mhurhangee/ep-ind-claims huggingface dataset:
An electronic inner mirror device comprising: a camera installed at a rear portion of a vehicle to acquire an image behind the vehicle; an electronic inner mirror that has two operation modes of an electronic mirror mode in which it displays the image and an optical mirror mode in which it reflects an area behind the vehicle by optical reflection, and is configured such that the operation modes can be switched by operating a switching device; and a raindrop removing device (26, 28 or 74) that is configured to remove raindrops existing on a rear side of the vehicle with respect to the camera, the electronic inner mirror device being characterised in that it further comprises an electronic control unit configured to notify an occupant or occupants that raindrops can be removed by the raindrop removing device (26, 28 or 74) when the operation modes are switched from the electronic mirror mode to the optical mirror mode in a situation where it is estimated that raindrops exist at a position other than the rear portion of the vehicle.
A printed circuit board comprising a sensor unit (10, 10'), wherein the sensor unit (10, 10') comprises at least one exposed component (5, 5a, 5b) containing a chemical element and/or a chemical compound at its surface which is adapted to undergo a color change observed in visible light due to presence of a corrosive, wherein the sensor unit further comprises a light receiving element, operable to receive the visible light reflected by the exposed component (5, 5a, 5b) and to convert the received reflected light signals into electrical signals.
Measurement scale for an incremental encoder wherein the measurement scale has an incremental track with scattering regions and reflective regions arranged alternatingly in the longitudinal direction (x), wherein the scattering regions each have at least two linear recesses (26-1, 26-2, 26-3, 26-4, 26-5) which extend substantially perpendicular to the longitudinal direction (x) of the incremental track and are arranged consecutively in a row in the longitudinal direction (x) of the incremental track and are configured to diffusely reflect incident light wherein the reflective regions of the incremental track have a substantially smooth surface which is configured to specularly reflect incident light, wherein the incremental track also has a pitch which results from adding the width (B 23) of one of the scattering regions and the width (B 24) of one of the reflective regions, and wherein each scattering region, in the longitudinal direction (x) of the incremental track, has a width (B 23) which is smaller than half the pitch wherein respectively two of the linear recesses (26-1, 26-2, 26-3, 26-4, 26-5) of a scattering region are arranged on opposing outer sides (As1, As2) of the one scattering region and delimit the width (B 23) of the one scattering region in the longitudinal direction (x) of the incremental track, characterised in that the at least two linear recesses (26-1, 26-2, 26-3, 26-4, 26-5) of the scattering regions are respectively configured from a plurality of substantially round recesses which are arranged overlapping each other.
A system for closing a tissue defect, the system comprising: a self-locking strap; having a lock-head; a first needle having a lumen for delivering the self-locking strap through a first incision site; a second needle having a hook on its distal end for engaging the self-locking strap and pulling the strap from a body cavity through a second incision site; and a guide having an aperture near its distal end for passing the second needle therethrough and retaining the strap after the second needle is removed from the aperture. a self-locking strap; having a lock-head; a first needle having a lumen for delivering the self-locking strap through a first incision site; a second needle having a hook on its distal end for engaging the self-locking strap and pulling the strap from a body cavity through a second incision site; and a guide having an aperture near its distal end for passing the second needle therethrough and retaining the strap after the second needle is removed from the aperture.
A process of preparing a starch comprising crosslinking a starch using sodium trimetaphosphate or a combination of sodium trimetaphosphate and sodium tripolyphosphate, - in which the pH is adjusted to between 11.5 and 12.0 prior to the crosslinking reaction and is maintained at 11.5 to 12.0 throughout the crosslinking reaction - wherein the reaction mixture is made basic using at least 25% sodium hydroxide,- - wherein the reaction is conducted at a solids level of at least 36% by weight, and - wherein from about 1 to 20% STMP by weight of the starch is used. - in which the pH is adjusted to between 11.5 and 12.0 prior to the crosslinking reaction and is maintained at 11.5 to 12.0 throughout the crosslinking reaction - wherein the reaction mixture is made basic using at least 25% sodium hydroxide,- - wherein the reaction is conducted at a solids level of at least 36% by weight, and - wherein from about 1 to 20% STMP by weight of the starch is used.
Device for producing an acoustic signal in a liquid medium, comprising: - a pneumatic chamber configured to contain a compressed gas volume, - at least one pneumatic exhaust port (34a,34b) allowing the compressed gas volume to be released out of the pneumatic chamber, - a shuttle able to be moved along a translational axis during an opening phase, between two positions: * a closed position in which the compressed gas volume is enclosed within the pneumatic chamber, * an open position in which the compressed gas volume is released out of the pneumatic chamber through said at least one pneumatic exhaust port (34a,34b) and out of the device, to produce the acoustic signal in the liquid medium, characterized in that the device comprises hydraulic means configured to brake the shuttle during said opening phase, said hydraulic means comprising a hydraulic chamber and having a hydraulic exhaust area of a hydraulic volume out of the hydraulic chamber, said hydraulic exhaust area being configured to enable the hydraulic volume to be exhausted out of said device in said liquid medium over the opening phase; and further characterized in that said hydraulic means comprise means for controlling the acoustic signal, whereby said means for controlling the acoustic signal themselves comprise means for adapting said hydraulic exhaust area. - a pneumatic chamber configured to contain a compressed gas volume, - at least one pneumatic exhaust port (34a,34b) allowing the compressed gas volume to be released out of the pneumatic chamber, - a shuttle able to be moved along a translational axis during an opening phase, between two positions: * a closed position in which the compressed gas volume is enclosed within the pneumatic chamber, * an open position in which the compressed gas volume is released out of the pneumatic chamber through said at least one pneumatic exhaust port (34a,34b) and out of the device, to produce the acoustic signal in the liquid medium, characterized in that the device comprises hydraulic means configured to brake the shuttle during said opening phase, said hydraulic means comprising a hydraulic chamber and having a hydraulic exhaust area of a hydraulic volume out of the hydraulic chamber, said hydraulic exhaust area being configured to enable the hydraulic volume to be exhausted out of said device in said liquid medium over the opening phase; and further characterized in that said hydraulic means comprise means for controlling the acoustic signal, whereby said means for controlling the acoustic signal themselves comprise means for adapting said hydraulic exhaust area. * a closed position in which the compressed gas volume is enclosed within the pneumatic chamber, * an open position in which the compressed gas volume is released out of the pneumatic chamber through said at least one pneumatic exhaust port (34a,34b) and out of the device, to produce the acoustic signal in the liquid medium,
A coupling for joining pipe elements, said coupling comprising: * a plurality of segments (12, 14) attached to one another end (22, 24) to end surrounding a central space for receiving said pipe elements, each of said segments comprising: * at least a first channel positioned on a first side of said segments, said first channel extending between said ends of said segments; * a first aperture in at least one of said segments, said first aperture providing a line of sight toward said central space, wherein said first aperture is aligned with said first channel. * a plurality of segments (12, 14) attached to one another end (22, 24) to end surrounding a central space for receiving said pipe elements, each of said segments comprising: * at least a first channel positioned on a first side of said segments, said first channel extending between said ends of said segments; * a first aperture in at least one of said segments, said first aperture providing a line of sight toward said central space, wherein said first aperture is aligned with said first channel.
Sensor arrangement having a flange component for externally fastening the sensor arrangement and having a sleeve firmly connected to the flange component for receiving electrical components, characterized in that the sleeve is arranged in a recess of the flange component, wherein the recess has a circular cross section and the sleeve has a cylindrical contour, wherein the outer diameter of the sleeve is less than the inner diameter of the recess so as to provide clearance, the sleeve has a protuberance on its circumference facing the inner wall of the recess, and in that the sleeve is firmly connected in the recess by means of a friction weld in the region of the protuberance.
A method of selecting an evolved packet data gateway, ePDG, by a user equipment UE, comprising: accessing ePDG configuration information for one or more Public Land Mobile Networks, PLMNs, by requesting the provisioning of or automatically receiving the ePDG configuration information, wherein the ePDG configuration information includes identification of one or more ePDGs in the one or more PLMNs and a preference of a PLMN and corresponding identified ePDG; determining the preference of the PLMN and corresponding identified ePDG in the ePDG configuration information; selecting an ePDG using the ePDG configuration information and based on the preference; and connecting to the ePDG for access to a core network. accessing ePDG configuration information for one or more Public Land Mobile Networks, PLMNs, by requesting the provisioning of or automatically receiving the ePDG configuration information, wherein the ePDG configuration information includes identification of one or more ePDGs in the one or more PLMNs and a preference of a PLMN and corresponding identified ePDG; determining the preference of the PLMN and corresponding identified ePDG in the ePDG configuration information; selecting an ePDG using the ePDG configuration information and based on the preference; and connecting to the ePDG for access to a core network.
Device for foaming a liquid, with a storage container for the liquid, which storage container is connected to a pump via a first conduit, wherein a Venturi nozzle is arranged in the first conduit between the storage container and the pump, by means of which Venturi nozzle the liquid can be aerated, wherein the delivery side of the pump is connected via a second conduit, in which a heating element is arranged as heat exchanger, to an outlet nozzle from which the aerated liquid emerges, characterized in that the outlet nozzle has an element (7; 5.1) with passages (5.2) which are arranged in at least two planes (5.3, 5.4) arranged at a distance (5.5) one behind the other in the direction of flow of the liquid, and in that the element (5.1) is made from a porous material which contains a porous plastic and which has antibacterial properties.
A method of deploying a network configuration in a datacenter (904, 905, 906) having a point of presence, POP (901, 902), comprising the steps of: - modelling the network configuration through objects, comprising: - a node object (813, 814, 826, 827) representing a point of interconnection in the network, wherein the POP is a point of interconnection in the network; - an interface object (821, 822, 846, 847), being hierarchally inferior to the node object, and representing a connection to a point of interconnection; - an evpnEdge object (823, 824, 816, 817) representing the transport to/from of a point of interconnection in the network; and - a layer object (811, 822, 836, 837), being hierarchally inferior to the evpnEdge object, and representing the characteristics of the protocol of transport to/from a point of interconnection; - setting up the network configuration by a succession of commands on the objects; and - pushing the set up network configuration to the datacenter. - modelling the network configuration through objects, comprising: - a node object (813, 814, 826, 827) representing a point of interconnection in the network, wherein the POP is a point of interconnection in the network; - an interface object (821, 822, 846, 847), being hierarchally inferior to the node object, and representing a connection to a point of interconnection; - an evpnEdge object (823, 824, 816, 817) representing the transport to/from of a point of interconnection in the network; and - a layer object (811, 822, 836, 837), being hierarchally inferior to the evpnEdge object, and representing the characteristics of the protocol of transport to/from a point of interconnection; - a node object (813, 814, 826, 827) representing a point of interconnection in the network, wherein the POP is a point of interconnection in the network; - an interface object (821, 822, 846, 847), being hierarchally inferior to the node object, and representing a connection to a point of interconnection; - an evpnEdge object (823, 824, 816, 817) representing the transport to/from of a point of interconnection in the network; and - a layer object (811, 822, 836, 837), being hierarchally inferior to the evpnEdge object, and representing the characteristics of the protocol of transport to/from a point of interconnection; - setting up the network configuration by a succession of commands on the objects; and - pushing the set up network configuration to the datacenter.
Motor bearing arrangement for a motor, in particular of a fan of a vehicle air-conditioning unit, having a frame, having a support which partially overlaps the frame at least in a connecting region, and having multiple damping elements which are provided between the frame and the support in the connecting region, wherein the support is held on the frame by means of the damping elements, wherein projections extend outward from the support and flange sections extend inward from the frame, which flange sections overlap the projections in an axial direction, wherein the damping elements are provided in each case axially between a projection and the flange section that overlaps the projection, wherein the projections have at least one tooth which extends in the direction of the overlapping flange section, wherein the at least one tooth extends into the damping element and is completely surrounded by the damping element, characterised in that the flange sections have at least one tooth which extends in the direction of the overlapping projection, and which extends into the damping element and is completely surrounded by the damping element. wherein projections extend outward from the support and flange sections extend inward from the frame, which flange sections overlap the projections in an axial direction, wherein the damping elements are provided in each case axially between a projection and the flange section that overlaps the projection, wherein the projections have at least one tooth which extends in the direction of the overlapping flange section, wherein the at least one tooth extends into the damping element and is completely surrounded by the damping element, characterised in that the flange sections have at least one tooth which extends in the direction of the overlapping projection, and which extends into the damping element and is completely surrounded by the damping element.
A method comprising: communicating a sample gas containing analytes to be measured from a sampling device through a transfer line to a chromatographic column, the transfer line having an inlet end through which the gas flows from the sampling device to the transfer line, and an outlet end through which the sample gas flows from the transfer line to the chromatographic column; wherein said method comprises: determining the inlet pressure at the inlet end of the transfer line; determining the outlet pressure at the outlet end of the transfer line; and controlling a proportional valve that adjusts the pressure at the inlet end of the transfer line to produce a desired flow rate at the outlet end of the transfer line based on the determined inlet and outlet pressures and a geometry and temperature of the transfer line. communicating a sample gas containing analytes to be measured from a sampling device through a transfer line to a chromatographic column, the transfer line having an inlet end through which the gas flows from the sampling device to the transfer line, and an outlet end through which the sample gas flows from the transfer line to the chromatographic column; wherein said method comprises: determining the inlet pressure at the inlet end of the transfer line; determining the outlet pressure at the outlet end of the transfer line; and controlling a proportional valve that adjusts the pressure at the inlet end of the transfer line to produce a desired flow rate at the outlet end of the transfer line based on the determined inlet and outlet pressures and a geometry and temperature of the transfer line. wherein said method comprises: determining the inlet pressure at the inlet end of the transfer line; determining the outlet pressure at the outlet end of the transfer line; and controlling a proportional valve that adjusts the pressure at the inlet end of the transfer line to produce a desired flow rate at the outlet end of the transfer line based on the determined inlet and outlet pressures and a geometry and temperature of the transfer line. determining the inlet pressure at the inlet end of the transfer line; determining the outlet pressure at the outlet end of the transfer line; and controlling a proportional valve that adjusts the pressure at the inlet end of the transfer line to produce a desired flow rate at the outlet end of the transfer line based on the determined inlet and outlet pressures and a geometry and temperature of the transfer line.
A straddled vehicle comprising: a body frame; a fuel tank supported by the body frame; a seat disposed behind the fuel tank and supported by the body frame; a taillight supported by the body frame, and having at least part thereof disposed further rearward than the seat; a front cover having at least part thereof disposed below at least one of the fuel tank and the seat in a side view of the vehicle; and a rear cover extending rearward from the front cover, and having at least part thereof disposed below the seat in the side view of the vehicle; wherein the fuel tank is positioned by the body frame; the front cover is positioned by at least one of the body frame and the fuel tank; the rear cover has a rear end thereof located further rearward than the taillight, wherein the rear cover is joined to the front cover, and the rear cover is positioned by the front cover through a front end of the rear cover joined to a rear end of the front cover, wherein the front cover and the rear cover are joined by fastening rear end of the front cover and the front end of the rear cover together, characterized in that a relative position between the front cover and the rear cover is determined uniquely, dimension errors of the front cover and rear cover result in a shift of a position of the rear end of the rear cover relative to the body frame. a body frame; a fuel tank supported by the body frame; a seat disposed behind the fuel tank and supported by the body frame; a taillight supported by the body frame, and having at least part thereof disposed further rearward than the seat; a front cover having at least part thereof disposed below at least one of the fuel tank and the seat in a side view of the vehicle; and a rear cover extending rearward from the front cover, and having at least part thereof disposed below the seat in the side view of the vehicle; wherein the fuel tank is positioned by the body frame; the front cover is positioned by at least one of the body frame and the fuel tank; the rear cover has a rear end thereof located further rearward than the taillight, wherein the rear cover is joined to the front cover, and the rear cover is positioned by the front cover through a front end of the rear cover joined to a rear end of the front cover, wherein the front cover and the rear cover are joined by fastening rear end of the front cover and the front end of the rear cover together, characterized in that a relative position between the front cover and the rear cover is determined uniquely, dimension errors of the front cover and rear cover result in a shift of a position of the rear end of the rear cover relative to the body frame.
A method performed by a core network apparatus, the method comprising: receiving (20, 36) a registration request originated from a user equipment in a communication network; constructing a registration accept message, wherein the registration accept message includes an indication comprising an access stratum connection establishment network slice selection assistance information inclusion mode parameter, the access stratum connection establishment network slice selection assistance information inclusion mode parameter defining whether network slice selection assistance information should be included by the user equipment in an access stratum connection establishment procedure, wherein the access stratum connection establishment network slice selection assistance information inclusion mode parameter is derived based on a set of policies implemented in one or more radio access nodes in a registration area of the communication network; transmitting (24, 38) the registration accept message to the user equipment; and receiving a connection establishment message originated from the user equipment according to the access stratum connection establishment network slice selection assistance information inclusion mode parameter. receiving (20, 36) a registration request originated from a user equipment in a communication network; constructing a registration accept message, wherein the registration accept message includes an indication comprising an access stratum connection establishment network slice selection assistance information inclusion mode parameter, the access stratum connection establishment network slice selection assistance information inclusion mode parameter defining whether network slice selection assistance information should be included by the user equipment in an access stratum connection establishment procedure, wherein the access stratum connection establishment network slice selection assistance information inclusion mode parameter is derived based on a set of policies implemented in one or more radio access nodes in a registration area of the communication network; transmitting (24, 38) the registration accept message to the user equipment; and receiving a connection establishment message originated from the user equipment according to the access stratum connection establishment network slice selection assistance information inclusion mode parameter.