mhurhangee/ep-ind-claims huggingface dataset:
Fracture-splitting apparatus for the fracture-splitting of an engine component, in particular a connecting rod, with a spreader element assembly with at least one spreader element (41, 42) and an actuating body, drivable by means of a spreader drive,for actuating the spreader element or elements (41, 42) into a spreading position to separate a first component of the engine component, in particular a connecting rod cover, from a second component of the engine component, in particular a connecting rod big end, wherein it has at least one spreader element holder (61, 62) to which the spreader element or elements (41, 42) may be releasably fixed with the aid of a connecting device of the fracture-splitting apparatus, characterised in that the connecting device has a clamping device (81, 82) for clamping without screws of the spreader element or elements (41, 42) to the spreader element holder or holders (61, 62), wherein the clamping device (81, 82) has at least one clamping body for interaction with a thrust bearing section of a thrust bearing body (75, 76) connected to the spreader element (41, 42) or formed by the spreader element (41, 42), and the clamping body is adjustable between a clamping position in which it clamps the spreader element or elements (41, 42) to the spreader element holder or holders (61, 62), and a release position in which the spreader element or elements (41, 42) may be removed from the spreader element holder or holders (61, 62).
IgG type immunoglobulin of the class IgG1 or IgG4, capable of recognizing and binding an epitope of the extracellular domain of the human protein CD99, wherein said immunoglobulin comprises four variable regions capable of recognizing and binding SEQ ID NO: 23, said immunoglobulin comprising two heavy chains and two light chains, and wherein each variable heavy chain is characterized by a CDR3 comprising SEQ ID NO: 1 and each variable light chain is characterized by a CDR3 comprising SEQ ID NO: 2, and wherein: each VH chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 3 and 4; and each VL chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 5 and 6. each VH chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 3 and 4; and each VL chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 5 and 6.
A position transducer comprising: a reflector (7, 71, 72, 73) attached to a rotating shaft of a rotation restriction motor, the reflector having a plurality of reflection surfaces (7b, 7c, 71b, 71c, 72b, 72c, 72d, 73b, 73c, 73d, 73e) protruding radially from its center through which the rotating shaft passes; a diffused-light absorbing member; and a plurality of detectors (A1, A2, A3, A4, B1, B2, B3, B4); characterized in that the position transducer further includes diffused light sources (4a, 4b, 4c, 4d) disposed so as to face a central portion of the reflection surfaces of the reflector, the number of diffused light sources being the same as that of the reflection surfaces; the diffused-light absorbing member is installed on a fixed side of the rotation restriction motor so as to surround the reflector with a distance from the reflector at the rear of the reflector as viewed from the diffused light sources, the diffused-light absorbing member absorbing illumination light from the diffused light sources which has not illuminated the reflection surfaces; and the plurality of detectors are mounted on a same printed circuit board as the diffused light sources to detect an image reflected by the reflector, wherein angular distances between the diffused light sources and between the plurality of detectors, respectively, are arranged in accordance with angular distances between the respective radially protruding plurality of reflection surfaces. a reflector (7, 71, 72, 73) attached to a rotating shaft of a rotation restriction motor, the reflector having a plurality of reflection surfaces (7b, 7c, 71b, 71c, 72b, 72c, 72d, 73b, 73c, 73d, 73e) protruding radially from its center through which the rotating shaft passes; a diffused-light absorbing member; and a plurality of detectors (A1, A2, A3, A4, B1, B2, B3, B4);
Flame scanning device for monitoring a flame, comprising: a radiation collection and transmission element (1, 2, 3, 4, 8) for collecting flame radiation and transmitting it to detection elements (5, 9), a flame sensor element for the detection of radiation and conversion into electrical signals, an evaluation unit for the conversion of the electrical signals into flame parameters, wherein the flame sensor element comprises at least two individual detectors each with individual central detection wavelength and a width of observation window, wherein the individual central detection wavelength and the width of observation window are not overlapping and are covering individual regions of interest of the spectrum of radiation, characterized in that the flame sensor element comprises at least two detectors of a first group, the central detection wavelengths of which are in the range of 300 nm - 700 nm, as well as at least two detectors of a second group, the central detection wavelengths of which are in infrared range, and wherein the detectors of the first and of the second group are arranged in a row arranged essentially transverse to the direction of impinging radiation, and wherein all the detectors of the first group are located in the central part of the row, and the detectors of the second group are all arranged at one lateral outer position or at both lateral outer positions of the row. a radiation collection and transmission element (1, 2, 3, 4, 8) for collecting flame radiation and transmitting it to detection elements (5, 9), a flame sensor element for the detection of radiation and conversion into electrical signals, an evaluation unit for the conversion of the electrical signals into flame parameters, wherein the flame sensor element comprises at least two individual detectors each with individual central detection wavelength and a width of observation window, wherein the individual central detection wavelength and the width of observation window are not overlapping and are covering individual regions of interest of the spectrum of radiation, characterized in that the flame sensor element comprises at least two detectors of a first group, the central detection wavelengths of which are in the range of 300 nm - 700 nm, as well as at least two detectors of a second group, the central detection wavelengths of which are in infrared range, and wherein the detectors of the first and of the second group are arranged in a row arranged essentially transverse to the direction of impinging radiation, and wherein all the detectors of the first group are located in the central part of the row, and the detectors of the second group are all arranged at one lateral outer position or at both lateral outer positions of the row.
Process for producing a solid, internally and externally blocked polyurethane curing agent based on a (cyclo)aliphatic polyisocyanate, in which, in the sequence of steps a) to d), a) i) at least one internally blocked (cyclo)aliphatic polyisocyanate and ii) at least one lactam and/or at least one aliphatic alcohol are dissolved in a solvent to produce a reaction mixture, b)the reaction mixture is heated and reacted, c)the reacted reaction mixture is cooled until product precipitates, and d) liquid solvent and any unreacted dissolved reactants and precipitated product are mechanically separated from one another. a) i) at least one internally blocked (cyclo)aliphatic polyisocyanate and ii) at least one lactam and/or at least one aliphatic alcohol are dissolved in a solvent to produce a reaction mixture, i) at least one internally blocked (cyclo)aliphatic polyisocyanate and ii) at least one lactam and/or at least one aliphatic alcohol are dissolved in a solvent to produce a reaction mixture, b)the reaction mixture is heated and reacted, c)the reacted reaction mixture is cooled until product precipitates, and d) liquid solvent and any unreacted dissolved reactants and precipitated product are mechanically separated from one another.
Method for estimating the position, on a sensor of a light-field acquisition device having a chief ray, corresponding to an optical axis of said light-field acquisition device, wherein the light-field is a four-dimensional function describing the light from different directions at different points in a scene, the method comprising: - for each candidate pixel in a candidate area of a raw image formed by uniform white lighting of said light-field acquisition device and having potential positions for the chief ray, called candidate pixels, computing (631, 632, 63) cross-correlation of the raw image restricted to said candidate area with a symmetrical image obtained by applying central symmetry with respect to said candidate pixel restricted to said candidate area, and providing a cross correlation score for said candidate pixel; and - determining, as a coarse estimate of the position of said chief ray projection, the candidate pixel associated to the highest cross-correlation score. - for each candidate pixel in a candidate area of a raw image formed by uniform white lighting of said light-field acquisition device and having potential positions for the chief ray, called candidate pixels, computing (631, 632, 63) cross-correlation of the raw image restricted to said candidate area with a symmetrical image obtained by applying central symmetry with respect to said candidate pixel restricted to said candidate area, and providing a cross correlation score for said candidate pixel; and - determining, as a coarse estimate of the position of said chief ray projection, the candidate pixel associated to the highest cross-correlation score.
A run-flat tire, comprising: a pair of bead cores, each bead core formed by covering a wire with resin; a carcass that straddles the pair of bead cores, and having end portions that are anchored on the bead cores; side reinforcing rubbers that are provided at tire side portions, and that extend in a tire radial direction along an inner surface of the carcass; a tread that is provided at an outer side, in a tire radial direction, of the carcass; and at the outer side, in the tire radial direction, of the carcass and at an inner side, in a tire radial direction, of the tread, a single belt layer that is formed by covering plural reinforcing cords with resin to form a resin-covered cord structure whose cross-section is shaped as a parallelogram, wherein the belt layer is formed by winding the resin-covered cord structure in a spiral form along a tire circumferential direction, adjacent sections of the resin-covered cord structure in the tire width direction being integrally welded to one another. a pair of bead cores, each bead core formed by covering a wire with resin; a carcass that straddles the pair of bead cores, and having end portions that are anchored on the bead cores; side reinforcing rubbers that are provided at tire side portions, and that extend in a tire radial direction along an inner surface of the carcass; a tread that is provided at an outer side, in a tire radial direction, of the carcass; and at the outer side, in the tire radial direction, of the carcass and at an inner side, in a tire radial direction, of the tread, a single belt layer that is formed by covering plural reinforcing cords with resin to form a resin-covered cord structure whose cross-section is shaped as a parallelogram, wherein the belt layer is formed by winding the resin-covered cord structure in a spiral form along a tire circumferential direction, adjacent sections of the resin-covered cord structure in the tire width direction being integrally welded to one another.
Coating which is applied to a substrate for generating a sheet-like object with a surface coating, selected from the group comprising a façade element, a glass pane with a surface coating, a thermal or photovoltaic solar collector with a covering pane with a surface coating, comprising at least one functional layer and a protective layer, wherein the protective layer protects the functional layer and consists of SiO x N y, characterized in that the functional layer is an oxide layer of a transparent, conductive oxide and has a cellular structure which is built up from individual cells, wherein the cells are square, rectangular, triangular, parallelogram-shaped, rhombus-shaped, honeycomb-shaped or circular or have Penrose parquetting shapes known from mathematics and wherein, between the cells, there are provided cell interstices in which there is a barrier medium which has the chemical composition of the protective layer.
A composition comprising: (a) a thiol-terminated polythioether; (b) a polyene comprising a polyvinyl ether and/or a polyallyl compound, and wherein the number of thiol groups and ene groups in the composition differ by no more than 10 %. (a) a thiol-terminated polythioether; (b) a polyene comprising a polyvinyl ether and/or a polyallyl compound, and wherein the number of thiol groups and ene groups in the composition differ by no more than 10 %.
A method of forming an interconnect for a fuel cell stack, comprising: compressing an interconnect powder to form an interconnect, the interconnect powder comprising Cr, Fe and at least one transition metal selected from Co, Cu, Mn, Ni, or V, wherein: the at least one transition metal is pre-alloyed with particles of at least one of the Cr or the Fe; or the at least one transition metal forms a shell on particles of at least one of the Cr or Fe; and sintering the interconnect. the at least one transition metal is pre-alloyed with particles of at least one of the Cr or the Fe; or the at least one transition metal forms a shell on particles of at least one of the Cr or Fe; and sintering the interconnect.
A method for increasing the authority of a stability and control augmentation system, comprising: providing a first actuator; providing a flight control computer; providing a set of flight control inputs to the flight control computer for issuing commands to the first actuator, the flight control inputs comprising robust inputs and non-robust inputs, wherein the robust inputs are monitored sufficiently to guarantee the validity of their data and wherein the non-robust inputs are inputs that are not necessarily reliable; the method being characterized in that it further comprises: grouping robust inputs into a first group of inputs grouping non-robust inputs into a second group of inputs; processing the first group of inputs into trusted commands for the actuator; processing the second group of inputs into un-trusted commands for the actuator; providing a set of limits for the un-trusted commands; limiting the contribution of the un-trusted commands based on the set of limits to form limited un-trusted commands; and summing the trusted commands with the limited un-trusted commands. providing a first actuator; providing a flight control computer; providing a set of flight control inputs to the flight control computer for issuing commands to the first actuator, the flight control inputs comprising robust inputs and non-robust inputs, wherein the robust inputs are monitored sufficiently to guarantee the validity of their data and wherein the non-robust inputs are inputs that are not necessarily reliable; the method being characterized in that it further comprises: grouping robust inputs into a first group of inputs grouping non-robust inputs into a second group of inputs; processing the first group of inputs into trusted commands for the actuator; processing the second group of inputs into un-trusted commands for the actuator; providing a set of limits for the un-trusted commands; limiting the contribution of the un-trusted commands based on the set of limits to form limited un-trusted commands; and summing the trusted commands with the limited un-trusted commands. grouping robust inputs into a first group of inputs grouping non-robust inputs into a second group of inputs; processing the first group of inputs into trusted commands for the actuator; processing the second group of inputs into un-trusted commands for the actuator; providing a set of limits for the un-trusted commands; limiting the contribution of the un-trusted commands based on the set of limits to form limited un-trusted commands; and summing the trusted commands with the limited un-trusted commands.
Device for winding up a strip material to form a coil or for unwinding a coil, comprising a rotor coiler, which comprises two rotor side members (6, 7) rotatable about a common rotor axis and so arranged at a spacing from one another in axial direction of the rotor axis that rotationally driven coiler mandrels (9A, 9B) can be mounted therebetween, characterised in that the device has outside the rotor coiler two rocker members (43, 44) which are oscillatable independently of one another and which are mounted to be pivotable relative to the two rotor side members (6, 7), wherein each of the rocker members (43, 44) comprises an axial displacement device by means of which the coiler mandrel (9A, 9B) mounted at the respective rocker member (43, 44) can be pushed into or withdrawn again from the rotor coiler in axial direction.
An artificial retina device comprising: a substrate; an array of micro-electrodes formed over the substrate; and a photoconducting polymer blend positioned adjacent to the array of micro-electrodes to form an interface between at least one electrode of the array of micro-electrodes and the photoconducting polymer blend, wherein the photoconducting polymer blend is configured to produce excited charge carriers in response to receiving light, and wherein the interface is configured to accumulate the excited charge carriers and produce a voltage change with respect to a ground, wherein at least a portion of the photoconducting polymer blend comprises a given thickness and is configured to form, upon receiving a first color of two colors, a first electrical signal having a first polarity, and to form, upon receiving a second color of the two colors, a second electrical signal having a second polarity that is opposite from the first polarity. a substrate; an array of micro-electrodes formed over the substrate; and a photoconducting polymer blend positioned adjacent to the array of micro-electrodes to form an interface between at least one electrode of the array of micro-electrodes and the photoconducting polymer blend, wherein the photoconducting polymer blend is configured to produce excited charge carriers in response to receiving light, and wherein the interface is configured to accumulate the excited charge carriers and produce a voltage change with respect to a ground, wherein at least a portion of the photoconducting polymer blend comprises a given thickness and is configured to form, upon receiving a first color of two colors, a first electrical signal having a first polarity, and to form, upon receiving a second color of the two colors, a second electrical signal having a second polarity that is opposite from the first polarity.
Flexible water-based wall-surface heating and cooling system, comprising a heat-transfer medium pipe, a lower base-profile, an upper base-profile, a first guide-profile, a second guide-profile and a first to last horizontally placed heat-exchange profiles, in which the heat-transfer medium pipe is inserted, characterized in that the space between the heat exchange profiles in which the heat-transfer medium pipe is located has a circular closed shape.
A method performed by a user equipment, UE, the method comprising: transmitting, to a base station, BS, multicast broadcast service, MBS, information of interest of the UE via radio resource control, RRC, signaling; receiving, from the BS, an RRC reconfiguration message including information regarding at least one data radio bearer, DRB, for an MBS, wherein the information regarding the at least one DRB for the MBS includes temporary mobile group identity, TMGI, related with the at least one DRB for the MBS; and configuring the at least one DRB for the MBS based on the information regarding the at least one DRB for the MBS, wherein, the MBS information of the interest of the UE includes priority information indicating whether the UE priorities broadcast reception above unicast reception, and a list of MBS broadcast services which the UE is interested to receive. transmitting, to a base station, BS, multicast broadcast service, MBS, information of interest of the UE via radio resource control, RRC, signaling; receiving, from the BS, an RRC reconfiguration message including information regarding at least one data radio bearer, DRB, for an MBS, wherein the information regarding the at least one DRB for the MBS includes temporary mobile group identity, TMGI, related with the at least one DRB for the MBS; and configuring the at least one DRB for the MBS based on the information regarding the at least one DRB for the MBS, wherein, the MBS information of the interest of the UE includes priority information indicating whether the UE priorities broadcast reception above unicast reception, and a list of MBS broadcast services which the UE is interested to receive.
Manufacturing process for making different expansion tanks for different cooling systems and/or for different engines of motor vehicles, each of said expansion tanks having an inlet mouth and comprising: - a plastic shell comprising: a) a wall defining a cavity for containing a coolant liquid; b) at least one collar at said inlet mouth, said collar being outwardly projecting from said wall; - a tubular insert engaging said collar and defining said inlet mouth; said tubular insert being made of plastic material; - retention means which hold said tubular insert relative to said collar; characterised by: - making shells identical in shape and size, for all of said expansion tanks; - making tubular inserts that differ in the value of their inner diameter; each inner diameter value being determined at the design stage depending on the type of cooling system and/or the type of engine; - selecting for each of said shells the most suitable tubular insert among the made tubular inserts; and - fitting the selected suitable tubular inserts in the collars of the corresponding shells. - a plastic shell comprising: a) a wall defining a cavity for containing a coolant liquid; b) at least one collar at said inlet mouth, said collar being outwardly projecting from said wall; a) a wall defining a cavity for containing a coolant liquid; b) at least one collar at said inlet mouth, said collar being outwardly projecting from said wall; - a tubular insert engaging said collar and defining said inlet mouth; said tubular insert being made of plastic material; - retention means which hold said tubular insert relative to said collar; - making shells identical in shape and size, for all of said expansion tanks; - making tubular inserts that differ in the value of their inner diameter; each inner diameter value being determined at the design stage depending on the type of cooling system and/or the type of engine; - selecting for each of said shells the most suitable tubular insert among the made tubular inserts; and - fitting the selected suitable tubular inserts in the collars of the corresponding shells.