mhurhangee/patent-ind-claim-en huggingface dataset:
A selectively vented biological assay device , the device comprising: a. a sample receiving cartridge comprising a sample inlet and one or more reaction chambers , each of the one or more reaction chambers : (i) comprising a sample receiving opening operatively connected to the sample inlet , and (ii) including a modifying reagent ; and characterised in that the selectively vented biological assay device further comprises b. one or more selective venting elements having passively tunable porosity and covering one or more venting openings of the sample receiving cartridge , wherein the one or more selective venting elements is porous and configured to proceed, upon contact with a liquid, from a first conformation, in which one or more gases can pass therethrough, to a second conformation that reduces the permeability of fluid therethrough, wherein the first conformation allows flow from the sample inlet into the one or more reaction chambers , wherein reducing the permeability is sufficient to render the one or more selective venting elements impermeable to fluid; wherein when a sample liquid flows into the one or more reaction chambers via the sample receiving openings, gas flows through the one or more selective venting elements until the sample liquid contacts the one or more selective venting elements, thereby advancing the one or more selective venting elements from the first conformation to the second conformation and preventing further flow of fluid into the reaction chamber. a. a sample receiving cartridge comprising a sample inlet and one or more reaction chambers , each of the one or more reaction chambers : (i) comprising a sample receiving opening operatively connected to the sample inlet , and (ii) including a modifying reagent ; and characterised in that the selectively vented biological assay device further comprises b. one or more selective venting elements having passively tunable porosity and covering one or more venting openings of the sample receiving cartridge , wherein the one or more selective venting elements is porous and configured to proceed, upon contact with a liquid, from a first conformation, in which one or more gases can pass therethrough, to a second conformation that reduces the permeability of fluid therethrough, wherein the first conformation allows flow from the sample inlet into the one or more reaction chambers , wherein reducing the permeability is sufficient to render the one or more selective venting elements impermeable to fluid;
A door handle structure of a vehicle, comprising: a hinge arm having a lever which is retractable from a door panel at one end thereof and a rotational support axis to rotate the lever so as to be projected from the door panel ; and a driving unit to transmit a drive force to the hinge arm so as to project the lever from the door panel , wherein said lever is configured to be rotatable among a storage position (W) where the lever is flush with the door panel , a gripping position (Y) where the lever is projected from the door panel by said driving unit so that a user is able to grip the lever , and an open position (Z) where the lever is further projected from said gripping position (Y), the lever is biased in a storage direction by a biasing mechanism which is provided at said rotational support axis, a switch which is electrically connected to said driving unit is provided to closely face a vehicle inward side of the lever taking the storage position (W), said driving unit comprises a motor and an output axis which is connected to said motor and said hinge arm so as to transmit an output of the motor to the hinge arm in a region from the storage position (W) to the open position (Z), and said driving unit is configured such that a drive force is transmitted from the motor to the hinge arm via said output axis when the lever is moved from the storage position (W) to the gripping position (Y) and the drive force is transmitted from the hinge arm to the motor via said output axis when the lever is moved from the open position (Z) to the gripping position (Y). a hinge arm having a lever which is retractable from a door panel at one end thereof and a rotational support axis to rotate the lever so as to be projected from the door panel ; and a driving unit to transmit a drive force to the hinge arm so as to project the lever from the door panel , wherein said lever is configured to be rotatable among a storage position (W) where the lever is flush with the door panel , a gripping position (Y) where the lever is projected from the door panel by said driving unit so that a user is able to grip the lever , and an open position (Z) where the lever is further projected from said gripping position (Y), the lever is biased in a storage direction by a biasing mechanism which is provided at said rotational support axis, a switch which is electrically connected to said driving unit is provided to closely face a vehicle inward side of the lever taking the storage position (W), said driving unit comprises a motor and an output axis which is connected to said motor and said hinge arm so as to transmit an output of the motor to the hinge arm in a region from the storage position (W) to the open position (Z), and said driving unit is configured such that a drive force is transmitted from the motor to the hinge arm via said output axis when the lever is moved from the storage position (W) to the gripping position (Y) and the drive force is transmitted from the hinge arm to the motor via said output axis when the lever is moved from the open position (Z) to the gripping position (Y).
A sliding door system provided with at least one trolley movable on one or more rails , the trolley comprising a housing having one or more rollers , a nut mounted in the housing , and a threaded bolt for mounting the door leaf, said bolt being assembled with the nut , wherein the housing has a socket which has horizontal dimensions greater than corresponding horizontal dimensions of the nut , characterized in that the nut is mounted in the socket in the housing so that the space between the nut and the socket is filled with an elastomeric filling bonding the nut to the housing , and in that the bottom part of the nut and the bottom part of the socket have a shape of bevelled cones with larger bases facing downwards in use, and in that the diameter of larger base of conical bottom part of the nut is slightly smaller than smaller base of conical bottom part of the socket .
Dynamic and/or adaptive signposting system comprising: at least one sensor (11a-e) that is designed to sense a physical variable relevant to a route guidance, at least one display device (13, 13a-c) that comprises a dynamic display , wherein the dynamic display is designed to retain a displayed image in an unpowered state, wherein the display device further comprises a memory on which images for display on the dynamic display are completely stored, and a control unit , a cloud with a data memory and an AI algorithm for ascertaining a control signal on the basis of the physical variable relevant to the route guidance, wherein the control unit can be connected to the cloud , wherein the control unit is furthermore designed to transmit to the cloud the physical variable relevant to the route guidance and to receive the control signal from the cloud , wherein the control unit is furthermore designed to actuate the at least one display device (13, 13a-c) with the control signal to display a completely prestored image on the dynamic display , wherein the display device is furthermore designed to interpret the control signal in order to display the corresponding image. at least one sensor (11a-e) that is designed to sense a physical variable relevant to a route guidance, at least one display device (13, 13a-c) that comprises a dynamic display , wherein the dynamic display is designed to retain a displayed image in an unpowered state, wherein the display device further comprises a memory on which images for display on the dynamic display are completely stored, and a control unit , a cloud with a data memory and an AI algorithm for ascertaining a control signal on the basis of the physical variable relevant to the route guidance, wherein the control unit can be connected to the cloud , wherein the control unit is furthermore designed to transmit to the cloud the physical variable relevant to the route guidance and to receive the control signal from the cloud , wherein the control unit is furthermore designed to actuate the at least one display device (13, 13a-c) with the control signal to display a completely prestored image on the dynamic display , wherein the display device is furthermore designed to interpret the control signal in order to display the corresponding image.
Method for providing user-to-user delegation service in federated identity environment, comprising: - assigning, at an identity provider (IdP), a delegation assignment from a first user, delegator, the delegation assignment specifying a service provider, privilege or task to delegate to be performed at the service provider (sP), and a second user, delegatee, - operating the identity provider (IdP) to authenticate the second user, the delegatee, if the authentication step is successful and if the identity provider finds delegations for the second user, the delegatee, providing the second user, the delegatee, a mechanism from which to choose which delegation to perform, therefrom receiving a delegation selection from the second user, and embedding, by the identity provider (IdP), a delegation assertion corresponding to the delegation selection in the authentication step and sending the delegation assertion to the service provider (sP), - in response to receiving the delegation selection from the second user, the delegatee, operating the service provider (sP) to authorize the delegations; and - associating a delegation invocation step with a user authentication step by: i. receiving a login request from the second user, the delegatee, at the service provider (sP), and ii. operating the service provider (sP) to delegate authentication of the second user, the delegatee, to the identity provider (IdP). - assigning, at an identity provider (IdP), a delegation assignment from a first user, delegator, the delegation assignment specifying a service provider, privilege or task to delegate to be performed at the service provider (sP), and a second user, delegatee, - operating the identity provider (IdP) to authenticate the second user, the delegatee, if the authentication step is successful and if the identity provider finds delegations for the second user, the delegatee, providing the second user, the delegatee, a mechanism from which to choose which delegation to perform, therefrom receiving a delegation selection from the second user, and embedding, by the identity provider (IdP), a delegation assertion corresponding to the delegation selection in the authentication step and sending the delegation assertion to the service provider (sP), - in response to receiving the delegation selection from the second user, the delegatee, operating the service provider (sP) to authorize the delegations; and - associating a delegation invocation step with a user authentication step by: i. receiving a login request from the second user, the delegatee, at the service provider (sP), and ii. operating the service provider (sP) to delegate authentication of the second user, the delegatee, to the identity provider (IdP). i. receiving a login request from the second user, the delegatee, at the service provider (sP), and ii. operating the service provider (sP) to delegate authentication of the second user, the delegatee, to the identity provider (IdP).
Method for producing an OSB panel in which long wood chips coated with an adhesive are spread in an oriented manner in at least three layers , wherein the wood chips in adjacent layers are aligned in an offset manner and subsequently the spread layers are compressed under high pressure and temperature to form a panel of desired thickness, the adhesive hardening in the process, wherein a pre-compacted mat composed of thermoplastic fibres and wood fibres is applied to the layer of long wood chips that was spread last and on compression the plastics fibres melt and the wood fibres are pressed into the interstices formed between the long wood chips, with the result that a smooth surface forms on the panel after the pressing.
A data transmission method performed by a terminal device, comprising: receiving, , configuration information from a first network device or a second network device; configuring, using the received configuration information, the terminal device to collect first data, wherein the first data is data used for machine learning and comprises one or more of the following data: training data, a model parameter gradient, and an inference result; collecting (S430) the first data using the configured terminal device; and sending (S440), from the configured terminal device, a first data segment and first information to the first network device, wherein the first data segment is one of one or more data segments corresponding to the first data,- and the first information indicates a target device of the first data segment. receiving, , configuration information from a first network device or a second network device; configuring, using the received configuration information, the terminal device to collect first data, wherein the first data is data used for machine learning and comprises one or more of the following data: training data, a model parameter gradient, and an inference result; collecting (S430) the first data using the configured terminal device; and sending (S440), from the configured terminal device, a first data segment and first information to the first network device, wherein the first data segment is one of one or more data segments corresponding to the first data,- and the first information indicates a target device of the first data segment.
A compact case (1-8) built-in with a hinge unit , comprising a flat box shaped container body that stores cosmetic in a lower bottom part, a lid body connected to a back end of the container body by a hinge using at least one or more hinge unit , the lid body covering an upper opening of the container body in an openable and closable manner, the lid body being urged in a predetermined direction up to a predetermined opening and closing angle with a rotating torque controlling mechanism built-in the hinge unit, the compact case (1-8) further comprising a frame body to be fixed to the container body , which is made of a plate-like member having a flat peripheral shape to cover the upper opening of the container body ; wherein a shaft section of the hinge unit protrudes in an axial direction from a tip end side of a case section of the hinge unit , wherein a hinge storing section for storing the case section of the hinge unit is provided at a back end side of the container body and partitioned with wall surfaces so that the shaft section is made to protrude therefrom, wherein a receiving hole is formed to the back end of the lid body into which the shaft section of the hinge unit is to be inserted, wherein the case section of the hinge unit is stored in the hinge storing section which is open upwards, the frame body is attached to the container body so as to cover up the open hinge storing section , and the case section of the hinge unit is fixed to the container body , and wherein the shaft section of the hinge unit is inserted in the receiving hole , and the container body and the lid body are connected in the openable and closable manner.
A fiber reinforced composite structure comprising a composite ply, wherein the composite ply comprises a fiber tow in a resin matrix, wherein the fiber tow comprises a plurality of fibers (112;122) and carbon nanotubes grown on the plurality of fibers (112;122), wherein the carbon nanotubes are located in an intratow region between the plurality of fibers (112;122), characterized in that the carbon nanotubes each comprise a first end coupled to a fiber in the plurality of fibers and a second end extending away from the fiber and are configured to increase a distance between adjacent fibers in the plurality of fibers and wherein the fiber tow comprises a tow fiber volume fraction between 10% to 20%
Viscous lubricants comprising chondroitin sulfate (CS) in combination with hyaluronic acid O-sulfated derivatives of the 1 st degree of sulfation, for use in the intra-articular or locoregional treatment of disorders and/or diseases selected from the group consisting of: osteoarthrosis, subchondral damage, osteoporosis and particularly transient regional osteoporosis, osteochondral damage from trauma/microtrauma, synovitis and tenosynovitis, tendinitis and/or tendinosis.
A radially-directed spark igniter comprising: a plurality of electrodes and an insulator , which are configured to form a body having an outer surface; wherein the plurality of electrodes comprises: a center electrode having an end , wherein at least a portion of the center electrode forms at least part of the outer surface of the body; and a shell electrode having an inner surface and an end , wherein at least a portion of the shell electrode forms at least part of the outer surface of the body; wherein the insulator is positioned between the center electrode and the shell electrode , wherein at least a portion of the insulator is uncovered by the center electrode and the shell electrode such that a spark gap is formed from a first edge of the center electrode and a second edge of the shell electrode ; wherein the spark gap is located on a radial facing surface of the spark igniter and at least one of the ends forms at least one of the first edge and the second edge of the spark gap , wherein at least a portion of at least one end does not contact the insulator ; and a depth of the spark gap is measured from the uncovered portion of the insulator to the outer surface of the body, wherein the depth is less than 8% of the outer surface perimeter of the body. a plurality of electrodes and an insulator , which are configured to form a body having an outer surface; wherein the plurality of electrodes comprises: a center electrode having an end , wherein at least a portion of the center electrode forms at least part of the outer surface of the body; and a shell electrode having an inner surface and an end , wherein at least a portion of the shell electrode forms at least part of the outer surface of the body; a center electrode having an end , wherein at least a portion of the center electrode forms at least part of the outer surface of the body; and a shell electrode having an inner surface and an end , wherein at least a portion of the shell electrode forms at least part of the outer surface of the body; wherein the insulator is positioned between the center electrode and the shell electrode , wherein at least a portion of the insulator is uncovered by the center electrode and the shell electrode such that a spark gap is formed from a first edge of the center electrode and a second edge of the shell electrode ; wherein the spark gap is located on a radial facing surface of the spark igniter and at least one of the ends forms at least one of the first edge and the second edge of the spark gap , wherein at least a portion of at least one end does not contact the insulator ; and a depth of the spark gap is measured from the uncovered portion of the insulator to the outer surface of the body, wherein the depth is less than 8% of the outer surface perimeter of the body.
Electrical assembly having a first electrical component that comprises at least one first conductor that is arranged in a first insulating part and comprises at least one free conductor end that protrudes from the first insulating part , and said electrical assembly having a second electrical component that is produced independently from the first electrical component and comprises at least one second conductor that is arranged in a second insulating part and said second conductor comprises at least one free conductor end that protrudes out of the second insulating part , and said electrical assembly having a receiving chamber that is embodied on the electrical assembly and an electrical contact site is arranged in said receiving chamber between the first conductor and the second conductor , wherein the receiving chamber is filled at least in part with a potting compound in such a manner that the contact site and the free conductor ends of the first conductor and of the second conductor are covered by the potting compound and the potting compound is delimited on at least five sides by means of an inner wall of the receiving chamber , wherein the inner wall of the receiving chamber is formed by wall surfaces both of the first insulating part and also of the second insulating part , wherein the first electrical component is formed by means of a metal lead frame part that is encased at least in sections by an injection molding compound that forms the first insulating part and that the second electrical component is formed by means of a metal lead frame part that is encased at least in sections by an injection molding compound that forms the second insulating part , characterized in that the first insulating part comprises a frame that forms a circumferential wall surface that delimits the receiving chamber at the sides and is arranged on the second insulating part in such a manner that a wall surface of the second insulating part forms a base of the receiving chamber that seals the frame on one side.
An inductor device comprising: a coil unit that includes a first coil wound about a first axis arranged in a first direction and a second coil coupled to the first coil and wound, in an opposite direction to the first coil, about a second axis, the second axis being arranged in the first direction, the first axis and the second axis being offset laterally with respect to each other so that the first and second coils are side-by-side with a gap between them; a core unit that surrounds inner and outer spaces of the coil unit ; and an induction unit ; wherein a first end and a second end of the first coil extend in a second direction perpendicular to the first direction to connect to external terminals on opposite sides of the core unit , and a first end and a second end of the second coil extend in the second direction to connect to external terminals on opposite sides of the core unit ; wherein the induction unit that is disposed in the inductor device to couple the first and second coils and mutually compensate a magnetic field induced from the first coil and a self-magnetic field generated in the second coil ; and wherein the induction unit is formed as a closed loop. a coil unit that includes a first coil wound about a first axis arranged in a first direction and a second coil coupled to the first coil and wound, in an opposite direction to the first coil, about a second axis, the second axis being arranged in the first direction, the first axis and the second axis being offset laterally with respect to each other so that the first and second coils are side-by-side with a gap between them; a core unit that surrounds inner and outer spaces of the coil unit ; and an induction unit ; wherein a first end and a second end of the first coil extend in a second direction perpendicular to the first direction to connect to external terminals on opposite sides of the core unit , and a first end and a second end of the second coil extend in the second direction to connect to external terminals on opposite sides of the core unit ; wherein the induction unit that is disposed in the inductor device to couple the first and second coils and mutually compensate a magnetic field induced from the first coil and a self-magnetic field generated in the second coil ; and wherein the induction unit is formed as a closed loop.