mhurhangee/ep-ind-claims huggingface dataset:
A system for use in implanting a spinal prosthesis comprising: an insertion assembly housing with a channel extending from a distal end portion to a proximal end portion; a gripper having a prosthesis coupling portion (180, 182) for coupling with a spinal prosthesis and an end portion; and a coupler member having a gripper coupling portion at a first end portion of the coupler member rotatably positioned within the channel and configured to threadingly couple with the end portion of the gripper, and an axial force receiving portion at a second end portion of the coupler member, the system further comprising: a shaft including a threaded portion and an axial force transfer portion for transferring axial force to the axial force receiving portion; a base threadingly engaged with the threaded portion of the shaft; a first vertebra engaging member attached to the base; and a second vertebra engaging member attached to the base. an insertion assembly housing with a channel extending from a distal end portion to a proximal end portion; a gripper having a prosthesis coupling portion (180, 182) for coupling with a spinal prosthesis and an end portion; and a coupler member having a gripper coupling portion at a first end portion of the coupler member rotatably positioned within the channel and configured to threadingly couple with the end portion of the gripper, and an axial force receiving portion at a second end portion of the coupler member, the system further comprising: a shaft including a threaded portion and an axial force transfer portion for transferring axial force to the axial force receiving portion; a base threadingly engaged with the threaded portion of the shaft; a first vertebra engaging member attached to the base; and a second vertebra engaging member attached to the base. a shaft including a threaded portion and an axial force transfer portion for transferring axial force to the axial force receiving portion; a base threadingly engaged with the threaded portion of the shaft; a first vertebra engaging member attached to the base; and a second vertebra engaging member attached to the base.
A method of determining whether a human being having clinically-isolated syndrome or radiologically-isolated syndrome is likely to develop MS, said method comprising determining the presence of CNS-antigen specific antibody in a sample of peripheral blood mononuclear cells (PBMCs) from blood of said human being comprising the steps of: a. stimulating said cells to produce said antibody comprising use of a polyclonal stimulating agent; b. exposing said sample of PBMCs to a CNS antigen associated with Multiple Sclerosis; and c. determining the presence of a CNS-antigen specific antibody in response to the polyclonal stimulating agent in said sample, wherein said CNS-antigen specific antibody binds to said CNS antigen; where if the presence of said CNS-antigen specific antibody is determined, said human is likely to develop MS. a. stimulating said cells to produce said antibody comprising use of a polyclonal stimulating agent; b. exposing said sample of PBMCs to a CNS antigen associated with Multiple Sclerosis; and c. determining the presence of a CNS-antigen specific antibody in response to the polyclonal stimulating agent in said sample, wherein said CNS-antigen specific antibody binds to said CNS antigen; where if the presence of said CNS-antigen specific antibody is determined, said human is likely to develop MS.
A composition for removing residue, the composition comprising: a) at least 50% by weight of an organic solvent wherein at least 50 % of the organic solvent is a glycol ether; b) at least 0.5% by weight of a quaternary ammonium compound; and c) 0.2 to 19 % by weight of a corrosion inhibitor selected from the group consisting of: organic acids, organic acid salts, catechol, gallic acid, benzotriazole, resorcinol, phenols, acids, triazoles, and hydroxylamines or acid salts thereof; and characterized in that it further comprises an auxiliary organic solvent selected from dihydric and polyhydric alcohols, cyclic alcohols and substituted alcohols. a) at least 50% by weight of an organic solvent wherein at least 50 % of the organic solvent is a glycol ether; b) at least 0.5% by weight of a quaternary ammonium compound; and c) 0.2 to 19 % by weight of a corrosion inhibitor selected from the group consisting of: organic acids, organic acid salts, catechol, gallic acid, benzotriazole, resorcinol, phenols, acids, triazoles, and hydroxylamines or acid salts thereof; and
A clip assembly for adjustably coupling a first component and a second component, said clip assembly comprising: a rail member, configured to connect to the first component, comprising a rail beam having a rail ledge at a distal end portion, said rail ledge having a substantially arrow-shaped cross-section; and an attachment member, configured to connect to the second component, comprising at least two opposed elastically deflectable coupling brackets (136a,136b) provided at a base portion and adapted to mountably receive and slidably retain said rail ledge so as to allow linear movement of said rail member relative to said attachment member along a longitudinal axis of said rail ledge, characterised in that said attachment member further comprises a first and second limiter member (142a, 142b) extending laterally away from an end portion of respective one of said at least two opposed elastically deflectable coupling brackets (136a,136b) and towards said base portion. a rail member, configured to connect to the first component, comprising a rail beam having a rail ledge at a distal end portion, said rail ledge having a substantially arrow-shaped cross-section; and an attachment member, configured to connect to the second component, comprising at least two opposed elastically deflectable coupling brackets (136a,136b) provided at a base portion and adapted to mountably receive and slidably retain said rail ledge so as to allow linear movement of said rail member relative to said attachment member along a longitudinal axis of said rail ledge, characterised in that said attachment member further comprises a first and second limiter member (142a, 142b) extending laterally away from an end portion of respective one of said at least two opposed elastically deflectable coupling brackets (136a,136b) and towards said base portion.
Pen, having a main body that extends axially along a central pen-axis, the pen having a first part, a second part pivotable with respect to the first part, wherein an area for clamping an object placed therein is formed between said first and second parts (1, 2), said first and second parts (1, 2) forming a clamping arrangement which also comprises a torsion spring coupled to said first and second parts (1, 2) and said torsion spring surrounding its own spring axis in a circumferential direction over the full circumference, the restoring force of the torsion spring counteracting a pivoting movement of said first and second parts (1, 2) said pivoting movement being directed to open the clamping area, the spring axis of said torsion spring being arranged coaxial with the axis (z) of the pivoting movement and wherein the pivot axis is arranged transverse, in particular orthogonal to the central axis of the pen, characterized in that the arrangement of the clamping arrangement is integrated in the main body of the pen by having the central axis of the pen and the pivot axis essentially arranged in the same plane and the spring axis going essentially through the central axis of the pen.
A refractory metal core (338a-e; 438) for manufacturing a component of a gas turbine engine, the refractory metal core comprising: a trunk (350a-e; 450) configured to attach to a cavity core structure (232; 234; 236); a first refractory metal core body (342a; 342c; 342e) having a first branch (356a-e; 456a) extending from the trunk and configured to form a first portion of a cooling circuit (528; 628; 728a; 728c) in the component; and a second refractory metal core body (344a; 344c; 344e) having a second branch (356a-e; 456b) extending from the trunk and configured to form a second portion of the cooling circuit in the component, wherein the first branch and the second branch are configured to define fluid exits at two different locations on an exterior of the component; characterised in that: the trunk comprises a stack defined by a portion of the first refractory metal core body attached to a portion of the second refractory metal core body. a trunk (350a-e; 450) configured to attach to a cavity core structure (232; 234; 236); a first refractory metal core body (342a; 342c; 342e) having a first branch (356a-e; 456a) extending from the trunk and configured to form a first portion of a cooling circuit (528; 628; 728a; 728c) in the component; and a second refractory metal core body (344a; 344c; 344e) having a second branch (356a-e; 456b) extending from the trunk and configured to form a second portion of the cooling circuit in the component, wherein the first branch and the second branch are configured to define fluid exits at two different locations on an exterior of the component; characterised in that: the trunk comprises a stack defined by a portion of the first refractory metal core body attached to a portion of the second refractory metal core body.
A system consisting of a fluid pressure hose and a pressure sensor device with a gel mounted in a pressure sensor housing as pressure absorption and pressure transmission element, which has, on its pressure inlet portion projecting freely from the pressure sensor housing, an abutment or contact side defining an insertion direction for the fluid pressure hose inserted into the pressure sensor device and, starting from the contact side, extends through the pressure sensor housing, preferably configuring a funnel or stepwise constriction shape, up to a compressive force sensor, wherein the contact side of the pressure inlet portion has a symmetrical shape both to its longitudinal axis and to its transverse axis, characterized in that the longitudinal extent of the contact side parallel to the insertion direction is greater than in the transverse direction thereto.
A hose coupling for a fluidic connection in an analyser system, comprising - a plug; - a sleeve which comprises a first hollow cylinder whose channel is connected at one end to a hose and whose other end comprises a first opening for receiving the plug, wherein the end for receiving the plug is at least partially surrounded by a retaining ring with a recess, wherein the first opening of the sleeve for receiving the plug extends on one side into a second opening which continues as a channel extending along the radius of the first hollow cylinder; and - the plug with a base plate, from which a second hollow cylinder extends, which has a hook arranged at the end opposite the base plate, which hook extends radially outwards, wherein the second hollow cylinder is configured in such a way that it can be at least partially inserted into the first opening of the sleeve and the hook is configured in such a way that it can be completely inserted into the second opening of the sleeve and, during a rotary movement, the hook can be inserted behind the securing ring of the sleeve to secure the plug, that it can be inserted completely into the second opening of the sleeve and, during a rotary movement, the hook engages behind the retaining ring of the sleeve to secure the plug against linear movement, wherein the base plate of the plug has a projection with an edge which, during a rotary movement, engages in the recess of the retaining ring of the sleeve to secure the plug against twisting. - a plug; - a sleeve which comprises a first hollow cylinder whose channel is connected at one end to a hose and whose other end comprises a first opening for receiving the plug, wherein the end for receiving the plug is at least partially surrounded by a retaining ring with a recess, wherein the first opening of the sleeve for receiving the plug extends on one side into a second opening which continues as a channel extending along the radius of the first hollow cylinder; and - the plug with a base plate, from which a second hollow cylinder extends, which has a hook arranged at the end opposite the base plate, which hook extends radially outwards, wherein the second hollow cylinder is configured in such a way that it can be at least partially inserted into the first opening of the sleeve and the hook is configured in such a way that it can be completely inserted into the second opening of the sleeve and, during a rotary movement, the hook can be inserted behind the securing ring of the sleeve to secure the plug, that it can be inserted completely into the second opening of the sleeve and, during a rotary movement, the hook engages behind the retaining ring of the sleeve to secure the plug against linear movement, wherein the base plate of the plug has a projection with an edge which, during a rotary movement, engages in the recess of the retaining ring of the sleeve to secure the plug against twisting.
Drilling platform and/or production platform for locating, producing, processing and/or transporting crude oil or natural gas, comprising - a floatable heavyweight foundation having a solid slab of concrete, reinforced concrete, a composite comprising concrete or a combination thereof, and at least one fillable chamber which is empty for floating and which is filled for locating, producing, processing and/or transporting crude oil or natural gas, - a tubular tower which is open on both sides and intersects the heavyweight foundation and is connected to the heavyweight foundation and - a floatable platform connected to the tubular tower or a drilling vessel connected to the tubular tower, in each case for carrying equipment for locating, producing, processing and/or transporting crude oil or natural gas, thereby the floatable platform has at least one floating body, characterized in that, an end region of the tubular tower has anchor elements for connection to the solid slab, in that the anchor elements each have at least one horizontally oriented or substantially horizontally oriented first element connected to the tubular tower and at least one vertically or substantially vertically oriented second element, and in that the elements (15, 16) are located in the solid slab. - a floatable heavyweight foundation having a solid slab of concrete, reinforced concrete, a composite comprising concrete or a combination thereof, and at least one fillable chamber which is empty for floating and which is filled for locating, producing, processing and/or transporting crude oil or natural gas, - a tubular tower which is open on both sides and intersects the heavyweight foundation and is connected to the heavyweight foundation and - a floatable platform connected to the tubular tower or a drilling vessel connected to the tubular tower, in each case for carrying equipment for locating, producing, processing and/or transporting crude oil or natural gas,
A polypropylene resin comprising a propylene polymer said polypropylene resins being endowed with the following features: a) melt flow rate (ISO 1133) (230°C/2.16 kg) comprised between 120 g/10' and 400 g/10'; b) distribution of molecular weight Mw/Mn (measured according to the experimental part) lower than 4; c) haze measured according to ASTM D 1003 (1mm placque) comprised between 5% and 30%; and d) flexural modulus measured according ISO 178 after 48h comprised between 1750 N/m 2 and 2300 N/m 2, wherein the propylene polymer has isotactic pentads (mmmm) measured by 13C-NMR higher than 95%; a content of 2,1 -insertions lower than 0.3 % measured by 13C NMR spectroscopy and the content of 1,3 insertions lower than 0.1 % measured by 13C NMR spectroscopy. a) melt flow rate (ISO 1133) (230°C/2.16 kg) comprised between 120 g/10' and 400 g/10'; b) distribution of molecular weight Mw/Mn (measured according to the experimental part) lower than 4; c) haze measured according to ASTM D 1003 (1mm placque) comprised between 5% and 30%; and d) flexural modulus measured according ISO 178 after 48h comprised between 1750 N/m 2 and 2300 N/m 2,
A light emitting diode, comprising: - at least one light emitting diode chip; - lead terminals (230, 235) for use in applying electric power to the light emitting diode chip; - a submount having the light emitting diode chip mounted thereon, the submount being formed to have a predetermined height and a shape geometrically similar to a shape of the light emitting diode chip in plan view; and - a molding portion having a fluorescent substance for converting the wavelength of light emitted from the light emitting diode chip, the molding portion being formed on the submount wherein - the molding portion is formed to have a shape being identical to the shape of the submount in plan view. - at least one light emitting diode chip; - lead terminals (230, 235) for use in applying electric power to the light emitting diode chip; - a submount having the light emitting diode chip mounted thereon, the submount being formed to have a predetermined height and a shape geometrically similar to a shape of the light emitting diode chip in plan view; and - a molding portion having a fluorescent substance for converting the wavelength of light emitted from the light emitting diode chip, the molding portion being formed on the submount wherein - the molding portion is formed to have a shape being identical to the shape of the submount in plan view.
A method of vertically transporting emulsion explosive, the method including, using a pump, pumping a predetermined volume of emulsion explosive, from an emulsion explosive reservoir, into a vertically extending pipe, wherein pumping is effected airtightly at least between the pump and a downstream end of a volume of emulsion explosive that has been pumped into the vertically extending pipe for at least a part of the travel of emulsion explosive of the predetermined volume of emulsion explosive down the vertical pipe; and discontinuing pumping after the predetermined volume of emulsion explosive has passed through the pump, wherein the predetermined volume of emulsion explosive is such that emulsion explosive travels along the pipe under force of gravity alone against vacuum suction generated between the pump, or a valve that separates the pump from the vertically extending pipe, and an upstream end of the predetermined volume of emulsion explosive. using a pump, pumping a predetermined volume of emulsion explosive, from an emulsion explosive reservoir, into a vertically extending pipe, wherein pumping is effected airtightly at least between the pump and a downstream end of a volume of emulsion explosive that has been pumped into the vertically extending pipe for at least a part of the travel of emulsion explosive of the predetermined volume of emulsion explosive down the vertical pipe; and discontinuing pumping after the predetermined volume of emulsion explosive has passed through the pump,
Sealing body for sealing an outer component against an inner component, in particular in a combustion chamber of a gas turbine, wherein the sealing body has an inner sealing zone with which, in the installation state, it lies closed peripherally on an outer sealing face of the inner component, and an outer sealing zone with which, in the installation state, it lies closed peripherally on an inner sealing face of the outer component, wherein the sealing body comprises two strip-like, congruent metal plates (11i, 11a) closed in the peripheral direction and is produced by forming, wherein the inner sealing zone and the outer sealing zone are formed on a profile of the sealing body along its entire periphery, and wherein the metal plates (11i, 11a) are arranged in each other and lie tightly on each other, wherein the inner sealing zone is formed on the inner plate and the outer sealing zone is formed on the outer plate, characterised in that the inner plate and the outer plate differ from each other in material and/or wall thickness.
A hitch coupler, comprising: a frame member including a plurality of vertically spaced apart plates (22, 24, 30) extending outwardly from the frame member; a pin member slidably received within apertures (40, 42, 44) disposed on the vertically spaced apart plates (22, 24, 30), the pin member moveable between an extended position and a retracted position, wherein the pin member includes a pin housing having a hollow interior; a guide slot vertically disposed on the pin housing having upper and lower ends and an offset portion disposed therebetween; a guide member extending from the frame member, wherein the guide member is slideably received in the guide slot of the pin housing to guide the pin member between the extended position and the retracted position; a biasing mechanism disposed within the hollow interior of the pin housing, the biasing mechanism operably coupled to a portion of the frame member or guide member at a first end and operably coupled to a lower portion of the pin housing at a second end, wherein the biasing mechanism is adapted to bias the pin member towards the extended position; and further wherein the biasing mechanism comprises a torsional force imparted on the pin housing characterized in that the guide member enters the offset portion of the guide slot prior to entering a lower end of the guide slot as the pin member slides from the retracted position to the extended position. a frame member including a plurality of vertically spaced apart plates (22, 24, 30) extending outwardly from the frame member; a pin member slidably received within apertures (40, 42, 44) disposed on the vertically spaced apart plates (22, 24, 30), the pin member moveable between an extended position and a retracted position, wherein the pin member includes a pin housing having a hollow interior; a guide slot vertically disposed on the pin housing having upper and lower ends and an offset portion disposed therebetween; a guide member extending from the frame member, wherein the guide member is slideably received in the guide slot of the pin housing to guide the pin member between the extended position and the retracted position; a biasing mechanism disposed within the hollow interior of the pin housing, the biasing mechanism operably coupled to a portion of the frame member or guide member at a first end and operably coupled to a lower portion of the pin housing at a second end, wherein the biasing mechanism is adapted to bias the pin member towards the extended position; and further wherein the biasing mechanism comprises a torsional force imparted on the pin housing characterized in that the guide member enters the offset portion of the guide slot prior to entering a lower end of the guide slot as the pin member slides from the retracted position to the extended position.
A gas turbine engine comprising a rigid raft assembly, the rigid raft assembly comprising a rigid material that carries at least a part of a first gas turbine engine system and at least a part of a second gas turbine engine system, wherein: the first gas turbine engine system is a fluid system that comprises at least one fluid passage that is at least partially embedded in the rigid raft assembly; and the second gas turbine engine system is an electrical system that forms at least a part of an electrical harness of the gas turbine engine, characterized in that the second gas turbine engine system comprises a flexible printed circuit having electrically conductive tracks provided in a flexible substrate, the flexible printed circuit being at least partially embedded in the rigid material. the first gas turbine engine system is a fluid system that comprises at least one fluid passage that is at least partially embedded in the rigid raft assembly; and the second gas turbine engine system is an electrical system that forms at least a part of an electrical harness of the gas turbine engine, characterized in that the second gas turbine engine system comprises a flexible printed circuit having electrically conductive tracks provided in a flexible substrate, the flexible printed circuit being at least partially embedded in the rigid material.