mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing at least one element crossing a substrate assembled on a support, comprising a step of electrodeposition of at least a portion of said element in an opening crossing the substrate and on a portion of a conductive seed layer located between the substrate and the support on at least a portion of a surface of the substrate, said portion of the seed layer being located on a same side of the opening as said surface of the substrate, and the support and the seed layer extending laterally beyond the substrate.
A process for identifying a population of young platelets present in a blood sample, said process comprises the steps of: a) analyzing platelets present in a blood sample by carrying out a comprising the steps of: i. adding to said sample a ligand that binds to Major Histocompatibility Complex I (MHC I) coupled to a fluorochrome; ii. measuring the mean fluorescence intensity of the platelets (MFI platelets) with a flow cytometer; and iii. measuring the mean forward scatter parameter with said flow cytometer and determining the MFI platelets / FSC ratio; and b) using the result of step a) to identify a population of young platelets. a) analyzing platelets present in a blood sample by carrying out a comprising the steps of: i. adding to said sample a ligand that binds to Major Histocompatibility Complex I (MHC I) coupled to a fluorochrome; ii. measuring the mean fluorescence intensity of the platelets (MFI platelets) with a flow cytometer; and iii. measuring the mean forward scatter parameter with said flow cytometer and determining the MFI platelets / FSC ratio; and i. adding to said sample a ligand that binds to Major Histocompatibility Complex I (MHC I) coupled to a fluorochrome; ii. measuring the mean fluorescence intensity of the platelets (MFI platelets) with a flow cytometer; and iii. measuring the mean forward scatter parameter with said flow cytometer and determining the MFI platelets / FSC ratio; and b) using the result of step a) to identify a population of young platelets.
An unloading device for a processing device for processing pipes by cutting, having a catching lance which is movable in the longitudinal direction of a pipe and which is insertable into the interior of a pipe to be processed, characterised in that the unloading device comprises a depositing surface movable in a height direction for depositing at least one pipe portion to be severed from the pipe during processing by cutting which is formed on a depositing slide which is displaceable in a longitudinal direction of the pipe and can be positioned below the pipe portion to be deposited during processing of the pipe and can be presented to the pipe in the height direction.
A receiving box adapted to receive deliveries of goods from an autonomous aerial vehicle, the receiving box comprising: a cavity at least a portion of which is accessible to at least a portion of the autonomous aerial vehicle, signal receiving means, a moveable portion moveable from a first position in which the cavity is inaccessible to a second position in which the cavity is externally accessible, the moveable portion comprising a side of the receiving box, the moveable portion comprising securing means, the securing means acting so as to prevent the moveable portion from being moved from the first position to the second position and being releasable on the signal receiving means receiving a signal from transmitting means associated with the autonomous aerial vehicle to allow the moveable portion to move from the first position to the second position, the moveable portion being configured to return from the second position to the first position once the delivery is complete thereby enabling the receiving box to accept the delivery from the autonomous aerial vehicle in to the cavity, being characterised in that the receiving box further comprises a moveable platform configured to move laterally between an extended position to form a landing platform for the autonomous aerial vehicle external to the receiving box and a retracted position where it is held within the cavity. a cavity at least a portion of which is accessible to at least a portion of the autonomous aerial vehicle, signal receiving means, a moveable portion moveable from a first position in which the cavity is inaccessible to a second position in which the cavity is externally accessible, the moveable portion comprising a side of the receiving box, the moveable portion comprising securing means, the securing means acting so as to prevent the moveable portion from being moved from the first position to the second position and being releasable on the signal receiving means receiving a signal from transmitting means associated with the autonomous aerial vehicle to allow the moveable portion to move from the first position to the second position, the moveable portion being configured to return from the second position to the first position once the delivery is complete thereby enabling the receiving box to accept the delivery from the autonomous aerial vehicle in to the cavity, being characterised in that the receiving box further comprises a moveable platform configured to move laterally between an extended position to form a landing platform for the autonomous aerial vehicle external to the receiving box and a retracted position where it is held within the cavity.
Method of dimensioning a cargo while being held at a charging extremity of a vehicle, the method comprising the following steps: • obtaining a three-dimensional model data comprising a set of points representing surfaces of the vehicle transporting the cargo; • determining, using the three-dimensional model data, the position of a point of reference (P R) of a first wheel of the vehicle; • obtaining the position of a split point relatively to the position of the point of reference (P R) of the first wheel; • determining a driving direction of the vehicle; • determining the splitting plane (CC'C") passing through the split point and being perpendicular to the driving direction, and determining a three-dimensional model data of the cargo by subtracting, from the three-dimensional model data of the vehicle transporting the cargo, the points, amongst the set of points, positioned on the side of the splitting plane opposite to the side of the splitting plane comprising the point of reference of the first wheel; • determining the volume of the three-dimensional model data of the cargo. • obtaining a three-dimensional model data comprising a set of points representing surfaces of the vehicle transporting the cargo; • determining, using the three-dimensional model data, the position of a point of reference (P R) of a first wheel of the vehicle; • obtaining the position of a split point relatively to the position of the point of reference (P R) of the first wheel; • determining a driving direction of the vehicle; • determining the splitting plane (CC'C") passing through the split point and being perpendicular to the driving direction, and determining a three-dimensional model data of the cargo by subtracting, from the three-dimensional model data of the vehicle transporting the cargo, the points, amongst the set of points, positioned on the side of the splitting plane opposite to the side of the splitting plane comprising the point of reference of the first wheel; • determining the volume of the three-dimensional model data of the cargo.
A lubricating oil composition comprising: (a) from 6 wt. % to 15 wt. %, based on the total weight of the lubricating oil composition, of one or more base oils comprising one or more polyalphaolefin base oils having a kinematic viscosity at 100°C of from 8.0 cSt to 12 cSt; (b) from 65 wt. % to 85 wt. %, based on the total weight of the lubricating oil composition, of one or more base oils having a kinematic viscosity at 100°C of from 3.0 cSt to 5.5 cSt; and (c) from 0.1 wt. % to 10 wt. %, based on the total weight of the lubricating oil composition, of a succinimide dispersant; wherein base oil is derived at least in part from a C 12 olefin and further wherein base oil A has a weight average molecular weight of from 300 g/mol to 1000 g/mol. (a) from 6 wt. % to 15 wt. %, based on the total weight of the lubricating oil composition, of one or more base oils comprising one or more polyalphaolefin base oils having a kinematic viscosity at 100°C of from 8.0 cSt to 12 cSt; (b) from 65 wt. % to 85 wt. %, based on the total weight of the lubricating oil composition, of one or more base oils having a kinematic viscosity at 100°C of from 3.0 cSt to 5.5 cSt; and (c) from 0.1 wt. % to 10 wt. %, based on the total weight of the lubricating oil composition, of a succinimide dispersant;
A chain connection link comprising: a pair of U-shaped links (1a, 1b) of a U-shaped configuration in front view and each having two arms; a connection arm portion (2a, 2b) provided at an end portion of one arm of each of these U-shaped links; and a connection groove-shaped arm portion (4a, 4b) having a groove (3a, 3b) and provided at an end portion of the other arm of each of these U-shaped links; and through-holes (7a, 7b) provided in the connection arm portion and the connection groove-shaped arm portion, the connection arm portion of one U-shaped link being fit-engaged with the connection groove-shaped arm portion of the other U-shaped link, a connection shaft being passed through the through-holes to connect the pair of U-shaped links, characterised in that: the outer diameter (a) of the outer periphery of the connection groove-shaped arm portion when measured in a first plane orthogonal to a second plane defining a longitudinal direction of a corresponding U-shaped link is larger than the outer diameter (b) of the outer periphery of the connection arm portion when measured in the first plane, and wherein a mutual intersection of the two planes coincides with the centre line of the connection shaft.
An aqueous coating composition, comprising, (a) an aqueous acrylic emulsion polymer present in an amount of from 50 to 88% by weight based on total solids weight of the coating composition; (b) colloidal silica present in an amount of from 14 to 80%, by solids weight, based on the weight of the emulsion polymer; (c) an alkyl silane of Formula: wherein R 1 is a saturated alkyl group with more than 4 carbon atoms; R 2 is an alkoxy group with 1 to 3 carbon atoms, and n is an integer from 1 to 3; wherein the weight ratio of the alkyl silane to solids weight of the colloidal silica is from 0.11 to 0.23; and (d) water; wherein the content of volatile organic components in the coating composition is less than 150 g/L, as measured according to the GB 18582 test method. (a) an aqueous acrylic emulsion polymer present in an amount of from 50 to 88% by weight based on total solids weight of the coating composition; (b) colloidal silica present in an amount of from 14 to 80%, by solids weight, based on the weight of the emulsion polymer; (c) an alkyl silane of Formula: wherein R 1 is a saturated alkyl group with more than 4 carbon atoms; R 2 is an alkoxy group with 1 to 3 carbon atoms, and n is an integer from 1 to 3; wherein the weight ratio of the alkyl silane to solids weight of the colloidal silica is from 0.11 to 0.23; and (d) water;
An immunotherapeutic composition comprising: a) a yeast vehicle; and b) a cancer antigen comprising at least one Brachyury antigen, for use in a method to reduce, arrest, reverse, delay or prevent the metastatic progression of cancer in an individual who has cancer. a) a yeast vehicle; and b) a cancer antigen comprising at least one Brachyury antigen,
A combined cooling system of a motor and a motor controller, wherein the motor is an electric motor, the cooling system comprises a water cooling assembly, an oil cooling assembly, and an oil-water heat exchanger; the water cooling assembly comprises a radiator, a fan, a first water pump, and a water pipe, the radiator is connected in series with the first water pump, and the fan is used for cooling the radiator; the oil cooling assembly comprises an oil pump and an oil pipe, and the oil pump is connected in series between the cooling oil outlet of the motor and the oil inlet of the oil-water heat exchanger via the oil pipe; one end of the oil cooling assembly is connected to a cooling oil outlet of the motor, the other end of the oil cooling assembly is connected to an oil inlet of the oil-water heat exchanger, and an oil outlet of the oil-water heat exchanger is connected to a cooling oil inlet of the motor; the cooling system is characterized in that: one end of the water cooling assembly is connected to a cooling water outlet of the motor, the other end of the water cooling assembly is only connected to a cooling water inlet of the motor controller, a cooling water outlet of the motor controller is connected to a water inlet of an oil-water heat exchanger, and a water outlet of the oil-water heat exchanger is connected to a cooling water inlet of the motor. the water cooling assembly comprises a radiator, a fan, a first water pump, and a water pipe, the radiator is connected in series with the first water pump, and the fan is used for cooling the radiator; the oil cooling assembly comprises an oil pump and an oil pipe, and the oil pump is connected in series between the cooling oil outlet of the motor and the oil inlet of the oil-water heat exchanger via the oil pipe; one end of the oil cooling assembly is connected to a cooling oil outlet of the motor, the other end of the oil cooling assembly is connected to an oil inlet of the oil-water heat exchanger, and an oil outlet of the oil-water heat exchanger is connected to a cooling oil inlet of the motor; the cooling system is characterized in that: one end of the water cooling assembly is connected to a cooling water outlet of the motor, the other end of the water cooling assembly is only connected to a cooling water inlet of the motor controller, a cooling water outlet of the motor controller is connected to a water inlet of an oil-water heat exchanger, and a water outlet of the oil-water heat exchanger is connected to a cooling water inlet of the motor.
A dose collection container comprising first and second opposing walls (13,16), the first wall comprising an aperture sized to receive a nozzle of a nasal spray, and the second wall comprising at least two diverging impact surfaces which, on actuation of a nasal spray into the dose collection container, deflect the spray along an internal surface, characterised in that a first axis extends through a central point on the internal surface of the second wall, in the same plane as the internal surface of the second wall, and a ridge is located in the plane defined by the first axis, wherein the at least two diverging impact surfaces extend outwardly from the ridge.
A particle sorting module comprising: an enclosed housing comprising a proximal end and a distal end and a wall therebetween, the wall comprising an aligner for aligning the housing with a particle sorting system; a flow cell nozzle positioned at the proximal end of the housing, the flow cell nozzle comprising an orifice; a sample interrogation region in fluid communication with the flow cell nozzle orifice; and a droplet deflector positioned downstream of the sample interrogation region, wherein the flow cell nozzle, the sample interrogation region, and the droplet deflector are fully contained in the housing, such that the components contained within the housing are sealed off from the ambient environment. an enclosed housing comprising a proximal end and a distal end and a wall therebetween, the wall comprising an aligner for aligning the housing with a particle sorting system; a flow cell nozzle positioned at the proximal end of the housing, the flow cell nozzle comprising an orifice; a sample interrogation region in fluid communication with the flow cell nozzle orifice; and a droplet deflector positioned downstream of the sample interrogation region, wherein the flow cell nozzle, the sample interrogation region, and the droplet deflector are fully contained in the housing, such that the components contained within the housing are sealed off from the ambient environment.
Apparatus for the movement of bottles in bottling plants, comprising a frame and a star-shaped structure adapted to rotate on a vertical axis relative to the frame through first moving means and comprising at least a portion of end with a side edge, said side edge being adapted to abut on a first bottle so as to move it, wherein a scoop is pivoted on the at least a portion of end and has a side face placed adjacent to the side edge and adapted to abut on the first bottle, so that the side face and the side edge create a continuous supporting profile for the first bottle, said scoop being coupled to a moving mechanism adapted to make the scoop rotate with respect to the at least a portion of end, so as to vary the angle comprised between the side face and the side edge; wherein the moving mechanism comprises: - a guide coupled to the frame, - a first lever coupled to the scoop in correspondence of a first end and comprising a roller on a second end, opposite to the first end, the roller being adapted to slide on said guide; wherein the first end of the first lever is connected rotatably to the scoop; characterized by the fact that the moving mechanism comprises a second lever comprising a first end connected rotatably to the star-shaped structure and a second end, opposite to the first end, connected rotatably to the second end of the first lever. - a guide coupled to the frame, - a first lever coupled to the scoop in correspondence of a first end and comprising a roller on a second end, opposite to the first end, the roller being adapted to slide on said guide;
Measuring equipment configured for mapping the geology in an underground formation and configured to be operable airborne, and comprising - at least one transmitter circuit configured to be assembled for airborne operation and with at least one transmitter coil (6;28;30) and a current source, - at least one switch configured to be assembled for airborne operation and to be inserted between the current source and the at least one transmitter coil and which least one switch serves to connect the current source of the at least one transmitter circuit with the at least one transmitter coil (6;28;30) capable of generating an electrical current (I T) during airborne operation for building up a magnetic field in the underground formation and to cut off the electrical current again thereby causing the built up magnetic field in the underground formation to decay, - at least one receiving circuit configured to be assembled for airborne operation with at least one receiving coil, and - that the at least one receiving coil being configured to be assembled to be located in an area where the induction in the receiving coil from the current in the transmitter coil (6;28;30) when assembled for airborne operation is zero or minimal when a current (I T) as intended for mapping the geology in the underground formation flow in the transmitter coil (6;28;30), characterized in - that the plane of the at least one receiving coil when assembled for airborne operation is located in a plane tangential to a field line in the magnetic field; and - that the plane of the receiving coil is parallel to the plane of the transmitter coil when assembled for airborne operation. - at least one transmitter circuit configured to be assembled for airborne operation and with at least one transmitter coil (6;28;30) and a current source, - at least one switch configured to be assembled for airborne operation and to be inserted between the current source and the at least one transmitter coil and which least one switch serves to connect the current source of the at least one transmitter circuit with the at least one transmitter coil (6;28;30) capable of generating an electrical current (I T) during airborne operation for building up a magnetic field in the underground formation and to cut off the electrical current again thereby causing the built up magnetic field in the underground formation to decay, - at least one receiving circuit configured to be assembled for airborne operation with at least one receiving coil, and - that the at least one receiving coil being configured to be assembled to be located in an area where the induction in the receiving coil from the current in the transmitter coil (6;28;30) when assembled for airborne operation is zero or minimal when a current (I T) as intended for mapping the geology in the underground formation flow in the transmitter coil (6;28;30), - that the plane of the at least one receiving coil when assembled for airborne operation is located in a plane tangential to a field line in the magnetic field; and - that the plane of the receiving coil is parallel to the plane of the transmitter coil when assembled for airborne operation.
A method of cooling of at least one superconductive cable (5,7), which is mounted in a cryostat having at least one thermally insulated pipe, with a free space surrounded by the pipe, within which the cable (5,7) and at least one tubular structure (6,8) are arranged and through which a cooling agent is conducted from a feeding point located at one end up to a distal end of the cryostat, characterized in - that the cooling agent is conducted until the cable is cooled to its temperature of operation exclusively in one direction through the free space of the cryostat and the tubular structure (6,8) and is discharged to the outside at the distal end, and - that the cooling agent is returned after reaching the temperature of operation from the distal end of the arrangement through the tubular structure (6,8) to the feeding point. - that the cooling agent is conducted until the cable is cooled to its temperature of operation exclusively in one direction through the free space of the cryostat and the tubular structure (6,8) and is discharged to the outside at the distal end, and - that the cooling agent is returned after reaching the temperature of operation from the distal end of the arrangement through the tubular structure (6,8) to the feeding point.
An article of wear wherein the article of wear is formed of at least one material comprising iron oxide colloidal nanocrystals arranged within chains, wherein the chains of nanocrystals are embedded within the material used to form the article of wear, wherein the chains of nanocrystals display a color that is determined by a strength of a magnetic field applied to the chains of nanocrystals, wherein the color is maintained when the magnetic field is removed, wherein the material is a yarn, thread, fabric, leather, or foam.