mhurhangee/ep-ind-claims huggingface dataset:
A set of markers for analysing biological samples, each marker (700, 702, 704) comprising a connector and a label with a second affinity interactor, the connector comprising: at least one first affinity reagent (102, 714) configured to bind indirectly to a target molecule (104, 716, 718, 720), a second affinity reagent (212, 312) bound to the first affinity reagent (102, 714) and the second affinity reagent (212, 312) is configured to bind to the target molecule (104, 716, 718, 720), and a backbone connected to the first affinity reagent (102, 714) and comprising at least one first affinity interactor, wherein the second affinity reagent (212, 312) is an antibody (706, 708, 710) and the first affinity reagent (102, 714) is configured to bind to a fragment crystallisable region of the antibody (706, 708, 710), wherein the first affinity interactor is configured to specifically bind to the second affinity interactor comprising the label in order to bind the label to the backbone, wherein the backbone comprises a cleavage site for irreversibly separating the first affinity reagent (102, 714) and the first affinity interactor, and wherein the antibodies (706, 708, 710) of the markers (700, 702, 704) of the set of markers are of the same isotype and the antibodies (706, 708, 710) are specific to different target molecules (716, 718, 720). at least one first affinity reagent (102, 714) configured to bind indirectly to a target molecule (104, 716, 718, 720), a second affinity reagent (212, 312) bound to the first affinity reagent (102, 714) and the second affinity reagent (212, 312) is configured to bind to the target molecule (104, 716, 718, 720), and a backbone connected to the first affinity reagent (102, 714) and comprising at least one first affinity interactor, wherein the second affinity reagent (212, 312) is an antibody (706, 708, 710) and the first affinity reagent (102, 714) is configured to bind to a fragment crystallisable region of the antibody (706, 708, 710), wherein the first affinity interactor is configured to specifically bind to the second affinity interactor comprising the label in order to bind the label to the backbone, wherein the backbone comprises a cleavage site for irreversibly separating the first affinity reagent (102, 714) and the first affinity interactor, and wherein the antibodies (706, 708, 710) of the markers (700, 702, 704) of the set of markers are of the same isotype and the antibodies (706, 708, 710) are specific to different target molecules (716, 718, 720).
Carriage arrangement for a heavy wing, slideable in a parallel plane, of a window or door, which arrangement for supporting the heavy wing has at least two carriage pairs (A, B), wherein each carriage (4, 5; 30, 31) of the pair of carriages comprises a shunt arm (6, 7; 6, 7) for connecting each carriage (4, 5; 30, 31) to the lower wing spar of the wing, and the carriage pairs (A, B) are connected to each other at a distance via a connecting rod, characterized in that two elongated profile rails (8, 8a) which can be mounted on the wing frame are provided with articulation points for all shunt arms (6, 7; 6, 7) and the two shunt arms (6, 7) of a respective carriage pair (A; B) are pivotably mounted at the two articulation points (26, 26 a) of a respective one of the profile rails (8, 8a), wherein the wing-side profile rails (8, 8a) have at their two ends in each case a receiving bore (25, 25a) into which a vertical strut can be inserted and fastened at a lower wing spar during mounting.
A composite material formulation comprising at least one liquid crystal, composed of at least one mesogen, wherein the liquid crystal is 4-pentyl-4'-cyanobiphenyl; at least one ionic liquid, composed by at least one organic salt of composition X+ and Y-, where X+ represents cation of the salt and Y- represents the anion of the salt, wherein the ionic liquid is [BMIM], [BMIM] or [BMIM][FeCl 4]; at least one polymer, wherein the polymer is dextran or gelatin; and at least one solvent; provided that when the polymer is dextran the ionic liquid is LBMIM][Cl]. at least one liquid crystal, composed of at least one mesogen, wherein the liquid crystal is 4-pentyl-4'-cyanobiphenyl; at least one ionic liquid, composed by at least one organic salt of composition X+ and Y-, where X+ represents cation of the salt and Y- represents the anion of the salt, wherein the ionic liquid is [BMIM], [BMIM] or [BMIM][FeCl 4]; at least one polymer, wherein the polymer is dextran or gelatin; and at least one solvent; provided that when the polymer is dextran the ionic liquid is LBMIM][Cl].
A method for determining the load on a wheel of a vehicle comprising the following steps: - determining at least one data, said footprint data, relating to a contact surface between said wheel and the ground; - calculating the load on said wheel from a predetermined relationship linking said at least one footprint data to said load; characterised in that it further comprises a preliminary measurement step: - of a load, said reference load, of the vehicle, and - of a contact surface, said reference surface, for said reference load; and in that the determination step of the at least one footprint data comprising a measurement of a variation of said contact surface with respect to said reference surface and the calculation step of the load peforming a calculation of the load as a function of said reference load, of said reference surface and of said variation. - determining at least one data, said footprint data, relating to a contact surface between said wheel and the ground; - calculating the load on said wheel from a predetermined relationship linking said at least one footprint data to said load; - of a load, said reference load, of the vehicle, and - of a contact surface, said reference surface, for said reference load;
An ink composition for a steel material, comprising: 10 parts by weight to 30 parts by weight of a mixture of a urethane acrylate oligomer and another type of acrylate oligomer different from the urethane acrylate oligomer, 65 parts by weight to 80 parts by weight of a radiation curable monomer that is a mixture of a monofunctional radiation curable monomer and a di- or more functional radiation curable monomer; 1 part by weight to 10 parts by weight of a photoinitiator; and 0.01 part by weight to 10 parts by weight of an adhesion promoter based on the weight of the ink composition, wherein the urethane acrylate oligomer and the other type of acrylate oligomer different from the urethane acrylate oligomer are mixed in a weight ratio of 2:1 to 10:1, and the monofunctional radiation curable monomer and the di- or more functional radiation curable monomer are mixed in a weight ratio of 6:1 to 50:1. 10 parts by weight to 30 parts by weight of a mixture of a urethane acrylate oligomer and another type of acrylate oligomer different from the urethane acrylate oligomer, 65 parts by weight to 80 parts by weight of a radiation curable monomer that is a mixture of a monofunctional radiation curable monomer and a di- or more functional radiation curable monomer; 1 part by weight to 10 parts by weight of a photoinitiator; and 0.01 part by weight to 10 parts by weight of an adhesion promoter based on the weight of the ink composition, wherein the urethane acrylate oligomer and the other type of acrylate oligomer different from the urethane acrylate oligomer are mixed in a weight ratio of 2:1 to 10:1, and the monofunctional radiation curable monomer and the di- or more functional radiation curable monomer are mixed in a weight ratio of 6:1 to 50:1.
A method of allocating sidelink radio resources to a group of vehicles, wherein vehicles within said group of vehicles intent to use said sidelink radio resources for vehicle-to-vehicle, V2V, communication, said method comprising the steps of: - receiving, by a V2V control entity residing in, or accessible via, a core network of said telecommunication network, a resource request, from said group of vehicles, for requesting radio resources to be used for said V2V communication; - determining, by said V2V control entity, radio resources to be allocated for said V2V communication; - transmitting, by said V2V control entity, to said group of vehicles, a resource grant comprising said determined allocated radio resources, wherein said resource grant comprises a grant renewal period indicator indicating a time period for which said allocated radio resources are granted to be used. - receiving, by a V2V control entity residing in, or accessible via, a core network of said telecommunication network, a resource request, from said group of vehicles, for requesting radio resources to be used for said V2V communication; - determining, by said V2V control entity, radio resources to be allocated for said V2V communication; - transmitting, by said V2V control entity, to said group of vehicles, a resource grant comprising said determined allocated radio resources, wherein said resource grant comprises a grant renewal period indicator indicating a time period for which said allocated radio resources are granted to be used.
Use of N-(2-methoxybenzoyl)-4 [(methylaminocarbonyl) amino] benzenesulfonamide in combination with imidacloprid or one or more fungicides selected from the group of, trifloxystrobin, prothioconazole, difenocazole, metalaxyl and fludioxonyl for inducing specific growth regulating responses on plants, thereby increasing the yield of useful plants or crop plants with respect to their harvested plant organs.
Flue gas device for a burner unit, which is located in a mobile room; with - a flue gas duct for directing flue gas from the burner unit into the surrounding environment; - an air duct, which surrounds the flue gas duct, at least in part, and is open to the surrounding environment; and with - a fan unit arranged in the air duct for generating a flow of air in the air duct; wherein - the air flow in the air duct has a flow direction to the surrounding environment; and wherein - the air duct has a low pressure section upstream of the fan unit and an elevated pressure section downstream of the fan unit; characterised in that - the low pressure section is arranged, at least in part, coaxially with the flue gas duct and radially surround the flue gas duct, at least in part; and in that - the low pressure section and the elevated pressure section are arranged, at least in part, in an axial relationship with one another. - a flue gas duct for directing flue gas from the burner unit into the surrounding environment; - an air duct, which surrounds the flue gas duct, at least in part, and is open to the surrounding environment; and with - a fan unit arranged in the air duct for generating a flow of air in the air duct; wherein - the air flow in the air duct has a flow direction to the surrounding environment; and wherein - the air duct has a low pressure section upstream of the fan unit and an elevated pressure section downstream of the fan unit; characterised in that - the low pressure section is arranged, at least in part, coaxially with the flue gas duct and radially surround the flue gas duct, at least in part; and in that - the low pressure section and the elevated pressure section are arranged, at least in part, in an axial relationship with one another.
Shaft base cladding, in particular for a sewer shaft, having a base body which has a tread surface and at least one pipe connection opening, wherein the base body is manufactured integrally from a flexible and elastically deformable material with a wall thickness with which it can be bent together essentially at will and elastically at least in partial regions.
A method for managing allocation of electrical power, comprising: selecting one or more power consuming entities for receiving a request to reduce electrical power usage based on data pertaining to past selections of entities for receiving requests to reduce power and a history of compliance with said requests; generating a customized request to reduce power usage for each of the selected one or more power consuming entities; receiving the generated customized request to reduce power usage at a corresponding power consuming entity; characterised by evaluating a cost associated with complying with the received customized request to reduce power usage; and returning a commitment to comply with the received customized request to reduce power usage when the evaluated cost is within a threshold of acceptability and negotiating a new request to reduce power when the evaluated cost is greater than a threshold of acceptability, wherein the returned commitment includes a strategy for meeting the received customized request to reduce power usage. selecting one or more power consuming entities for receiving a request to reduce electrical power usage based on data pertaining to past selections of entities for receiving requests to reduce power and a history of compliance with said requests; generating a customized request to reduce power usage for each of the selected one or more power consuming entities; receiving the generated customized request to reduce power usage at a corresponding power consuming entity; characterised by evaluating a cost associated with complying with the received customized request to reduce power usage; and returning a commitment to comply with the received customized request to reduce power usage when the evaluated cost is within a threshold of acceptability and negotiating a new request to reduce power when the evaluated cost is greater than a threshold of acceptability, wherein the returned commitment includes a strategy for meeting the received customized request to reduce power usage.
An air duct for exhausting or supplying gaseous media such as solvent-containing air streams, with plastics walls (2.1, 2.2, 2.3, 2.4) assembled perpendicularly to one another along the longitudinal edges and, fastened to each of the end-face ends of the air duct, connecting flanges (14, 15, 16, 17) made from a profile with legs (14.1, 14.2; 15.1, 15.2; 16.1, 16.2; 17.12, 17.2) bent at right angles to one another, one leg (14.1, 15.1, 16.1, 17.1) of which serves for connection to the internally located edges of the walls (2.1, 2.2, 2.3.,2.4) of the air duct portion and the other leg (14.2, 15.2, 16.2, 17.2), projecting perpendicularly to the duct axis, forms a coupling face for connection to a leg of a further air duct, characterised in that the walls (2.1, 2.2, 2.3, 2.4) are formed from a polypropylene sandwich panel with glass fibre-reinforced outer and inner facing layers (4, 5) and a core of a honeycomb type structure and at least one profile element which engages on the outside of the air duct over the joints of abutting walls (2.1, 2.2, 2.3, 2.4) connected in bonded and force-locking manner with a first adhesive and is held in gas- and pressure-tight manner on the outer facing layers with the adhesive and additionally with fastening means, and in that the legs (14.1, 15.1, 16.1, 17.1) of the connecting flange (14, 15, 16, 17) are fastened in gas- and pressure-tight manner to the internally located edges of the walls (2.1, 2.2, 2.3, 2.4) by bonding and force locking by means of the first adhesive and fastening means, and in that the leg (14.2, 15.2, 16.2, 17.2) projecting perpendicularly to the duct axis is connected for gas- and pressure-tight coupling to the perpendicularly projecting leg of the further air duct nondetachably with a second adhesive and screw means or detachably with a sealing means and screw or latching means.
A marine cable comprising magnetic field sensors and a first jacket covering an exterior of the cable; characterised in that each magnetic field sensor comprises: a first wire loop disposed on the exterior of the first jacket, the wire loop shaped to have a magnetic dipole moment along a selected direction; and a second wire loop disposed on the exterior of the first jacket, the second wire loop shaped to have a magnetic dipole moment orthogonal to the selected direction; a conductor ring disposed inside the first jacket to make electrical connection between the first wire loop and an associated signal processing circuit disposed inside the first jacket; and a second conductor ring disposed inside the first jacket to make electrical connection between the second wire loop and the associated signal processing circuit, wherein each magnetic field sensor is responsive to electromagnetic fields emanating from subsurface rock formations in response to an electromagnetic field imparted thereto by a transmitter. a first wire loop disposed on the exterior of the first jacket, the wire loop shaped to have a magnetic dipole moment along a selected direction; and a second wire loop disposed on the exterior of the first jacket, the second wire loop shaped to have a magnetic dipole moment orthogonal to the selected direction; a conductor ring disposed inside the first jacket to make electrical connection between the first wire loop and an associated signal processing circuit disposed inside the first jacket; and a second conductor ring disposed inside the first jacket to make electrical connection between the second wire loop and the associated signal processing circuit, wherein each magnetic field sensor is responsive to electromagnetic fields emanating from subsurface rock formations in response to an electromagnetic field imparted thereto by a transmitter.
Method for detecting the load weight in an industrial truck comprising a hydraulic lifting apparatus for a load pickup means which is guided in a vertically movable manner on a lifting mast, comprising a switchable valve through which hydraulic fluid can be conducted into the lifting apparatus and/or can be discharged from the said lifting apparatus, and also comprising pressure detection means, in particular a pressure sensor, for detecting the pressure (p) of the hydraulic fluid in the hydraulic lifting apparatus, characterized in that, in a first step, the valve is switched by a controller for a short pulse period by a pressure pulse briefly applying pressure (p) or relieving pressure (p), wherein the pulse period is so short that there is no or substantially no lifting movement and the pressure profile exhibits decaying oscillation after the valve is closed, wherein, during the decaying oscillation, the average value of the pressure is detected by the pressure detection means as load pressure in a test period.
A gas turbine engine component comprising - an outer ring, - an inner ring, - a plurality of circumferentially spaced elements extending between the inner ring and the outer ring, wherein a primary gas channel for axial gas flow is defined between the elements, wherein the component has an inlet side for gas entrance and an outlet side for gas outflow, and - an annular load transfer structure for transferring loads between said elements and a bearing structure for a turbine shaft positioned centrally in the component, wherein the annular load transfer structure extends circumferentially along an inner side of the inner ring and also inwards in a radial direction of the component, said annular load transfer structure having a first portion and a second portion, wherein the first portion is located closer to the inner ring than the second portion, characterized in that; the first portion, at least along a part of the circumference, is inclined in the radial direction in relation to the second portion, wherein the two inclined portions (23a, 23b) are connected in a connection zone between the inclined portions (23a, 23b), and wherein a radial and/or axial position of the connection zone varies along the circumference such that the radial/axial position of the connection zone in a location that circumferentially corresponds to a first of said elements, i.e. in a first circumferential location, is radially and/or axially different from the radial/axial position of the connection zone in- between the first element and an adjacent second element, i.e. in a second circumferential location. - an outer ring, - an inner ring, - a plurality of circumferentially spaced elements extending between the inner ring and the outer ring, wherein a primary gas channel for axial gas flow is defined between the elements, wherein the component has an inlet side for gas entrance and an outlet side for gas outflow, and - an annular load transfer structure for transferring loads between said elements and a bearing structure for a turbine shaft positioned centrally in the component,
An aerosol provision device comprising a power source, at least one heating element for generating aerosol, and temperature monitoring means configured to monitor the temperature of the heating element, characterised in that when in an operational configuration the device is configured to control the supply of power to the heating element to: supply power to the heating element to initially raise the temperature of the heating element to a first threshold temperature; remove power supplied to the heating element when the temperature monitoring means detects that the temperature of the heating element is at the first threshold temperature, such that the temperature of the heating element decreases to a second threshold temperature; supply power to the heating element when the temperature monitoring means detects that the temperature of the heating element has reduced to the second threshold temperature, such that the temperature of the heating element increases towards the first threshold temperature. supply power to the heating element to initially raise the temperature of the heating element to a first threshold temperature; remove power supplied to the heating element when the temperature monitoring means detects that the temperature of the heating element is at the first threshold temperature, such that the temperature of the heating element decreases to a second threshold temperature; supply power to the heating element when the temperature monitoring means detects that the temperature of the heating element has reduced to the second threshold temperature, such that the temperature of the heating element increases towards the first threshold temperature.
A mixture comprising - at least one nonblocked or blocked diisocyanate and/or polyisocyanate, - at least one aromatic hydrocarbon mixture predominantly composed of alkyl-substituted aromatic compounds having 9 and 10 carbon atoms, where predominantly denotes a content of more than 50% by weight, and - optionally at least one further solvent other than, wherein the fraction of alkyl-subsituted aromatic compounds having 10 carbon atoms in the aromatic hydrocarbon mixture is not more than 25% by weight and the diisocyanates or polyisocyanates in component have been prepared from isophorone diisocyanate. - at least one nonblocked or blocked diisocyanate and/or polyisocyanate, - at least one aromatic hydrocarbon mixture predominantly composed of alkyl-substituted aromatic compounds having 9 and 10 carbon atoms, where predominantly denotes a content of more than 50% by weight, and - optionally at least one further solvent other than,