of need of a service operation at the particular spinning unit, and wherein • the at least one reference element is by its outer geometrical configuration identical or close to the outer geometrical configuration of a detected part of the spinning spindles. • wherein the service robot is displaceable along a row of spinning units of a spinning machine, each spinning unit comprising a spindle, wherein the service robot can be stopped at a specific spinning unit in order to perform a service operation at the spinning unit; • displacing the service robot initially along the row of spinning units in order to detect a reference position; and • during the displacement of the service robot detecting by means of an eddy current sensor at least one reference element located between both ends of the row of spinning units, wherein the at least one detected reference element indicates a respective reference position; and • using the at least one reference position during the operation of the service robot to position the service robot before a specific spinning unit of the row of the spinning units in case of need of a service operation at the particular spinning unit, and wherein • the at least one reference element is by its outer geometrical configuration identical or close to the outer geometrical configuration of a detected part of the spinning spindles.
A mixed magnesium-zinc-salt or a mixed aluminium-zinc-salt or a mixed calcium-zinc-salt of the sulfinic acid of formula wherein R 1 is H or C 1 -C 6 alkyl, R 2 is COOH, SO 3 H or CH S n -OH, n is 1 and wherein the acid forms an anion and the counterions are magnesium and zinc ions or aluminium and zinc ions or calcium and zinc ions. R 1 is H or C 1 -C 6 alkyl, R 2 is COOH, SO 3 H or CH S n -OH, n is 1 and
A kit comprising (a) a pharmaceutical formulation for treating Pompe disease comprising an acid alpha-glucosidase and a poloxamer and (b) instructions for reconstitution and/or using of the pharmaceutical formulation.
A portable appliance for marking a surface, the appliance comprising: • a housing provided with at least one handle and presenting remote from a rear face an open front face for passing a marker member that forms part of a marker system and that is adapted to make at least one substantially dot-shaped mark, the front and rear faces (6, 5) being connected together at least by a top wall and by two opposite side walls, at least one of the faces of the housing being provided with a display screen; and • a movement device for moving the marker member that is mounted inside the housing and that is adapted to move the marker member over the surface for marking in a two-dimensional marking zone; the appliance being characterized in that the housing is provided with a positioning nose for positioning the appliance against the surface for marking, the positioning nose defining firstly the two-dimensional marking zone in register with the front face of the housing and at a distance from the front face, and secondly an opening in line with the top wall for viewing the two-dimensional marking zone, and in that the top wall of the housing is fitted with the display screen in such a manner that the screen and the two-dimensional marking zone as seen through the opening of the positioning nose appear simultaneously in the field of view of an operator above the top wall of the housing. • a housing provided with at least one handle and presenting remote from a rear face an open front face for passing a marker member that forms part of a marker system and that is adapted to make at least one substantially dot-shaped mark, the front and rear faces (6, 5) being connected together at least by a top wall and by two opposite side walls, at least one of the faces of the housing being provided with a display screen; and • a movement device for moving the marker member that is mounted inside the housing and that is adapted to move the marker member over the surface for marking in a two-dimensional marking zone;
A method for calibrating crop residue data for a field acquired using a vision-based system, the method comprising controlling, with a computing device, an operation of at least one of an implement or a work vehicle as the implement is being towed by the work vehicle across the field, the method being characterized by: receiving, with the computing device, image data associated with an imaged portion of the field; analyzing, with the computing device, the image data using a first residue-estimating technique to determine a first estimated value of a crop residue parameter for the imaged portion of the field; analyzing, with the computing device, the image data using a second residue-estimating technique to determine a second estimated value of the crop residue parameter for the imaged portion of the field, the second residue-estimating technique differing from the first residue-estimating technique; and when a differential exists between the first and second estimated values, adjusting, with the computing device, at least one of the first estimated value or one or more additional estimated values of the crop residue parameter determined using the first residue-estimating technique based on at least one of the second estimated value or the differential between first and second estimated values. receiving, with the computing device, image data associated with an imaged portion of the field; analyzing, with the computing device, the image data using a first residue-estimating technique to determine a first estimated value of a crop residue parameter for the imaged portion of the field; analyzing, with the computing device, the image data using a second residue-estimating technique to determine a second estimated value of the crop residue parameter for the imaged portion of the field, the second residue-estimating technique differing from the first residue-estimating technique; and when a differential exists between the first and second estimated values, adjusting, with the computing device, at least one of the first estimated value or one or more additional estimated values of the crop residue parameter determined using the first residue-estimating technique based on at least one of the second estimated value or the differential between first and second estimated values.
A torque retention arrangement comprising: a carrier having a first side and a second side opposite from and spaced from said first side, said carrier includes a plurality of through spring holes (30, 32, 34, 36) spaced around a circumference; a first set (20, 22, 24, 26) of springs (42, 43, 44) stacked within a first spring hole (30, 32, 34, 36) of said carrier, each of said springs (42, 43, 44) in said first set (20, 22, 24, 26) of springs (42, 43, 44) is aligned in a vertical arrangement for receiving a bolt therethrough, at least one spring (42, 43, 44) in said first set (20, 22, 24, 26) of springs (42, 43, 44) is non-coplanar with said carrier in a pre-torque orientation and all of said springs (42, 43, 44) in said first set (20, 22, 24, 26) of springs (42, 43, 44) are coplanar with said carrier in a loaded and torqued orientation; a second set (20, 22, 24, 26) of springs (42, 43, 44) stacked within a second spring hole (30, 32, 34, 36) of said carrier, each of said springs (42, 43, 44) in said second set (20, 22, 24, 26) of springs (42, 43, 44) is aligned in a vertical arrangement for receiving a bolt therethrough, at least one spring (42, 43, 44) in said second set (20, 22, 24, 26) of springs (42, 43, 44) is non-coplanar with said carrier in a pre-torque orientation and all of said springs (42, 43, 44) in said second set (20, 22, 24, 26) of springs (42, 43, 44) are coplanar with said carrier in a loaded and torqued orientation; and, wherein aligning said springs (42, 43, 44) coplanar with said carrier visually indicates a proper torque force. a carrier having a first side and a second side opposite from and spaced from said first side, said carrier includes a plurality of through spring holes (30, 32, 34, 36) spaced around a circumference; a first set (20, 22, 24, 26) of springs (42, 43, 44) stacked within a first spring hole (30, 32, 34, 36) of said carrier, each of said springs (42, 43, 44) in said first set (20, 22, 24, 26) of springs (42, 43, 44) is aligned in a vertical arrangement for receiving a bolt therethrough, at least one spring (42, 43, 44) in said first set (20, 22, 24, 26) of springs (42, 43, 44) is non-coplanar with said carrier in a pre-torque orientation and all of said springs (42, 43, 44) in said first set (20, 22, 24, 26) of springs (42, 43, 44) are coplanar with said carrier in a loaded and torqued orientation; a second set (20, 22, 24, 26) of springs (42, 43, 44) stacked within a second spring hole (30, 32, 34, 36) of said carrier, each of said springs (42, 43, 44) in said second set (20, 22, 24, 26) of springs (42, 43, 44) is aligned in a vertical arrangement for receiving a bolt therethrough, at least one spring (42, 43, 44) in said second set (20, 22, 24, 26) of springs (42, 43, 44) is non-coplanar with said carrier in a pre-torque orientation and all of said springs (42, 43, 44) in said second set (20, 22, 24, 26) of springs (42, 43, 44) are coplanar with said carrier in a loaded and torqued orientation; and,
A method of operating a computing device, the method comprising, for an operating system comprising a first component and a further component stored in a non-executable memory of the computing device; the non-executable memory comprising NAND flash memory: copying the first component from the non-executable memory of the computing device to executable memory in response to operating system start-up, so as to permanently shadow the first component in the executable memory during device operation; wherein the first component comprises operating system components compressed as a single image in the non-executable memory which is decompressed as a whole when shadowed from the non-executable memory to the executable memory; and wherein the first component comprises a core loader image for locating the core operating system image in the non-executable memory and the core loader image is arranged not to extend beyond the first block of the NAND flash memory; presenting, to a file server of the computing device, the first component in executable memory and the further component in non-executable memory as a single file system; wherein the first component is accessed from the executable memory, where it is shadowed permanently, and the further component is accessed by selectively copying the further component to the executable memory upon demand by the file server, for subsequent use with the permanently shadowed first component by the file server. copying the first component from the non-executable memory of the computing device to executable memory in response to operating system start-up, so as to permanently shadow the first component in the executable memory during device operation; wherein the first component comprises operating system components compressed as a single image in the non-executable memory which is decompressed as a whole when shadowed from the non-executable memory to the executable memory; and wherein the first component comprises a core loader image for locating the core operating system image in the non-executable memory and the core loader image is arranged not to extend beyond the first block of the NAND flash memory; presenting, to a file server of the computing device, the first component in executable memory and the further component in non-executable memory as a single file system; wherein the first component is accessed from the executable memory, where it is shadowed permanently, and the further component is accessed by selectively copying the further component to the executable memory upon demand by the file server, for subsequent use with the permanently shadowed first component by the file server.
Mechanical timepiece oscillator including a first rigid support element, a second solid inertial element and, between said first rigid support element and said second solid inertial element, at least two first flexible strips (31; 32) which support said second solid inertial element and are arranged to return it to a rest position, said second solid inertial element being arranged to oscillate angularly in an oscillation plane about said rest position, said two first flexible strips (31; 32) not touching each other and their projections onto said oscillation plane intersecting, in the rest position, at a crossing point, through which passes the axis of rotation of said second solid inertial element perpendicularly to said oscillation plane, and the embedding points of said first flexible strips (31; 32) in said first rigid support element and said second solid inertial element defining two strip directions (DL1; DL2), which are parallel to said oscillation plane and which form between them, in the rest position, in projection onto said oscillation plane, a vertex angle (a), the position of said crossing point being defined by the ratio X= D/L, where D is the distance between the projection, onto said oscillation plane of one of the embedding points of said first strips (31; 32) in said first rigid support element and said crossing point, and where L is the total length of the projection, onto said oscillation plane, of said strip (31; 32), where the value of said ratio D/L is between 0 and 1, and where said vertex angle (α) is less than or equal to 60°, and where, for each said first flexible strip (31; 32), the embedding point ratio (D1/L1; D2/L2) is comprised between 0.15 and 0.85 inclusive, characterised in that the centre of mass of said oscillator in its rest position is separated from said crossing point by an offset (ε) which is between 10% and 20% of said total length of the projection, onto said oscillation plane, of said strip (31; 32).
A computer-implemented method of selecting an optical power of an intraocular lens, comprising: determining a value for the postoperative vitreous length of an eye from preoperative measurements of the preoperative vitreous length (VL pre), anterior chamber depth prior to surgery (ACD pre), axial length, and/or natural lens thickness; calculating an optical power of the intraocular lens based on the postoperative vitreous length suitable for providing a predetermined refractive outcome. determining a value for the postoperative vitreous length of an eye from preoperative measurements of the preoperative vitreous length (VL pre), anterior chamber depth prior to surgery (ACD pre), axial length, and/or natural lens thickness; calculating an optical power of the intraocular lens based on the postoperative vitreous length suitable for providing a predetermined refractive outcome.
A method comprising: displaying selectable features on a touch-sensitive display of a portable electronic device, each of the selectable features having a respective size; detecting a swipe gesture performed on the touch-sensitive display by a touch object; determining a direction of the swipe gesture; identifying a plurality of the selectable features in the direction of the swipe gesture, wherein the identified plurality of selectable features comprise the selectable features that are within a threshold distance from a line beginning at a touch location determined at the time the direction of the swipe gestures is determined and extending in the determined direction of the swipe gesture, wherein the threshold distance depends on the size of an area contacted on the touch-sensitive display by the touch object with which the swipe gesture is performed; increasing the size of each of the identified plurality of selectable features, wherein the size of each of the identified plurality of selectable features is increased in proportion to the distance between a location of the swipe gesture on the touch-sensitive display and each of the identified plurality of selectable features; and selecting (220, 222) one of the selectable features based on one of an end location of the swipe gesture on the touch-sensitive display and a change in direction of the swipe gesture on the touch-sensitive display. displaying selectable features on a touch-sensitive display of a portable electronic device, each of the selectable features having a respective size; detecting a swipe gesture performed on the touch-sensitive display by a touch object; determining a direction of the swipe gesture; identifying a plurality of the selectable features in the direction of the swipe gesture, wherein the identified plurality of selectable features comprise the selectable features that are within a threshold distance from a line beginning at a touch location determined at the time the direction of the swipe gestures is determined and extending in the determined direction of the swipe gesture, wherein the threshold distance depends on the size of an area contacted on the touch-sensitive display by the touch object with which the swipe gesture is performed; increasing the size of each of the identified plurality of selectable features, wherein the size of each of the identified plurality of selectable features is increased in proportion to the distance between a location of the swipe gesture on the touch-sensitive display and each of the identified plurality of selectable features; and selecting (220, 222) one of the selectable features based on one of an end location of the swipe gesture on the touch-sensitive display and a change in direction of the swipe gesture on the touch-sensitive display.
Ornament mechanism, comprising: - an elastic core body (310, 320); - a light emitting device for winding around the elastic core body; - a translucent air cover for covering the core body being wound around by the light emitting device and that seals air inside it; and - a translucent sheet that coats the translucent air cover; wherein said translucent air cover comprises a plurality of translucent air members sealing air inside and each being coated by said translucent sheet; and wherein said translucent air members are cylindrically shaped. - an elastic core body (310, 320); - a light emitting device for winding around the elastic core body; - a translucent air cover for covering the core body being wound around by the light emitting device and that seals air inside it; and - a translucent sheet that coats the translucent air cover;
A heating installation with a central heat generator, a central pump, a control unit, at least two radiators (HK1, HK2, HK3), which in each case possess a valve that can be adjusted by way of a servomotor, and which have temperature sensors corresponding to the radiators (HK1, HK2, HK3), wherein the servomotors, and in addition the heat generator, and/or in addition the pump, are connected to the control unit wirelessly or in a wired manner for purposes of data exchange, characterised in that, the control unit is designed so as to execute a dynamic hydraulic balancing operation by the lift limitation, and/or an adjustment of the pump output, and/or an adaptation of the flow temperature from the heat generator, as a function of the lift of the hydraulically least favourable valve, wherein under any boundary conditions, there is always a hydraulically least favourable valve in the overall installation, which has a lift of almost 100%.
A container production method by liquid blow molding, comprising: a liquid blow molding step of supplying a pressurized liquid into a preform disposed in a metal mold to mold the preform into a container having a trunk (Ca) that has a flat shape in which a width (Wa) in a long axis direction is larger than a width (Wb) in a short axis direction perpendicular to the long axis direction in a plan view, and the trunk (Ca) holding the liquid; and a transferring step of taking the container out from the mold and transferring the container in an approximate short axis direction of the trunk (Ca). a liquid blow molding step of supplying a pressurized liquid into a preform disposed in a metal mold to mold the preform into a container having a trunk (Ca) that has a flat shape in which a width (Wa) in a long axis direction is larger than a width (Wb) in a short axis direction perpendicular to the long axis direction in a plan view, and the trunk (Ca) holding the liquid; and a transferring step of taking the container out from the mold and transferring the container in an approximate short axis direction of the trunk (Ca).
An apparatus (106, 144, 154) configured to operate in a wireless communication network by generating and transmitting a first wireless signal using a resource element allocated to the apparatus; wherein a resource element is made up of one symbol in the time domain and one subcarrier in the frequency domain; wherein the apparatus is configured to receive a second wireless signal and to determine that the second wireless signal is to be forwarded within the wireless communication network; wherein the apparatus is configured to transmit a third wireless signal being based on the second wireless signal instead of the first wireless signal using the allocated resource element of the wireless communication network, wherein the apparatus is configured for skipping, interrupting or delaying the transmission of the first wireless signal.
Use of a water-based refrigerant liquid mixture for closed cooling circuits, comprising at least one UV fluorescent dye and at least one liquid selected from water, ethylene glycol, propylene glycol, hexylene glycol, glycerin or mixtures thereof, characterized by the fact that said UV fluorescent dye is fluorescein at a concentration of 1.2% of fluorescein per litre of refrigerant liquid, as additive in closed circuit liquid cooling systems, for the detection of possible leaks.