mhurhangee/ep-ind-claims huggingface dataset:
A drilling machine comprising: a body unit having a drive control circuit therein; a drilling drive unit having a motor for rotationally driving a drilling tool, the drilling drive unit being vertically movably attached to the body unit; and a lead wire extending from the motor to the drive control circuit; wherein a lead wire passage is formed between the body unit and the drilling drive unit to allow the lead wire to run therethrough in a vertical direction; the body unit having a lead wire housing part communicating with the lead wire passage, and a holding part holding a part of the lead wire in the body unit, the lead wire housing part being inside the body unit; the lead wire being routed to extend from the motor downward into the lead wire housing part through the lead wire passage and curved and directed upward in the lead wire housing part to lead to the drive control circuit, with an upwardly directed portion of the lead wire held by the holding part; wherein, when the drilling drive unit moves upward relative to the body unit, a part of the lead wire is paid out upward from the lead wire housing part into the lead wire passage, and the curved portion of the lead wire moves upward in the lead wire housing part, whereas, when the drilling drive unit moves downward relative to the body unit, a part of the lead wire is paid out downward from the lead wire passage into the lead wire housing part, and the curved portion moves downward in the lead wire housing part. a body unit having a drive control circuit therein; a drilling drive unit having a motor for rotationally driving a drilling tool, the drilling drive unit being vertically movably attached to the body unit; and a lead wire extending from the motor to the drive control circuit; wherein a lead wire passage is formed between the body unit and the drilling drive unit to allow the lead wire to run therethrough in a vertical direction; the body unit having a lead wire housing part communicating with the lead wire passage, and a holding part holding a part of the lead wire in the body unit, the lead wire housing part being inside the body unit; the lead wire being routed to extend from the motor downward into the lead wire housing part through the lead wire passage and curved and directed upward in the lead wire housing part to lead to the drive control circuit, with an upwardly directed portion of the lead wire held by the holding part; wherein, when the drilling drive unit moves upward relative to the body unit, a part of the lead wire is paid out upward from the lead wire housing part into the lead wire passage, and the curved portion of the lead wire moves upward in the lead wire housing part, whereas, when the drilling drive unit moves downward relative to the body unit, a part of the lead wire is paid out downward from the lead wire passage into the lead wire housing part, and the curved portion moves downward in the lead wire housing part.
A soluble fibrous structure comprising a plurality of filaments wherein at least one of the filaments comprises one or more filament-forming materials and one or more active agents that are releasable from the filament when exposed to conditions of intended use, the soluble fibrous structure further comprises one or more apertures such that the soluble fibrous structure exhibits a Basis Weight Index Ratio of less than 1 as measured according to the Aperture Parameter Test Method as described in the description; and wherein two or more of the apertures are spaced apart from one another at a distance of from 0.2 mm to 100 mm.
A high-voltage power electronics system in the form of a switchgear, a high voltage direct current, HVDC, system and/or a Flexible Alternating Current Transmission System, FACTS, said system comprising: one or more power equipment devices (12a-b); a power equipment controller; an enclosure housing the one or more power equipment devices (12a-b); at least one RF, radio frequency, module (3, 3a-b) provided outside the enclosure and comprising circuitry for processing RF transmission signals based on signals provided from the power equipment controller, and for processing received RF signals transmitted from at least one of the one or more power equipment devices (12a-b) to provide signals to the power equipment controller; an RF splitter connected to the at least one RF module (3, 3a-b), the RF splitter being configured to split RF transmission signals received from the at least one RF module (3, 3a-b) to several corresponding RF antenna signals all containing the same RF signals, and a plurality of antennas (6a-f) provided inside the enclosure and configured to transmit each one of the RF antenna signals to at least one of the one or more power equipment devices (12a-b). one or more power equipment devices (12a-b); a power equipment controller; an enclosure housing the one or more power equipment devices (12a-b); at least one RF, radio frequency, module (3, 3a-b) provided outside the enclosure and comprising circuitry for processing RF transmission signals based on signals provided from the power equipment controller, and for processing received RF signals transmitted from at least one of the one or more power equipment devices (12a-b) to provide signals to the power equipment controller; an RF splitter connected to the at least one RF module (3, 3a-b), the RF splitter being configured to split RF transmission signals received from the at least one RF module (3, 3a-b) to several corresponding RF antenna signals all containing the same RF signals, and a plurality of antennas (6a-f) provided inside the enclosure and configured to transmit each one of the RF antenna signals to at least one of the one or more power equipment devices (12a-b).
A method for characterising a plasma cell associated disease in a patient comprising: (i) providing at least one sample from the patient; (ii) determining in the sample(s) two or more of; (a) the κ:λ free light chain ratio; (b) the ratio of κ light chains bound to a class of heavy chain: λ light chain bound to the same class of heavy chain (HLC κ: HLC λ ratio); (c) the total amount of FLC in the samples and (d) the total amount of κ light chains bound to the heavy chain class plus λ light chains bound to the same heavy chain class (total HLC); (iii) comparing each ratio or amount from (a) (b), (c) and/or (d) to predetermined values and assigning a score to each amount or ratio; and (iv) using the scores to characterise the plasma cell associated disease. (i) providing at least one sample from the patient; (ii) determining in the sample(s) two or more of; (a) the κ:λ free light chain ratio; (b) the ratio of κ light chains bound to a class of heavy chain: λ light chain bound to the same class of heavy chain (HLC κ: HLC λ ratio); (c) the total amount of FLC in the samples and (d) the total amount of κ light chains bound to the heavy chain class plus λ light chains bound to the same heavy chain class (total HLC); (a) the κ:λ free light chain ratio; (b) the ratio of κ light chains bound to a class of heavy chain: λ light chain bound to the same class of heavy chain (HLC κ: HLC λ ratio); (c) the total amount of FLC in the samples and (d) the total amount of κ light chains bound to the heavy chain class plus λ light chains bound to the same heavy chain class (total HLC); (iii) comparing each ratio or amount from (a) (b), (c) and/or (d) to predetermined values and assigning a score to each amount or ratio; and (iv) using the scores to characterise the plasma cell associated disease.
A detector element for a digital imaging system, the detector element comprising: at least one top electrode metal-semiconductor-metal detector; and at least one bottom electrode MSM detector; characterized in that said at least one top electrode MSM detector and said at least one bottom electrode MSM detector share a common semiconducting layer. at least one top electrode metal-semiconductor-metal detector; and at least one bottom electrode MSM detector; characterized in that said at least one top electrode MSM detector and said at least one bottom electrode MSM detector share a common semiconducting layer.
A high float bullet adapter, comprising: at least one high float bullet subassembly (300, 800) having, an inner contact (302, 820); an insulator (304, 802) supporting said inner contact (302, 820); and an outer ground body (306, 810) holding said inner contact (302, 820) and said insulator (304, 802), wherein an end (308, 806) of said insulator (304, 802) extends beyond said inner contact (302, 820) and said outer ground body (306, 810), said end (308, 806) of said insulator having a lead-in geometry, characterised in that said lead-in geometry comprises a square-based pyramid shaped lead-in geometry. at least one high float bullet subassembly (300, 800) having, an inner contact (302, 820); an insulator (304, 802) supporting said inner contact (302, 820); and an outer ground body (306, 810) holding said inner contact (302, 820) and said insulator (304, 802), wherein an end (308, 806) of said insulator (304, 802) extends beyond said inner an inner contact (302, 820); an insulator (304, 802) supporting said inner contact (302, 820); and an outer ground body (306, 810) holding said inner contact (302, 820) and said insulator (304, 802), wherein an end (308, 806) of said insulator (304, 802) extends beyond said inner contact (302, 820) and said outer ground body (306, 810), said end (308, 806) of said insulator having a lead-in geometry, characterised in that said lead-in geometry comprises a square-based pyramid shaped lead-in geometry.
Electrical installation, in particular a transformer, phase shifter or inductor, comprising a fluid-filled tank having side walls, characterised in that, for protection against the effect of bullets and/or fragments, - the side walls are so formed as to be penetrationinhibiting and made of a material having a tensile strength R m greater than 1000 MPa. - the side walls are so formed as to be penetrationinhibiting and made of a material having a tensile strength R m greater than 1000 MPa.
An internal combustion engine lubricating composition comprising: oil of lubricating viscosity comprising at least 50 weight percent of a Group III base oil, a Group IV base oil, or combinations thereof; a boron-containing polyisobutenyl succinimide dispersant, wherein the boron-containing polyisobutenyl succinimide dispersant has a number average molecular weight of from 1750 to 2200 and is present in the lubricating composition in an amount of from 0.2 to 2.1 wt%; a boron-free polyisobutenyl succinimide dispersant, wherein the boron-free polyisobutenyl succinimide dispersant has a number average molecular weight of from 750 to 2500 and is present in the lubricating composition in an amount of from 0.5 to 6.5 wt %; an overbased magnesium-based detergent in an amount to deliver at least 400 ppm magnesium to the lubricating composition; an overbased calcium-based detergent in an amount to deliver 400 to 1200 ppm calcium to the lubricating composition; and a molybdenum-containing material, wherein the molybdenum-containing material is a molybdenum dithiocarbamate complex, a molybdenum dithiocarbamate dimer complex, or a tri-nuclear molybdenum compound, and is present in an amount to provide 40 to 1200 ppm by weight molybdenum to the lubricating composition. oil of lubricating viscosity comprising at least 50 weight percent of a Group III base oil, a Group IV base oil, or combinations thereof; a boron-containing polyisobutenyl succinimide dispersant, wherein the boron-containing polyisobutenyl succinimide dispersant has a number average molecular weight of from 1750 to 2200 and is present in the lubricating composition in an amount of from 0.2 to 2.1 wt%; a boron-free polyisobutenyl succinimide dispersant, wherein the boron-free polyisobutenyl succinimide dispersant has a number average molecular weight of from 750 to 2500 and is present in the lubricating composition in an amount of from 0.5 to 6.5 wt %; an overbased magnesium-based detergent in an amount to deliver at least 400 ppm magnesium to the lubricating composition; an overbased calcium-based detergent in an amount to deliver 400 to 1200 ppm calcium to the lubricating composition; and a molybdenum-containing material, wherein the molybdenum-containing material is a molybdenum dithiocarbamate complex, a molybdenum dithiocarbamate dimer complex, or a tri-nuclear molybdenum compound, and is present in an amount to provide 40 to 1200 ppm by weight molybdenum to the lubricating composition.
A computer-implemented method for performing a fuzzy full text search, comprising: receiving search terms; querying an inverted token next valid character tree with the received search terms to explore paths of the inverted token next valid character tree, wherein each path through the tree from the root node to a leaf node defines a token and at least one document identifier for the token is stored at the leaf node of the path, each document identifier associated with a document containing the token; computing, for each received search term, a document error list comprising an entry for each leaf node reached during querying, each entry including the at least one document identifier stored at the respective leaf node and an error distance between the search term and the respective token; comparing the document error lists to identify common document identifiers within a threshold error distance; adding the common document identifiers to a result set; and providing the result set of document identifiers. receiving search terms; querying an inverted token next valid character tree with the received search terms to explore paths of the inverted token next valid character tree, wherein each path through the tree from the root node to a leaf node defines a token and at least one document identifier for the token is stored at the leaf node of the path, each document identifier associated with a document containing the token; computing, for each received search term, a document error list comprising an entry for each leaf node reached during querying, each entry including the at least one document identifier stored at the respective leaf node and an error distance between the search term and the respective token; comparing the document error lists to identify common document identifiers within a threshold error distance; adding the common document identifiers to a result set; and providing the result set of document identifiers.
Loading system for loading packaged items, with a removal device (12; 12) for removing packaged items which are made available in a storage facility (16; 16a), a buffer device (26; 26a) which is provided to buffer the removed packaged items, and a dispensing device (28; 28a), by means of which buffered packaged items are drawn from the buffer device (26; 26a) in accordance with a loading request and a processing unit (30; 30a) processing the packaged items in order to complete the loading request, wherein the buffer device (26; 26a) has a set of collecting conveyors (34; 34a), on which the buffered packaged items can be collected in accordance with a specific loading request, characterised in that a conveyor unit (36; 36a), which conveys the packaged items removed from the storage facility (12; 12a) with no order on the collecting conveyor (34; 34a).
A gripper device for transporting a munition comprising a support movably mounted along the longitudinal direction of the munition, said support comprising feet delimiting a space intended to receive the munition, characterized in that said feet are movably mounted in a plane perpendicular to the direction of forward travel of the support and configured so as to adopt, during use, a position referred to as locking position, wherein the feet are fixed and able to clasp the periphery of the munition, and a position referred to as unlocking position, wherein the feet are free to move in the plane perpendicular to the direction of forward travel of the support so as to allow the passage of the whole of the munition in its longitudinal direction, the space delimited by the feet having a circular section with a diameter increasing in a direction from the head to the base of the munition intended to be received in the feet.
A pipe joint comprising: an inserting pipe portion; a receiving pipe portion to which the inserting pipe portion is inserted and connected along a pipe axis direction, the receiving pipe portion having a flange portion; a protruding portion (20d, 31, 37) having an integral construction, the protruding portion (20d, 31, 37) being fixed to an outer circumferential face of the inserting pipe portion and protruding radially outwards from the inserting pipe portion; a stopper member having an annular integral construction, the stopper member coming into contact with a first lateral face of the protruding portion (20d, 31, 37) to restrict displacement of the inserting pipe portion in a direction away from the receiving pipe portion; an annular member having an integral construction, disposed between the flange portion and the stopper member; and a fastening member configured to fasten the flange portion, the annular member and the stopper member together to each other; wherein a restricting face (31b1) is formed in a second lateral face (31b, 20d1) of the protruding portion (20d, 31, 37) disposed on an opposite side to the first lateral face in the pipe axis direction, the restricting face (31b1) restricting displacement of the inserting pipe portion in a direction for its insertion to the receiving pipe portion; and the displacement of the inserting pipe portion in the insertion direction to the receiving pipe portion is restricted via contact established between the restricting face (31b1) and the annular member. an inserting pipe portion; a receiving pipe portion to which the inserting pipe portion is inserted and connected along a pipe axis direction, the receiving pipe portion having a flange portion; a protruding portion (20d, 31, 37) having an integral construction, the protruding portion (20d, 31, 37) being fixed to an outer circumferential face of the inserting pipe portion and protruding radially outwards from the inserting pipe portion; a stopper member having an annular integral construction, the stopper member coming into contact with a first lateral face of the protruding portion (20d, 31, 37) to restrict displacement of the inserting pipe portion in a direction away from the receiving pipe portion; an annular member having an integral construction, disposed between the flange portion and the stopper member; and a fastening member configured to fasten the flange portion, the annular member and the stopper member together to each other; wherein a restricting face (31b1) is formed in a second lateral face (31b, 20d1) of the protruding portion (20d, 31, 37) disposed on an opposite side to the first lateral face in the pipe axis direction, the restricting face (31b1) restricting displacement of the inserting pipe portion in a direction for its insertion to the receiving pipe portion; and the displacement of the inserting pipe portion in the insertion direction to the receiving pipe portion is restricted via contact established between the restricting face (31b1) and the annular member.
A pharmaceutical composition for use in a method of treating cancer associated cachexia in a human subject, said pharmaceutical composition comprising a pharmaceutically acceptable carrier and an effective amount of anti-IL-1α Ab.
An antiviral composition comprising oleandrin for use in treating COVID-19 (SARS-CoV-2) coronavirus infection, wherein one or more therapeutically effective doses of said antiviral composition are administered per day.
A semiconductor structure, comprising: an anisotropic nanocrystalline core comprising a first semiconductor material and having an aspect ratio between, but not including, 1.0 and 2.0; and a nanocrystalline shell comprising a second, different, semiconductor material completely surrounding the anisotropic nanocrystalline core, wherein the nanocrystalline shell has a center, wherein the nanocrystalline shell extends in a first direction along a first axis and the anisotropic nanocrystalline core is disposed off-center with respect to the nanocrystalline shell in the first direction along the first axis, wherein the nanocrystalline shell extends in a second direction along a second axis orthogonal to the first axis and the anisotropic nanocrystalline core is further disposed off-center with respect to the nanocrystalline shell in the second direction along the second axis, wherein the nanocrystalline shell is longer in the first direction than in the second direction, and wherein the anisotropic nanocrystalline core and the nanocrystalline shell form a quantum dot. an anisotropic nanocrystalline core comprising a first semiconductor material and having an aspect ratio between, but not including, 1.0 and 2.0; and a nanocrystalline shell comprising a second, different, semiconductor material completely surrounding the anisotropic nanocrystalline core, wherein the nanocrystalline shell has a center, wherein the nanocrystalline shell extends in a first direction along a first axis and the anisotropic nanocrystalline core is disposed off-center with respect to the nanocrystalline shell in the first direction along the first axis, wherein the nanocrystalline shell extends in a second direction along a second axis orthogonal to the first axis and the anisotropic nanocrystalline core is further disposed off-center with respect to the nanocrystalline shell in the second direction along the second axis, wherein the nanocrystalline shell is longer in the first direction than in the second direction, and wherein the anisotropic nanocrystalline core and the nanocrystalline shell form a quantum dot.
Method of monitoring the operation of a gas turbine comprising a number of turbine blades (12, 14) that each have a thermally protective layer, in particular a TBC protective layer, and are each provided with at least one integrated cooling medium channel, characterized in that, on the basis of an increase in temperature of the cooling medium, preferably cooling air, flowing in the cooling medium channel of a turbine blade (12, 14), damage to the thermally protective layer of the turbine blade (12, 14) is inferred.
Pressure-sensitive adhesive strip comprising at least one layer SK1, preferably exactly one layer SK1, of a self-adhesive composition based on a vinylaromatic block copolymer composition foamed with microballoons, where the mean diameter (determined by the method in the description) of the voids formed by the microballoons in the self-adhesive composition layer SK1 is 45 to 110 μm, characterized in that the absolute density (determined by the method in the description) of the foamed self-adhesive composition layer SK1 is 500 to 750 kg/m 3.