mhurhangee/ep-ind-claims huggingface dataset:
A method of calculating and readjusting distance in an assembly operation, the method comprising the steps of: - providing an assembly comprising a first part, a second part, driver means coupled to the first part and sensor means, wherein the driver means are arranged to selectively move the first part to the second part; - actuating the driver means to selectively move the first part between a first known position and a second position, wherein the sensor means are used to detect the first known position; - registering speed and/or acceleration data of the driver means between the first known position and the second position; - measuring the time interval for the first part to move between the first known position and the second position; - calculating the distance moved by the first part between the first known position and the second position using the measured time interval and the data registered from the driver means; - evaluating the difference between a theoretical distance and the calculated distance, between the first known position and the second position; - determining a correction factor based on the evaluated difference; - re-evaluating a theoretical optimum distance of the second position relative to the first known position using the correction factor; and - programming the driver means, such that on actuation thereof for a subsequent assembly operation, the first part is moved relative to the first known position by the theoretical optimum distance evaluated for the second position. - providing an assembly comprising a first part, a second part, driver means coupled to the first part and sensor means, wherein the driver means are arranged to selectively move the first part to the second part; - actuating the driver means to selectively move the first part between a first known position and a second position, wherein the sensor means are used to detect the first known position; - registering speed and/or acceleration data of the driver means between the first known position and the second position; - measuring the time interval for the first part to move between the first known position and the second position; - calculating the distance moved by the first part between the first known position and the second position using the measured time interval and the data registered from the driver means; - evaluating the difference between a theoretical distance and the calculated distance, between the first known position and the second position; - determining a correction factor based on the evaluated difference; - re-evaluating a theoretical optimum distance of the second position relative to the first known position using the correction factor; and - programming the driver means, such that on actuation thereof for a subsequent assembly operation, the first part is moved relative to the first known position by the theoretical optimum distance evaluated for the second position.
A method for sharing information, the method comprising, at a first system: receiving a request to send a copy of a document to a second system; wherein the document comprises an identifier to a first object that is stored outside of the document and within the first system, the document further comprising one or more instructions configured to cause generation of one or more presented components of the document based on retrieving data that belongs to the first object; at a first server, based at least partially upon the retrieved data belonging to the first object, generating evidence data that describes one or more aspects of the first object; wherein the evidence data is different from the identifier to the first object and different from the retrieved data belonging to the first object; responsive to the request to send the copy of the document to the second system, the first server at the first system sending, to the second system, the copy of the document and the evidence data; wherein the method is performed by one or more computing devices. receiving a request to send a copy of a document to a second system; wherein the document comprises an identifier to a first object that is stored outside of the document and within the first system, the document further comprising one or more instructions configured to cause generation of one or more presented components of the document based on retrieving data that belongs to the first object; at a first server, based at least partially upon the retrieved data belonging to the first object, generating evidence data that describes one or more aspects of the first object; wherein the evidence data is different from the identifier to the first object and different from the retrieved data belonging to the first object; responsive to the request to send the copy of the document to the second system, the first server at the first system sending, to the second system, the copy of the document and the evidence data; wherein the method is performed by one or more computing devices.
A battery system, in particular for an aircraft, having a housing, which is sealed gas-tight, and with a cell block, which is formed from a plurality of battery cells connected electrically and mechanically by contact plates, wherein the housing can be connected to a vacuum pump in order to generate a vacuum within the housing and a vacuum prevails within the housing, and wherein at least one housing side wall of the housing is so flexible that the housing side wall is tensioned together with the cell block by the vacuum acting within the housing, characterized in that the housing side wall is formed from aluminium sheet with a wall thickness of a maximum of 2 mm, wherein within the housing a pressure sensor is arranged for controlling the vacuum pump, which is connected with a control unit which is adapted so that a control signal is emitted when the measured value of the pressure sensor lies outside a predetermined safety range.
A culture container for activating lymphocytes that is formed in a bag-like shape and is formed of a soft-packaging material, wherein, anti-CD3 antibodies are immobilized at a density of 10 to 300 ng/cm 2 on one surface of opposing inner surfaces within the container, and anti-CD3 antibodies in the form of a solution are enclosed in an amount of 0.25 to 400 ng and 0.1 to 800 μl per 1 cm 2 of a culture surface formed of said one surface.
An apparatus, comprising: a housing having a first input port (104; 106; 108; 110; 112), a second input port, a third input port, and an output port; an electronic sensor (202A-E) suitable to be operationally coupled to an exhaust flowpath; an electrical conduit (204A-E) structured to electrically couple the electronic sensor (202A-E) to the first input port (104; 106; 108; 110; 112); a first fluid conduit fluidly open to the second input port at a first end and fluidly open to the exhaust flowpath at a position upstream of a particulate filter at a second end; a second fluid conduit fluidly open to the third input port at a first end and fluidly open to the exhaust flowpath at a position downstream of the particulate filter at a second end; a differential pressure sensor structured to determine a differential pressure in response to a first pressure at the second input port and a second pressure at the third input port, wherein the differential pressure sensor is located in the housing; and an electrical communicator structured to provide electronic information representative of the differential pressure and output from the electronic sensor (202A-E) at the output port, wherein the electrical communicator is disposed in the housing. a housing having a first input port (104; 106; 108; 110; 112), a second input port, a third input port, and an output port; an electronic sensor (202A-E) suitable to be operationally coupled to an exhaust flowpath; an electrical conduit (204A-E) structured to electrically couple the electronic sensor (202A-E) to the first input port (104; 106; 108; 110; 112); a first fluid conduit fluidly open to the second input port at a first end and fluidly open to the exhaust flowpath at a position upstream of a particulate filter at a second end; a second fluid conduit fluidly open to the third input port at a first end and fluidly open to the exhaust flowpath at a position downstream of the particulate filter at a second end; a differential pressure sensor structured to determine a differential pressure in response to a first pressure at the second input port and a second pressure at the third input port, wherein the differential pressure sensor is located in the housing; and an electrical communicator structured to provide electronic information representative of the differential pressure and output from the electronic sensor (202A-E) at the output port, wherein the electrical communicator is disposed in the housing.
A random access method, performed by a communications apparatus, wherein the method comprises: receiving from a network device, information about a physical random access channel PRACH resource set and information about one or more physical uplink shared channel PUSCH resources associated with each PRACH resource in the PRACH resource set, wherein each PUSCH resource associated with each PRACH resource is associated with one preamble sequence set; and if a first PUSCH resource associated with a valid first PRACH resource in the PRACH resource set is valid, sending a first preamble sequence to the network device on the first PRACH resource, and sending uplink data to the network device on the first PUSCH resource, wherein the first preamble sequence is a preamble sequence in a preamble sequence set associated with the first PUSCH resource, wherein validity of the first PUSCH resource and the first PRACH resource is determined based on frame structure or slot preconfigured by the network device. receiving from a network device, information about a physical random access channel PRACH resource set and information about one or more physical uplink shared channel PUSCH resources associated with each PRACH resource in the PRACH resource set, wherein each PUSCH resource associated with each PRACH resource is associated with one preamble sequence set; and if a first PUSCH resource associated with a valid first PRACH resource in the PRACH resource set is valid, sending a first preamble sequence to the network device on the first PRACH resource, and sending uplink data to the network device on the first PUSCH resource, wherein the first preamble sequence is a preamble sequence in a preamble sequence set associated with the first PUSCH resource, wherein validity of the first PUSCH resource and the first PRACH resource is determined based on frame structure or slot preconfigured by the network device.
A composition comprising a Hcp antibody, said antibody having a light chain variable region CDR 1 sequence SLLNSGNQRNY (SEQ ID NO: 2), CDR 2 sequence GAS (SEQ ID NO: 3), and CDR 3 sequence QNDHIYPFTF (SEQ ID NO: 4); and a heavy chain variable region CDR1 sequence GRIFSSYW (SEQ ID NO: 6), CDR 2 sequence IRLKSDNYVT (SEQ ID NO: 7), and CDR 3 sequence RSYHALDY (SEQ ID NO: 8) or an antibody fragment that retains said CDRs.
An airbag device comprising: an airbag that is normally folded and is inflated and deployed in an emergency; an inflator for supplying gas to the airbag; a retainer for fixing the airbag and the inflator; and an airbag cover for housing the airbag, wherein the airbag cover includes a side wall portion standing on its inner side, a recess formed in an end face at almost the center of the side wall portion, and retaining holes formed in the side wall portion on both sides of the recess, wherein the retainer includes a first hook that is fittable in the recess and contactable with a bottom face of the recess, and second hooks that are contactable with inner faces of the retaining holes, and wherein the retainer is centered in a width direction by fitting the first hook in the recess, and the side wall portion is clamped in a standing direction by contacting the first hook with the recess and contacting the second hooks with the retaining holes so as to position the retainer relative to the airbag cover.
A heating device comprising: - an induction element, - an induced element, and - a first dielectric element placed between the induction element and the induced element, wherein the dielectric element is vacuum, or gas, particularly air, where the induced element comprises a metal alloy containing a first metal or a first mixture of metals in a percentage in the range 90% - 99.99% by weight to the total weight and containing a second metal or a second mixture of metals in a percentage in the range 0.01% - 10% by weight to the total weight; characterized in that the first metal is an amagnetic metal, for example diamagnetic or paramagnetic or antiferromagnetic metal, or in that the first mixture of metals is amagnetic or exclusively comprises non-magnetic metals, and in that the second metal is a ferromagnetic or ferrimagnetic metal, or in that the second mixture of metals is magnetic or exclusively comprises ferromagnetic or ferrimagnetic metals. - an induction element, - an induced element, and - a first dielectric element placed between the induction element and the induced element,
A fuel system valve assembly, comprising: a housing having a fuel passage defined at least in part by a fuel passage wall, said fuel passage wall having a seat, a cylindrical section located downstream of said seat, and a frustoconical section located immediately downstream of said cylindrical section; a spring; and a body received in said housing for linear reciprocation between an open position and a closed position, said body being biased to the closed position by said spring, said body having a valve head abutting said seat when said body is in the closed position, and characterized bv said cylindrical section has a constant diameter for a linear dimension that is greater than 1.0 mm, wherein a back face opposite to the outer face of said valve head has a diameter 1% to 5% less than said constant diameter of said cylindrical section; and when said body is in the closed position, the diameter of said back face is disposed axially within the linear extent of said cylindrical section. a housing having a fuel passage defined at least in part by a fuel passage wall, said fuel passage wall having a seat, a cylindrical section located downstream of said seat, and a frustoconical section located immediately downstream of said cylindrical section; a spring; and a body received in said housing for linear reciprocation between an open position and a closed position, said body being biased to the closed position by said spring, said body having a valve head abutting said seat when said body is in the closed position, and characterized bv
A machine to process section bars, in particular made of aluminium, light alloys, PVC or the like, the machine comprising an elongated base extending in a first direction; at least one operating station (5, 22), which is obtained along the base so as to carry out at least one processing operation of the section bars; a first feeding unit to feed the section bars to the operating station (5, 22); and a second feeding unit to receive the section bars from the operating station (5, 22); the second feeding unit comprising a roller conveyor device comprising, in turn, a plurality of rollers, which are mounted so as to rotate around respective rotation axes, which are parallel to one another and to a second direction, which is transverse to the first direction, and a belt conveyor device comprising, in turn, a plurality of belts, which are parallel to one another and to the second direction; and being characterized in that the second feeding unit further comprises at least one transfer device to transfer each section bar from the roller conveyor device to the belt conveyor device; the transfer device being movable in the first direction so as to move along the roller conveyor device and the belt conveyor device, in the second direction so as to move between the rollers and the belts, and in a third direction, which is orthogonal to said first and second directions (4, 12), so as to disengage the section bars from the rollers and release the section bars on the belts.
A computer-implemented method comprising: deploying, by a cloud integration system, an integration flow, iFlow, as a resource; assigning, by a container orchestration service, the resource to one or more pods; copying, by a pod sync agent, an iFlow definition mapped to the resource into the one or more pods; assigning, by the pod sync agent, a unique label to the resource based on the iFlow deployed into the one or more pods, the unique label identifying the resource; creating, by the cloud integration system, a service as an endpoint to the resource, with a rule redirecting calls to the one or more pods containing the resource; receiving, by the cloud integration system, a request to call the service of a specific resource; determining, by the cloud integration system using the rule, a specific pod to which to direct the request by: determining, by the cloud integration system, current loads of pods containing the specific resource; and forwarding, using the unique label, the request to a pod with a low load and which executes the specific resource labelled with the unique label. deploying, by a cloud integration system, an integration flow, iFlow, as a resource; assigning, by a container orchestration service, the resource to one or more pods; copying, by a pod sync agent, an iFlow definition mapped to the resource into the one or more pods; assigning, by the pod sync agent, a unique label to the resource based on the iFlow deployed into the one or more pods, the unique label identifying the resource; creating, by the cloud integration system, a service as an endpoint to the resource, with a rule redirecting calls to the one or more pods containing the resource; receiving, by the cloud integration system, a request to call the service of a specific resource; determining, by the cloud integration system using the rule, a specific pod to which to direct the request by: determining, by the cloud integration system, current loads of pods containing the specific resource; and forwarding, using the unique label, the request to a pod with a low load and which executes the specific resource labelled with the unique label. determining, by the cloud integration system, current loads of pods containing the specific resource; and forwarding, using the unique label, the request to a pod with a low load and which executes the specific resource labelled with the unique label.
A turbomachine, comprising: a plurality of transition ducts disposed in a generally annular array and comprising a first transition duct and a second transition duct, each of the plurality of transition ducts comprising an inlet, an outlet, and a passage defining an interior and extending between the inlet and the outlet and defining a longitudinal axis, a radial axis, and a tangential axis, the outlet of each of the plurality of transition ducts offset from the inlet along the longitudinal axis and the tangential axis; a support ring assembly (180,182) downstream of the plurality of transition ducts along a hot gas path; a plurality of mechanical fasteners connecting at least one transition duct of the plurality of transition ducts to the support ring assembly (180,182); and a late injection assembly comprising an outlet defined downstream of a choke plane defined in the interior of the at least one transition duct, wherein the late injection assembly provides fluid communication for an injection fluid to flow into the interior downstream of the inlet of at least one transition duct of the plurality of transition ducts. a plurality of transition ducts disposed in a generally annular array and comprising a first transition duct and a second transition duct, each of the plurality of transition ducts comprising an inlet, an outlet, and a passage defining an interior and extending between the inlet and the outlet and defining a longitudinal axis, a radial axis, and a tangential axis, the outlet of each of the plurality of transition ducts offset from the inlet along the longitudinal axis and the tangential axis; a support ring assembly (180,182) downstream of the plurality of transition ducts along a hot gas path; a plurality of mechanical fasteners connecting at least one transition duct of the plurality of transition ducts to the support ring assembly (180,182); and a late injection assembly comprising an outlet defined downstream of a choke plane defined in the interior of the at least one transition duct, wherein the late injection assembly provides fluid communication for an injection fluid to flow into the interior downstream of the inlet of at least one transition duct of the plurality of transition ducts.
A pharmaceutical formulation comprising the peptide Arg 34, Lys 26 (N-ε-(γ-Glu(N-α-hexadecanoyl)))-GLP-1 and propylene glycol, wherein said propylene glycol is present in said formulation in a final concentration of from 1 mg/ml to 25 mg/ml, and said formulation has a pH of from 7.0 to 10.0.
Watch case comprising first and second pieces (1, 2) assembled by a bayonet link, the bayonet link comprising at least one lug defined by the first piece and at least one groove defined by the second piece, the groove defining a strip and comprising a bottom and an entrance by which, during the assembling of the first and second pieces (1, 2), the lug can be engaged into the groove in parallel to a determined axis, wherein the lug can then be moved toward the bottom by relatively rotating the first and second pieces (1, 2) around the determined axis and in a determined direction, the strip comprising an inner face comprising an inclined, first portion extending toward the bottom as far as a determined point and a second portion located in the bottom, beyond the determined point, wherein the first and second pieces (1, 2) further comprise respective rigid surfaces (18, 17) facing each other in the direction of the determined axis, characterised in that the second portion of the inner face of the strip is recessed with respect to a plane that is perpendicular to the determined axis and that passes through the determined point, and in that the first and second pieces (1, 2) are arranged so that when, during their assembling, they rest against each other in the direction of the determined axis by a contact between the rigid surfaces (18, 17) and the lug is in the groove, relatively rotating the first and second pieces (1, 2) around the determined axis and in the determined direction causes the lug to be elastically deformed by a cooperation between the lug and the first portion of the inner face of the strip, wherein the strip returns to its rest position once the lug is in the bottom of the groove to lock the lug in position.
A method of decoding video data, the method comprising: determining that a current picture is a broken-link access, BLA, picture based on a network abstraction layer, NAL, unit type of a coded slice of the current picture, wherein the BLA picture has one or more associated leading pictures, an associated leading picture of the BLA picture being a picture that follows the BLA picture in decoding order but precedes the BLA picture in output order; and in response to determining that the current picture is a BLA picture, marking all reference pictures (204, 208, 210) in a decoded picture buffer, DPB, as unused for reference prior to decoding the current picture. determining that a current picture is a broken-link access, BLA, picture based on a network abstraction layer, NAL, unit type of a coded slice of the current picture, wherein the BLA picture has one or more associated leading pictures, an associated leading picture of the BLA picture being a picture that follows the BLA picture in decoding order but precedes the BLA picture in output order; and in response to determining that the current picture is a BLA picture, marking all reference pictures (204, 208, 210) in a decoded picture buffer, DPB, as unused for reference prior to decoding the current picture.