mhurhangee/ep-ind-claims huggingface dataset:
An in-vehicle computing system of a vehicle, the in-vehicle computing system comprising: a first network interface (306; 506) configured to communicate over a first wireless carrier being a Near Field Communication, NFC, carrier; a second network interface (308; 510) configured to communicate over a second wireless carrier; a processor configured to control communication via the first network and the second network; and a storage device storing instructions executable by the processor to: connect to a computing device (502; 704) over the first wireless carrier; the storage device storing further instructions executable by the processor to: send a select message (612b; 716) to the computing device (502; 704) via a remote server (611; 707), the remote server (611; 707) being a Simple NFC Data Exchange Format, NDEF, Exchange Protocol, SNEP, server, the select message being an NFC Data Exchange Format, NDEF, Handover Select message and identifying the second wireless carrier which is different from the first wireless carrier; receive a confirmation message from the computing device (502; 704) initiating communication (614; 718) over the second wireless carrier; and receive data (616; 720) from the computing device over the second wireless carrier. a first network interface (306; 506) configured to communicate over a first wireless carrier being a Near Field Communication, NFC, carrier; a second network interface (308; 510) configured to communicate over a second wireless carrier; a processor configured to control communication via the first network and the second network; and a storage device storing instructions executable by the processor to: connect to a computing device (502; 704) over the first wireless carrier; the storage device storing further instructions executable by the processor to: send a select message (612b; 716) to the computing device (502; 704) via a remote server (611; 707), the remote server (611; 707) being a Simple NFC Data Exchange Format, NDEF, Exchange Protocol, SNEP, server, the select message being an NFC Data Exchange Format, NDEF, Handover Select message and identifying the second wireless carrier which is different from the first wireless carrier; receive a confirmation message from the computing device (502; 704) initiating communication (614; 718) over the second wireless carrier; and receive data (616; 720) from the computing device over the second wireless carrier. send a select message (612b; 716) to the computing device (502; 704) via a remote server (611; 707), the remote server (611; 707) being a Simple NFC Data Exchange Format, NDEF, Exchange Protocol, SNEP, server, the select message being an NFC Data Exchange Format, NDEF, Handover Select message and identifying the second wireless carrier which is different from the first wireless carrier; receive a confirmation message from the computing device (502; 704) initiating communication (614; 718) over the second wireless carrier; and receive data (616; 720) from the computing device over the second wireless carrier.
A biological coating comprising a surface layer, characterized in that, the surface layer comprises a plurality of first monomers connected in an unordered manner, and a plurality of first pores are formed between the plurality of first monomers and within an interior of the plurality of first monomers, characterized in that the biological coating further comprises at least one intermediate layer, wherein the surface layer is disposed on an outermost side of the biological coating, wherein the surface layer and the at least one intermediate layer are arranged along a direction from an outer side of the biological coating to an inner side of the biological coating, and wherein a porosity of the biological coating decreases gradually along the direction from the outer side of the biological coating to the inner side of the biological coating, and in that the at least one intermediate layer comprises a plurality of second monomers connected in an ordered manner, and a plurality of second pores are formed between the plurality of second monomers and within the interior of the plurality of second monomers.
A method performed by a terminal for receiving a medium access control, MAC, packet data unit, PDU, in a wireless communication system, the method comprising: receiving the MAC PDU transmitted from a base station; discarding the MAC PDU in case that the MAC PDU is associated with a unicast and is received through a downlink shared channel, DL-SCH, and the MAC PDU includes a reserved value; characterized by the method further comprising: ignoring a sub-header of the MAC PDU and a payload portion corresponding to the sub-header and processing other sub-headers and payload portions corresponding to the other sub-headers, in case that the MAC PDU is received through a multicast channel, MCH, and a reserved value is included in the sub-header of the MAC PDU. receiving the MAC PDU transmitted from a base station; discarding the MAC PDU in case that the MAC PDU is associated with a unicast and is received through a downlink shared channel, DL-SCH, and the MAC PDU includes a reserved value; characterized by the method further comprising: ignoring a sub-header of the MAC PDU and a payload portion corresponding to the sub-header and processing other sub-headers and payload portions corresponding to the other sub-headers, in case that the MAC PDU is received through a multicast channel, MCH, and a reserved value is included in the sub-header of the MAC PDU. ignoring a sub-header of the MAC PDU and a payload portion corresponding to the sub-header and processing other sub-headers and payload portions corresponding to the other sub-headers, in case that the MAC PDU is received through a multicast channel, MCH, and a reserved value is included in the sub-header of the MAC PDU.
A method for federated single sign-on implemented by one or more secure proxy apparatuses, the method comprising: authenticating a user in response to a request to access a web application received from a client, validating that the authenticated user is authorized to access the web application, and obtaining security attribute data for the user subsequent to the validation; forwarding the received access request to an internal application server hosting the web application and receiving an authentication request in response to the forwarded access request; and generating a single sign-on token based on the obtained security attribute data and sending the generated single sign-on token to the internal application server in response to the received authentication request to facilitate access to the web application by the user. authenticating a user in response to a request to access a web application received from a client, validating that the authenticated user is authorized to access the web application, and obtaining security attribute data for the user subsequent to the validation; forwarding the received access request to an internal application server hosting the web application and receiving an authentication request in response to the forwarded access request; and generating a single sign-on token based on the obtained security attribute data and sending the generated single sign-on token to the internal application server in response to the received authentication request to facilitate access to the web application by the user.
A fuel cell system, comprising: a plurality of electrochemical cells (1112, 1212, 1312, 1412), each electrochemical cell formed of an anode, a cathode spaced apart from said anode, and an electrolyte disposed between said anode and said cathode; an interconnect (16, 88) electrically coupling a pair of electrically adjacent electrochemical cells (1112, 1212, 1312, 1412), said interconnect (16, 88) electrically coupling said anode of one electrochemical cell to said cathode of the other electrochemical cell; a cathode conductive layer electrically coupled to said interconnect (16, 88) and said cathode; and wherein the cathode conductive layer overlays, at least in part, the cathode such that the cathode layer and the cathode are vertically layered; and wherein the cathode conductive layer is configured to conduct electrons from said interconnect (16, 88) to said cathode, for oxygen diffusion therethrough to said cathode, and is one of a conductive ceramic and a precious metal cermet, characterized in that the plurality of electrochemical cells (1112, 1212, 1312, 1412) are disposed on a substrate (1114, 1214, 1314, 1414), and each electrochemical cell comprises a separation feature (106, 108) configured to horizontally space apart its cathode conductive layer from the electrolyte of an adjacent cell such that a spacing between the cathode conductive layer and the adjacent electrolyte is a horizontal thickness of the separation feature (106, 108). a plurality of electrochemical cells (1112, 1212, 1312, 1412), each electrochemical cell formed of an anode, a cathode spaced apart from said anode, and an electrolyte disposed between said anode and said cathode; an interconnect (16, 88) electrically coupling a pair of electrically adjacent electrochemical cells (1112, 1212, 1312, 1412), said interconnect (16, 88) electrically coupling said anode of one electrochemical cell to said cathode of the other electrochemical cell; a cathode conductive layer electrically coupled to said interconnect (16, 88) and said cathode; and wherein the cathode conductive layer overlays, at least in part, the cathode such that the cathode layer and the cathode are vertically layered; and wherein the cathode conductive layer is configured to conduct electrons from said interconnect (16, 88) to said cathode, for oxygen diffusion therethrough to said cathode, and is one of a conductive ceramic and a precious metal cermet, characterized in that the plurality of electrochemical cells (1112, 1212, 1312, 1412) are disposed on a substrate (1114, 1214, 1314, 1414), and each electrochemical cell comprises a separation feature (106, 108) configured to horizontally space apart its cathode conductive layer from the electrolyte of an adjacent cell such that a spacing between the cathode conductive layer and the adjacent electrolyte is a horizontal thickness of the separation feature (106, 108).
A capacity control valve comprising: a valve housing (10, 210) provided with a main valve seat; a main valve body (51, 251) that is inserted into the valve housing (10, 210) and includes a main valve portion which is capable of seating on the main valve seat to open and close a communication between a suction port and a control port using a driving force of a solenoid (80, 280); and a pressure-sensitive body that applies a biasing force to the main valve body (51, 251) in an opening direction according to pressure of a fluid surrounding the pressure-sensitive body, wherein the fluid is supplied from the control port to around the pressure-sensitive body, and the fluid is supplied from the suction port to a back pressure side of the main valve body (51, 251), characterized in that the main valve body (51, 251) is provided with a pressure-sensitive valve body that is capable of seating on a pressure-sensitive valve seat formed on the pressure-sensitive body, and the main valve body (51, 251) and the pressure-sensitive valve body cooperatively have a hollow hole which extends in an axial direction thereof and which communicates with the back pressure side of the main valve body (51, 251). a valve housing (10, 210) provided with a main valve seat; a main valve body (51, 251) that is inserted into the valve housing (10, 210) and includes a main valve portion which is capable of seating on the main valve seat to open and close a communication between a suction port and a control port using a driving force of a solenoid (80, 280); and a pressure-sensitive body that applies a biasing force to the main valve body (51, 251) in an opening direction according to pressure of a fluid surrounding the pressure-sensitive body, wherein the fluid is supplied from the control port to around the pressure-sensitive body, and the fluid is supplied from the suction port to a back pressure side of the main valve body (51, 251), characterized in that the main valve body (51, 251) is provided with a pressure-sensitive valve body that is capable of seating on a pressure-sensitive valve seat formed on the pressure-sensitive body, and the main valve body (51, 251) and the pressure-sensitive valve body cooperatively have a hollow hole which extends in an axial direction thereof and which communicates with the back pressure side of the main valve body (51, 251).
A method for movably retaining a device comprising an electronic component to a substrate, the method comprising: disposing a thermally or chemically removable material directly over a first portion of the device; positioning a second portion of the device adjacent to the substrate; securing a retainer to the substrate with a part of the retainer disposed over the removable material, wherein the retainer is secured adjacent to the device; and removing the removable material to form a gap between the device and at least one of the substrate and the retainer so that the device is freely movably retained therein, such that when the device is exposed to environments, the gap allows separation of the device from the retainer and the substrate without being constrained in response to changes in temperature. disposing a thermally or chemically removable material directly over a first portion of the device; positioning a second portion of the device adjacent to the substrate; securing a retainer to the substrate with a part of the retainer disposed over the removable material, wherein the retainer is secured adjacent to the device; and removing the removable material to form a gap between the device and at least one of the substrate and the retainer so that the device is freely movably retained therein, such that when the device is exposed to environments, the gap allows separation of the device from the retainer and the substrate without being constrained in response to changes in temperature.
Aircraft LED light unit comprising: a flat electric circuit device having a first main surface, a second main surface and at least one side surface extending between the first main surface and the second main surface, power supply circuitry, disposed in the electric circuit device, and at least one LED, wherein the at least one LED is arranged on the at least one side surface of the electric circuit device and is electrically coupled to the power supply circuitry, characterized in that the aircraft LED light unit comprises at least one heat transport element, disposed in the electric circuit device, in that the at least one LED is in heat exchange relationship with the at least one heat transport element, and in that the electric circuit device is a packaged electronic component. a flat electric circuit device having a first main surface, a second main surface and at least one side surface extending between the first main surface and the second main surface, power supply circuitry, disposed in the electric circuit device, and at least one LED, wherein the at least one LED is arranged on the at least one side surface of the electric circuit device and is electrically coupled to the power supply circuitry, characterized in that the aircraft LED light unit comprises at least one heat transport element, disposed in the electric circuit device, in that the at least one LED is in heat exchange relationship with the at least one heat transport element, and in that the electric circuit device is a packaged electronic component.
A resin composition, comprising: 48-54 parts by weight of a halogen-free epoxy resin, 16-31 parts by weight of a compound represented by Formula, wherein n is 2-15; Ac represents an acetyl group; and 15-32 parts by weight of a cyanate ester resin. 48-54 parts by weight of a halogen-free epoxy resin, 16-31 parts by weight of a compound represented by Formula, wherein n is 2-15; Ac represents an acetyl group; and 15-32 parts by weight of a cyanate ester resin.
An assembly comprising: a catheter comprising a proximal connection feature and a tube, said tube having a proximal section, a distal section, and a tapered distal tip; a tube assembly that passes through said catheter, said tube assembly comprising an internal tube and an external tube whose distal ends extend to said distal section of said catheter; wherein said internal tube and said external tube are coupled to each other and arranged for longitudinal axial movement relative to one another; and a handle comprising a tube manipulator coupled to said tube assembly, which is operative to cause relative axial movement of said internal and external tubes and bending of a distal portion of at least one of said internal and external tubes. a catheter comprising a proximal connection feature and a tube, said tube having a proximal section, a distal section, and a tapered distal tip; a tube assembly that passes through said catheter, said tube assembly comprising an internal tube and an external tube whose distal ends extend to said distal section of said catheter; wherein said internal tube and said external tube are coupled to each other and arranged for longitudinal axial movement relative to one another; and a handle comprising a tube manipulator coupled to said tube assembly, which is operative to cause relative axial movement of said internal and external tubes and bending of a distal portion of at least one of said internal and external tubes.
An article of manufacture comprising a cleaning implement comprising a. a heat-compressed melamine erodible foam substrate; and b. an active agent impregnated in said heat compressed erodible foam substrate wherein said active agent is selected from the group consisting of surfactants, bleaching agents, limescale reducing agents, biocides, solvents, and mixtures thereof; wherein said cleaning implement is substantially free of a chemical controlled release composition, the article of manufacture being characterized in that it comprises a packaging means known for packaging cleaning implements. a. a heat-compressed melamine erodible foam substrate; and b. an active agent impregnated in said heat compressed erodible foam substrate wherein said active agent is selected from the group consisting of surfactants, bleaching agents, limescale reducing agents, biocides, solvents, and mixtures thereof;
A method for the production of a textile material strand for treatment of a wire comprising the steps: providing a first fibre or a first thread, introducing or applying a first substance into or onto the first fibre or the first thread, providing a second fibre or a second thread, connecting the first fibre or the first thread and the second fibre or the second thread to form the textile material strand, introducing or applying a second substance into or onto the second fibre or the second thread, wherein the first substance and the second substance cannot be mixed, characterized in that at least one of the substances can be dissolved from the textile material strand by means of a liquid extracting agent, such that it can be transferred to the wire to be treated, wherein connecting occurs by weaving the first fibre or the first thread and the second fibre or the second thread with at least one third thread or one third fibre, such that the textile material strand is a mesh. providing a first fibre or a first thread, introducing or applying a first substance into or onto the first fibre or the first thread, providing a second fibre or a second thread, connecting the first fibre or the first thread and the second fibre or the second thread to form the textile material strand, introducing or applying a second substance into or onto the second fibre or the second thread, wherein the first substance and the second substance cannot be mixed, characterized in that at least one of the substances can be dissolved from the textile material strand by means of a liquid extracting agent, such that it can be transferred to the wire to be treated, wherein connecting occurs by weaving the first fibre or the first thread and the second fibre or the second thread with at least one third thread or one third fibre, such that the textile material strand is a mesh.
Combustor of a gas turbine engine, the combustor comprising a primary combustion system and a secondary combustion system for introducing a fuel/air mixture into a flow of combustion gases in the combustor, the secondary combustion system comprising: a manifold ring; and a plurality of injectors extending from the manifold ring; the plurality of injectors comprising a plurality of jets in communication with the manifold ring; wherein each jet comprises a fuel passage and an air passage and a mixing passage in communication with the fuel passage and the air passage so as to create the fuel/air mixture therein and in that one or more of the plurality of jets comprises an angled configuration for the introduction of the fuel/air mixture into the flow of combustion gases at an angle (Θ) with respect to the flow of combustion gases and with respect to the wall of the injector, characterized in that the angled configuration of the one or more of the plurality of jets comprises at least one of an upstream configuration with respect to the flow of combustion gases so as to achieve increasing the mixing rate with reduced penetration and a downstream configuration with respect to the flow of combustion gases so as to achieve improving flame liftoff. a manifold ring; and a plurality of injectors extending from the manifold ring; the plurality of injectors comprising a plurality of jets in communication with the manifold ring; wherein each jet comprises a fuel passage and an air passage and a mixing passage in communication with the fuel passage and the air passage so as to create the fuel/air mixture therein and in that one or more of the plurality of jets comprises an angled configuration for the introduction of the fuel/air mixture into the flow of combustion gases at an angle (Θ) with respect to the flow of combustion gases and with respect to the wall of the injector, characterized in that the angled configuration of the one or more of the plurality of jets comprises at least one of an upstream configuration with respect to the flow of combustion gases so as to achieve increasing the mixing rate with reduced penetration and a downstream configuration with respect to the flow of combustion gases so as to achieve improving flame liftoff.
A set of two vehicles for distributing objects contained in one of said vehicles, comprising a first vehicle, called carrier vehicle, capable of transporting the objects over a long distance as well as of transporting a vehicle, called shuttle vehicle, equipped with a driving cab, which vehicle is intended to transport the objects over a shorter distance, in which set, for transportation, the shuttle is transversely stowed at the rear of the carrier vehicle on the outside against the rear face, and to this end the carrier vehicle comprises, at the rear of said carrier vehicle on the outside of the body work, a support means for supporting an attachment means fitted on the shuttle vehicle, which vehicle is not equipped with a handling fork, the set being characterised in that the shuttle vehicle comprises a chassis and a vertically movable loading platform, the platform having the attachment means for attaching the support means and the shuttle vehicle comprises drive means so that it can move from an upper position, in which the shuttle is suspended from the support means of the carrier vehicle and is no longer in contact with the ground, to a lower position, in which the shuttle is in contact with the ground so that it can move on the ground, and vice versa.