mhurhangee/ep-ind-claims huggingface dataset:
An H-section steel consisting of, by mass%: C: 0.05% to 0.16%; Si: 0.01% to 0.50%; Mn: 0.80% to 2.00%; Ni: 0.05% to 0.50%; V: 0.01% to 0.20%; Ti: 0.005% to 0.030%; N: 0.0010% to 0.0100%; O: 0.0005% to 0.0100%; Cr: 0% to 0.50%; Cu: 0% to 0.30%; Mo: 0% to 0.30%; W: 0% to 0.50%; Al: limited to 0.005% or less; Nb: limited to 0.010% or less; B: limited to 0.0005% or less; Mg: limited to 0.0003% or less; Ca: limited to 0.0003% or less; S: limited to 0.020% or less; P: limited to 0.03% or less; and a remainder including of Fe and impurities, wherein a carbon equivalent C eq obtained by the following Equation 1 is 0.35% to 0.50%, a density of Ti oxides having a grain size of 0.01 μm to 3.0 μm is 30 pieces/mm 2 or more, a thickness of a flange is 100 mm to 150 mm, at a 1/6 position from a surface of the flange in a length direction and at a 1/4 position from the surface thereof in a thickness direction, an area fraction of bainite is 80% or more, a yield strength or 0.2% proof stress is 450 MPa or more, and a tensile strength is 550 MPa or more, and at a 1/2 position from the surface of the flange in the length direction and at a 3/4 position from the surface thereof in the thickness direction, a Charpy absorbed energy at 21°C is 100 J or more, and an average austenite grain size is 50 μm to 200 μm, C eq = C + Mn / 6 + Cr + Mo + V / 5 + Ni + Cu / 15 here, C, Mn, Cr, Mo, V, Ni, and Cu represent the amount % of each element and the amount of an element not contained is 0%. C: 0.05% to 0.16%; Si: 0.01% to 0.50%; Mn: 0.80% to 2.00%; Ni: 0.05% to 0.50%; V: 0.01% to 0.20%; Ti: 0.005% to 0.030%; N: 0.0010% to 0.0100%; O: 0.0005% to 0.0100%; Cr: 0% to 0.50%; Cu: 0% to 0.30%; Mo: 0% to 0.30%; W: 0% to 0.50%; Al: limited to 0.005% or less; Nb: limited to 0.010% or less; B: limited to 0.0005% or less; Mg: limited to 0.0003% or less; Ca: limited to 0.0003% or less; S: limited to 0.020% or less; P: limited to 0.03% or less; and a remainder including of Fe and impurities, wherein a carbon equivalent C eq obtained by the following Equation 1 is 0.35% to 0.50%, a density of Ti oxides having a grain size of 0.01 μm to 3.0 μm is 30 pieces/mm 2 or more, a thickness of a flange is 100 mm to 150 mm, at a 1/6 position from a surface of the flange in a length direction and at a 1/4 position from the surface thereof in a thickness direction, an area fraction of bainite is 80% or more, a yield strength or 0.2% proof stress is 450 MPa or more, and a tensile strength is 550 MPa or more, and at a 1/2 position from the surface of the flange in the length direction and at a 3/4 position from the surface thereof in the thickness direction, a Charpy absorbed energy at 21°C is 100 J or more, and an average austenite grain size is 50 μm to 200 μm, C eq = C + Mn / 6 + Cr + Mo + V / 5 + Ni + Cu / 15 here, C, Mn, Cr, Mo, V, Ni, and Cu represent the amount % of each element and the amount of an element not contained is 0%.
A base (6, 6') for a cable loop box comprising a cable guide element (10, 10') having an opening for passing an end of a cable loop out of a cable loop box, and a cable holding element (9, 9'), wherein the base is of such a configuration that a cable loop can be accommodated therein in such a way that it is held angled at approximately a right angle between the cable guide element (10, 10') and the cable holding element (9, 9'), wherein the base (6, 6'), the cable guide element (10, 10') and the cable holding element (9, 9') are made in one piece, characterised in that the cable guide element (10, 10') at least portion-wise is of an increased wall thickness, wherein a support portion is formed for a cable portion which is passed out of the cable loop box so that the cable loop can be accommodated in the angled state in the base (6, 6').
A method for transmitting buffer state report, BSR, by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from an evolved node B, ENB, a control message including information indicating a buffer status table to be used in the UE which has a plurality of buffer status tables; and transmitting the BSR, comprising a buffer status value of the UE, to the ENB by using the buffer status table indicated by the control message, wherein buffer status values in each of the plurality of buffer status tables are obtained by logarithmically sampling as many values as a number of the buffer status values between a predetermined minimum value and a predetermined maximum value, and each buffer status value is indicated by an index in the respective buffer status table. receiving, from an evolved node B, ENB, a control message including information indicating a buffer status table to be used in the UE which has a plurality of buffer status tables; and transmitting the BSR, comprising a buffer status value of the UE, to the ENB by using the buffer status table indicated by the control message, wherein buffer status values in each of the plurality of buffer status tables are obtained by logarithmically sampling as many values as a number of the buffer status values between a predetermined minimum value and a predetermined maximum value, and each buffer status value is indicated by an index in the respective buffer status table.
A modular wind turbine blade comprising a first blade module having a first spar cap extending longitudinally in a spanwise direction and a second blade module having a second spar cap extending longitudinally in the spanwise direction, the blade modules being configured for connection end-to-end via their respective spar caps, the first spar cap comprising first and second beams (48a, 50a) arranged side-by-side, each beam having a tapered end (52a, 54a) defining a scarfed surface (56a, 58a), the second spar cap comprising first and second beams (48b, 50b) arranged side-by-side, each beam having a tapered end (52b, 54b) defining a scarfed surface (56b, 58b), characterised in that: the first spar cap has the tapered end of the first beam extending beyond the tapered end of the second beam; the second spar cap has the tapered end of the second beam extending beyond the tapered end of the first beam; wherein the blade modules are configured such that when the modules are connected together the scarfed surfaces of the respective first beams mate to form a first scarf joint and the scarfed surfaces of the respective second beams mate to form a second scarf joint, the first scarf joint being offset from the second scarf joint in the spanwise direction. the first spar cap comprising first and second beams (48a, 50a) arranged side-by-side, each beam having a tapered end (52a, 54a) defining a scarfed surface (56a, 58a), the second spar cap comprising first and second beams (48b, 50b) arranged side-by-side, each beam having a tapered end (52b, 54b) defining a scarfed surface (56b, 58b), characterised in that: the first spar cap has the tapered end of the first beam extending beyond the tapered end of the second beam; the second spar cap has the tapered end of the second beam extending beyond the tapered end of the first beam; wherein the blade modules are configured such that when the modules are connected together the scarfed surfaces of the respective first beams mate to form a first scarf joint and the scarfed surfaces of the respective second beams mate to form a second scarf joint, the first scarf joint being offset from the second scarf joint in the spanwise direction. the first spar cap has the tapered end of the first beam extending beyond the tapered end of the second beam; the second spar cap has the tapered end of the second beam extending beyond the tapered end of the first beam; wherein the blade modules are configured such that when the modules are connected together the scarfed surfaces of the respective first beams mate to form a first scarf joint and the scarfed surfaces of the respective second beams mate to form a second scarf joint, the first scarf joint being offset from the second scarf joint in the spanwise direction.
An obstruction device comprising: a shaft, an obstruction disc mounted on a proximal portion of said shaft, said disc comprising an inner radial portion and an outer radial portion, wherein one or more anchoring members are disposed on a proximal side of said obstruction disc, characterized in that said anchoring members comprise a pair of loops which are orthogonal to each other, one being a longitudinal member and the other a latitudinal member.
A container apparatus comprising: an orifice for passing matter to and from the interior cavity of the container; wherein the container apparatus and a second matching container apparatus include recesses (5, 21) and protrusions (3, 23) such that one recess of the container apparatus and one protrusion of the second matching container apparatus interlock in a first stacking orientation and a second recess of the container apparatus and second protrusion of the second container apparatus interlock in a second stacking orientation which is approximately perpendicular to the first stacking orientation, characterised in that it further comprises three portions including first, second and center portions, the center portion being positioned between the first and second portions and having two center sidewalls; the first portion positioned at a first angle (θ1) with respect to the center portion and having two first sidewalls which face each other; the second portion positioned at a second angle (θ2) with respect to the center portion and having two second sidewalls which face each other; the first and second angles (θ1, θ2) being opposite; another set of sidewalls wherein the two first sidewalls, two second sidewalls and two center sidewalls are spaced apart by the another set of sidewalls; interior faces of the two first sidewalls, the two second sidewalls and the two center sidewalls at least in part defining an interior cavity of the container. an orifice for passing matter to and from the interior cavity of the container; wherein the container apparatus and a second matching container apparatus include recesses (5, 21) and protrusions (3, 23) such that one recess of the container apparatus and one protrusion of the second matching container apparatus interlock in a first stacking orientation and a second recess of the container apparatus and second protrusion of the second container apparatus interlock in a second stacking orientation which is approximately perpendicular to the first stacking orientation, characterised in that it further comprises three portions including first, second and center portions, the center portion being positioned between the first and second portions and having two center sidewalls; the first portion positioned at a first angle (θ1) with respect to the center portion and having two first sidewalls which face each other; the second portion positioned at a second angle (θ2) with respect to the center portion and having two second sidewalls which face each other; the first and second angles (θ1, θ2) being opposite; another set of sidewalls wherein the two first sidewalls, two second sidewalls and two center sidewalls are spaced apart by the another set of sidewalls; interior faces of the two first sidewalls, the two second sidewalls and the two center sidewalls at least in part defining an interior cavity of the container.
Method for determining at least one test position for a test measurement to be recorded by means of a magnetic resonance system, comprising the steps: - recording a test image, - selecting at least one test position (P, P1, P1', P2) on the basis of the test image, wherein the selection of test positions (P, P1, P1', P2) comprises an assignment of test positions (P, P1, P1', P2) to permitted test positions and blocked test positions, according to an assignment function based on intensity values of the test image at test positions (P, P1, P1', P2). - recording a test image, - selecting at least one test position (P, P1, P1', P2) on the basis of the test image,
A method for constructing solid wood houses, wherein the individual planks which form the different building structures are connected by a row of transversely inserted dowels to form a joint; and wherein the wooden planks which form the vertical walls are arranged vertically; wherein the planks (1, 8, 5) are installed individually or in groups in that the lower horizontal structure, which is composed of first planks, is at least partially constructed in a first construction phase and serves as a support for the subsequent vertical structures consisting of second planks, wherein these vertical structures are inserted on the lower structures and are connected for their part by subsequent horizontal upper structures, formed of planks, and/or ultimately in the upper region by the optionally inclined structures which form the roof construction, composed of planks (4, 4a); wherein the individual planks (1, 8, 5) are installed in progressive sequence in that different structures simultaneously, with a difference of at least one plank, relative to the number of planks which form the respective lower structure serving as a support, as an insertion fit or as an anchoring, wherein the possibility exists that the progressive assembly of the different structures, which may also comprise more than one storey and the roof construction, takes place without using metal fastening elements; characterized in that the plug-in connection between the vertical construction elements, composed of the first planks, and the horizontal construction elements, composed of first and third planks (5, 8), is formed in that there is provided on the end regions of the horizontal first planks, in the upper corner region, a rounded transverse groove and then a rounded transverse protrusion arranged in the outermost position; wherein a seat is formed in which the lower end region of the vertical second planks, which form a vertical building structure and are equipped with a corresponding seat consisting of a rounded protrusion (1 y) and a rounded groove (1 x), is inserted; wherein the vertical end part (1 g) of the same second planks completely covers the end face of the first planks, which form the horizontal building structure, and rests on the foundation, and in that, in the case of a horizontal building structure which is inserted between a lower and an upper vertical building structure, the individual third planks which form this structure have on the end regions the same transverse grooves and transverse protrusions on both upper and both lower sides, as a result of which a rounded dovetail is obtained which corresponds to the seat that is provided on the upper end region of the second planks which form the lower structure and corresponds to the seat that is provided on the lower end region of the second planks which form the upper structure; wherein each of the remaining end parts (1 f) of the second planks cover the end face of the inserted planks, which form the horizontal structure, and the end parts (1 f, 1 e) bear directly against one another.
An apparatus for vaporizing a deposition component for thin film deposition on a substrate, the apparatus including a chamber, a mechanism for injecting the deposition component into the chamber, wherein the mechanism for injecting the deposition component into the chamber comprises a passageway through which the deposition component enters the chamber, and a gas inlet through which gas enters the passageway and a deposition component inlet through which the deposition component enters the passageway, the deposition component inlet being positioned downstream of the gas inlet; a liquid source of the deposition component and a capillary tube connecting the liquid source to the passage, wherein the capillary is smaller than 1.0 millimeter in diameter; and wherein the passageway and the capillary are in heat conductive contact such that the deposition component is vaporized in the passageway and in a downstream portion of the capillary; said chamber being held at a sufficiently high temperature to vaporize substantially all the deposition component injected, and a mechanism to hold the vapor in said chamber for subsequent delivery and film formation.
Cosmetic cleansing preparations comprising surfactants, water-soluble constituents in dissolved and crystalline form, wherein the crystalline form is distributed homogeneously and stably in the preparation, wherein the water-soluble constituents are carbohydrates, wherein the carbohydrates are present at a content of 40 to 90% by weight, preferably 50 to 80% by weight, especially preferably 60 to 75% by weight, based on the total weight of the preparation, wherein the carbohydrates are disaccharides, especially sucrose, wherein a polymeric structurant is present selected from the group of copolymers of vinylpyrrolidone and acrylic acid and wherein the preparations have a dynamic viscosity < 80 000 mPa·s, measured with the Rheomat R123, measuring bob 2 at 25°C.
A conjugate of Formula II: X-(L-D) p, wherein X is a cell-binding agent which targets a neoplastic cell; D is, or a pharmaceutically acceptable salt thereof; L is a linker which covalently attaches X to D; and p is an integer from 1 to 15. X is a cell-binding agent which targets a neoplastic cell; D is, or a pharmaceutically acceptable salt thereof; L is a linker which covalently attaches X to D; and p is an integer from 1 to 15.
A system for providing therapy to a tissue site, the system comprising: a light sensor; a motion sensor; a therapy unit including a source of negative pressure; and a controller communicatively coupled to the source of negative pressure, the light sensor, and the motion sensor, the controller configured to: receive a first signal from the light sensor indicative of ambient light, receive a second signal from the motion sensor indicative of activity, activate an alert based on the first signal and the second signal, and adjust an alert threshold based on the first signal and the second signal. a light sensor; a motion sensor; a therapy unit including a source of negative pressure; and a controller communicatively coupled to the source of negative pressure, the light sensor, and the motion sensor, the controller configured to: receive a first signal from the light sensor indicative of ambient light, receive a second signal from the motion sensor indicative of activity, activate an alert based on the first signal and the second signal, and adjust an alert threshold based on the first signal and the second signal. receive a first signal from the light sensor indicative of ambient light, receive a second signal from the motion sensor indicative of activity, activate an alert based on the first signal and the second signal, and adjust an alert threshold based on the first signal and the second signal.
A method comprising: receiving a bitstream including a prediction block and a residual block with coefficients transformed by a Spatial Varying Transform, SVT, wherein the SVT is a process that applies a transform block to only a portion of residual data in the residual block and leaves other data untransformed; determining a type of SVT block employed to transform the coefficients in the residual block; determining a position of the SVT block relative to the residual block by determining a candidate position step size and a position index for the SVT block; applying an inverse transform to the coefficients based on the SVT block type and position to create a reconstructed residual block; applying the reconstructed residual block to the prediction block to reconstruct a video block; and reconstructing a video sequence for display, the video sequence including a video frame that includes the reconstructed video block; characterized in that the type of the SVT block is determined based on the sum of the first sixteen coefficients of the SVT block in a scan order, and the position index is determined based on the sum of the rest coefficients of the SVT block, and the position index is determined according to: P = St % Nt, where P is the position index, St is the sum of the rest coefficients of the SVT block, Nt is the number of candidate positions for the SVT block, and % denotes a modulo operation which returns a remainder after division of St by Nt. receiving a bitstream including a prediction block and a residual block with coefficients transformed by a Spatial Varying Transform, SVT, wherein the SVT is a process that applies a transform block to only a portion of residual data in the residual block and leaves other data untransformed; determining a type of SVT block employed to transform the coefficients in the residual block; determining a position of the SVT block relative to the residual block by determining a candidate position step size and a position index for the SVT block; applying an inverse transform to the coefficients based on the SVT block type and position to create a reconstructed residual block; applying the reconstructed residual block to the prediction block to reconstruct a video block; and reconstructing a video sequence for display, the video sequence including a video frame that includes the reconstructed video block; characterized in that the type of the SVT block is determined based on the sum of the first sixteen coefficients of the SVT block in a scan order, and the position index is determined based on the sum of the rest coefficients of the SVT block, and the position index is determined according to: P = St % Nt, where P is the position index, St is the sum of the rest coefficients of the SVT block, Nt is the number of candidate positions for the SVT block, and % denotes a modulo operation which returns a remainder after division of St by Nt.
A neuromuscular toxin for use in treating an abnormality of the first metatarsophalangeal joint of a foot of a mammal, wherein the neuromuscular toxin is injected into the extensor hallucis brevis muscle of the foot affected by the abnormality in the mammal, wherein the neuromuscular toxin is a botulinum toxin, and wherein the abnormality is hallux abductovalgus.
Method for aligning panel shaped workpieces, more particularly of wood or wood substitutes, on a conveying device of a processing machine wherein a workpiece is conveyed by the conveying device along a conveying direction, wherein a manipulation device engages on the workpiece in such a manner that through relative movement between the conveying device and the workpiece the workpiece executes a rotational movement about a preferably vertical axis of rotation characterised in that the workpiece is aligned initially without contact with an alignment element through a first rotational movement about the axis of rotation towards an equilibrium position and then by bringing the workpiece into contact with the alignment element a further rotational movement is produced wherein the further rotational movement in the opposite direction of rotation leads away from the equilibrium position of the first rotational movement achieved without contact with the alignment element.
Fastening element for connecting a first component to a second component, the first and the second components being manufactured from different materials, the fastening element being manufactured from a sheet-metal strip, characterized in that the fastening element has at least two fastening clips which lie in a common plane, the fastening element having between said fastening clips an elastic bend for compensating changes in length between the two fastening clips and a fastening point for the second component, and an identical further bend is provided on the side of the fastening point which lies opposite the bend and inward of the fastening clip which is situated on said side.