mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling power-saving modes of an image forming apparatus, comprising the steps of: beginning a first power-saving mode after standing by in a normal mode for a first length of time if, regardless of the determination of an error occurrence, no print operation has been implemented characterized in that the method further comprises the steps of: beginning a second power-saving mode after standing by in the normal mode for a second length of time if an error occurrence is determined during implementation of a print operation, wherein: the second lenght of time is set to be shorter than the first length of time, and the second power-saving mode includes an error-checking mode. beginning a second power-saving mode after standing by in the normal mode for a second length of time if an error occurrence is determined during implementation of a print operation, wherein: the second lenght of time is set to be shorter than the first length of time, and the second power-saving mode includes an error-checking mode. the second lenght of time is set to be shorter than the first length of time, and the second power-saving mode includes an error-checking mode.
Method for manufacturing a super capacitor of high specific capacity and energy density, comprising manufacturing electrically connected in parallel of semi-wound packages of micro/mesoporous carbon composite electrode pairs separated by porous separator, including steps in which: a) pre-made carbon film is dried in vacuum at up to 150 °C and is cut to the electrode dimensions, b) an aluminium layer is deposited on the carbon film by vacuum deposition method, forming a current collector, the carbon film temperature is maintained during deposition approximately same as that of the deposited metal, c) controlling of the aluminium coating contact is performed by reference voltage within the range of 50V to 20V, where i) firstly, temperature is raised to up to 150 °C at highest reference voltage for additional degassing and disposing of light carbon particles, then ii) pores, grooves and gaps of the topmost particles of carbon film are filled with aluminium and then iii) reference voltage is reduced for completing the process of depositing. a) pre-made carbon film is dried in vacuum at up to 150 °C and is cut to the electrode dimensions, b) an aluminium layer is deposited on the carbon film by vacuum deposition method, forming a current collector, the carbon film temperature is maintained during deposition approximately same as that of the deposited metal, c) controlling of the aluminium coating contact is performed by reference voltage within the range of 50V to 20V, where i) firstly, temperature is raised to up to 150 °C at highest reference voltage for additional degassing and disposing of light carbon particles, then ii) pores, grooves and gaps of the topmost particles of carbon film are filled with aluminium and then iii) reference voltage is reduced for completing the process of depositing. i) firstly, temperature is raised to up to 150 °C at highest reference voltage for additional degassing and disposing of light carbon particles, then ii) pores, grooves and gaps of the topmost particles of carbon film are filled with aluminium and then iii) reference voltage is reduced for completing the process of depositing.
A pyrazole derivative of formula or a pharmaceutically acceptable salt thereof, wherein: Y represents N, CH, CF, CCI or CCH 3; R 1, R 2 and R 3 independently represent H, alkyl containing 1 to 3 carbon atoms or halogenated alkyl containing 1 to 3 carbon atoms; R 4 and R 5 independently represent H or optionally substituted alkyl containing 1 to 3 carbon atoms; R 6 represents alkyl, cycloalkyl or heterocyclyl, wherein alkyl, cycloalkyl and heterocyclyl are optionally substituted; or R 5 and R 6 are taken together with the nitrogen to which they are attached to form optionally substituted heterocyclyl optionally containing one or more heteroatom(s) selected from N, O or S. Y represents N, CH, CF, CCI or CCH 3; R 1, R 2 and R 3 independently represent H, alkyl containing 1 to 3 carbon atoms or halogenated alkyl containing 1 to 3 carbon atoms; R 4 and R 5 independently represent H or optionally substituted alkyl containing 1 to 3 carbon atoms; R 6 represents alkyl, cycloalkyl or heterocyclyl, wherein alkyl, cycloalkyl and heterocyclyl are optionally substituted; or R 5 and R 6 are taken together with the nitrogen to which they are attached to form optionally substituted heterocyclyl optionally containing one or more heteroatom(s) selected from N, O or S.
A radar system, comprising: at least one transmitter; at least one receiver; at least one processor; and at least one non-transitory computer-readable medium storing machine instructions which, when executed by the at least one processor, cause the at least one processor to: obtain an indication of an approaching object; perform radar sensing of a region of interest to obtain environmental information; and transmit the environmental information for the region of interest to a communication system of the approaching object wherein the machine instructions to perform radar sensing of the region of interest further comprise machine instructions to: determine a reaction time for the approaching object; schedule at least one sensing slot within at least one communication frame based on the determined reaction time and the region of interest; and perform the radar sensing of the region of interest during the at least one sensing slot within the at least one communication frame. at least one transmitter; at least one receiver; at least one processor; and at least one non-transitory computer-readable medium storing machine instructions which, when executed by the at least one processor, cause the at least one processor to: obtain an indication of an approaching object; perform radar sensing of a region of interest to obtain environmental information; and transmit the environmental information for the region of interest to a communication system of the approaching object wherein the machine instructions to perform radar sensing of the region of interest further comprise machine instructions to: determine a reaction time for the approaching object; schedule at least one sensing slot within at least one communication frame based on the determined reaction time and the region of interest; and perform the radar sensing of the region of interest during the at least one sensing slot within the at least one communication frame. obtain an indication of an approaching object; perform radar sensing of a region of interest to obtain environmental information; and transmit the environmental information for the region of interest to a communication system of the approaching object wherein the machine instructions to perform radar sensing of the region of interest further comprise machine instructions to: determine a reaction time for the approaching object; schedule at least one sensing slot within at least one communication frame based on the determined reaction time and the region of interest; and perform the radar sensing of the region of interest during the at least one sensing slot within the at least one communication frame.
A method of operating a User Equipment, UE, to report channel quality indicator, CQI, feedback and hybrid automatic-repeat-request, HARQ, feedback, the method comprising: receiving control information indicating resources in which data is to be received by the UE, the control information comprising an ACK/NACK resource indicator, ARI, having a value indicating one of a plurality of predetermined sets of control channel resources for transmitting CQI feedback and HARQ feedback; determining a feedback payload size parameter, based on a number of bits to be reported for CQI feedback and for HARQ feedback; selecting, from a plurality of control channel resources in the predetermined set of control channel resources indicated by the value of the ARI, one of the control channel resources of the predetermined set, based on the feedback payload size parameter; and transmitting CQI feedback and HARQ feedback in the selected control channel resource. receiving control information indicating resources in which data is to be received by the UE, the control information comprising an ACK/NACK resource indicator, ARI, having a value indicating one of a plurality of predetermined sets of control channel resources for transmitting CQI feedback and HARQ feedback; determining a feedback payload size parameter, based on a number of bits to be reported for CQI feedback and for HARQ feedback; selecting, from a plurality of control channel resources in the predetermined set of control channel resources indicated by the value of the ARI, one of the control channel resources of the predetermined set, based on the feedback payload size parameter; and transmitting CQI feedback and HARQ feedback in the selected control channel resource.
A body ply skim rubber compound comprising a cross-linkable unsaturated chain polymeric base comprising polyepihalohydrin rubber, a filler material and a vulcanization system; said body ply skim compound being characterized in that it is comprised of between 0.25 and 2.50 phr of a silane compound, belonging to the class of polysulfide organosilanes; said body ply skim compound being free of silica.
A method for a user terminal comprising: sending a request to a network server relating to a session, the request offering one or more media types for the session; receiving a response to the request, the response indicating at least one rejected media type and an indication of a reason for rejection; and wherein the method is characterized by using the said reason to deduce whether or not to try to offer the said media type for the session later.
A method of producing a compound represented by the formula wherein R 1 is an optionally substituted hydrocarbon group or an optionally substituted heterocyclic group, and R 2 is a hydrogen atom, an optionally substituted alkyl group, an acyl group, an optionally substituted hydroxy group, an optionally substituted amino group, a chlorine atom or a fluorine atom, or a salt thereof, comprising subjecting a compound represented by the formula wherein X 1 is a halogen atom and other symbols are as defined above, or a salt thereof, to dehalogenation in the presence of a hydrogen source, a metal catalyst and a base selected from an aromatic amine and a tertiary amine.
Extendable apparatus, for a drill head, comprising - a base section and a drive section; - an extension section and a functional section; - the base section and the drive section being moveable with respect to the extension section and the functional section along a longitudinal axis; characterized in - the drive section and the functional section being rotationally rigidly coupled to each other; - the base section and the extension section being rotationally rigidly coupled to each other; - the drive section and the functional section being rotationally movably coupled to the extension section. - a base section and a drive section; - an extension section and a functional section; - the base section and the drive section being moveable with respect to the extension section and the functional section along a longitudinal axis; - the drive section and the functional section being rotationally rigidly coupled to each other; - the base section and the extension section being rotationally rigidly coupled to each other; - the drive section and the functional section being rotationally movably coupled to the extension section.
A pest control agent, wherein the agent contains zinc oxide in the form of tetrapod-shaped crystals, polyvinylpyrrolidone as well as water, characterized by the following composition zinc oxide: 0.5 - 5 % by weight; polyvinylpyrrolidone: 40 - 65 % by weight; water: the remaining part.
A terminal in a New Radio, NR, communication system, the terminal comprising: a receiving section adapted to receive, from a base station, downlink control information on a downlink control channel; a control section adapted to control detection of common search spaces, which are candidates for allocating, by the base station, the downlink control channel and which correspond to different numerologies, used for communication between the terminal and said base station, based on information that is indicated by the radio base station and/or information about communication capabilities of the terminal which the terminal supports itself; said terminal being characterized in that it further comprises: a transmission section adapted to transmit, to the base station, a random access preamble, PRACH, wherein the receiving section is adapted to receive the downlink control information in a given common search space of said common search spaces that is configured in association with a PRACH resource set used to transmit the PRACH by the transmission section of the terminal. a receiving section adapted to receive, from a base station, downlink control information on a downlink control channel; a control section adapted to control detection of common search spaces, which are candidates for allocating, by the base station, the downlink control channel and which correspond to different numerologies, used for communication between the terminal and said base station, based on information that is indicated by the radio base station and/or information about communication capabilities of the terminal which the terminal supports itself; said terminal being characterized in that it further comprises: a transmission section adapted to transmit, to the base station, a random access preamble, PRACH, wherein the receiving section is adapted to receive the downlink control information in a given common search space of said common search spaces that is configured in association with a PRACH resource set used to transmit the PRACH by the transmission section of the terminal. a transmission section adapted to transmit, to the base station, a random access preamble, PRACH, wherein the receiving section is adapted to receive the downlink control information in a given common search space of said common search spaces that is configured in association with a PRACH resource set used to transmit the PRACH by the transmission section of the terminal.
A method for detecting C-terminal fragment of ADIPOR1 or ADIPOR2 covalently attached to immunoglobulin, an immunoglobulin heavy or light chain, or an immunoglobulin fragment (Ig-CTF) in a biological sample, said method comprising: a. exposing a biological sample derived from a subject of a first species to a first antibody of a second species that preferentially binds the first species' Ig-CTF or an antigen-binding fragment thereof, forming a mixture; b. exposing said mixture to a second antibody or an antigen-binding fragment of a third species that preferentially binds the first species' Ig; and c. detecting the Ig-CTF present in said sample. a. exposing a biological sample derived from a subject of a first species to a first antibody of a second species that preferentially binds the first species' Ig-CTF or an antigen-binding fragment thereof, forming a mixture; b. exposing said mixture to a second antibody or an antigen-binding fragment of a third species that preferentially binds the first species' Ig; and c. detecting the Ig-CTF present in said sample.
A passenger seat comprising: a seat bottom coupled to a frame, said seat bottom is moveable during reclining of the passenger seat, a deployable leg rest; and an actuator coupled to the deployable leg rest for inducing deployment of the deployable leg rest, wherein the actuator is coupled at one end to the seat bottom through a rear actuator bracket, said rear actuator bracket connects to the actuator at a rear actuator pivot such that as the actuator moves through its range of motion, the actuator pivots around the rear actuator pivot and the rear actuator bracket.and the deployable leg rest is coupled directly to the seat bottom through a front actuator bracket that provides a front actuator pivot such that as said actuator moves, the actuator will pivot around the front actuator pivot and rear actuator pivot so as to allow the leg rest to move and articulate with the seat and pivot and/or extend away from the seat bottom during deployment. a seat bottom coupled to a frame, said seat bottom is moveable during reclining of the passenger seat, a deployable leg rest; and an actuator coupled to the deployable leg rest for inducing deployment of the deployable leg rest,
A firing target for firearms shooting training comprising a bullet collecting casing, said bullet collecting casing comprising a lattice structure disposed inside the bullet collecting casing in front of a rear wall of the bullet collecting casing, which lattice structure is designed to dissipate kinetic energy of incident bullets and includes at least a first series of deflecting plates designed to deflect the trajectory of the incident bullets, which first series of deflecting plates is arranged according to a first inclined plane relative to the rear wall, the firing target further comprising a protective screen placed in front of the lattice structure of the bullet collecting casing, on the trajectory of the incident bullets, and designed to halt any bullet fragments produced upon the bullets impacting the lattice structure, characterized in that the lattice structure includes at least a second series of deflecting plates arranged according to a second inclined plane relative to the rear wall and distinct from the first inclined plane, which second series of deflecting plates is disposed between the first series of deflecting plates and the rear wall, in that the first and second series of deflecting plates (201, 202) are arranged such that the incident bullets are not able to impact directly the rear wall and are first deflected by the lattice structure, and in that the first and second series of deflecting plates (201, 202) are arranged in such a manner as to be contiguous. the firing target further comprising a protective screen placed in front of the lattice structure of the bullet collecting casing, on the trajectory of the incident bullets, and designed to halt any bullet fragments produced upon the bullets impacting the lattice structure, characterized in that the lattice structure includes at least a second series of deflecting plates arranged according to a second inclined plane relative to the rear wall and distinct from the first inclined plane, which second series of deflecting plates is disposed between the first series of deflecting plates and the rear wall, in that the first and second series of deflecting plates (201, 202) are arranged such that the incident bullets are not able to impact directly the rear wall and are first deflected by the lattice structure, and in that the first and second series of deflecting plates (201, 202) are arranged in such a manner as to be contiguous.
Device for welding under vacuum, having a bell- or hood-like welding cover having a circumferential side wall and a cavity delimited by the latter, wherein a circumferential free edge is provided, with which the welding cover can be placed on a flat surface, so that the cavity is surrounded by the flat surface and the circumferential wall and, optionally, a ceiling wall, characterized in that in the circumferential side wall there is at least one arrangement having a bore having a connection area for a fluid supply and a fluid outlet, wherein in the bore there is a constriction for producing a Venturi effect and there is also a transverse bore from the cavity into the bore in order to suck in gas from the cavity through the transverse bore via the Venturi effect to produce a vacuum. a ceiling wall, characterized in that in the circumferential side wall there is at least one arrangement having a bore having a connection area for a fluid supply and a fluid outlet, wherein in the bore there is a constriction for producing a Venturi effect and there is also a transverse bore from the cavity into the bore in order to suck in gas from the cavity through the transverse bore via the Venturi effect to produce a vacuum.
A kit of parts including a sensor unit assembly, comprising a sensor unit comprising a security monitoring unit with image capture means configured to capture an image and/or a video of a monitored area and a motion detector, configured to detect motion in a detection area and to provide dependent on the detection a signal to activate the image capture means; and a plurality of interchangeable covers, each configured to be connected to the sensor unit, wherein different interchangeable covers are configured to restrict differently the field of view of the motion detector when connected to the sensor unit. a sensor unit comprising a security monitoring unit with image capture means configured to capture an image and/or a video of a monitored area and a motion detector, configured to detect motion in a detection area and to provide dependent on the detection a signal to activate the image capture means; and a plurality of interchangeable covers, each configured to be connected to the sensor unit, wherein different interchangeable covers are configured to restrict differently the field of view of the motion detector when connected to the sensor unit.
A generation method for generating a voltage, the method being performed by a generator module of an electrical network of an aircraft, said electrical network comprising a power supply line powered by said generator module, a DC bus powered from said power supply line via a rectifier, and at least one electrical actuator powered with AC from the DC bus via an inverter; the generation method comprising a step of delivering an AC voltage (V AC) on said power supply line as a function of a voltage setpoint and of a voltage measured in said electrical network; said generation method being characterized in that it comprises a step of determining said voltage setpoint as a function of an operating parameter (v 9) of said actuator.
Method of manufacturing an optical waveguide comprising two crystalline semiconductor regions (10, 11) separated by a dielectric layer, the dielectric layer having a predetermined width and a predetermined thickness (e) greater than said width, the method comprising the steps of: a) providing a substrate successively comprising an electric insulator layer and a crystalline semiconductor layer, the substrate having a planar surface, b) forming a trench in the semiconductor layer to expose the electric insulator layer and delineate first and second semiconductor areas (40, 41) on either side of the exposed electric insulator layer, step b) being executed so that the first semiconductor area has a lateral edge extending across the entire thickness of the semiconductor layer and along an axis (Z-Z') perpendicular to the planar surface of the substrate, the first semiconductor area being intended to form the first semiconductor region of the optical waveguide, c) forming the dielectric layer with the predetermined width across the entire thickness of the lateral edge, the method being characterized in that the trench formed at step b) is configured so that the second semiconductor area forms a seed layer extending across a thickness (eo) strictly smaller than the thickness of the semiconductor layer, and in that it comprises a step d) of forming by epitaxy the second semiconductor region of the optical waveguide from the seed layer, step d) being executed after step c).