mhurhangee/ep-ind-claims huggingface dataset:
Drive and positioning system for a display disc, comprising: - a driving wheel comprising n drive members, - a driven wheel intended to be driven by the n drive members, - a jumper comprising a positioning zone and a spring member arranged to press the positioning zone against the driven wheel and to angularly position it, characterized in that it comprises a synchronization cam driven by the driving wheel and a feeler comprising one end held in contact with the periphery of the synchronization cam and cooperating with the jumper, said synchronization cam and said feeler being arranged in such a way as to exert on the jumper, at least when the n drive members cooperate with the driven wheel, a force of which the moment with respect to the axis of rotation of the jumper opposes the moment induced by the force exerted by the spring, with respect to said axis of rotation of the jumper. - a driving wheel comprising n drive members, - a driven wheel intended to be driven by the n drive members, - a jumper comprising a positioning zone and a spring member arranged to press the positioning zone against the driven wheel and to angularly position it,
A method for a computer system to identify addresses of domain names, the method characterized by: receiving, in the computer system, a domain name system, DNS, request from a client device to translate into a network address a domain being associated with a user of a networked device and received from the client device; determining from the domain name, by the computer system, a user identifier associated with the domain name received from the client device; sending, from the computer system to a dynamic address system, the user identifier determined from the domain name, wherein the dynamic address system has a mapping from user identifiers to network addresses, each respective user identifier associated with a respective user as a device associated with one of the network addresses, wherein the dynamic address system receives upon each sign-on to the dynamic address system an update for the respective user that comprises a current network address of a device through which the respective user is accessible, and wherein upon receiving the update, the dynamic address system associates the respective user identifier with the current network address received in the update; and receiving, by the computer system, from the dynamic address system, the current network address associated with the user identifier determined from the domain name. receiving, in the computer system, a domain name system, DNS, request from a client device to translate into a network address a domain being associated with a user of a networked device and received from the client device; determining from the domain name, by the computer system, a user identifier associated with the domain name received from the client device; sending, from the computer system to a dynamic address system, the user identifier determined from the domain name, wherein the dynamic address system has a mapping from user identifiers to network addresses, each respective user identifier associated with a respective user as a device associated with one of the network addresses, wherein the dynamic address system receives upon each sign-on to the dynamic address system an update for the respective user that comprises a current network address of a device through which the respective user is accessible, and wherein upon receiving the update, the dynamic address system associates the respective user identifier with the current network address received in the update; and receiving, by the computer system, from the dynamic address system, the current network address associated with the user identifier determined from the domain name.
A method for the production of a transparent conductive carbon film comprising the steps (i) coating of a solution of discotic precursors onto a substrate and (ii) heating the coated substrate under a protective gas to a temperature of from 400-2000°C, wherein the produced transparent carbon film has a transmittance in the range of 60-95%, for a carbon film having a thickness of 30 nm-4 nm at a wavelength of 700 nm and wherein the produced carbon film has a sheet resistance of at most 30 kohm/sq, and wherein the discotic precursors are selected from superphenalenes, hexabenzocoronenes, ovalenes, coronenes, perylenes, pyrenes, and their derivatives; pitches, heavy oils from coal or petroleum; or exfoliated graphite from chemical or physical exfoliation of any graphite or from graphite oxide. (i) coating of a solution of discotic precursors onto a substrate and (ii) heating the coated substrate under a protective gas to a temperature of from 400-2000°C, wherein the produced transparent carbon film has a transmittance in the range of 60-95%, for a carbon film having a thickness of 30 nm-4 nm at a wavelength of 700 nm and wherein the produced carbon film has a sheet resistance of at most 30 kohm/sq, and wherein the discotic precursors are selected from superphenalenes, hexabenzocoronenes, ovalenes, coronenes, perylenes, pyrenes, and their derivatives; pitches, heavy oils from coal or petroleum; or exfoliated graphite from chemical or physical exfoliation of any graphite or from graphite oxide.
A method of operating a lithographic apparatus that comprises: a projection system configured to provide exposure radiation for patterning a substrate underneath the projection system; a first stage configured to support a first substrate that is to be patterned: a second stage configured to support a second substrate that is to be patterned; and a third stage accommodating a component that includes at least one of a sensor and a cleaning device; wherein the method comprises: - performing an exposure operation on the first substrate; - performing a post-exposure scrum sweep operation, and - starting a pre-exposure scrum sweep operation after starting a substrate exchange operation; wherein during the post-exposure scrum sweep operation the first stage moves away from underneath the projection system while the third stage moves to underneath the projection system; wherein during the pre-exposure scrum sweep operation, the third stage moves away from underneath the projection system while the second stage moves to underneath the projection system; wherein during the substrate exchange operation, the first substrate is unloaded from the first stage. a first stage configured to support a first substrate that is to be patterned: a second stage configured to support a second substrate that is to be patterned; and a third stage accommodating a component that includes at least one of a sensor and a cleaning device; wherein the method comprises: - performing an exposure operation on the first substrate; - performing a post-exposure scrum sweep operation, and - starting a pre-exposure scrum sweep operation after starting a substrate exchange operation; - performing an exposure operation on the first substrate; - performing a post-exposure scrum sweep operation, and - starting a pre-exposure scrum sweep operation after starting a substrate exchange operation; wherein during the post-exposure scrum sweep operation the first stage moves away from underneath the projection system while the third stage moves to underneath the projection system; wherein during the pre-exposure scrum sweep operation, the third stage moves away from underneath the projection system while the second stage moves to underneath the projection system; wherein during the substrate exchange operation, the first substrate is unloaded from the first stage.
Use in a refrigeration system of a liquid composition comprising: a) a fluoroalkene of the structure: wherein each R is independently Cl, F, Br, I or H; R' is (CR 2) n Y; Y is CRF 2; and n is 0; and b) an effective amount to provide lubrication of an essentially miscible organic lubricant comprised of carbon, hydrogen and oxygen and having a ratio of oxygen to carbon which provides a degree of miscibility with said fluoroalkene so that when up to five weight percent of lubricant is added to said fluoroalkene the mixture has one liquid phase at at least one temperature between -40 and +70°C, and wherein the lubricant is selected from the group consisting of polyalkylene glycol, polyalkylene glycol ester, polyol ester and vinyl ether lubricants; wherein the refrigeration system is selected from electric refrigerators, chillers, transport refrigeration systems and commercial refrigeration systems. a) a fluoroalkene of the structure: wherein each R is independently Cl, F, Br, I or H; R' is (CR 2) n Y; Y is CRF 2; and n is 0; and b) an effective amount to provide lubrication of an essentially miscible organic lubricant comprised of carbon, hydrogen and oxygen and having a ratio of oxygen to carbon which provides a degree of miscibility with said fluoroalkene so that when up to five weight percent of lubricant is added to said fluoroalkene the mixture has one liquid phase at at least one temperature between -40 and +70°C, and wherein the lubricant is selected from the group consisting of polyalkylene glycol, polyalkylene glycol ester, polyol ester and vinyl ether lubricants;
A sensor assembly comprising: an electronics assembly having a circuit board; a sensor mount structure comprising a first side and a second side, and an aperture (130; 330; 430; 530; 630) formed from the first side towards the second side; a sensor supported by the sensor mount structure, such that the sensor is situated, at least partially, in the aperture (130; 330; 430; 530; 630) of the sensor mount structure; a spring pin connector (112; 312; 412; 512; 612a, 612b) coupled to the sensor mount structure, the spring pin connector having a connector body (124; 324; 424; 524; 624a, 624b) and a pair of conductive spring pins (126; 326; 426; 526; 626b) supported by and extending through the connector body, the pair of conductive spring pins electrically coupled to the sensor, and blind-mate interfaced to the circuit board of the electronics assembly, thereby electrically coupling the sensor to the electronics assembly; the sensor assembly characterized in that it further comprises a connector float system associated with the spring pin connector and operable to facilitate float of the spring pin connector in at least one degree of freedom relative to the circuit board to account for positional tolerance variations between the spring pin connector and the circuit board. an electronics assembly having a circuit board; a sensor mount structure comprising a first side and a second side, and an aperture (130; 330; 430; 530; 630) formed from the first side towards the second side; a sensor supported by the sensor mount structure, such that the sensor is situated, at least partially, in the aperture (130; 330; 430; 530; 630) of the sensor mount structure; a spring pin connector (112; 312; 412; 512; 612a, 612b) coupled to the sensor mount structure, the spring pin connector having a connector body (124; 324; 424; 524; 624a, 624b) and a pair of conductive spring pins (126; 326; 426; 526; 626b) supported by and extending through the connector body, the pair of conductive spring pins electrically coupled to the sensor, and blind-mate interfaced to the circuit board of the electronics assembly, thereby electrically coupling the sensor to the electronics assembly; the sensor assembly characterized in that it further comprises a connector float system associated with the spring pin connector and operable to facilitate float of the spring pin connector in at least one degree of freedom relative to the circuit board to account for positional tolerance variations between the spring pin connector and the circuit board.
A coated article comprising: a substrate; and a self-healing coating disposed on a surface of the substrate; the self-healing coating comprising: a metallic matrix comprising Ni, Cu, Ag, Au, Zn, Sn, Fe, In, W, Ti, Co, Al, Mg, Cr, Mo, or an alloy thereof, or a combination comprising at least one of the aforementioned materials; and a plurality of micro- or nano-sized particles dispersed in the metallic matrix; the micro- or nano-sized particles having a core-shell structure comprising an active agent encapsulated in a micro- or nano-sized metallic container, wherein the micro- or nano-sized metallic container and metallic matrix have at least one common metal, and the micro- or nano-sized metallic container comprises a shell with a thickness of 10 nanometers to 50 nanometers. a substrate; and a self-healing coating disposed on a surface of the substrate; the self-healing coating comprising: a metallic matrix comprising Ni, Cu, Ag, Au, Zn, Sn, Fe, In, W, Ti, Co, Al, Mg, Cr, Mo, or an alloy thereof, or a combination comprising at least one of the aforementioned materials; and a plurality of micro- or nano-sized particles dispersed in the metallic matrix; the micro- or nano-sized particles having a core-shell structure comprising an active agent encapsulated in a micro- or nano-sized metallic container, wherein the micro- or nano-sized metallic container and metallic matrix have at least one common metal, and the micro- or nano-sized metallic container comprises a shell with a thickness of 10 nanometers to 50 nanometers. a metallic matrix comprising Ni, Cu, Ag, Au, Zn, Sn, Fe, In, W, Ti, Co, Al, Mg, Cr, Mo, or an alloy thereof, or a combination comprising at least one of the aforementioned materials; and a plurality of micro- or nano-sized particles dispersed in the metallic matrix; the micro- or nano-sized particles having a core-shell structure comprising an active agent encapsulated in a micro- or nano-sized metallic container, wherein the micro- or nano-sized metallic container and metallic matrix have at least one common metal, and the micro- or nano-sized metallic container comprises a shell with a thickness of 10 nanometers to 50 nanometers.
A drive design for a fastening element to be screwed, comprising 1.1 at least two drive surfaces formed on the fastening element for transmission of a torque suitable for rotation with a tool in a first rotation direction, wherein 1.2 between these drive surfaces in each case one transition surface is disposed, wherein said transition surfaces 1.3 form a guide surface for the tool when rotating the tool in the first rotation direction and 1.4 upon engagement of the tool in the other rotation direction cause an axial outward displacement of the tool, characterized in that 1.5 the drive surfaces and the transition surfaces are formed in a recess originating from an end face of the fastening element, 1.6 the wall of the recess lies at least in an axial section of a cylindrical jacket surface, particularly, in a section originating from the end face of the screw head, and 1.7 the transition surfaces extend between the drive edge of a respective drive surface to the opposite end of the drive surface. 1.1 at least two drive surfaces formed on the fastening element for transmission of a torque suitable for rotation with a tool in a first rotation direction, wherein 1.2 between these drive surfaces in each case one transition surface is disposed, wherein said transition surfaces 1.3 form a guide surface for the tool when rotating the tool in the first rotation direction and 1.4 upon engagement of the tool in the other rotation direction cause an axial outward displacement of the tool, 1.5 the drive surfaces and the transition surfaces are formed in a recess originating from an end face of the fastening element, 1.6 the wall of the recess lies at least in an axial section of a cylindrical jacket surface, particularly, in a section originating from the end face of the screw head, and 1.7 the transition surfaces extend between the drive edge of a respective drive surface to the opposite end of the drive surface.
A multi-layer structure comprising a substrate, a storage layer, and a doped CNT layer in direct contact with the storage layer, wherein the storage layer comprises at least 0.0001 wt% of a doping agent.
An actuator for driving a blind with adjustable slats, said actuator comprising a housing inside which a motor is installed driving a first output shaft that projects on either side of the housing, the actuator further comprising a second output shaft of which the axis of rotation is parallel to and not coinciding with that of the first output shaft, characterized in that the actuator includes controlled coupling means making it possible to selectively transmit a rotational movement from the first output shaft to the second output shaft, and in that the second output shaft projects on either side of the housing.
A white resin composition containing: a white pigment; a surface-treated calcium carbonate in which particle surfaces of a synthetic calcium carbonate with an average particle diameter of 0. 05 to 1 μm are subjected to surface treatment with a condensed phosphoric acid so that a content of phosphorus in the surface-treated calcium carbonate falls within a range of 0.2 to 2% by mass, measured by the ICP emission spectrometric analysis method, and then with an epoxy-modified silicone oil so that an amount of the epoxy-modified silicone oil for the treatment in the surface-treated calcium carbonate is within a range of 0.1 to 10 parts by mass relative to 100 parts by mass of calcium carbonate; and a resin, wherein a content ratio between the white pigment and the surface-treated calcium carbonate is, in mass ratio white pigment to surface-treated calcium carbonate, within a range of 90:10 to 60:40, and a total content of the white pigment and the surface-treated calcium carbonate in the resin composition is within a range of 5 to 70% by mass.
A method for configuring a measurement gap, characterized in that the method is used in a first access network device among at least two access network devices connected to a terminal, the terminal being in a connected state allowing to perform communications with the at least two access network devices, and the method comprises: performing, by the first access network device, network negotiation with a second access network device among the at least two access network devices such that the first access network device sets a measurement gap configuration, wherein the second access network device is different from the first access network device; generating (S202, S303, S403), by the first access network device, measurement gap configuration information, wherein the measurement gap configuration information is used for configuring a measurement gap for the terminal, and the measurement gap is used to indicate a period of time during which the terminal performs signal measurement at a frequency other than any serving frequency for the at least two access network devices; and sending (S203, S304, S404), by the first access network device, the measurement gap configuration information to the terminal through Radio Resource Control, RRC, signaling. performing, by the first access network device, network negotiation with a second access network device among the at least two access network devices such that the first access network device sets a measurement gap configuration, wherein the second access network device is different from the first access network device; generating (S202, S303, S403), by the first access network device, measurement gap configuration information, wherein the measurement gap configuration information is used for configuring a measurement gap for the terminal, and the measurement gap is used to indicate a period of time during which the terminal performs signal measurement at a frequency other than any serving frequency for the at least two access network devices; and sending (S203, S304, S404), by the first access network device, the measurement gap configuration information to the terminal through Radio Resource Control, RRC, signaling.
A method for a host computer on which a set of virtual machines, VMs, (1650, 1750) execute, the method comprising: detecting that a first VM of the set of VMs executing on the host machine is infected with malware by analyzing introspection data gathered from the first VM; and based on the detected malware infection, encrypting data messages transmitted by at least a second VM in the set of VMs executing on the host machine, after the malware infection is detected on the first VM. detecting that a first VM of the set of VMs executing on the host machine is infected with malware by analyzing introspection data gathered from the first VM; and based on the detected malware infection, encrypting data messages transmitted by at least a second VM in the set of VMs executing on the host machine, after the malware infection is detected on the first VM.
Exhaust-gas turbocharger for a motor vehicle, wherein a compressor of the exhaust-gas turbocharger has - a charge-air inlet, - a charge-air outlet and - a condensate outlet opening which is arranged at the geodetically lowest point of a charge-air flow path of the compressor, characterized in that the condensate outlet opening is arranged at the geodetically lowest point of a pressure spiral of the compressor. - a charge-air inlet, - a charge-air outlet and - a condensate outlet opening which is arranged at the geodetically lowest point of a charge-air flow path of the compressor, characterized in that the condensate outlet opening is arranged at the geodetically lowest point of a pressure spiral of the compressor.
An oral care composition which comprises a film comprising, by dry weight of the film, 20-60 wt.% cellulose ethers; 10-30 wt. % plasticizer; 1-5 wt.% non-ionic surfactant; and 15-55 wt. % pigment; wherein the film is dissolvable; and the film is in the form of particles having a size of 0.18 - 0.84 mm (20 - 80 mesh); and wherein the oral care composition further comprises an anionic surfactant in an amount from 1.75 wt.% to 2.0 wt.%, wherein the anionic surfactant is sodium lauryl sulfate.
Method for authorising the communication of a network node (IoT1 - IoT4, PANEL) of a communication network, wherein the communication of the network node (IoT1 - IoT4, PANEL) is only permitted if the network node (IoT1 - IoT4, PANEL) receives an authorisation (GRANT, GRANT Idn) after a completed NFC connection with a defined mobile communication terminal (SMART), wherein a communication of the network node (IoT1 - IoT4, PANEL) only takes place if the defined mobile communication terminal (SMART) is located within a defined distance of a maximum of 3 to 4m from the network node (IoT1 - IoT4, PANEL), and wherein the network node (IoT1 - IoT4, PANEL) is in a permanent NFC connection with the defined mobile communication terminal during a communication.