mhurhangee/ep-ind-claims huggingface dataset:
A BNP assay standard set comprising a plurality of standards, each containing BNP-32 and proBNP, wherein the mole ratio BNP-32/proBNP differs among the standards; and when the standard at a high mole ratio and the standard at a low mole ratio are compared with each other, the standard at a high mole ratio has a lower BNP concentration that is the sum value of BNP-32 and proBNP concentrations than the standard at a low mole ratio; and wherein the set comprises at least two standards, wherein the mole ratio BNP-32/proBNP of a first standard is from 40/60 to 60/40, and the mole ratio BNP-32/proBNP of a second standard is from 15/85 to 35/65; and wherein the first standard has a BNP concentration of from 20 to 75 pg/mL and the second standard has a BNP concentration of from 150 to 300 pg/mL. wherein the set comprises at least two standards, wherein the mole ratio BNP-32/proBNP of a first standard is from 40/60 to 60/40, and the mole ratio BNP-32/proBNP of a second standard is from 15/85 to 35/65; and wherein the first standard has a BNP concentration of from 20 to 75 pg/mL and the second standard has a BNP concentration of from 150 to 300 pg/mL.
Magnetically biased choke with the following features: - a magnetic circuit with at least one stack of several soft magnet segments, of which at least some are arranged spaced apart from each other, - a coil wound around the stack, - at least two permanent magnet segments are inserted in the stack, - at least one soft magnet segment is arranged between the at least two permanent magnet segments, - the stack has a stack direction which is oriented from a yoke to another opposing yoke of the magnetic circuit, and - the coil has a coil axis which is arranged parallel to the stack direction, characterised in that the stack is provided with a tubular sheath such that the top side of a top soft magnet segment of the stack and the underside of a bottom soft magnet segment of the stack remain clear in order to lie directly on the yokes (10a, 10d) of the magnetic circuit. - a magnetic circuit with at least one stack of several soft magnet segments, of which at least some are arranged spaced apart from each other, - a coil wound around the stack, - at least two permanent magnet segments are inserted in the stack, - at least one soft magnet segment is arranged between the at least two permanent magnet segments, - the stack has a stack direction which is oriented from a yoke to another opposing yoke of the magnetic circuit, and - the coil has a coil axis which is arranged parallel to the stack direction,
A top mount self-locking mechanism for toilets, wherein the top mount self-locking mechanism comprises an outer cylinder, a limiting clamp spring, a rotating shaft and a positioning sleeve; the limiting clamp spring is arranged in the outer cylinder in a sleeved mode, the rotating shaft is arranged at an axis part of the outer cylinder, and the positioning sleeve is arranged on the rotating shaft in a sleeving mode and moves along with the rotating shaft, wherein the limiting clamp spring is annular and comprises a first convex rib and a second convex rib, and the first convex rib and the second convex rib face the rotating shaft and are arranged on a longitudinal position of the limiting clamp spring; and shifting pieces are arranged on an outer side of the positioning sleeve and located between the first convex rib and the second convex rib.
A cocrystal of 6-ethyl-N-[1-(hydroxyacetyl)piperidin-4-yl]-1-methyl-4-oxo-5-(2-oxo-2-phenylethyl)-3-(2,2,2-trifluoroethoxy)-4,5-dihydro-1H-pyrrolo[3,2-c]pyridine-2-carboxamide and L-malic acid or L-tartaric acid.
A method of contentions mitigation for an operational application implemented by an embedded platform, the embedded platform comprising a plurality of cores (12-1,..., 12-N) and a plurality of shared resources (14-1,..., 14-M), each core (12-1,..., 12-N) being able to execute at least one application using one or more shared resources (14-1,..., 14-M) via an access channel established between this core (12-1,..., 12-N) and the corresponding shared resource (14-1,..., 14-M) allowing the use of this shared resource (14-1,..., 14-M); the mitigation method comprising the following steps: - executing the operational application by one of the cores (12-1,..., 12-N) of the embedded platform; - executing a stressor application on at least some other cores (12-1,..., 12-N) of the embedded platform in parallel with the operational application, the stressor application being composed of a set of contention tasks, each contention task generating a maximum contention on an interference channel, the or each interference channel having a portion shared between several access channels to a same shared resource; - determining contentions generated by the stressor application on the operational application. - executing the operational application by one of the cores (12-1,..., 12-N) of the embedded platform; - executing a stressor application on at least some other cores (12-1,..., 12-N) of the embedded platform in parallel with the operational application, the stressor application being composed of a set of contention tasks, each contention task generating a maximum contention on an interference channel, the or each interference channel having a portion shared between several access channels to a same shared resource; - determining contentions generated by the stressor application on the operational application.
A cell, comprising a polynucleotide that encodes a chimeric protein comprising a multimerization region and a modified caspase-9 polypeptide, wherein the modified caspase-9 polypeptide comprises an amino acid sequence having at least 90% sequence identity to SEQ ID NO: 9, and comprises an amino acid substitution selected from the group consisting of S144A, S144D, Y153A, Y153F, S183A, S195A, S196A, S196D, S307A, D315A, A316G, T317A, T317S, F319W, L329E, D330A, D330E, D330G, D330N, D330S, D330V, F404T, F404W, F404Y, N405F, N405Q, F406A, F406T, F406W, and F406Y.
An assembly comprising: - a radial piston hydraulic motor, comprising a stationary casing, - a shaft, which can be driven in rotation by the hydraulic motor, - a wheel hub comprising a hub barrel that engages on the shaft, - a bearing, - a bearing support, wherein: - the bearing is housed between the hub barrel and the bearing support of the hydraulic motor, - the bearing support is part of the casing so that the bearing function is performed by the casing, the shaft carrying only its own weight and having only a torque function. - a radial piston hydraulic motor, comprising a stationary casing, - a shaft, which can be driven in rotation by the hydraulic motor, - a wheel hub comprising a hub barrel that engages on the shaft, - a bearing, - a bearing support, - the bearing is housed between the hub barrel and the bearing support of the hydraulic motor, - the bearing support is part of the casing so that the bearing function is performed by the casing, the shaft carrying only its own weight and having only a torque function.
A grinding machine for a granular food such as coffee or spices with a vertical or horizontal rotation axis comprising: - an upper or rear motorized grinding disc configured to rotate in use at a first non-zero speed; - a lower or front motorized grinding disc facing the upper or rear disk and configured to rotate in use at a second non-zero speed different from the first speed; where the discs: • have respective frontal facing teeth; • receive coffee or spices, or any other granular product, in a radially internal position; • expel ground coffee or spices, or any other granular product, through a radially external opening; and characterized in that a grinding machine further comprising electric or electronic drives, respectively including at least two electric motors or at least two electric motors controlled by two separate inverters, configured to respectively and independently adjust the speeds of the discs (4, 5) also during grinding. - an upper or rear motorized grinding disc configured to rotate in use at a first non-zero speed; - a lower or front motorized grinding disc facing the upper or rear disk and configured to rotate in use at a second non-zero speed different from the first speed; where the discs: • have respective frontal facing teeth; • receive coffee or spices, or any other granular product, in a radially internal position; • expel ground coffee or spices, or any other granular product, through a radially external opening; and characterized in that a grinding machine further comprising electric or electronic drives, respectively including at least two electric motors or at least two electric motors controlled by two separate inverters, configured to respectively and independently adjust the speeds of the discs (4, 5) also during grinding. • have respective frontal facing teeth; • receive coffee or spices, or any other granular product, in a radially internal position; • expel ground coffee or spices, or any other granular product, through a radially external opening; and
A defrost structure for a vehicle headlight (1; 200; 300), comprising: a light-emitting diode serving as a light source arranged in a housing; a heat sink (20; 50; 60) comprising a base plate (21; 51; 61) and a plurality of fins (22; 52; 62) being erected vertically on the base plate (21; 51; 61); a heat pipe (40, 41) thermally connecting the light-emitting diode to the heat sink (20; 50; 60); a reflector that is disposed in front of the heat sink (20; 50; 60) and that is curved forward from a lower end to an upper end to shroud the light-emitting diode from above; and an air flow channel that allows air warmed by the fins (22; 52; 62) to flow toward an inner surface of a lens hermetically closing a front opening of the housing through between an upper end of the reflector and a top plate of the housing; characterized in that the base plate (21; 51; 61) is attached to a rear opening of the housing to close the housing hermetically, and the plurality of fins (22; 52; 62) protrude forward in the housing; a front side of each of the fins (22; 52; 62) is individually contoured to a rear surface of the reflector, and an upper side of each of the fins (22; 52; 62) is individually aligned with the upper end of the reflector to serve as the air flow channel; and a surface area of an upper portion of each of the fins (22; 52; 62) is larger than that of a lower portion thereof. a light-emitting diode serving as a light source arranged in a housing; a heat sink (20; 50; 60) comprising a base plate (21; 51; 61) and a plurality of fins (22; 52; 62) being erected vertically on the base plate (21; 51; 61); a heat pipe (40, 41) thermally connecting the light-emitting diode to the heat sink (20; 50; 60); a reflector that is disposed in front of the heat sink (20; 50; 60) and that is curved forward from a lower end to an upper end to shroud the light-emitting diode from above; and an air flow channel that allows air warmed by the fins (22; 52; 62) to flow toward an inner surface of a lens hermetically closing a front opening of the housing through between an upper end of the reflector and a top plate of the housing;
Air-conducting housing for a heating and/or air conditioning system, in particular for a heating and/or air conditioning system for vehicles, with at least one air inlet and/or intake opening on the housing side, wherein at least one valve element is arranged in at least one wall of the housing and is formed such that in a defined normal operating state it closes an additional air opening present in addition to the at least one inlet and/or intake opening, and under defined conditions of flow and/or pressure in the housing which differ from the normal operating state it opens and clears the associated additional air opening, characterized in that the at least one valve element is arranged in a wall region of the housing opposite the inlet and/or intake opening such that the inflowing air hits the valve element and impacts and/or pretensions this at least by way of support in the direction of its closed position.
A bus bar (2; 202) used for electrical connection, comprising: a bus bar center conductor, characterized by a plurality of bus bar insulators (22, 24; 227) and a plurality of bus bar conductors (23, 25) provided on an outside of the bus bar center conductor, and alternately arranged from inside to outside in a radial direction orthogonal to an axial direction of the bus bar center conductor; wherein the bus bar center conductor, the bus bar insulators (22, 24) and the bus bar conductors (23, 25) are coaxially mounted, and wherein on the bus bar conductor (23, 25) in a cross section viewed from the axial direction, an opening (230, 250) is formed across the entire bus bar conductor (23, 25) in the axial direction. a bus bar center conductor, characterized by a plurality of bus bar insulators (22, 24; 227) and a plurality of bus bar conductors (23, 25) provided on an outside of the bus bar center conductor, and alternately arranged from inside to outside in a radial direction orthogonal to an axial direction of the bus bar center conductor; wherein the bus bar center conductor, the bus bar insulators (22, 24) and the bus bar conductors (23, 25) are coaxially mounted, and wherein on the bus bar conductor (23, 25) in a cross section viewed from the axial direction, an opening (230, 250) is formed across the entire bus bar conductor (23, 25) in the axial direction.
Device intended for the renovation of a building, device comprising a set of ducts (3, 4-6, 11-14) for fluids constituted by a temperature maintenance duct and ducts to supply other fluids (4-6, 11-14) as well as a device to attach said ducts (3, 4-6, 11-14) onto the outer façade of the building, said attachment device comprising a receiver plate attached at a distance on the outer façade by means of mounting studs, the plate being equipped on either side by inner and outer mounting studs (9, 10) spaced at a distance from one another to receive on the inner side the temperature maintenance duct and on the outer side the ducts (4-6, 11-14) to supply other fluids.
An optical assembly comprising: a mounting board; a plurality of LEDs coupled to said mounting board; and a plurality of optic components coupled to said mounting board and enclosing said LEDs; characterized in a plurality of shield members (18, 118, 218) with one shield member (18, 118, 218) associated with each optic component and including flame resistant material having a first surface in contact with said mounting board and a second surface in contact with said optic component. a mounting board; a plurality of LEDs coupled to said mounting board; and a plurality of optic components coupled to said mounting board and enclosing said LEDs; characterized in a plurality of shield members (18, 118, 218) with one shield member (18, 118, 218) associated with each optic component and including flame resistant material having a first surface in contact with said mounting board and a second surface in contact with said optic component.
Window or door or façade element having a frame consisting of a plurality of frame profiles which are made of plastic and are mitered at the corners of the frame and are welded to one another and furthermore have a rebate region into which a surface element, in particular an insulating glass pane, is inserted, wherein the rebate region of the frame has at least one barrier element or a circumferential arrangement of the barrier elements, wherein the barrier element is provided with one or more slots, characterized in that a) the barrier element is materially bonded to a rebate region or a block profile arrangement of the frame, which is inserted into the rebate region of the frame, b) the materially bonded connection between the rebate region and the barrier element is realized by co-extrusion or post-co-extrusion of the rebate region or of the block profile arrangement and of the barrier element, c) the slots are introduced with a cutting or milling tool, d) the slots extend from the inside to the outside onto the frame profiles, and e) the width of the slots is dimensioned such that, on the one hand, the diffusion of water vapor through the barrier element is enabled in a non-sealing manner and, on the other hand, a locking bolt is provided with respect to the adhesive layer in the rebate region of the sash frame profile. a) the barrier element is materially bonded to a rebate region or a block profile arrangement of the frame, which is inserted into the rebate region of the frame, b) the materially bonded connection between the rebate region and the barrier element is realized by co-extrusion or post-co-extrusion of the rebate region or of the block profile arrangement and of the barrier element, c) the slots are introduced with a cutting or milling tool, d) the slots extend from the inside to the outside onto the frame profiles, and e) the width of the slots is dimensioned such that, on the one hand, the diffusion of water vapor through the barrier element is enabled in a non-sealing manner and, on the other hand, a locking bolt is provided with respect to the adhesive layer in the rebate region of the sash frame profile.
A method of thinning silicon comprising structures to a predetermined thickness for providing a wafer structure (400, 407) comprising: a bonding phase for bonding a simple silicon wafer (401, 402, 407) on a top surface of a handle wafer, the silicon in the simple silicon wafer having at least one of,, or (hkl) -oriented phases as straight or tilted from said oriented phases, or in other low index orientation, wherein indexes h, k, l can be up to 5 and the top surface of the handle wafer defining at least one cavity, a first thinning phase for thinning the simple silicon wafer bonded to the top surface of the handle wafer by polishing, and a second thinning phase for thinning the polished simple silicon wafer (402, 407) bonded to the top surface of the handle wafer by etching so that the polished and then etched simple silicon wafer defines a membrane that covers the top surface of the handle wafer, comprising the cavity, the membrane having a uniform membrane thickness above the top surface of the handle wafer, wherein the second thinning phase comprises etching by using an etchant mixture comprising an alkaline solution for etching silicon. a bonding phase for bonding a simple silicon wafer (401, 402, 407) on a top surface of a handle wafer, the silicon in the simple silicon wafer having at least one of,, or (hkl) -oriented phases as straight or tilted from said oriented phases, or in other low index orientation, wherein indexes h, k, l can be up to 5 and the top surface of the handle wafer defining at least one cavity, a first thinning phase for thinning the simple silicon wafer bonded to the top surface of the handle wafer by polishing, and a second thinning phase for thinning the polished simple silicon wafer (402, 407) bonded to the top surface of the handle wafer by etching so that the polished and then etched simple silicon wafer defines a membrane that covers the top surface of the handle wafer, comprising the cavity, the membrane having a uniform membrane thickness above the top surface of the handle wafer, wherein the second thinning phase comprises etching by using an etchant mixture comprising an alkaline solution for etching silicon.
An ultra-stable rare earth type Y molecular sieve, characterized in that the molecular sieve comprises 1% to 20% by weight of rare earth oxide and not more than 1.2% by weight of sodium oxide, and has a crystallinity of 51% to 69% and a lattice parameter of 2.449 nm to 2.469 nm; the preparation process of the molecular sieve including a rare earth exchange and a dispersing pre-exchange, wherein the order of the rare earth exchange and the dispersing pre-exchange is not limited, and the rare earth exchange and the dispersing pre-exchange are consecutively conducted without a calcination process therebetween; wherein the dispersing pre-exchange refers to a process of adjusting the molecular sieve slurry's concentration to a solid content of 80 to 400 g/L and adding 0.2% to 7% by weight of a dispersing agent to carry out dispersing pre-exchange at an exchange temperature of 0 to 100°C for 0.1 to 1.5 h; the dispersing agent in the dispersing pre-exchange process is selected from one or more of sesbania gum powder, boric acid, urea, ethanol, polyacrylamide, acetic acid, oxalic acid, adipic acid, formic acid, hydrochloric acid, nitric acid, citric acid, salicylic acid, tartaric acid, benzoic acid, and starch; no ammonium salt is used in the rare earth exchange or the dispersing pre-exchange.
A clamp for holding elongated tubular bodies, comprising: a clamp main body including a plurality of concave members forming a cylindrical body by combining together, and a fixing device provided in any one of the plurality of concave members for fixing the clamp to an attachment object; and an approximately arc-shaped buffer member disposed on an inner circumferential side of each concave member, wherein on the side surface of each buffer member facing the concave member, a pair of leg portions is formed to bulge out, and on the opposite side surface of each buffer member, an approximately concave-shaped holding surface is provided, characterized in that each buffer member includes a pair of projections provided to extend toward the sides opposite to the concave members from inner bottom surfaces of the leg portions toward inner circumferential sides of the holding surfaces, wherein the projections are formed to protrude from imaginary inner circumferential surfaces of the approximately concave-shaped holding surfaces, wherein, in use, the projections and the holding surfaces of each buffer member abut independently from each other against the elongated tubular body to be held, so as to be capable of reliably holding elongated tubular bodies having various diameters. a clamp main body including a plurality of concave members forming a cylindrical body by combining together, and a fixing device provided in any one of the plurality of concave members for fixing the clamp to an attachment object; and an approximately arc-shaped buffer member disposed on an inner circumferential side of each concave member, wherein on the side surface of each buffer member facing the concave member, a pair of leg portions is formed to bulge out, and on the opposite side surface of each buffer member, an approximately concave-shaped holding surface is provided, characterized in that each buffer member includes a pair of projections provided to extend toward the sides opposite to the concave members from inner bottom surfaces of the leg portions toward inner circumferential sides of the holding surfaces, wherein the projections are formed to protrude from imaginary inner circumferential surfaces of the approximately concave-shaped holding surfaces, wherein, in use, the projections and the holding surfaces of each buffer member abut independently from each other against the elongated tubular body to be held, so as to be capable of reliably holding elongated tubular bodies having various diameters.