mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel layer comprising a display area, the display area comprising a plurality of light emitting areas and a first non-light emitting area, the display panel layer further comprising a second non-light emitting area, the first non-light emitting area being around each of the light emitting areas, and the second non-light emitting area being outside the display area; a window coating layer including a transparent material and positioned directly on a first surface of the display panel layer; and a first curl-preventing pattern (CPA, CPA2, CPA2') contacting the window coating layer, wherein the first curl-preventing pattern (CPA, CPA2, CPA2') includes a material having an elastic modulus greater than an elastic modulus of the window coating layer and is configured to prevent the window coating layer from curling characterized in that the first curl-preventing pattern (CPA, CPA2, CPA2') overlaps both the first non-light emitting area and the window coating layer in a thickness direction of the display panel layer. a display panel layer comprising a display area, the display area comprising a plurality of light emitting areas and a first non-light emitting area, the display panel layer further comprising a second non-light emitting area, the first non-light emitting area being around each of the light emitting areas, and the second non-light emitting area being outside the display area; a window coating layer including a transparent material and positioned directly on a first surface of the display panel layer; and a first curl-preventing pattern (CPA, CPA2, CPA2') contacting the window coating layer, wherein the first curl-preventing pattern (CPA, CPA2, CPA2') includes a material having an elastic modulus greater than an elastic modulus of the window coating layer and is configured to prevent the window coating layer from curling characterized in that the first curl-preventing pattern (CPA, CPA2, CPA2') overlaps both the first non-light emitting area and the window coating layer in a thickness direction of the display panel layer.
A cutting table for supporting plate while being processed by a profile plate cutting machine, the cutting table including a modular construction, the cutting table having an area defined by a longitudinal length in a horizontal plane defining an X axis commensurate with sides of the table and a width in the horizontal plane at right angles to the X axis defining a Y axis commensurate with ends of the table being transverse to the sides characterised in that the cutting table comprises: a supporting frame assembly comprising structural support bar members in the form of flat bar held vertically in use by end cap members; a sacrificial interlocking grid assembly to support the plate being cut, comprising a plurality of first cross slat members and a plurality of second cross slat members being slidably interwoven with each other in a slotted type arrangement to form the sacrificial interlocking grid assembly, wherein each of the first cross slat members are supported directly on and parallel to structural support bar members. a supporting frame assembly comprising structural support bar members in the form of flat bar held vertically in use by end cap members; a sacrificial interlocking grid assembly to support the plate being cut, comprising a plurality of first cross slat members and a plurality of second cross slat members being slidably interwoven with each other in a slotted type arrangement to form the sacrificial interlocking grid assembly, wherein each of the first cross slat members are supported directly on and parallel to structural support bar members.
A process for preparing aminopolycarboxylates proceeding from the corresponding polyalkanolamines by oxidative dehydrogenation in the presence of a catalyst comprising 1 to 90% by weight of copper, based on the total weight of the catalyst, using a base, which comprises first performing a partial conversion of the polyalkanolamine to a reaction mixture comprising the aminopolycarboxylate at a temperature in the range from 140 to 180°C until at least 10 to 90 mol% of the polyalkanolamine has been reacted, and then continuing the conversion at elevated temperature.
Wireless digital communication method for the communication between a first electronic device and a second electronic device of an industrial apparatus, the method comprising the following steps: - encoding, by the first electronic device (3, 16), at least one bit of information by a respective sequence of pulses having a certain number of pulses that alternate with a corresponding number (N-1) of silence intervals, each pulse of said sequence of pulses having a pulse duration shorter than or equal to 10 ns and said silence intervals having respective silence durations (TSj) longer than or equal to 30 ns; - transmitting, by the first electronic device (3, 16), a radio signal comprising a plurality of radio pulses corresponding to said sequence of pulses without modulating any radio carrier; and - receiving and decoding, by the second electronic device (16, 3), said radio signal to obtain said at least one bit of information. - encoding, by the first electronic device (3, 16), at least one bit of information by a respective sequence of pulses having a certain number of pulses that alternate with a corresponding number (N-1) of silence intervals, each pulse of said sequence of pulses having a pulse duration shorter than or equal to 10 ns and said silence intervals having respective silence durations (TSj) longer than or equal to 30 ns; - transmitting, by the first electronic device (3, 16), a radio signal comprising a plurality of radio pulses corresponding to said sequence of pulses without modulating any radio carrier; and - receiving and decoding, by the second electronic device (16, 3), said radio signal to obtain said at least one bit of information.
A screening arrangement for a window, in particular a roof window, having a supply condition and a condition of use, the screening arrangement defining, in the condition of use, a first longitudinal direction, and a second longitudinal direction, and a screening plane substantially parallel to a plane defined by the first and second directions, the screening arrangement comprising: two operating elements (71, 72) extending in the first direction between a first end and a second end, a screening body; the screening body extending, in the condition of use, substantially in the screening plane between the two operating elements (71, 72), each operating element (71, 72) being movable in said second direction, two side rails (8, 9), each extending, in the condition of use, in the second direction, and at least one fitting releasably connected with each operating element (71, 72), near their respective ends, in the supply condition, characterized in that each fitting is provided with mounting bracket engagement means configured for releasable connection to a mounting bracket on the window, and in that the mounting bracket engagement means of said fitting comprise an aperture in a plane substantially perpendicular to the screening plane. two operating elements (71, 72) extending in the first direction between a first end and a second end, a screening body; the screening body extending, in the condition of use, substantially in the screening plane between the two operating elements (71, 72), each operating element (71, 72) being movable in said second direction, two side rails (8, 9), each extending, in the condition of use, in the second direction, and at least one fitting releasably connected with each operating element (71, 72), near their respective ends, in the supply condition, characterized in that each fitting is provided with mounting bracket engagement means configured for releasable connection to a mounting bracket on the window, and in that the mounting bracket engagement means of said fitting comprise an aperture in a plane substantially perpendicular to the screening plane.
Use of a low dose of IL-6, or a mutein, isoform, functional derivative, active fraction or circularly permutated derivative or a salt thereof, for the manufacture of a medicament for the treatment of chemotherapy-induced peripheral neuropathy, characterized in that the chemotherapy-induced peripheral neuropathy is caused by at least one chemotherapeutic agent, wherein the medicament is to be administered after or during and after the chemotherapy, and wherein the dose of IL-6, or a mutein, isoform, functional derivative, active fraction or circularly permutated derivative or a salt thereof, is in the range of 4 to 210 μg.
A flame arrestor comprising: a housing comprising an inlet, an outlet and a central portion, wherein the central portion is wider than the inlet and the outlet; a removable flame barrier disposed within the central portion of the housing, the flame barrier comprising a stack of a number of substantially planar metal mesh layers configured to permit a flow of air therethrough when inserted into the central portion of the housing; a HEPA filter mounted within the housing and both filtering clean air returned between the outlet and the removable flame barrier, and also acting as a silencer; and an access hatch included with the housing, the access hatch permitting access to the removable flame barrier allowing the removable flame barrier to be removed from the central portion. a housing comprising an inlet, an outlet and a central portion, wherein the central portion is wider than the inlet and the outlet; a removable flame barrier disposed within the central portion of the housing, the flame barrier comprising a stack of a number of substantially planar metal mesh layers configured to permit a flow of air therethrough when inserted into the central portion of the housing; a HEPA filter mounted within the housing and both filtering clean air returned between the outlet and the removable flame barrier, and also acting as a silencer; and an access hatch included with the housing, the access hatch permitting access to the removable flame barrier allowing the removable flame barrier to be removed from the central portion.
A compound comprising: at least one moiety which binds to one or more dopamine receptor subtypes; and a somatostatin analog moiety according to Formula II (SEQ ID NO:59): A 1 -B-cyclo(DLys-Arg-Phe-A 5 -DTrp-Lys-Thr-A 9) wherein: A 1 is absent, DTyr, Tyr, DLys or Lys,; B is a pseudopeptide bond; A 5 is 4Pal, Phe, 2Pal or 3Pal; and A 9 is Tyr, Phe, 2FPhe, 3FPhe, 4FPhe, 3,4FPhe, 3,5FPhe, or 2,3,4,5,6FPhe; wherein said at least one moiety which binds to one or more dopamine receptor subtypes is, independently for each occurrence, attached to the N-terminal amine group, or an internal amine or hydroxyl group, of said somatostatin analog moiety according to Formula II; or a pharmaceutically acceptable salt thereof. at least one moiety which binds to one or more dopamine receptor subtypes; and a somatostatin analog moiety according to Formula II (SEQ ID NO:59): A 1 -B-cyclo(DLys-Arg-Phe-A 5 -DTrp-Lys-Thr-A 9) wherein: A 1 is absent, DTyr, Tyr, DLys or Lys,; B is a pseudopeptide bond; A 5 is 4Pal, Phe, 2Pal or 3Pal; and A 9 is Tyr, Phe, 2FPhe, 3FPhe, 4FPhe, 3,4FPhe, 3,5FPhe, or 2,3,4,5,6FPhe; A 1 is absent, DTyr, Tyr, DLys or Lys,; B is a pseudopeptide bond; A 5 is 4Pal, Phe, 2Pal or 3Pal; and A 9 is Tyr, Phe, 2FPhe, 3FPhe, 4FPhe, 3,4FPhe, 3,5FPhe, or 2,3,4,5,6FPhe; wherein said at least one moiety which binds to one or more dopamine receptor subtypes is, independently for each occurrence, attached to the N-terminal amine group, or an internal amine or hydroxyl group, of said somatostatin analog moiety according to Formula II; or a pharmaceutically acceptable salt thereof.
A packaging film characterized in that: the packaging film, in which an inner layer contains a linear low-density polyethylene in an amount of more than 40% by mass and no more than 90% by mass and the low-density polyethylene or the high-density polyethylene; does not contain any leachable components; and has at least 0.920 g/cm 3 density and at least 50 μm thickness; a first adhesive layer which contains antioxidants and has less than 30 μm thickness; a gas barrier layer which has less than 30 μm thickness, and is selected from an ethylene-vinyl alcohol copolymer resin, polyethylene terephthalate, polyamide, a cycloolefin homopolymer and a cycloolefin copolymer; a second adhesive layer which contains antioxidants and has less than 30 μm thickness; and an outer layer, and the laminated inner layer, the laminated first adhesive layer, the laminated gas barrier layer, the laminated second adhesive layer and the laminated outer layer are provided in that order. the packaging film, in which an inner layer contains a linear low-density polyethylene in an amount of more than 40% by mass and no more than 90% by mass and the low-density polyethylene or the high-density polyethylene; does not contain any leachable components; and has at least 0.920 g/cm 3 density and at least 50 μm thickness; a first adhesive layer which contains antioxidants and has less than 30 μm thickness; a gas barrier layer which has less than 30 μm thickness, and is selected from an ethylene-vinyl alcohol copolymer resin, polyethylene terephthalate, polyamide, a cycloolefin homopolymer and a cycloolefin copolymer; a second adhesive layer which contains antioxidants and has less than 30 μm thickness; and an outer layer, and the laminated inner layer, the laminated first adhesive layer, the laminated gas barrier layer, the laminated second adhesive layer and the laminated outer layer are provided in that order.
A method for aligning metal layers in fabricating a multilayer printable electronic device, the method comprising: providing a transparent substrate upon which a first metal layer is deposited; providing a transparent functional layer over the first metal layer; depositing metal nano particles over the functional layer to form a second metal layer; exposing the metal nano particles to intense pulsed light via an underside of the substrate to partially sinter exposed particles to the functional layer whereby the first metal layer acts as a photo mask; and washing away unexposed particles using a solvent to leave partially sintered metal nano particles on the substrate. providing a transparent substrate upon which a first metal layer is deposited; providing a transparent functional layer over the first metal layer; depositing metal nano particles over the functional layer to form a second metal layer; exposing the metal nano particles to intense pulsed light via an underside of the substrate to partially sinter exposed particles to the functional layer whereby the first metal layer acts as a photo mask; and washing away unexposed particles using a solvent to leave partially sintered metal nano particles on the substrate.
A method for preparing a natural kokumi flavor, comprising: (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium sp. microorganism to prepare a glutamic acid fermented broth; and (c) mixing another part of the grain fermented broth of step (a) and the glutamic acid fermented broth of step (b), and reacting the mixture at 70 to 100°C for 0.5 to 24 hours. (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium sp. microorganism to prepare a glutamic acid fermented broth; and (c) mixing another part of the grain fermented broth of step (a) and the glutamic acid fermented broth of step (b), and reacting the mixture at 70 to 100°C for 0.5 to 24 hours.
A process for polymerisation in a slurry loop polymerisation reactor, which reactor comprises: a) a reaction zone in the form of a slurry loop and having a volume of at least 50m 3 and an internal diameter of 50 cm or greater, b) at least one feed inlet for monomers, diluent and optionally comonomers, c) at least one catalyst inlet for polymerisation catalyst, and d) at least one discharge conduit for removal of polymer, and which process comprises passing monomer, diluent and catalyst, and optionally comonomer, into the reaction zone through their respective inlets, and wherein they react to form a slurry of polymer solids having a concentration of polymer solids in the reaction zone of greater than 20wt%, being the weight of polymer solids relative to the total weight of the slurry (solids and liquid), wherein the process is operated at a space-time yield greater than 100 kg/h/m 3, and characterised in that the at least one catalyst inlet is in the form of an inlet pipe, that no part of the inlet pipe protrudes beyond the wall of the reaction zone and into the reaction zone by more than 1/10 th of the diameter of the reaction zone at the point where the inlet pipe joins the reaction zone, and that the catalyst inlet pipe has an internal diameter (d) at its exit of less than 5 cm. a) a reaction zone in the form of a slurry loop and having a volume of at least 50m 3 and an internal diameter of 50 cm or greater, b) at least one feed inlet for monomers, diluent and optionally comonomers, c) at least one catalyst inlet for polymerisation catalyst, and d) at least one discharge conduit for removal of polymer,
A vehicle steering arrangement for a vehicle, comprising: - a rack, - a position sensor arranged to sense a current position of said rack, - a steering column, - a steering wheel in mechanical connection with steered wheels of said vehicle via said rack and said steering column, - a torque sensor arranged to sense a torque applied onto said steering wheel and arranged to provide a torque signal representative thereof, - an electronic control unit provided with a virtual steering model, - an electromechanical actuator arranged to selectively apply a force onto said rack, and - a force obtaining arrangement configured to obtain forces of said steered wheels acting on said rack, wherein said electronic control unit is configured to provide a virtual rack position based on said virtual steering model and at least a combination of said obtained forces and said torque signal, wherein said electronic control unit is arranged to control said electromechanical actuator such that the current position of said rack is controlled towards said virtual rack position, characterized in that said electromechanical actuator is a rack-mounted electromechanical actuator and wherein said arrangement comprises at least one driving environment monitoring unit arranged to monitor a driving environment surrounding said vehicle, and wherein said virtual steering model is configured to adapt a steering characteristic of said vehicle steering arrangement in dependence of said monitored driving environment. - a rack, - a position sensor arranged to sense a current position of said rack, - a steering column, - a steering wheel in mechanical connection with steered wheels of said vehicle via said rack and said steering column, - a torque sensor arranged to sense a torque applied onto said steering wheel and arranged to provide a torque signal representative thereof, - an electronic control unit provided with a virtual steering model, - an electromechanical actuator arranged to selectively apply a force onto said rack, and - a force obtaining arrangement configured to obtain forces of said steered wheels acting on said rack,
A surgical instrument, comprising: an elongate shaft; and a surgical end effector (4000, 6000) coupled to said elongate shaft by an articulation joint, wherein said articulation joint is configured to facilitate selective articulation of said surgical end effector relative to said elongate shaft, and wherein said surgical end effector comprises a firing member (4310, 6130) supported for axial travel within said surgical end effector between a starting position and an ending position; and characterized by: a loose-linked drive member (4600, 6600) operably supported by said elongate shaft and traversing said articulation joint, wherein said loose-linked drive member is configured to accommodate said articulation of said surgical end effector relative to said elongate shaft; and means (4400, 6700) for converting a portion of said loose-linked drive member that is distal to said articulation joint into a rigid drive member (4600AR, 6600AR), wherein the means for converting is configured to drive the rigid drive member to apply axial drive motions to said firing member to drive said firing member between said starting position and said ending position. an elongate shaft; and a surgical end effector (4000, 6000) coupled to said elongate shaft by an articulation joint, wherein said articulation joint is configured to facilitate selective articulation of said surgical end effector relative to said elongate shaft, and wherein said surgical end effector comprises a firing member (4310, 6130) supported for axial travel within said surgical end effector between a starting position and an ending position; and characterized by: a loose-linked drive member (4600, 6600) operably supported by said elongate shaft and traversing said articulation joint, wherein said loose-linked drive member is configured to accommodate said articulation of said surgical end effector relative to said elongate shaft; and means (4400, 6700) for converting a portion of said loose-linked drive member that is distal to said articulation joint into a rigid drive member (4600AR, 6600AR), wherein the means for converting is configured to drive the rigid drive member to apply axial drive motions to said firing member to drive said firing member between said starting position and said ending position. a loose-linked drive member (4600, 6600) operably supported by said elongate shaft and traversing said articulation joint, wherein said loose-linked drive member is configured to accommodate said articulation of said surgical end effector relative to said elongate shaft; and means (4400, 6700) for converting a portion of said loose-linked drive member that is distal to said articulation joint into a rigid drive member (4600AR, 6600AR), wherein the means for converting is configured to drive the rigid drive member to apply axial drive motions to said firing member to drive said firing member between said starting position and said ending position.
A separator for a non-aqueous secondary battery, the separator comprising: a porous substrate; and an adhesive porous layer that is provided on one side or on both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, an acrylic type resin and metal sulfate particles, wherein an average primary particle diameter of the metal sulfate particles contained in the adhesive porous layer is from 0.01 μm to less than 0.30 μm; wherein the average primary particle diameter of the metal sulfate particles is measured according to the method described in the description. a porous substrate; and an adhesive porous layer that is provided on one side or on both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, an acrylic type resin and metal sulfate particles, wherein an average primary particle diameter of the metal sulfate particles contained in the adhesive porous layer is from 0.01 μm to less than 0.30 μm; wherein the average primary particle diameter of the metal sulfate particles is measured according to the method described in the description.