mhurhangee/ep-ind-claims huggingface dataset:
A thermal head (X1, X2, X3, X4, X5, X6), comprising: a substrate, a heat generating section disposed on the substrate, an electrode which is disposed on the substrate and is electrically connected to the heat generating section, and a connector (31, 131, 231, 331) comprising a fixing pin (8a, 108a, 208a) disposed above the substrate and electrically connected to the electrode, a movable pin (8b, 208b) which holds the substrate between the movable pin (8b, 208b) and the fixing pin (8a, 108a, 208a), and a connection pin which connects the fixing pin (8a, 108a, 208a) to the movable pin (8b, 208b), the movable pin (8b, 208b) comprising a movable section (8b1, 208b1) which is bent or curved and a contact section (8b2, 208b2) making contact with the lower face of the substrate, the movable pin (8b, 208b) being disposed so as to protrude from the connection pin beyond the fixing pin (8a, 108a, 208a), and the contact section (8b2, 208b2) being located closer to a connection pin side than a tip end of the fixing pin (8a, 108a, 208a). a substrate, a heat generating section disposed on the substrate, an electrode which is disposed on the substrate and is electrically connected to the heat generating section, and a connector (31, 131, 231, 331) comprising a fixing pin (8a, 108a, 208a) disposed above the substrate and electrically connected to the electrode, a movable pin (8b, 208b) which holds the substrate between the movable pin (8b, 208b) and the fixing pin (8a, 108a, 208a), and a connection pin which connects the fixing pin (8a, 108a, 208a) to the movable pin (8b, 208b), the movable pin (8b, 208b) comprising a movable section (8b1, 208b1) which is bent or curved and a contact section (8b2, 208b2) making contact with the lower face of the substrate, the movable pin (8b, 208b) being disposed so as to protrude from the connection pin beyond the fixing pin (8a, 108a, 208a), and the contact section (8b2, 208b2) being located closer to a connection pin side than a tip end of the fixing pin (8a, 108a, 208a).
Sliding wall assembly, comprising at least one sliding leaf having a lower frame profile, a running rail which can be lowered into a building floor and in which the at least one sliding leaf is displaceably mounted at the lower edge, and at least one covering element which serves to cover the at least one running rail when the running rail is released by the at least one displaceable sliding leaf, wherein the at least one covering element has a raised state in which the covering element covers the running rail released by the sliding leaf completely or in sections, as well as a lowered state in which the at least one covering element is lowered into the at least one running rail, so that the at least one sliding leaf can be displaced over the at least one covering element, characterized in that a guide device is provided which ensures that the at least one covering element executes a vertical or substantially vertical movement between the raised state and the lowered state or vice versa, wherein the running rail as the guide device has a slotted guide, wherein a guide bolt engages through a slotted guide groove which is introduced into a guide block and wherein the guide groove is in the form of a U, i.e. a U-shaped guide groove rotated by 180°, so that the movement of the guide bolt in the guide groove is at least partially vertical.
A soluble ActRIIA polypeptide comprising an extracellular domain of an ActRIIA polypeptide having an amino acid sequence that is at least 97% identical to SEQ ID NO: 1; a flexible linker having the sequence TGGG; and an immunoglobulin Fc domain, wherein the immunoglobulin Fc domain is fused to the Gterminus of the extracellular domain of the ActRIIA polypeptide by the flexible linker.
An arc baffle (200,200') for an electrical switching apparatus including a housing, separable contacts (6,8) enclosed by said housing, and at least one arc chute assembly, said at least one arc chute assembly having a first end and a second end, the first end being disposed proximate said separable contacts (6,8) in order to attract an arc generated by said separable contacts (6,8) being opened, the second end being disposed distal from the first end for discharging ionized gases produced as a byproduct of said arc, said arc baffle (200,200') comprising: a plurality of fasteners structured to couple said arc baffle (200,200') to said arc chute assembly at or about the second end of said arc chute assembly, characterized by a number of baffle members (202,206,288,288') comprising first and second baffle members (202,206) each including a generally planar discharge portion (214,216) having at least one opening (204,208) for discharging said ionized gases and an elongated spacer portion (218,220) which protrudes outwardly from said generally planar discharge portion (214,216); wherein the plurality of fasteners is structured to couple said arc baffle (200,200') and said baffle members (202,206,288,288') to said arc chute assembly at or about the second end of said arc chute assembly, said second baffle member being coupled to and disposed opposite from said first baffle member to form an air gap therebetween and the elongated spacer portion (218,220) of said second baffle member engaging the generally planar discharge portion (214,216) of said first baffle member to substantially enclose said air gap.
An expandable intervertebral spacer comprising: a body having quadrants that form a substantially cylindrical shape in a first configuration and a substantially cuboidal shape in a second configuration, wherein each quadrant includes a ramp portion (110, 210) with a ramp (112, 212) and a landing (114, 214); a sliding portion (108, 208) with a sliding side (122, 222) and a foot (124, 224); and a tension member coupling a first quadrant and a second quadrant; wherein the ramp portion of the first quadrant engages the sliding portion of the second quadrant, the body further having a proximal end and a distal end coupled with the quadrants and configured to transfer an actuating force to expand the body from the first configuration to the second configuration, wherein the tension member provides a counterforce that pushes the landing (114, 214) against the foot (124, 224) so as to provide an interference fit between the landing (114, 214) and the foot (124, 224) as the body expands from the first configuration to the second configuration. a body having quadrants that form a substantially cylindrical shape in a first configuration and a substantially cuboidal shape in a second configuration, wherein each quadrant includes a ramp portion (110, 210) with a ramp (112, 212) and a landing (114, 214); a sliding portion (108, 208) with a sliding side (122, 222) and a foot (124, 224); and a tension member coupling a first quadrant and a second quadrant; wherein the ramp portion of the first quadrant engages the sliding portion of the second quadrant, the body further having a proximal end and a distal end coupled with the quadrants and configured to transfer an actuating force to expand the body from the first configuration to the second configuration, wherein the tension member provides a counterforce that pushes the landing (114, 214) against the foot (124, 224) so as to provide an interference fit between the landing (114, 214) and the foot (124, 224) as the body expands from the first configuration to the second configuration.
Method of preparing an intermediate asymmetric imidazolium salt of formula 1A: wherein R1 is an aromatic group, R2 is selected from a secondary cyclic aliphatic alkyl group and a heteroalkyl group, R3 and R4 are selected independently of one another from the group consisting of hydrogen, a halide and an alkyl group, and A - is an anion, comprising the following steps: a. forming a reaction mixture by contacting one equivalent (1 eq) of an aniline of formula 2: with one equivalent (1 eq) of a compound of formula 3: in the presence of at least four point five equivalents (4.5 eq) of a Brønsted acid of formula 4: AH; b. forming a solution comprising one equivalent (1 eq) of a dicarbonyl of formula 5 one equivalent (1 eq) of formaldehyde, and at least four point five equivalents (4.5 eq) of the Brønsted acid of formula 4, heating said solution to about 80°C and then adding the reaction mixture formed in step a.; c. stirring for at least 2 hours at about 80°C; and d. isolating the intermediate asymmetric imidazolium salt of formula 1A. R1 is an aromatic group, R2 is selected from a secondary cyclic aliphatic alkyl group and a heteroalkyl group, R3 and R4 are selected independently of one another from the group consisting of hydrogen, a halide and an alkyl group, and A - is an anion, a. forming a reaction mixture by contacting one equivalent (1 eq) of an aniline of formula 2: with one equivalent (1 eq) of a compound of formula 3: in the presence of at least four point five equivalents (4.5 eq) of a Brønsted acid of formula 4: AH; b. forming a solution comprising one equivalent (1 eq) of a dicarbonyl of formula 5 one equivalent (1 eq) of formaldehyde, and at least four point five equivalents (4.5 eq) of the Brønsted acid of formula 4, heating said solution to about 80°C and then adding the reaction mixture formed in step a.; c. stirring for at least 2 hours at about 80°C; and d. isolating the intermediate asymmetric imidazolium salt of formula 1A.
A method of treating a microcracked ceramic honeycomb comprising the steps of: providing a ceramic honeycomb having microcracks; applying a washcoat solution comprising particles to the ceramic honeycomb and applying a vacuum to the surface of the ceramic honeycomb so that at least some of the particles enter the microcracks; uniformly heat-treating the ceramic honeycomb with the applied washcoat to a temperature of between 700 and 1300°C such that the microcracks are enlarged compared to a pre-heat treated state, wherein said heat treating step causes dendrites (14, 21) or pillars to form within the microcracks. providing a ceramic honeycomb having microcracks; applying a washcoat solution comprising particles to the ceramic honeycomb and applying a vacuum to the surface of the ceramic honeycomb so that at least some of the particles enter the microcracks; uniformly heat-treating the ceramic honeycomb with the applied washcoat to a temperature of between 700 and 1300°C such that the microcracks are enlarged compared to a pre-heat treated state,
Device comprising: • an aircraft wing; • at least one jet engine with high bypass ratio attached to said wing, suitable for emitting a jet intercepted exclusively by a first portion of the trailing edge of said wing, the angles with orientation α being defined by a vector following the direction of said jet and by a vector following the tangent at a point of said first portion of the trailing edge and oriented towards the wing tip of said wing, and the angles with orientation γ being defined by a vector following the direction of a said jet and a vector following the tangent at a point of said trailing edge not belonging to said first portion of the trailing edge and oriented towards the wing tip of said wing, characterised in that: • the range formed by the set of angles with orientation α, is included within a range of angles delimited by 5° and 65°, • the average over the length of said trailing edge of the angles with orientation γ is at least 10° greater than the average of the angles α on the length of said first portion of the trailing edge. • an aircraft wing; • at least one jet engine with high bypass ratio attached to said wing, suitable for emitting a jet intercepted exclusively by a first portion of the trailing edge of said wing, the angles with orientation α being defined by a vector following the direction of said jet and by a vector following the tangent at a point of said first portion of the trailing edge and oriented towards the wing tip of said wing, and the angles with orientation γ being defined by a vector following the direction of a said jet and a vector following the tangent at a point of said trailing edge not belonging to said first portion of the trailing edge and oriented towards the wing tip of said wing, • the range formed by the set of angles with orientation α, is included within a range of angles delimited by 5° and 65°, • the average over the length of said trailing edge of the angles with orientation γ is at least 10° greater than the average of the angles α on the length of said first portion of the trailing edge.
Shape memory alloy consisting of an alloy having the following alloy constituents in % by weight: 25.0% ≤ Mn ≤ 32.0%, 3.0% ≤ Si ≤ 8.0%, 3.0% ≤ Cr ≤ 10.0%, 0.1% ≤ Ni ≤ 4.0%, P ≤ 0.1%, S ≤ 0.1%, Mo ≤ 0.5%, Cu ≤ 0.5%, Al ≤ 5.0%, Mg ≤ 5.0%, O ≤ 0.1%, Ca ≤ 0.1%, Co ≤ 0.5%, where at least one element of a group 1 of elements is present, where group 1 consists of the elements N, C, B with the following contents: N ≤ 0.1%, C ≤ 0.1%, B ≤ 0.1%, and, for the sum total of the alloy constituents of group 1: ∑ Group 1 N, C,10 ⋅ B ≥ 0.005 ⁢ % and at least one element of a group 2 of elements is present, group 2 consists of the elements Ti, Nb, W, V, Zr with the following contents: Ti ≤ 1.5%, Nb ≤ 1.5%, W ≤ 1.5%, V ≤ 1.5%, Zr ≤ 1.5%, and, for the sum total of the alloy constituents of group 2: ∑ Group 2 Ti, Nb, W, V, Zr ≥ 0.1 ⁢ % and, for the ratio of the sum total of the alloy constituents of group 1 and group 2, each in atom% 0.5 ≤ ∑ Group 2 ∑ Group 1 ≤ 2.0, the balance being iron and unavoidable impurities. 25.0% ≤ Mn ≤ 32.0%, 3.0% ≤ Si ≤ 8.0%, 3.0% ≤ Cr ≤ 10.0%, 0.1% ≤ Ni ≤ 4.0%, P ≤ 0.1%, S ≤ 0.1%, Mo ≤ 0.5%, Cu ≤ 0.5%, Al ≤ 5.0%, Mg ≤ 5.0%, O ≤ 0.1%, Ca ≤ 0.1%, Co ≤ 0.5%, N ≤ 0.1%, C ≤ 0.1%, B ≤ 0.1%, and, for the sum total of the alloy constituents of group 1: ∑ Group 1 N, C,10 ⋅ B ≥ 0.005 ⁢ % Ti ≤ 1.5%, Nb ≤ 1.5%, W ≤ 1.5%, V ≤ 1.5%, Zr ≤ 1.5%, and, for the sum total of the alloy constituents of group 2: ∑ Group 2 Ti, Nb, W, V, Zr ≥ 0.1 ⁢ %
A parking lot mapping system, comprising: a location system configured to determine a position of a vehicle; a controller on board a vehicle, and being programmed to determine that the vehicle is in a parking lot based on a parking event; a server side comprising a remote controller and a transmitter/receiver; and a transmitter on board the vehicle, the transmitter being configured to transmit data including the parking event and the position of the vehicle, so as to cause said remote controller to calculate a parking lot route (PR1, PR2) inside the parking lot based on the data transmitted, including the position of the vehicle, wherein the controller on board a vehicle is programmed to increase a frequency of the data transmitted by the on board transmitter when the controller on board the vehicle determines the vehicle is in the parking lot. a location system configured to determine a position of a vehicle; a controller on board a vehicle, and being programmed to determine that the vehicle is in a parking lot based on a parking event; a server side comprising a remote controller and a transmitter/receiver; and a transmitter on board the vehicle, the transmitter being configured to transmit data including the parking event and the position of the vehicle, so as to cause said remote controller to calculate a parking lot route (PR1, PR2) inside the parking lot based on the data transmitted, including the position of the vehicle, wherein the controller on board a vehicle is programmed to increase a frequency of the data transmitted by the on board transmitter when the controller on board the vehicle determines the vehicle is in the parking lot.
Heat exchanger, in particular water-air heat exchanger or oil-water heat exchanger, comprising at least one first fluid channel for conducting a first fluid, and at least one second fluid channel for conducting a second fluid, wherein the at least one first fluid channel is connected to a fluid-receiving volume, in particular at an outlet side, wherein the fluid-receiving volume is equipped with an electric heating coating, characterized in that the fluid-receiving volume is provided by a separate module, wherein the separate module is fastenable or fastened to the other constituent parts of the heat exchanger.
An oil-in-water emulsion composition having an oil phase and water phase, the oil phase comprising: a polymeric modifier being compatible with the oil phase, wherein the polymeric modifier is ethyl cellulose; at least one agriculturally active compound; at least one non-ionic lipophilic surface-active agent; at least one non-ionic hydrophilic surface-active agent; at least one ionic surface-active agent. a polymeric modifier being compatible with the oil phase, wherein the polymeric modifier is ethyl cellulose; at least one agriculturally active compound; at least one non-ionic lipophilic surface-active agent; at least one non-ionic hydrophilic surface-active agent; at least one ionic surface-active agent.
A piezoelectric sensor, comprising: a substrate having a first surface; at least one first electrode; at least one second electrode, wherein the first electrode and the second electrode are of alternating polarity; a piezoelectric material formed as a layer on the substrate, wherein the piezoelectric material has an anisotropic electromechanical coupling, and the at least one first and second electrodes (3,5) are at least in part embedded in the piezoelectric material, wherein the first electrode and the second electrode extend substantially at a right angle within the piezoelectric material from the first surface, and a primary orientation of a polarization of the piezoelectric material between the first electrode and the second electrode is substantially parallel to the first surface and substantially perpendicular to the first and second electrodes (3, 5). a substrate having a first surface; at least one first electrode; at least one second electrode, wherein the first electrode and the second electrode are of alternating polarity; a piezoelectric material formed as a layer on the substrate, wherein the piezoelectric material has an anisotropic electromechanical coupling, and the at least one first and second electrodes (3,5) are at least in part embedded in the piezoelectric material, wherein the first electrode and the second electrode extend substantially at a right angle within the piezoelectric material from the first surface, and a primary orientation of a polarization of the piezoelectric material between the first electrode and the second electrode is substantially parallel to the first surface and substantially perpendicular to the first and second electrodes (3, 5). the piezoelectric material has an anisotropic electromechanical coupling, and the at least one first and second electrodes (3,5) are at least in part embedded in the piezoelectric material, wherein the first electrode and the second electrode extend substantially at a right angle within the piezoelectric material from the first surface, and a primary orientation of a polarization of the piezoelectric material between the first electrode and the second electrode is substantially parallel to the first surface and substantially perpendicular to the first and second electrodes (3, 5).
Biosensor including a linker comprising a first end and a second end, wherein: - the first end of the linker is fused to one terminus of a first luciferase domain via a first binding domain; and - the second end of the linker is fused to a second luciferase domain via a second binding domain, wherein the biosensor optionally comprises a third luciferase domain fused to the other terminus of the first luciferase domain via a spacer, wherein the binding domains are configured to bind to a biomolecule, wherein the biosensor exists in two conformations, in which either the second or third luciferase domain binds to the first luciferase domain to form a complemented luciferase, and wherein a fluorophore is conjugated next to one of the second or third luciferase domains resulting in efficient Bioluminescence Resonance Energy Transfer (BRET) between the luciferase and the fluorophore in only one of the two conformations. - the first end of the linker is fused to one terminus of a first luciferase domain via a first binding domain; and - the second end of the linker is fused to a second luciferase domain via a second binding domain, wherein the biosensor optionally comprises a third luciferase domain fused to the other terminus of the first luciferase domain via a spacer, wherein the binding domains are configured to bind to a biomolecule, wherein the biosensor exists in two conformations, in which either the second or third luciferase domain binds to the first luciferase domain to form a complemented luciferase, and wherein a fluorophore is conjugated next to one of the second or third luciferase domains resulting in efficient Bioluminescence Resonance Energy Transfer (BRET) between the luciferase and the fluorophore in only one of the two conformations. wherein the biosensor optionally comprises a third luciferase domain fused to the other terminus of the first luciferase domain via a spacer, wherein the binding domains are configured to bind to a biomolecule, wherein the biosensor exists in two conformations, in which either the second or third luciferase domain binds to the first luciferase domain to form a complemented luciferase, and wherein a fluorophore is conjugated next to one of the second or third luciferase domains resulting in efficient Bioluminescence Resonance Energy Transfer (BRET) between the luciferase and the fluorophore in only one of the two conformations.
Assembly comprising a substrate 1, a substrate 2 and a heat curable adhesive, which is positioned between the substrates 1 and 2, wherein the heat curable adhesive is cured only in a portion of less than 50% of the entire surface covered by the heat curable adhesive, wherein the substrate 1 is a metal substrate and has the shape of a profile and the substrate 2 is an extruded or molded plastic carrier, which fills at least 50 vol.-% of the hollow space in the profile. wherein the heat curable adhesive is cured only in a portion of less than 50% of the entire surface covered by the heat curable adhesive, wherein the substrate 1 is a metal substrate and has the shape of a profile and the substrate 2 is an extruded or molded plastic carrier, which fills at least 50 vol.-% of the hollow space in the profile.
Appliance with volumetric detector, usable in particular in anti-break-in systems for vehicles, comprising support means associable with the structure of a vehicle, inside the compartment, at least one electronic control board associated with said support means, at least a volumetric sensor connected to said electronic control board and suitable for detecting break-ins inside the compartment, characterized in that said at least one volumetric sensor is associated integral with said electronic control board and in that said appliance comprises at least an acoustic duct having a first mouth associated with said volumetric sensor and at least a second mouth for emitting and/or receiving the sound waves generated by said volumetric sensor and/or reflected by at least an obstacle inside the compartment, wherein said first mouth and said second mouth are substantially at right angles the one to the other.
A composition comprising a pharmaceutically effective amount of buprenorphine and Compound-1: or a pharmaceutically acceptable salt thereof; wherein the molar ratio of Compound-1:buprenorphine is 0.5-1.75:1.0, or 0.75-1.5:1.0, or 0.9-1.3:1.0.