mhurhangee/ep-ind-claims huggingface dataset:
A modular bearing construction, particularly for making structures such as pergolas, roofs, domes and tunnels, wherein said construction comprises a plurality of extruded profiled telescopic extensible elements (A, B, C, D) coupleable to one another by dedicated coupling means; characterized in that said construction comprises bayonet couplings (X 1, X 2) with a dovetail pattern, said dovetail pattern comprise two portions pluggable into one another and lockable to one another both fixable at the head portion and at the side faces of said extruded elements (A, B, C, D); said extruded elements (A, B, C, D) allowing to make beams and pillars which both are able to be coupled and fixed under flat lattice surfaces, by a U-fork capital, said capital consistes of two L-shaped portions and being fixable on the top of the pillars; said construction further comprising a hinge coupling to connect beams and purlins at a cross point thereof; said lattice surfaces being adapted to bear on a wall side by a bearing system in which two or more hook elements, coupleable by plugs to said wall, support in cooperation a round bar to be introduced and lockable into said hook elements; said round bar supporting a plurality of beams and purlins latchable to said round bar by a hook element, arranged on the top of the profiled elements (A, B, C, D), at a reversed position with respect to the wall mounted hook elements.
An expansion joint bridging device in the form of a slat-type roadway transition, which bridges over an expansion joint present between two edifice parts (3, 4) of a drivable edifice, having the following features: the expansion joint is spanned by at least three cross members, which are braced in load-bearing relationship on both edifice parts (3, 4), wherein at least one of the load-bearing bracings permits a shifting movement of the respective cross member relative to the edifice part in question; at least one slat disposed above the cross members is braced on the cross members; the slat comprises two slat portions (7.1, 7.2) joined flush with one another in mutual force-transmitting relationship, characterized in that the joining of the slat portions (7.1, 7.2) is realized in-situ by means of at least one strap bridging over the butt joint present between the slat portions (7.1, 7.2) and joined in force-transmitting relationship with both slat portions (7.1, 7.2) and in that at least one of the joints of the strap with the slat portions (7.1, 7.2) is constructed with the ability to pivot with one rotational degree of freedom around an axis extending horizontally and transversely relative to the orientation of the slat in question. the expansion joint is spanned by at least three cross members, which are braced in load-bearing relationship on both edifice parts (3, 4), wherein at least one of the load-bearing bracings permits a shifting movement of the respective cross member relative to the edifice part in question; at least one slat disposed above the cross members is braced on the cross members; the slat comprises two slat portions (7.1, 7.2) joined flush with one another in mutual force-transmitting relationship, characterized in that the joining of the slat portions (7.1, 7.2) is realized in-situ by means of at least one strap bridging over the butt joint present between the slat portions (7.1, 7.2) and joined in force-transmitting relationship with both slat portions (7.1, 7.2) and in that at least one of the joints of the strap with the slat portions (7.1, 7.2) is constructed with the ability to pivot with one rotational degree of freedom around an axis extending horizontally and transversely relative to the orientation of the slat in question.
An aqueous coloring agent dispersion for inkjet comprising at least a coloring agent, a liquid medium, and a polymer dispersion agent, wherein the polymer dispersion agent is an A-B block polymer obtained by copolymerizing, via a living radical polymerization method, by using as a polymerization initiator any one of a mixture of an organic tellurium compound and an organic ditellurium compound, and a mixture of the organic tellurium compound, an azo-based polymerization initiator, and the organic ditellurium compound, wherein the organic tellurium compound is represented by the following formula: wherein, R 1 represents a C 1 -C 8 alkyl group, an aryl group, a substituted aryl group, or an aromatic heterocyclic group; R 2 and R 3 represent a hydrogen atom or a C 1 -C 8 alkyl group; and R 4 represents an aryl group, a substituted aryl group, an aromatic heterocyclic group, an acyl group, an amide group, an oxycarbonyl group, or a cyano group, and the organic ditellurium compound is represented by the following formula: (R 1 Te) 2 wherein, R 1 has the same meaning as that of R 1 in the above formula, wherein A and B each mean polymers obtained by polymerizing different monomers, and the monomer for configuring the A block is two kinds of the monomers represented by the following formula: wherein, in one monomer R 5 is a hydrogen atom and R 6 is a methyl group in the above formula and in the other monomer R 5 is an n-butyl group and R 6 is a methyl group in the above formula, and the monomer for configuring the B block is benzyl methacrylate and/or benzyl acrylate.
A vaccine pharmaceutical composition for use in inducing humoral immunity, comprising: an antigen; and an immunity induction promoter that is a bisphosphonate, wherein the vaccine pharmaceutical composition is administered transdermally or transmucosally. an antigen; and an immunity induction promoter that is a bisphosphonate, wherein the vaccine pharmaceutical composition is administered transdermally or transmucosally.
A method of making an active gas, comprising generating within a plasma generator a glow discharge, non-thermal, plasma in a flow of gas mixture comprising a carrier gas and a more readily ionisable gas to form an active gas mixture, and exposing the active gas mixture to a source of water vapourdownstream from the generator so as to form the active gas, wherein (a) the carrier gas is helium; (b) the more readily ionisable gas is at least one noble gas selected from the group consisting of Argon, Neon, Krypton, and Xenon; (c) the gas mixture includes up to 40% by volume of the more readily ionisable gas; (d) the active gas mixture is ejected at a temperature in the range from 55°C to 42°C, and the active gas mixture flows from the generator through a passage and is ejected from the passage into a standing gaseous atmosphere, the standing gaseous atmosphere contains water vapour from the source and the flow of the active gas mixture through the gaseous atmosphere thereby exposes the active gas mixture to the water vapour, so as to form the active gas andthe standing gaseous atmosphere is ambient air. (a) the carrier gas is helium; (b) the more readily ionisable gas is at least one noble gas selected from the group consisting of Argon, Neon, Krypton, and Xenon; (c) the gas mixture includes up to 40% by volume of the more readily ionisable gas; (d) the active gas mixture is ejected at a temperature in the range from 55°C to 42°C, and
A static settler for prethickening liquid sludge in a water treatment plant, in particular a wastewater plant, for optimizing the operation of the thickeners installed downstream of the settler, and, for providing that the residence time of the sludge in the settler does not exceed two hours, being equipped with - a liquid sludge feed pump, - a device for injecting polymer into the liquid sludge, - an overflow discharge - a pump for extracting the prethickened sludge from the settler, - means for accelerating the settling of the sludge comprising an inclined bottom of the settler, - means for controlling the suspended solids concentration of the prethickened sludge at the outlet, capable of maintaining the concentration of the prethickened sludge extracted from the settler substantially constant, despite concentration variations at the inlet, and comprising means for controlling the mass flow of suspended solids entering the settler, and means for controlling the concentration of the prethickened sludge from the inlet mass flow, and means for controlling the level of the sludge blanket capable of maintaining said level as low as possible, the means for controlling the level of the sludge blanket comprising a probe for measuring the height of the sludge blanket, a variable speed polymer feed pump, a flowmeter on the polymer injection line, and a controller or speed variator receiving the data from the probe measuring the height of the sludge blanket and from the flowmeter, and capable of controlling the speed of the pump to optimize the polymer consumption. - a liquid sludge feed pump, - a device for injecting polymer into the liquid sludge, - an overflow discharge - a pump for extracting the prethickened sludge from the settler, - means for accelerating the settling of the sludge comprising an inclined bottom of the settler, - means for controlling the suspended solids concentration of the prethickened sludge at the outlet, capable of maintaining the concentration of the prethickened sludge extracted from the settler substantially constant, despite concentration variations at the inlet, and comprising means for controlling the mass flow of suspended solids entering the settler, and means for controlling the concentration of the prethickened sludge from the inlet mass flow,
Reluctance rotor of a synchronous reluctance machine, which is supported rotatably about a shaft, having, viewed in the circumferential direction, alternate magnetic preferred directions (d-direction) and having directions which have a magnetically high resistance (q-directions), characterised in that the reluctance motor has a frame made from nonmagnetic high-tensile material, in particular steel, which has stream barriers made from high-tensile material and expansion spaces, which are filled with metal foam and thus form magnetic d- and q-axes of the reluctance rotor.
A method operable on a single instruction multiple data, SIMD, processor, the method comprising: receiving an instruction to perform a divergent operation on the SIMD processor; and determining, in response to receiving the instruction to perform a divergent operation on the SIMD processor, a plurality of active threads from a plurality of threads of the SIMD processor; selecting a single active thread from the determined plurality of active threads; and performing the divergent operation on the selected single active thread while all other active threads execute a branch condition. receiving an instruction to perform a divergent operation on the SIMD processor; and determining, in response to receiving the instruction to perform a divergent operation on the SIMD processor, a plurality of active threads from a plurality of threads of the SIMD processor; selecting a single active thread from the determined plurality of active threads; and performing the divergent operation on the selected single active thread while all other active threads execute a branch condition.
A multi-frequency antenna transmission, comprising: a drive gear; a gear train with parallel gear shafts, comprising several transmission gears driven to rotate by the drive gear; screw assemblies each arranged corresponding to a respective transmission gear, wherein each of the screw assemblies comprises a lead screw, a connection member selectively connected to or separated from the lead screw, a stopper connected with the corresponding transmission gear, and a first elastic member disposed between the connection member and the stopper; and a shifter, configured to push one of the stoppers, wherein the multi-frequency antenna transmission is configured such that, when said one of the stoppers is pushed by said shifter, the corresponding first elastic member is compressed between said stopper and its corresponding connection member, and said connection member is connected to its corresponding lead screw. a drive gear; a gear train with parallel gear shafts, comprising several transmission gears driven to rotate by the drive gear; screw assemblies each arranged corresponding to a respective transmission gear, wherein each of the screw assemblies comprises a lead screw, a connection member selectively connected to or separated from the lead screw, a stopper connected with the corresponding transmission gear, and a first elastic member disposed between the connection member and the stopper; and a shifter, configured to push one of the stoppers, wherein the multi-frequency antenna transmission is configured such that, when said one of the stoppers is pushed by said shifter, the corresponding first elastic member is compressed between said stopper and its corresponding connection member, and said connection member is connected to its corresponding lead screw.
An apparatus comprising: (a) an insulated glass unit, IGU, having two or more lites (204; 206), each comprising at least two surfaces (S1, S2, S3, S4) having regions configured for viewing through the IGU, first and second lites of the two or more lites being spaced apart from one another by a spacer (218; 548) to form an interior volume which is filled with gas or evacuated of gas; (b) optionally, a structure connected to the IGU; (c) an electrochromic device disposed on a first surface of the two or more lites; (d) an antenna structure (540; 542) disposed within the interior volume, wherein the antenna structure is formed on a surface of the spacer facing the interior volume; and (e) a ground plane: (i) disposed on a first surface of the IGU, on a second surface of the IGU, on a third surface of the IGU, or, if present in the apparatus, on the structure connected to the IGU, or (ii) comprised of, if present in the apparatus, at least a portion of the structure connected to the IGU, which structure is a conductive framing structure. (a) an insulated glass unit, IGU, having two or more lites (204; 206), each comprising at least two surfaces (S1, S2, S3, S4) having regions configured for viewing through the IGU, first and second lites of the two or more lites being spaced apart from one another by a spacer (218; 548) to form an interior volume which is filled with gas or evacuated of gas; (b) optionally, a structure connected to the IGU; (c) an electrochromic device disposed on a first surface of the two or more lites; (d) an antenna structure (540; 542) disposed within the interior volume, wherein the antenna structure is formed on a surface of the spacer facing the interior volume; and (e) a ground plane: (i) disposed on a first surface of the IGU, on a second surface of the IGU, on a third surface of the IGU, or, if present in the apparatus, on the structure connected to the IGU, or (ii) comprised of, if present in the apparatus, at least a portion of the structure connected to the IGU, which structure is a conductive framing structure. (i) disposed on a first surface of the IGU, on a second surface of the IGU, on a third surface of the IGU, or, if present in the apparatus, on the structure connected to the IGU, or (ii) comprised of, if present in the apparatus, at least a portion of the structure connected to the IGU, which structure is a conductive framing structure.
A high strength steel sheet having a tensile strength of 780 MPa or more, an excellent formability with TS x EL of 22000 MPa·% or more examined in accordance with JIS Z 2241:1998 perpendicular to the rolling direction of the steel sheet, a critical hole-expansion λ of 30% or more examined in accordance with JFST 1001 and stability of mechanical properties of ΔTS/Δ20°C of the annealing temperature of 80 MPa or less, the steel sheet having a composition consisting of, by mass, C: 0.03% or more and 0.25% or less, Si: 0.4% or more and 2.5% or less, Mn: 3.5% or more and 10.0% or less, P: 0.1% or less, S: 0.01% or less, Al: 0.5% or more and 2.5% or less, N: 0.008% or less, Si + Al: 1.0% or more, optionally at least one element selected from Cr: 0.05% or more and 1.0% or less, V: 0.005% or more and 0.5% or less, Mo: 0.005% or more and 0.5% or less, Ni: 0.05% or more and 1.0% or less, Cu: 0.05% or more and 1.0% or less, Ti: 0.01% or more and 0.1% or less, Nb: 0.01% or more and 0.1% or less, B: 0.0003% or more and 0.0050% or less, Ca: 0.001% or more and 0.005% or less and REM: 0.001% or more and 0.005% or less, and the balance being Fe and inevitable impurities, wherein the steel sheet has a steel microstructure comprises an area ratio of ferrite: 30% or more and 80% or less, an area ratio of martensite: 0% or more and 17% or less, a volume fraction of retained austenite: 8% or more, and an average grain size of the retained austenite is 2 μm or less, and an area ratio of tempered martensite: 5% or more.
A method of operating an agricultural vehicle, the method comprising: obtaining, with a computer, three-dimensional location information for multiple positions within an area of operation; creating, with the computer, a three-dimensional elevation model for the area of operation, based at least in part on the three-dimensional location information; developing, with the computer, one or more three-dimensional guidance paths for the operation of the agricultural vehicle within the area of operation, based at least in part on the three-dimensional elevation model; determining, with the computer, whether one or more positions within the area of operation afford reduced traction for the agricultural vehicle based on a combination of slope, soil type, and current rainfall conditions of each of the one or more positions; adjusting, with the computer, the one or more three-dimensional guidance paths for the operation of the agricultural vehicle within the area of operation, based at least in part on a determination that one or more positions within the area of operation afford reduced traction for the agricultural vehicle based on a combination of slope, soil type, and current rainfall conditions of each of the one or more positions; and providing, with the computer, information to a control system of the agricultural vehicle, the information comprising data representing the one or more three-dimensional guidance paths. obtaining, with a computer, three-dimensional location information for multiple positions within an area of operation; creating, with the computer, a three-dimensional elevation model for the area of operation, based at least in part on the three-dimensional location information; developing, with the computer, one or more three-dimensional guidance paths for the operation of the agricultural vehicle within the area of operation, based at least in part on the three-dimensional elevation model; determining, with the computer, whether one or more positions within the area of operation afford reduced traction for the agricultural vehicle based on a combination of slope, soil type, and current rainfall conditions of each of the one or more positions; adjusting, with the computer, the one or more three-dimensional guidance paths for the operation of the agricultural vehicle within the area of operation, based at least in part on a determination that one or more positions within the area of operation afford reduced traction for the agricultural vehicle based on a combination of slope, soil type, and current rainfall conditions of each of the one or more positions; and providing, with the computer, information to a control system of the agricultural vehicle, the information comprising data representing the one or more three-dimensional guidance paths.
A solid projectile without stabilising structure for bird strike tests, characterised in that it comprises more than 20% of glycerol, and preferably between 30% and 40% of glycerol, the projectile also comprising a gelling agent, for example agar, glycerol, microbeads and water, the microbeads having a size lower than 200pm, the projectile comprising: - 2% to 8% of a gelling agent, and preferably 5%, - 30% to 40% of glycerol, and preferably 35%, - 1% to 5% of microbeads, and preferably 3.2%, - at least 47% of water, and preferably 56.8%. - 2% to 8% of a gelling agent, and preferably 5%, - 30% to 40% of glycerol, and preferably 35%, - 1% to 5% of microbeads, and preferably 3.2%, - at least 47% of water, and preferably 56.8%.
A machine arranged for sawing micro trenches and placing ducts/cables in micro trenches, said machine comprising a saw blade arranged for sawing a micro trench in an area; said machine further comprising: - a stabilizing device arranged for stabilizing the walls of said micro trench when placing ducts/cables into said micro trench, said stabilizing device being positioned immediately behind said saw blade in said micro trench, and said stabilizing device comprising guiding means for guiding at least one duct/cable when placed into said micro trench; - at least three wheels for driving said machine, wherein said wheels are individually vertically adjustable so that a height and/or tilting of said machine relative to ground can be controlled; said machine being characterised by a position sensor for each of said wheels, said position sensors being arranged to detect the vertical position of its associated wheel. - a stabilizing device arranged for stabilizing the walls of said micro trench when placing ducts/cables into said micro trench, said stabilizing device being positioned immediately behind said saw blade in said micro trench, and said stabilizing device comprising guiding means for guiding at least one duct/cable when placed into said micro trench; - at least three wheels for driving said machine, wherein said wheels are individually vertically adjustable so that a height and/or tilting of said machine relative to ground can be controlled;
A stent comprising: a plurality of closed ring sections (112, 114); a plurality of generally helical portions, the plurality of closed ring sections (112, 114) and the plurality of generally helical portions being arranged such that one of the generally helical portions is disposed between two closed ring sections (112, 114) and another of the generally helical portions is disposed between two closed ring sections (112, 114), the first and second generally helical portions being separated one from the other by at least one closed ring section (112, 114) and characterized in that each of the plurality of generally helical portions includes at least two side-by-side generally helical paths (116, 122) which extend in the same direction about the longitudinal axis of the stent. a plurality of closed ring sections (112, 114); a plurality of generally helical portions, the plurality of closed ring sections (112, 114) and the plurality of generally helical portions being arranged such that one of the generally helical portions is disposed between two closed ring sections (112, 114) and another of the generally helical portions is disposed between two closed ring sections (112, 114), the first and second generally helical portions being separated one from the other by at least one closed ring section (112, 114) and characterized in that each of the plurality of generally helical portions includes at least two side-by-side generally helical paths (116, 122) which extend in the same direction about the longitudinal axis of the stent.