mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for conveying preforms, for example to a blow moulding machine for producing containers from a thermoplastic material, comprising a sorting device, in which the preforms are sorted according to their orientation, comprising an exit conveyor device, which is disposed at the discharge end of the sorting device and via which the preforms are fed to the blow moulding machine, and comprising a transfer device (11, 13), which is disposed between the sorting device and the exit conveyor device, and in which the preforms are transferred from the sorting device to the exit conveyor device, wherein the sorting device, the conveyor device and the transfer device all have guide surfaces comprising guide surface contours, via which the preforms are guided through the apparatus, characterised in that the guide surface contours adjoin one another in an essentially stepless manner, wherein the transfer device is designed as a transfer element, which has a curved guide surface, which is adjusted to the shape of the guide surface contour of the sorting device at the end facing the sorting device and which is adjusted to the shape of the guide surface contour of the exit conveyor device at the end facing the exit conveyor device, wherein said two guide surface contours facing the ends of the two devices are different, and the guide surface runs in a stepless manner between said two ends.
System for pairing a command device to a remotely controlled medical system, comprising: the command device incorporating a microphone; a controller in communication with the command device; and a sound generator coupled to the controller and adapted to generate a verification sound; wherein the command device is adapted to receive audio input and to send said audio input to the controller, wherein the controller is adapted to operate a medical device of the medical system by interpreting commands received in said audio input from the command device, wherein said system is adapted to pair said command device to said controller for operating said medical device by: said sound generator producing said verification sound when the controller recognizes a command; and if said verification sound is received by said command device, said command device transmitting a signal in response to the verification sound to said controller to verify the pairing of the microphone to the controller such that the controller will only operate the medical device in response to a command issued near the generator. the command device incorporating a microphone; a controller in communication with the command device; and a sound generator coupled to the controller and adapted to generate a verification sound; wherein the command device is adapted to receive audio input and to send said audio input to the controller, wherein the controller is adapted to operate a medical device of the medical system by interpreting commands received in said audio input from the command device, wherein said system is adapted to pair said command device to said controller for operating said medical device by: said sound generator producing said verification sound when the controller recognizes a command; and if said verification sound is received by said command device, said command device transmitting a signal in response to the verification sound to said controller to verify the pairing of the microphone to the controller such that the controller will only operate the medical device in response to a command issued near the generator. said sound generator producing said verification sound when the controller recognizes a command; and if said verification sound is received by said command device, said command device transmitting a signal in response to the verification sound to said controller to verify the pairing of the microphone to the controller such that the controller will only operate the medical device in response to a command issued near the generator.
An article of footwear comprising: an outsole comprising a first telescoping outsole member (110, 201, 304) centered at a first center position, the first telescoping outsole member (110, 201, 304) including a first piece (114, 202, 306) and a second piece (116, 204, 308); a midsole comprising a protrusion structure (160, 302) corresponding to the first telescoping outsole member (110, 201, 304), the protrusion structure (160, 302) extending outward in a vertical direction from a base of the midsole, wherein the vertical direction is approximately normal to the base, the base being an outer surface of the midsole; wherein the first piece (114, 202, 306) is attached to the protrusion structure (160, 302) and wherein the first piece (114, 202, 306) is centered at the first center position; wherein the second piece (116, 204, 308) is attached to the protrusion structure (160, 302) and wherein the second piece (116, 204, 308) is centered at the first center position; wherein the first piece (114, 202, 306) is spaced from the base by a first vertical distance, the first vertical distance being a distance in the vertical direction; wherein the second piece (116, 204, 308) is spaced from the base by a second vertical distance, the second vertical distance being a distance in the vertical direction; wherein the first vertical distance is greater than the second vertical distance; and wherein the first piece (114, 202, 306) is separated from the second piece (116, 204, 308) by a vertical gap extending through the outsole along a side surface of the midsole. an outsole comprising a first telescoping outsole member (110, 201, 304) centered at a first center position, the first telescoping outsole member (110, 201, 304) including a first piece (114, 202, 306) and a second piece (116, 204, 308); a midsole comprising a protrusion structure (160, 302) corresponding to the first telescoping outsole member (110, 201, 304), the protrusion structure (160, 302) extending outward in a vertical direction from a base of the midsole, wherein the vertical direction is approximately normal to the base, the base being an outer surface of the midsole; wherein the first piece (114, 202, 306) is attached to the protrusion structure (160, 302) and wherein the first piece (114, 202, 306) is centered at the first center position; wherein the second piece (116, 204, 308) is attached to the protrusion structure (160, 302) and wherein the second piece (116, 204, 308) is centered at the first center position; wherein the first piece (114, 202, 306) is spaced from the base by a first vertical distance, the first vertical distance being a distance in the vertical direction; wherein the second piece (116, 204, 308) is spaced from the base by a second vertical distance, the second vertical distance being a distance in the vertical direction; wherein the first vertical distance is greater than the second vertical distance; and wherein the first piece (114, 202, 306) is separated from the second piece (116, 204, 308) by a vertical gap extending through the outsole along a side surface of the midsole.
Advertising display module for a road crash barrier formed from a metal section extending along a longitudinal direction and comprising at least one central groove and two lateral ribs (42, 43) each extending in projection from a vertical plane tangent to the bottom of the central groove in the direction of the roadway bordered by this barrier, said display module comprising: - a longitudinal filler of substantially trapezoidal cross-section, configured to be housed in said central groove of said guardrail and having a first base facing the bottom of the central groove, once the filler is housed in said central groove, and a second opposite base extending between the tops of said ribs (42, 43), - a flat advertising display receiving surface formed by said second base of said filler which extends substantially between the vertices of said ribs of said slide when said filler is housed in said central groove, the display module being characterized in that it comprises: - longitudinal hollow cores (16, 17, 18, 19) formed in the filler in the vicinity of the lateral ends of said bases (12, 13) of said fill, - magnets (30, 31, 32, 33) housed in said longitudinal hollow cores (16, 17, 18, 19) so as to magnetically hold said filler in said central groove of said guardrail. - a longitudinal filler of substantially trapezoidal cross-section, configured to be housed in said central groove of said guardrail and having a first base facing the bottom of the central groove, once the filler is housed in said central groove, and a second opposite base extending between the tops of said ribs (42, 43), - a flat advertising display receiving surface formed by said second base of said filler which extends substantially between the vertices of said ribs of said slide when said filler is housed in said central groove, - longitudinal hollow cores (16, 17, 18, 19) formed in the filler in the vicinity of the lateral ends of said bases (12, 13) of said fill, - magnets (30, 31, 32, 33) housed in said longitudinal hollow cores (16, 17, 18, 19) so as to magnetically hold said filler in said central groove of said guardrail.
A method of evaluating the effect of dust on aircraft engines, comprising: for at least one aircraft engine, selecting one of a flight path between two points or a point of departure and frequency of departure for a flight path from the point of departure, wherein the flight path has at least two phases and a flight along the flight path or a departure constitutes one cycle; determining (208, 304) an average dust concentration value at ground level for the two points or the point of departure; determining (210, 306) an average dust concentration value for each phase of the flight path; determining (213, 308) air density for the at least one aircraft engine at each phase of the flight path; determining (217, 310) dust flow through the at least one aircraft engine per cycle based on the average dust concentration values and the air density; and adjusting service of the at least one aircraft engine based on the dust flow. for at least one aircraft engine, selecting one of a flight path between two points or a point of departure and frequency of departure for a flight path from the point of departure, wherein the flight path has at least two phases and a flight along the flight path or a departure constitutes one cycle; determining (208, 304) an average dust concentration value at ground level for the two points or the point of departure; determining (210, 306) an average dust concentration value for each phase of the flight path; determining (213, 308) air density for the at least one aircraft engine at each phase of the flight path; determining (217, 310) dust flow through the at least one aircraft engine per cycle based on the average dust concentration values and the air density; and adjusting service of the at least one aircraft engine based on the dust flow.
A memory unit comprising: a) a plurality of memory cells, each memory cell being associated with a wordline, the plurality of memory cells being grouped into a plurality of memory cell groups; b) each memory cell group having one or more local bit lines (31,32) operatively connected to each of the memory cells in the memory cell group for which access to a memory cell is controlled by the associated wordline; and c) one or more global bit lines (11,12) connected to a sense amplifier, the sense amplifier being configured to determine a data value stored in a memory cell in dependence upon the states of the one or more global bit lines (11, 12); wherein each memory cell group is configured such that when a memory cell of the memory cell group is being read the one or more local bit lines (31, 32) of the memory cell group are provided as inputs to a logic circuit and are not connected to the global bit lines (11, 12), the logic circuit being configured to cause a capacitance element to be connected to one of the one or more global bit lines (11, 12) in dependence upon the states of the one or more local bit lines (31, 32) of the memory cell group; and characterised in that the capacitance element is provided by either a capacitor or one or more local bit lines (31a, 32a) of one or more further memory cell groups. a) a plurality of memory cells, each memory cell being associated with a wordline, the plurality of memory cells being grouped into a plurality of memory cell groups; b) each memory cell group having one or more local bit lines (31,32) operatively connected to each of the memory cells in the memory cell group for which access to a memory cell is controlled by the associated wordline; and c) one or more global bit lines (11,12) connected to a sense amplifier, the sense amplifier being configured to determine a data value stored in a memory cell in dependence upon the states of the one or more global bit lines (11, 12); wherein each memory cell group is configured such that when a memory cell of the memory cell group is being read the one or more local bit lines (31, 32) of the memory cell group are provided as inputs to a logic circuit and are not connected to the global bit lines (11, 12), the logic circuit being configured to cause a capacitance element to be connected to one of the one or more global bit lines (11, 12) in dependence upon the states of the one or more local bit lines (31, 32) of the memory cell group; and characterised in that the capacitance element is provided by either a capacitor or one or more local bit lines (31a, 32a) of one or more further memory cell groups.
A slat-based support device (1, 1') for a bed base comprising a bed base frame, said slat-based support device (1, 1') comprising two parallel transverse slats (2, 2a), connected at each of their ends by a slat end-piece structure including two slat end-pieces, said slat end-piece structure being supported by two deformable bent levers (5, 6) each consisted of two arms articulated to each other, a lower one (7, 7a; 7', 7'a) and an upper one (8, 8a; 8', 8'a) supporting said slat end-piece structure, said two lower arms (7, 7a; 7', 7'a) being each ended by a gear wheel portion (10, 10a) meshing with each other, the pairs of gear wheels (10, 10a) of the two slat end-piece structures located opposite to each other at each end of the slats (2, 2a) being rotationally coupled to each other by motion transmission rods, said motion transmission rods having a square cross-section, being hollow and each extending along a longitudinal axis, the lower ends of the lower arms (7, 7a; 7', 7'a) of the two bent levers (5, 6) including a fitting recess for the end of said motion transmission rods, of complementary square cross-section, said slat-based support device (1, 1') including means for its fastening to said bed-base frame, and said slat-based support device (1, 1') including elastic return means (12, 36) adapted to tend to move said slat end-piece structures apart from said means for the fastening to the bed base frame, characterized in that said means for the fastening to the bed base frame consist of a fastening platen, associated with a support base, said fastening platen is provided with means for the fastening to the lower arms (7, 7a; 7', 7'a) of the two bent levers (5, 6), said fastening platen and said support base comprise means (18, 20) for their removable attachment to each other, and said support base is provided with means for its fastening to said bed base frame, said means for fastening said fastening platen to the lower arms (7, 7a; 7', 7'a) of the two bent levers (5, 6) being consisted of two cylindrical articulation axes attached to said fastening platen, each adapted to fit into a fitting hole of circular cross-section, acting as a journal, arranged at the lower end of a lower arm (7, 7a; 7', 7'a) of a bent lever (5, 6), said fitting recess of said motion transmission rods is located in the continuation of the fitting hole of said articulation axes of said fastening platen, and extends coaxially to the latter, and said articulation axes extend in protrusion from their fitting hole and partially penetrate into said fitting recesses and into said motion transmission rods.
Guard for an electric machine tool with an application tool which is drivable in a rotating manner, with which the application tool can be covered at least in regions with at least one blocking means (32, 40), wherein the at least one blocking means (32, 40) is provided for blocking rotation of the guard about an axis of rotation of the application tool, characterized in that the blocking means is formed by a protruding blocking lug which is worked out of the sheet metal of the guard by partial punching out and bending over, and/or is welded on, adhesively bonded or screwed on, wherein the blocking lug is arranged on a surface extending substantially perpendicularly to the axis of rotation, adjacent to a recess for a driveshaft.
A hybrid multi-spool gas turbine engine comprising a low-pressure spool and a high-pressure spool rotatable independently of one another about a central axis, the LP spool having an LP compressor and an LP turbine drivingly engaged to the LP compressor via an LP shaft, the LP shaft drivingly engaged to a rotatable load at a first end thereof, the HP spool having an HP turbine and an HP compressor drivingly engaged to the HP turbine via a HP shaft, characterized in that the engine further comprises: an accessory gearbox drivingly engaged to both of the LP shaft and the HP shaft and located proximate a second end of the LP shaft, the AGB having at least one accessory output drivingly engageable to at least one accessory and at least one input (32a, 32f); and at least one electric motor drivingly engaged to the at least one input (32a, 32f) of the AGB, the at least one electric motor drivingly engaged to the rotatable load via the AGB and the LP shaft. an accessory gearbox drivingly engaged to both of the LP shaft and the HP shaft and located proximate a second end of the LP shaft, the AGB having at least one accessory output drivingly engageable to at least one accessory and at least one input (32a, 32f); and at least one electric motor drivingly engaged to the at least one input (32a, 32f) of the AGB, the at least one electric motor drivingly engaged to the rotatable load via the AGB and the LP shaft.
A method of controlling ink deposition during printing, comprising: actuating a plurality of print heads to deposit ink on a substrate; and activating an energy source to speed cure of the deposited ink on the substrate; characterised by adjusting electrical output to the plurality of print heads to compensate for different distances from the energy source to each of the plurality of print heads, wherein the electrical output corresponds to volume of ink deposited by the plurality of print heads. actuating a plurality of print heads to deposit ink on a substrate; and activating an energy source to speed cure of the deposited ink on the substrate; characterised by adjusting electrical output to the plurality of print heads to compensate for different distances from the energy source to each of the plurality of print heads, wherein the electrical output corresponds to volume of ink deposited by the plurality of print heads.
Filling device, in particular for a weighing device, comprising: a transport area, which is supplied with products from a loading device, at least one sensor (13, 23) for capturing and forwarding of product occupation information on the transport area, and one control means, wherein the at least one sensor (13, 23) is formed to capture at least a partial area of the transport area, and the control means is formed to divide the area captured by the at least one sensor (13, 23) virtually in a plurality of sectors (121, 122; 111, 112) in order to assign the product occupation information to one sector (121, 122; 11, 112), wherein the transport area comprises a plurality of transport grooves (12A, 12B), and at least one sector (121, 122) is congruent with one transport groove (12A, 12B), characterized in that the control means is formed to divide the plurality of sectors (121, 122; 111, 112) respectively virtually in a plurality of zones (121A, 121B, 121C) and to divide the sectors (121, 122; 111, 112) and/or the zones (121A, 121B, 121C) according to Cartesian coordinates relatively to the sensor (13, 23). a transport area, which is supplied with products from a loading device, at least one sensor (13, 23) for capturing and forwarding of product occupation information on the transport area, and one control means, wherein the at least one sensor (13, 23) is formed to capture at least a partial area of the transport area, and the control means is formed to divide the area captured by the at least one sensor (13, 23) virtually in a plurality of sectors (121, 122; 111, 112) in order to assign the product occupation information to one sector (121, 122; 11, 112), wherein the transport area comprises a plurality of transport grooves (12A, 12B), and at least one sector (121, 122) is congruent with one transport groove (12A, 12B), the control means is formed to divide the plurality of sectors (121, 122; 111, 112) respectively virtually in a plurality of zones (121A, 121B, 121C) and to divide the sectors (121, 122; 111, 112) and/or the zones (121A, 121B, 121C) according to Cartesian coordinates relatively to the sensor (13, 23).
A method of evaluating the malignancy of a human patient sample comprising the step of detecting the presence or amount of cancer related oligosaccharide sequence in the sample, said oligosaccharide sequence consisting of a neutral O-glycan Galβ4GlcNAcβ6(Galβ3)GalNAc or Galβ4(Fucα3)GlcNAcβ6(Galβ3)GalNAc.
A sandwich-structured, flat molded body for use in the interiors of buildings or in the interiors of means of transport, comprising a) a central core layer with a plurality of hollow bodies, b) a fiber mesh on both sides of the core layer and c) an at least partially foamed, substantially inorganic binder comprising a geopolymer and applied to both sides of the fiber mesh, wherein the geopolymer is producible from the thermal polymerization of a curable and foamable composition comprising - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, wherein the majority of the formed foam cells of the substantially inorganic binder comprising a geopolymer are again largely destroyed during thermal curing in the limited expansion space of a mold. a) a central core layer with a plurality of hollow bodies, b) a fiber mesh on both sides of the core layer and c) an at least partially foamed, substantially inorganic binder comprising a geopolymer and applied to both sides of the fiber mesh, wherein the geopolymer is producible from the thermal polymerization of a curable and foamable composition comprising - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, wherein the majority of the formed foam cells of the substantially inorganic binder comprising a geopolymer are again largely destroyed during thermal curing in the limited expansion space of a mold. wherein the geopolymer is producible from the thermal polymerization of a curable and foamable composition comprising - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, - at least one solid stone-forming phase consisting of metakaolin, - at least one aqueous, alkaline phase, - at least one foaming agent and - at least one surfactant, wherein the majority of the formed foam cells of the substantially inorganic binder comprising a geopolymer are again largely destroyed during thermal curing in the limited expansion space of a mold.