mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, over a network and by a digital component distribution system, a packetized message that is generated by executing, by a client device of a user, a tag that is included in code of a given online resource and that includes an identifier corresponding to the user that is accessing the given online resource; logging, by the digital component distribution system, a timestamp of the packetized message as a start of a user session at a website that includes the given online resource; determining, by the digital component distribution system, that the user session at the website remains active while additional packetized messages generated by executing additional tags within the website continue to be received within a specified amount of time after a time of a timestamp of a most recently received packetized message; determining, by the digital component distribution system, that the user session at the website has ended upon detecting content view data specifying that third-party content was provided to a different website in response to a request that included the identifier corresponding to the user; calculating, by the digital component distribution system, a duration of the user session based on a difference between the timestamp of the packetized message at the start of the user session and a time when the user session at the website was determined to have ended; and modifying distribution of content to the user based on the duration of the user session at the website. receiving, over a network and by a digital component distribution system, a packetized message that is generated by executing, by a client device of a user, a tag that is included in code of a given online resource and that includes an identifier corresponding to the user that is accessing the given online resource; logging, by the digital component distribution system, a timestamp of the packetized message as a start of a user session at a website that includes the given online resource; determining, by the digital component distribution system, that the user session at the website remains active while additional packetized messages generated by executing additional tags within the website continue to be received within a specified amount of time after a time of a timestamp of a most recently received packetized message; determining, by the digital component distribution system, that the user session at the website has ended upon detecting content view data specifying that third-party content was provided to a different website in response to a request that included the identifier corresponding to the user; calculating, by the digital component distribution system, a duration of the user session based on a difference between the timestamp of the packetized message at the start of the user session and a time when the user session at the website was determined to have ended; and modifying distribution of content to the user based on the duration of the user session at the website.
An epoxy resin composition comprising and below, wherein the amount of component is 40 to 90% by mass based on the total amount of epoxy resin in the epoxy resin composition, and wherein, for a cured product obtained by curing the epoxy resin composition at 180°C for 2 hours as described herein, a carbon nuclear relaxation time T 1 C corresponding to a benzene ring carbon atom in the main backbone of Formula assigned to 130 ppm in a solid-state 13 C-NMR spectrum is 42 seconds or longer: a hardener represented by Formula wherein X represents -NHC(=O)-; n is 1; and R 1 to R 6 each represent at least one selected from the group consisting of a hydrogen atom, an aliphatic hydrocarbon group having 1 to 4 carbon atoms, an alicyclic hydrocarbon group having 4 or less carbon atoms, and an a halogen atom, wherein X may be in either direction; and an aromatic epoxy resin having tri- or higher functionality. a hardener represented by Formula wherein X represents -NHC(=O)-; n is 1; and R 1 to R 6 each represent at least one selected from the group consisting of a hydrogen atom, an aliphatic hydrocarbon group having 1 to 4 carbon atoms, an alicyclic hydrocarbon group having 4 or less carbon atoms, and an a halogen atom, wherein X may be in either direction; and an aromatic epoxy resin having tri- or higher functionality.
Electrical energy accumulator including an anode case, an anode situated inside the anode case, a cathode case fixed to the anode case, a seal sealing the cathode case to the anode case, a cathode situated inside the cathode case between the anode and the cathode case, and a membrane between the anode and the cathode, the anode case and the cathode case that are fixed to each other respectively have a first outer surface and a second outer surface, a third outer surface being secant with said first and second surfaces and acting as an edge of said accumulator, said accumulator being characterized in that one of the outer surfaces (21, 22, 23) of said accumulator includes at least one marking created by local heating of the material, said marking being electrically conductive, said marking being a charge state monitoring device including a plurality of grooves forming a diffraction grating, said grooves deforming when the surface on which the grating is arranged deforms under the effect of the discharge of said accumulator or of the charge/discharge of said accumulator.
A method, performed by a target device, for handling positioning of the target device, wherein the method comprises: - obtaining, from a network node, a sensor reporting configuration enabling a reporting scope adapted to the movements of the target device, - obtaining sensor measurements, - determining a reporting scope based on the obtained sensor measurements according to the obtained sensor reporting configuration, wherein the determining comprises selecting one or more time segments within which the sensor measurements may be described by model parameters, - sending, to the network node, a measurement report comprising the sensor measurements according to the determined reporting scope. - obtaining, from a network node, a sensor reporting configuration enabling a reporting scope adapted to the movements of the target device, - obtaining sensor measurements, - determining a reporting scope based on the obtained sensor measurements according to the obtained sensor reporting configuration, wherein the determining comprises selecting one or more time segments within which the sensor measurements may be described by model parameters, - sending, to the network node, a measurement report comprising the sensor measurements according to the determined reporting scope.
A method operational by an electronic device (307, 407, 607), comprising: implementing a first physically unclonable function using a plurality of memory cells within the electronic device; implementing a second physically unclonable function using a plurality of circuit delay based paths within the electronic device; receiving a challenge from an external server (303, 403, 603); characterized by: applying a challenge input (323, 423) to the first physically unclonable function and using a first response (321, 421, 621) from the second physically unclonable function, to obtain a second response (318, 418, 618), wherein the first response is used to either: (a) mask/unmask the challenge from the external server to obtain the challenge input, or (b) mask a response output from the first physically unclonable function to obtain the second response, wherein the challenge from the external server is used as the challenge input; and sending the second response from the first physically unclonable function to the external server. implementing a first physically unclonable function using a plurality of memory cells within the electronic device; implementing a second physically unclonable function using a plurality of circuit delay based paths within the electronic device; receiving a challenge from an external server (303, 403, 603); characterized by: applying a challenge input (323, 423) to the first physically unclonable function and using a first response (321, 421, 621) from the second physically unclonable function, to obtain a second response (318, 418, 618), wherein the first response is used to either: (a) mask/unmask the challenge from the external server to obtain the challenge input, or (b) mask a response output from the first physically unclonable function to obtain the second response, wherein the challenge from the external server is used as the challenge input; and sending the second response from the first physically unclonable function to the external server. applying a challenge input (323, 423) to the first physically unclonable function and using a first response (321, 421, 621) from the second physically unclonable function, to obtain a second response (318, 418, 618), wherein the first response is used to either: (a) mask/unmask the challenge from the external server to obtain the challenge input, or (b) mask a response output from the first physically unclonable function to obtain the second response, wherein the challenge from the external server is used as the challenge input; and (a) mask/unmask the challenge from the external server to obtain the challenge input, or (b) mask a response output from the first physically unclonable function to obtain the second response, wherein the challenge from the external server is used as the challenge input; and sending the second response from the first physically unclonable function to the external server.
A position sensor comprising: a magnet configured to move together with a moving body and generate a first magnetic flux and a second magnetic flux, the first magnetic flux being along a specific movement direction of the moving body being a first direction, the second magnetic flux being along an opposite direction to the specific movement direction of the moving body being a second direction; and a sensor (21, 22) configured to detect a direction of the first magnetic flux and a direction of the second magnetic flux, wherein the sensor (21, 22) includes a first sensor and a second sensor, the first sensor being placed such that it can detect the magnetic flux in the first direction and the second sensor being placed such that it can detect the magnetic flux in the second direction, wherein the magnet is configured by at least one magnet having at least two pairs of magnetic poles to be paired formed thereon, and the first and second sensors (21, 22) are placed such that an angle between the direction of the first magnetic flux and the direction of the second magnetic flux, which are detected thereby, is from 90 degrees to 270 degrees. a magnet configured to move together with a moving body and generate a first magnetic flux and a second magnetic flux, the first magnetic flux being along a specific movement direction of the moving body being a first direction, the second magnetic flux being along an opposite direction to the specific movement direction of the moving body being a second direction; and a sensor (21, 22) configured to detect a direction of the first magnetic flux and a direction of the second magnetic flux, wherein the sensor (21, 22) includes a first sensor and a second sensor, the first sensor being placed such that it can detect the magnetic flux in the first direction and the second sensor being placed such that it can detect the magnetic flux in the second direction, wherein the magnet is configured by at least one magnet having at least two pairs of magnetic poles to be paired formed thereon, and the first and second sensors (21, 22) are placed such that an angle between the direction of the first magnetic flux and the direction of the second magnetic flux, which are detected thereby, is from 90 degrees to 270 degrees.
A marine hose fluid leakage detection system that detects a leakage of a fluid flowing through a marine hose including: an inner circumferential reinforcing layer and an outer circumferential reinforcing layer, being layered on an outer circumferential side of a flow channel, a radio wave transmitter and a radio wave receiver disposed outside the marine hose, and an IC tag installed in the marine hose; a fluid retention layer interposed between the inner circumferential reinforcing layer and the outer circumferential reinforcing layer; and a buoyant layer layered on the fluid retention layer on its outer circumferential side, wherein the IC tag is of a passive type and is installed in the fluid retention layer at a predetermined position in a longitudinal direction of the marine hose, the radio wave receiver receives radio waves transmitted from the IC tag in response to radio waves transmitted from the radio wave transmitter, at least a part of a circuit constituting the IC tag is formed of a soluble member that is dissolvable by the fluid, the IC tag is configured to cause a change in strength of the radio waves transmitted from the IC tag to be received by the radio wave receiver according to whether the soluble member is dissolved, and the fluid leaks are determined based on the strength of the radio waves transmitted from the IC tag and received by the radio wave receiver; characterized in that the IC tag stores position identification information for identifying an installation position of the IC tag itself in the marine hose, and the position identification information is transmitted to the radio wave receiver with the radio waves transmitted from the IC tag. a fluid retention layer interposed between the inner circumferential reinforcing layer and the outer circumferential reinforcing layer; and a buoyant layer layered on the fluid retention layer on its outer circumferential side, wherein the IC tag is of a passive type and is installed in the fluid retention layer at a predetermined position in a longitudinal direction of the marine hose, the radio wave receiver receives radio waves transmitted from the IC tag in response to radio waves transmitted from the radio wave transmitter, at least a part of a circuit constituting the IC tag is formed of a soluble member that is dissolvable by the fluid, the IC tag is configured to cause a change in strength of the radio waves transmitted from the IC tag to be received by the radio wave receiver according to whether the soluble member is dissolved, and the fluid leaks are determined based on the strength of the radio waves transmitted from the IC tag and received by the radio wave receiver; characterized in that the IC tag stores position identification information for identifying an installation position of the IC tag itself in the marine hose, and the position identification information is transmitted to the radio wave receiver with the radio waves transmitted from the IC tag.
A method for performing a battery health self-test protocol, the method comprising: charging the battery to a known charge level during a charge cycle; discharging the battery during a discharge cycle by coupling the battery to a battery test resistor; and calculating battery health assessment information for the battery; characterised in that the method further comprises initially detecting, using a controller, that a transport refrigeration unit is connected to standby power, and in that the standby power is provided from a power grid, and the detection comprises detecting that the transport refrigeration unit is plugged into the power grid. charging the battery to a known charge level during a charge cycle; discharging the battery during a discharge cycle by coupling the battery to a battery test resistor; and calculating battery health assessment information for the battery; characterised in that the method further comprises initially detecting, using a controller, that a transport refrigeration unit is connected to standby power, and in that the standby power is provided from a power grid, and the detection comprises detecting that the transport refrigeration unit is plugged into the power grid.
Motor vehicle inner trim panel, said panel including: • a cardboard honeycomb core, said core having an upper face and a lower face joined together by an edge, • two upper and lower reinforcement layers for said core, said layers being based on reinforcing fibers embedded in polyurethane foam, said layers extending respectively over said top and bottom faces, said foam overmolding said core so as to associate said layers with said faces, • a functional element attached to said wafer by at least one fastening means, said means comprising a holding portion for said element and an anchoring portion in said generally rod- shaped core, said panel being characterized in that: • said core is provided with a hole opening onto said bottom face, • said hole is arranged so that said anchoring part passes through it, • the inner wall of said hole is covered with a layer of foam from said lower layer, so that said layer of foam forms a reinforcing wall for the anchoring of said anchoring part. • a cardboard honeycomb core, said core having an upper face and a lower face joined together by an edge, • two upper and lower reinforcement layers for said core, said layers being based on reinforcing fibers embedded in polyurethane foam, said layers extending respectively over said top and bottom faces, said foam overmolding said core so as to associate said layers with said faces, • a functional element attached to said wafer by at least one fastening means, said means comprising a holding portion for said element and an anchoring portion in said generally rod- shaped core, • said core is provided with a hole opening onto said bottom face, • said hole is arranged so that said anchoring part passes through it, • the inner wall of said hole is covered with a layer of foam from said lower layer, so that said layer of foam forms a reinforcing wall for the anchoring of said anchoring part.
Method for the manufacture of a dual guide rail (50, 600, 700) comprising a first attachment area and a second attachment area, each of which two attachment areas is formed with a cross-section of C-shape comprising a rear portion (511, 513; 512, 514), two side portions (611, 613; 612, 614), each of which is provided with a front portion (6110, 6130; 6120, 6140) having a gripping edge facing the rear portion, and that the two rear portions (511, 513; 512, 514) of the two attachment areas are facing each other as well as that the two rear portions (511, 513; 512, 514) are interconnected by a web, characterized by the following manufacturing steps: a) a profile billet is roll-formed to comprise the web centrally situated between and integrated with the rear portion (513, 514); b) by roll forming, there are also created first and second rear portion parts (513, 514), which flank said web; c) by roll forming, the side portions (613, 614) of one side of the two attachment areas (61, 62) are also created fixedly connected to the respective rear portion part (513, 514); d) by roll forming, the front portion parts (6130, 6140) of one side of the attachment areas (61, 62) are also created; e) by roll forming, the gripping edges facing inward of one side of the attachment areas (61, 62) are furthermore created; the profile half formed by said manufacturing steps is joined to a corresponding profile half, web to web, into a complete guide rail with the rear portions interconnected by the combined web. a) a profile billet is roll-formed to comprise the web centrally situated between and integrated with the rear portion (513, 514); b) by roll forming, there are also created first and second rear portion parts (513, 514), which flank said web; c) by roll forming, the side portions (613, 614) of one side of the two attachment areas (61, 62) are also created fixedly connected to the respective rear portion part (513, 514); d) by roll forming, the front portion parts (6130, 6140) of one side of the attachment areas (61, 62) are also created; e) by roll forming, the gripping edges facing inward of one side of the attachment areas (61, 62) are furthermore created;
Endoprosthetic component, the component comprising a first outer region and a second inner region, the material of the first region having a greater strength than the material of the second region, the first outer region of the component partially enclosing the second inner region, the first region being designed to penetrate into adjacent bone material (11, 12) in a controlled manner when in the implanted state, characterized in that the second region has pores which have pore sizes of between 100 and 1000 μm, the porosity of the second region being interconnected, and at least part of the surface of the first region projecting beyond the surface of the second region.
Thermal Storage System by Phase Change Material comprising: - a tank intended to contain a solid/liquid PCM and an ullage space, - an injection module configured to inject a two-phase solvent, in the liquid or gaseous state, into the PCM in the tank, - an exhaust module configured to exhaust the two-phase solvent in the gaseous state from the upper part of the tank, opposite the lower part, - a circulation system immersed in the tank, intended to circulate a heat transfer fluid from an external heat transfer fluid circulation network (20, 21) characterised in that the circulation system comprises: - a condenser arranged in the ullage space of the tank intended to condense the solvent in the gaseous state by the circulation of the heat transfer fluid, and - an evaporator arranged in the tank at the free surface of the solid PCM in contact with the two-phase solvent in the liquid state and intended to evaporate the solvent in the liquid state by the circulation of the heat transfer fluid. - a tank intended to contain a solid/liquid PCM and an ullage space, - an injection module configured to inject a two-phase solvent, in the liquid or gaseous state, into the PCM in the tank, - an exhaust module configured to exhaust the two-phase solvent in the gaseous state from the upper part of the tank, opposite the lower part, - a circulation system immersed in the tank, intended to circulate a heat transfer fluid from an external heat transfer fluid circulation network (20, 21) - a condenser arranged in the ullage space of the tank intended to condense the solvent in the gaseous state by the circulation of the heat transfer fluid, and - an evaporator arranged in the tank at the free surface of the solid PCM in contact with the two-phase solvent in the liquid state and intended to evaporate the solvent in the liquid state by the circulation of the heat transfer fluid.