mhurhangee/ep-ind-claims huggingface dataset:
A system for transporting materials by means of track and carriages comprising: a track; at least one carriage engaged with said track; said at least one carriage having a roller engaged with one side of said track and a pair of rollers engaged on the opposite side of said track; said pair of rollers is constrained to said carriage; said roller is fixed to a bar; said bar can translate with respect to said carriage and comprises pressure means to press said roller against said track; said bar comprises a unilateral block that does not allow the extension of said bar with respect to said carriage beyond a pre-set distance; said unilateral block comprises: a threaded portion, positioned on said bar, on which a ring nut can be screwed; a block sliding along said bar constrained to said carriage by means of said ring nut; where said pressure means are positioned between said block and said roller; said carriage consists of a trapezoidal or rectangular shaped frame having a central opening (16, 17); said central opening (16, 17) comprises an oblong shaped central opening, with a terminal widening; characterised in that said block is positioned between said opening and said widening; said block comprises a lower portion that abuts against a lower portion of said frame and an upper portion that is inserted into said opening.
A guide for guiding pivotal movement of an ultrasound transducer relative to a volume to be imaged, the guide comprising: a body configured to couple to an end of the ultrasound transducer that includes a transducer array and first and second outwardly extending protrusions respectively located at first and second opposing ends of the body such that: the first and second protrusions are located at first and second ends of the transducer array; and a pivot axis is defined by the first and second protrusions such that when the body is coupled to the ultrasound transducer the ultrasound transducer is pivotable relative to the pivot axis; each of the first and second protrusions comprising a patient-contacting surface that projects forwardly relative to the pivot axis, the first and second protrusions operable to indent skin of a patient adjacent to a region of the patient to be imaged by the ultrasound transducer when the ultrasound transducer is pressed against the skin of the patient. the first and second protrusions are located at first and second ends of the transducer array; and a pivot axis is defined by the first and second protrusions such that when the body is coupled to the ultrasound transducer the ultrasound transducer is pivotable relative to the pivot axis; each of the first and second protrusions comprising a patient-contacting surface that projects forwardly relative to the pivot axis, the first and second protrusions operable to indent skin of a patient adjacent to a region of the patient to be imaged by the ultrasound transducer when the ultrasound transducer is pressed against the skin of the patient.
A method for conjugating a pyrrolobenzodiazepine to an antibody, comprising the steps of: a) providing an antibody having at least one acceptor glutamine residue; and b) reacting said antibody with a linker comprising a primary amine and a reactive group, in the presence of a TGase, under conditions sufficient to obtain an antibody comprising an acceptor glutamine linked to a reactive group via said linker, wherein the reaction mixture is free of organic solvent or contains less than 10% (v/v) organic solvent; and (c) reacting, in the presence of at least 25% (v/v) organic solvent: (i) an antibody of step (b) comprising an acceptor glutamine linked to a reactive group via a linker, with (ii) a compound comprising a pyrrolobenzodiazepine dimer and a reactive group (R') capable of reacting with reactive group R, under conditions sufficient to obtain an antibody comprising an acceptor glutamine linked to a pyrrolobenzodiazepine dimer via the linker. a) providing an antibody having at least one acceptor glutamine residue; and b) reacting said antibody with a linker comprising a primary amine and a reactive group, in the presence of a TGase, under conditions sufficient to obtain an antibody comprising an acceptor glutamine linked to a reactive group via said linker, wherein the reaction mixture is free of organic solvent or contains less than 10% (v/v) organic solvent; and (c) reacting, in the presence of at least 25% (v/v) organic solvent: (i) an antibody of step (b) comprising an acceptor glutamine linked to a reactive group via a linker, with (ii) a compound comprising a pyrrolobenzodiazepine dimer and a reactive group (R') capable of reacting with reactive group R, under conditions sufficient to obtain an antibody comprising an acceptor glutamine linked to a pyrrolobenzodiazepine dimer via the linker. (i) an antibody of step (b) comprising an acceptor glutamine linked to a reactive group via a linker, with (ii) a compound comprising a pyrrolobenzodiazepine dimer and a reactive group (R') capable of reacting with reactive group R,
An integrated circuit comprising: a differential input buffer having a first input coupled to a first pad (710,1210) and a second input coupled to a second pad (720,1220); a first single-ended input buffer having an input coupled to the first pad (720,1220); a second single-ended input buffer having an input coupled to the second pad (720,1220); a first single-ended output buffer having an output coupled to the first pad (710,1210); a second single-ended output buffer having an output coupled to the second pad (720,1220); a serial-to-parallel converter having an input coupled to an output of the differential input buffer; and a parallel-to-serial converter having an output coupled to an input of the first single-ended output buffer. a differential input buffer having a first input coupled to a first pad (710,1210) and a second input coupled to a second pad (720,1220); a first single-ended input buffer having an input coupled to the first pad (720,1220); a second single-ended input buffer having an input coupled to the second pad (720,1220); a first single-ended output buffer having an output coupled to the first pad (710,1210); a second single-ended output buffer having an output coupled to the second pad (720,1220); a serial-to-parallel converter having an input coupled to an output of the differential input buffer; and a parallel-to-serial converter having an output coupled to an input of the first single-ended output buffer.
Test apparatus for an electrosurgical generator, having a first connection port and a second connection port for connecting the test apparatus to a patient circuit of the electrosurgical generator, and having means for generating a DC voltage between the first connection port and the second connection port, characterized in that an RF current path (35,36,37) of the patient circuit extends from the first connection port to the second connection port through the test apparatus, and in that the means for generating a DC voltage is powered by an RF current flowing through the RF current path (35,36,37).
A method of forming an implant for implantation into living bone, the implant being formed of a material comprising titanium, the method comprising the acts of: roughening at least a portion of the surface of the implant to form a first micro-scale topography; roughening at least the portion of the surface of the implant to form a second micro-scale topography superimposed on the first topography, the second micro-scale topography being generally less coarse than the first micro-scale topography; and producing a submicron topography including nanoscale tube-like structures superimposed on the first and second micro-scale topographies roughening at least a portion of the surface of the implant to form a first micro-scale topography; roughening at least the portion of the surface of the implant to form a second micro-scale topography superimposed on the first topography, the second micro-scale topography being generally less coarse than the first micro-scale topography; and producing a submicron topography including nanoscale tube-like structures superimposed on the first and second micro-scale topographies
A luminaire having a main beam direction comprising: - a heatsink, - a light source mounted to the heatsink, - a driver configured to drive the light source, wherein the driver is at least partially positioned on a side of the light source being opposite to the heatsink, and - a) further electric and/or electronic components for operating the light source, characterized in that the further components are at least partially positioned on a side of the light source being opposite to the heatsink and b) also positioned on a side of the driver being opposite to the heatsink and the light source. - a heatsink, - a light source mounted to the heatsink, - a driver configured to drive the light source, wherein the driver is at least partially positioned on a side of the light source being opposite to the heatsink, and - a) further electric and/or electronic components for operating the light source, characterized in that the further components are at least partially positioned on a side of the light source being opposite to the heatsink and b) also positioned on a side of the driver being opposite to the heatsink and the light source. a) further electric and/or electronic components for operating the light source, characterized in that the further components are at least partially positioned on a side of the light source being opposite to the heatsink and b) also positioned on a side of the driver being opposite to the heatsink and the light source.
A one-piece, screw-receiving, externally-threaded endosseous dental implant comprises: a longitudinally extending, tapered or straight body with external threads; said body including, at its proximal end, an unthreaded cylindrical portion; proximal to the unthreaded cylindrical portion, an outwardly-extending, unthreaded region that forms a flat, peripheral shoulder at its proximal end, and atop and proximal to said outwardly-extending unthreaded region, a frusto-conical portion with an unthreaded, upwardly and inwardly tapering, external surface and, on the surface of said frusto-conical portion, a retentive groove, extending wholly or completely around the frusto-conical portion, for engaging a transfer component or a comfort cap, said body including an internal passage extending distally from an opening at the proximal end of said implant, said internal passage including wrench-engaging surfaces and a threaded region. a longitudinally extending, tapered or straight body with external threads; said body including, at its proximal end, an unthreaded cylindrical portion; proximal to the unthreaded cylindrical portion, an outwardly-extending, unthreaded region that forms a flat, peripheral shoulder at its proximal end, and atop and proximal to said outwardly-extending unthreaded region, a frusto-conical portion with an unthreaded, upwardly and inwardly tapering, external surface and, on the surface of said frusto-conical portion, a retentive groove, extending wholly or completely around the frusto-conical portion, for engaging a transfer component or a comfort cap, said body including an internal passage extending distally from an opening at the proximal end of said implant, said internal passage including wrench-engaging surfaces and a threaded region.
A Carbonated Soft Drink container, wherein the container comprises an internal and/or an external gas barrier coating and characterised in that the Carbonated Soft Drink container has the following properties: a) a difference between area distribution (%) and weight distribution (%) in the container base section, the container shoulder section, or both the container base and the container shoulder sections is less than 8%; b) a sectional area to weight ratio ( A / W, cm 2 /g) for any given section is within 25% of the overall surface area to weight (excluding finish) ratio; and c) a weight distribution efficiency greater than or about 95% wherein the WDE is defined according to the formula: WDE = A W ∑ i = 1 i = n a i w i × Ai wherein; a i is the area of the i th container section; w i is the weight of the i th container section; A is the total area of the container; A i is the area fraction for section i W is the total weight of the container; and i is one of n total sections into which the container is divided, each section equally spanning i / n of the total container height measured from the bottom of the base to the bottom of the support ring. a) a difference between area distribution (%) and weight distribution (%) in the container base section, the container shoulder section, or both the container base and the container shoulder sections is less than 8%; b) a sectional area to weight ratio ( A / W, cm 2 /g) for any given section is within 25% of the overall surface area to weight (excluding finish) ratio; and c) a weight distribution efficiency greater than or about 95% wherein the WDE is defined according to the formula: WDE = A W ∑ i = 1 i = n a i w i × Ai wherein; a i is the area of the i th container section; w i is the weight of the i th container section; A is the total area of the container; A i is the area fraction for section i W is the total weight of the container; and i is one of n total sections into which the container is divided, each section equally spanning i / n of the total container height measured from the bottom of the base to the bottom of the support ring. a i is the area of the i th container section; w i is the weight of the i th container section; A is the total area of the container; A i is the area fraction for section i W is the total weight of the container; and i is one of n total sections into which the container is divided, each section equally spanning i / n of the total container height measured from the bottom of the base to the bottom of the support ring.
A method for quantifying cholesterol in high-density lipoprotein 3, said method comprising reacting a test sample with two or more surfactants which react specifically with high-density lipoprotein 3 and quantifying cholesterol; wherein at least one of said surfactants is one selected from the group consisting of polyoxyethylene polycyclic phenyl ethers, and the two or more surfactants are combined so as to provide the total HLB of 13.5 to 14.5 of the combined surfactants.
An electric vehicle chassis comprising: a structure extending along a longitudinal axis; and a frame for accommodating an on-board auxiliary power unit or a range extender, the frame being located on the longitudinal axis and mounted in the region of a midpoint of said longitudinal axis between a front drivetrain module and a rear drivetrain module; wherein the frame is moveably mounted to the structure and is moveable relative to the structure between a retracted position and a deployed position and wherein the frame is moveable outward from the structure from the retracted position towards the deployed position. a structure extending along a longitudinal axis; and a frame for accommodating an on-board auxiliary power unit or a range extender, the frame being located on the longitudinal axis and mounted in the region of a midpoint of said longitudinal axis between a front drivetrain module and a rear drivetrain module; wherein the frame is moveably mounted to the structure and is moveable relative to the structure between a retracted position and a deployed position and wherein the frame is moveable outward from the structure from the retracted position towards the deployed position.
Method for forming a surface coating on at least a part of a solid substrate, comprising a step of cold spraying a flow comprising at least one carrier gas and particles suitable for deposition on the said substrate, said flow having a speed greater than 350 m/s for obtaining a kinetic energy of the flow; wherein said particles are obtained from inorganic materials subjected to a high-energy milling treatment and have dimensions smaller than 200 μm; wherein one or more mixtures of reaction precursor reagents are present in at least some of the said particles, the said mixtures being obtained from at least one pair of phases; characterized in that the mixtures of reaction precursor reagents present in at least some of the particles which strike the substrate are at least one of the following: at least one of the following metals is present in at least 5% by volume of the mixtures of reaction precursor reagents: Ti, Co, Al, Fe, Hf, V, Y, Zr and that at least one of the carbides of the elements: W, Fe, Cr, Si is present in at least 30% by volume of the mixtures of reaction precursor reagents; or at least one of the following metals is present in at least 5% by volume of the mixtures of reaction precursor reagents: Ti, Al, Mg, Y, Zr, Hf, Fe and that at least one of the oxides of the elements: W, Si, Fe, Cu, Cr, Mo, Sn is present in amount of at least 5% by volume of the mixtures of reaction precursor reagents; and wherein the mixtures of reaction precursor reagents develop at least one reaction having an adiabatic temperature of at least 800°C by using the kinetic energy of the flow together with, where necessary, a subsequent heat treatment, so that at least 20% by volume of the coating is formed by phases different from those of the starting powders. at least one of the following metals is present in at least 5% by volume of the mixtures of reaction precursor reagents: Ti, Co, Al, Fe, Hf, V, Y, Zr and that at least one of the carbides of the elements: W, Fe, Cr, Si is present in at least 30% by volume of the mixtures of reaction precursor reagents; or at least one of the following metals is present in at least 5% by volume of the mixtures of reaction precursor reagents: Ti, Al, Mg, Y, Zr, Hf, Fe and that at least one of the oxides of the elements: W, Si, Fe, Cu, Cr, Mo, Sn is present in amount of at least 5% by volume of the mixtures of reaction precursor reagents; and wherein the mixtures of reaction precursor reagents develop at least one reaction having an adiabatic temperature of at least 800°C by using the kinetic energy of the flow together with, where necessary, a subsequent heat treatment, so that at least 20% by volume of the coating is formed by phases different from those of the starting powders.
A method of securing wireless communication between a user equipment, UE, (802, 1702) and a serving network (804, 1704) performed by the UE, comprising: transmitting a Radio Resource Control, RRC, message (1010, 1110, 1310, 1410, 1810, 1910) to a base station or a Tracking Area Update, TAU, request (1210, 1510, 2010) to an entity that serves as an authenticator in the serving network (804, 1704) after the serving network has been authenticated by the UE or by a database that contains user-related and subscriber-related information on behalf of the UE, wherein the RRC message (1010, 1110, 1310, 1410, 1810, 1910) or the TAU request (1210, 1510, 2010) includes a nonce and a signature request; receiving a RRC response (1012, 1112, 1312, 1412, 1812, 1912) to the RRC message (1010, 1110, 1310, 1410, 1810, 1910) from the base station or a TAU response (1212, 1512, 2012) to the TAU request (1210, 1510, 2010) from the entity that serves as an authenticator, wherein the RRC response (1012, 1112, 1312, 1412, 1812, 1912) or the TAU response (1212, 1512, 2012) includes a signature of the base station or the entity that serves as an authenticator; and authenticating the serving network (804, 1704) based on the signature of and on a public key certificate corresponding to the base station or the entity that serves as an authenticator, wherein the RRC message comprises an RRC connection request, an RRC connection reestablishment request, or an RRC reconfiguration complete message. transmitting a Radio Resource Control, RRC, message (1010, 1110, 1310, 1410, 1810, 1910) to a base station or a Tracking Area Update, TAU, request (1210, 1510, 2010) to an entity that serves as an authenticator in the serving network (804, 1704) after the serving network has been authenticated by the UE or by a database that contains user-related and subscriber-related information on behalf of the UE, wherein the RRC message (1010, 1110, 1310, 1410, 1810, 1910) or the TAU request (1210, 1510, 2010) includes a nonce and a signature request; receiving a RRC response (1012, 1112, 1312, 1412, 1812, 1912) to the RRC message (1010, 1110, 1310, 1410, 1810, 1910) from the base station or a TAU response (1212, 1512, 2012) to the TAU request (1210, 1510, 2010) from the entity that serves as an authenticator, wherein the RRC response (1012, 1112, 1312, 1412, 1812, 1912) or the TAU response (1212, 1512, 2012) includes a signature of the base station or the entity that serves as an authenticator; and authenticating the serving network (804, 1704) based on the signature of and on a public key certificate corresponding to the base station or the entity that serves as an authenticator, wherein the RRC message comprises an RRC connection request, an RRC connection reestablishment request, or an RRC reconfiguration complete message.
Method for repairing surface damage to a turbomachine component having a titanium-comprising base material, wherein the base material comprises TiAl6V4 or pure titanium, comprising the following steps: - mixing a solder comprising a titanium-comprising alloy and a powder which is distributed in the solder and comprises the base material, wherein the composition of the alloy is selected such that the melting temperature of the alloy is lower than the beta transus temperature of the base material, and the solder is mixed in such a way that the mass ratio of the alloy to the powder is at least 3:7 and at most 7:3; - applying the solder to points of the turbomachine component at which the surface damage is located; - introducing a quantity of heat into the solder and into the turbomachine component, such that the alloy becomes liquid and as a result the points are wetted; - cooling the solder, such that the alloy becomes solid. - mixing a solder comprising a titanium-comprising alloy and a powder which is distributed in the solder and comprises the base material, wherein the composition of the alloy is selected such that the melting temperature of the alloy is lower than the beta transus temperature of the base material, and the solder is mixed in such a way that the mass ratio of the alloy to the powder is at least 3:7 and at most 7:3; - applying the solder to points of the turbomachine component at which the surface damage is located; - introducing a quantity of heat into the solder and into the turbomachine component, such that the alloy becomes liquid and as a result the points are wetted; - cooling the solder, such that the alloy becomes solid.
A sports pitch comprising a base layer, an intermediate layer, an impervious layer located between the intermediate layer and the base layer, and a surface layer, wherein the intermediate layer comprises or consists essentially of a foam layer comprising expanded polypropylene and has a thickness of at least 40 mm and up to 65 mm, characterised in that the base layer comprises stones and is up to 200 mm thick and the intermediate layer has a density of at least 30 grams per litre and up to 60 grams per litre.
An aerofoil for a gas turbine engine, the aerofoil comprises a leading edge and a trailing edge, pressure and suction surfaces and defines therebetween an internal passage for the flow of cooling fluid therethrough characterised in that a particle deflector means is disposed within the passage to deflect particles within a cooling fluid flow away from a region of the aerofoil susceptible to particle build up and subsequent blockage, the region susceptible to particle build up and subsequent blockage is a cooling hole defined in a shroud portion of the aerofoil and wherein the particle deflector means is arranged to deflect particles towards a dust hole defined in the aerofoil.