mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a smart home power supply, the method comprising: after successful automatic matching of a smart router with a plurality of smart home power supplies, obtaining (S11, S21, S31) addresses assigned to the smart home power supplies by the smart router, and obtaining information on a plurality of home electronic devices connected to the smart home power supplies; establishing (S12, S22, S32) a correspondence between the information on the home electronic devices and the addresses of the smart home power supplies; obtaining (S13, S23, S33) a control information set of a home electronic device of the home electronic devices by a user, searching an address of a smart home power supply connected to the home electronic device of the home electronic devices from the correspondence, and sending a control instruction to the smart router according to the control information and the address of the smart home power supply to control the smart home power supply to perform a corresponding operation, characterized in that the method further comprises obtaining information on usage habits set for the home electronic devices by the user; when the information on usage habits indicates that a home electronic device is not frequently used, detecting on a regular interval whether a turning-on duration of a smart home power supply connected to the home electronic device exceeds a preset threshold; and if the turning-on duration exceeds the threshold, sending a control instruction to the smart router to control the smart home power supply to perform a turning-off operation. after successful automatic matching of a smart router with a plurality of smart home power supplies, obtaining (S11, S21, S31) addresses assigned to the smart home power supplies by the smart router, and obtaining information on a plurality of home electronic devices connected to the smart home power supplies; establishing (S12, S22, S32) a correspondence between the information on the home electronic devices and the addresses of the smart home power supplies; obtaining (S13, S23, S33) a control information set of a home electronic device of the home electronic devices by a user, searching an address of a smart home power supply connected to the home electronic device of the home electronic devices from the correspondence, and sending a control instruction to the smart router according to the control information and the address of the smart home power supply to control the smart home power supply to perform a corresponding operation, characterized in that the method further comprises obtaining information on usage habits set for the home electronic devices by the user; when the information on usage habits indicates that a home electronic device is not frequently used, detecting on a regular interval whether a turning-on duration of a smart home power supply connected to the home electronic device exceeds a preset threshold; and if the turning-on duration exceeds the threshold, sending a control instruction to the smart router to control the smart home power supply to perform a turning-off operation.
A security element for securing security papers, value documents and other data carriers, having a representation arrangement for representing one or more target images whose motifs are each formed by visually recognizable, contrasting image regions (16, 17), wherein - the representation arrangement includes a lens grid and a motif image arranged at a distance from the lens grid, which displays the predetermined target images when viewed with the lens grid, wherein - the lens grid is formed of a plurality of spherical or aspherical microlenses, and - the motif image is formed from a plurality of unit cells, characterized in that - the motif image comprises a plurality of reflective facets(33-1, 33-2) of at least a first and a second type, which differ in their inclination and produce the visually recognizable, contrasting image regions of the target images when viewed with the lens grid, wherein - the reflective facets of the first type have an inclination β 1, which is given by 0.85· β* <β 1 <1.15·β* with β * = ± arctan r f − R + R 2 − r 2, wherein f represents the focal length of the microlens, R represents the radius of curvature at the centre of the microlens, and r represents the lens radius of the microlens, and - the reflective facets of the second type have an inclination β 2 which is given by | β 1 - β 2 |> 10°. - the representation arrangement includes a lens grid and a motif image arranged at a distance from the lens grid, which displays the predetermined target images when viewed with the lens grid, wherein - the lens grid is formed of a plurality of spherical or aspherical microlenses, and - the motif image is formed from a plurality of unit cells, characterized in that - the motif image comprises a plurality of reflective facets(33-1, 33-2) of at least a first and a second type, which differ in their inclination and produce the visually recognizable, contrasting image regions of the target images when viewed with the lens grid, wherein - the reflective facets of the first type have an inclination β 1, which is given by 0.85· β* <β 1 <1.15·β* with β * = ± arctan r f − R + R 2 − r 2, - the reflective facets of the second type have an inclination β 2 which is given by | β 1 - β 2 |> 10°.
An electric winder, comprising: a winder body, comprising: a first housing; a reel arranged in the first housing; a drive mechanism connected to the reel; and a cable wound on the reel; a controller configured to control on/off of the drive mechanism; and a socket, comprising: a second housing arranged outside the first housing; an insertion hole provided on a side of the second housing; a contact assembly provided in the insertion hole and connected to a free end of the cable; characterized by a strain sensor arranged in the second housing and attached to the contact assembly; wherein the controller is connected to the strain sensor; when a plug is inserted into the contact assembly through the insertion hole, the strain sensor is configured to detect a deformation of the contact assembly caused by the plug, and send the deformation to the controller; and the controller is configured to receive the deformation sent from the strain sensor; and when the deformation is greater than a deformation threshold, the controller controls the drive mechanism to be in a stop state to prevent the reel from winding. a winder body, comprising: a first housing; a reel arranged in the first housing; a drive mechanism connected to the reel; and a cable wound on the reel; a first housing; a reel arranged in the first housing; a drive mechanism connected to the reel; and a cable wound on the reel; a controller configured to control on/off of the drive mechanism; and a socket, comprising: a second housing arranged outside the first housing; an insertion hole provided on a side of the second housing; a contact assembly provided in the insertion hole and connected to a free end of the cable; characterized by a strain sensor arranged in the second housing and attached to the contact assembly; a second housing arranged outside the first housing; an insertion hole provided on a side of the second housing; a contact assembly provided in the insertion hole and connected to a free end of the cable; characterized by a strain sensor arranged in the second housing and attached to the contact assembly; wherein the controller is connected to the strain sensor; when a plug is inserted into the contact assembly through the insertion hole, the strain sensor is configured to detect a deformation of the contact assembly caused by the plug, and send the deformation to the controller; and the controller is configured to receive the deformation sent from the strain sensor; and when the deformation is greater than a deformation threshold, the controller controls the drive mechanism to be in a stop state to prevent the reel from winding.
A network apparatus comprising: at least one processor; and at least one memory including computer program code for one or more programs, the at least one processor, the at least one memory, and the computer program code configured to cause the network apparatus to at least: receive a channel measurement report from a user equipment before a secondary cell is operational to the user equipment to transmit and receive user data; and determine from the receipt of the channel measurement report, an indication of the secondary cell being activated at the user equipment and a readiness at the user equipment to access the secondary cell, wherein the readiness comprises a delay from the time the secondary cell is active to a time the secondary cell becomes operational, and wherein the delay is of fixed 24 transmission time intervals, TTIs, for the user equipment. at least one processor; and at least one memory including computer program code for one or more programs, the at least one processor, the at least one memory, and the computer program code configured to cause the network apparatus to at least: receive a channel measurement report from a user equipment before a secondary cell is operational to the user equipment to transmit and receive user data; and determine from the receipt of the channel measurement report, an indication of the secondary cell being activated at the user equipment and a readiness at the user equipment to access the secondary cell, wherein the readiness comprises a delay from the time the secondary cell is active to a time the secondary cell becomes operational, and wherein the delay is of fixed 24 transmission time intervals, TTIs, for the user equipment. receive a channel measurement report from a user equipment before a secondary cell is operational to the user equipment to transmit and receive user data; and determine from the receipt of the channel measurement report, an indication of the secondary cell being activated at the user equipment and a readiness at the user equipment to access the secondary cell, wherein the readiness comprises a delay from the time the secondary cell is active to a time the secondary cell becomes operational, and wherein the delay is of fixed 24 transmission time intervals, TTIs, for the user equipment.
A confocal microscope comprising a spatial light modulator comprising an illumination array of individual light transmission pixels, the spatial light modulator being disposed in an illumination light path of the microscope, characterized in that the spatial light modulator is disposed at a conjugate image plane of an aperture diaphragm of an objective lens to provide an upstream spatial light modulator.
An electroluminescent device comprising: an anode comprising an anode material of aluminum or silver; a cathode comprising a cathode material; and at least one layer between the anode and the cathode, the at least one layer between the anode and the cathode, contacting the anode, and comprising a chemical compound of Formula I, wherein the anode material has the work function less than or equal to the work function of the cathode material, and the anode material is a conductive material having a work function not greater than 4.5 eV: wherein R1 -R6 are independently chosen from the group consisting of halo, nitrile (-CN), nitro (-NO2), sulfonyl (-SO2 R), sulfoxide (-SOR), sulfonamide (-SO2 NR), sulfonate (-SO3 R), trifluoromethyl (-CF3), ester (-CO-OR), amide (-CO-NHR or -CO-NRR'), straight-chain or branched (substituted or unsubstituted) C1 -C12 alkoxy. an anode comprising an anode material of aluminum or silver; a cathode comprising a cathode material; and at least one layer between the anode and the cathode, the at least one layer between the anode and the cathode, contacting the anode, and comprising a chemical compound of Formula I, wherein the anode material has the work function less than or equal to the work function of the cathode material, and the anode material is a conductive material having a work function not greater than 4.5 eV: wherein R1 -R6 are independently chosen from the group consisting of halo, nitrile (-CN), nitro (-NO2), sulfonyl (-SO2 R), sulfoxide (-SOR), sulfonamide (-SO2 NR), sulfonate (-SO3 R), trifluoromethyl (-CF3), ester (-CO-OR), amide (-CO-NHR or -CO-NRR'), straight-chain or branched (substituted or unsubstituted) C1 -C12 alkoxy.
A hearing device to be worn by a user for stimulating the user's hearing, comprising an interface for wireless communication with external devices (11, 40, 42, 44, 46, 48, 50, 54, 56), and a pairing control unit for controlling pairing of the hearing device with external devices, wherein the pairing control unit is configured to maintain a plurality of pairing tables (P1, P2), wherein each pairing table is configured to persistently store a limited number of pairing information entries for a maximum number of external devices paired with hearing device, and wherein, once the maximum number of external devices has been reached, one of the existing entries is overwritten when a new pairing information entry is to be stored in the respective pairing table, wherein the pairing control unit is configured to decide in which one of the pairing tables the new pairing information entry is to be persistently stored, the decision being based on target pairing table selection information provided to the pairing control unit during the pairing process, and wherein the pairing control unit is further configured to receive the target pairing table selection information as a message from a respective external device involved in the pairing process, to receive the target pairing table selection information as an input via a user interface of a third device communicating with the hearing device, or to derive the target pairing table selection information from device identification information, such as an address or an attribute, received from the external device involved in the pairing process.
Protector for a display device, such as a screen or television set, comprising a substantially parallelepiped-shaped body provided with at least one upper wall (3; 3'), a front wall (4; 4'), a back wall (5; 5') opposite the front wall (4; 4') and two side walls (6, 7; 6', 7'), wherein at least the front wall (4;4') has at least one portion made of transparent material, characterised in that the protector comprises support elements (17; 17') and attachment plates (20; 20') for the support elements (17; 17'), in particular arranged at the lower edges of the parallelepiped body, wherein the support elements (17; 17') are adapted to be shifted outwards, parallel to the short side of the parallelepiped-shaped body, by means of a telescopic bracket.
Weight-optimised box body for commercial vehicles, wherein the box body comprises a body shell and an interior structure, wherein - the body shell comprises walls, in particular also a roof and/or a floor, which consist of lightweight panels with outer cover layers and a core layer made of the same material in the form of hollow chamber panels made of a thermoplastic material, - wherein the interior structure consists at least partially of the same panel material as the body shell, - the interior structure is designed and arranged in such a way that they improve the stability of the body shell, - and the box body has no light metal profiles on the outer edges of the body shell, characterised in that for hollow chamber panels (4.1, 4.2) connected to one another at an angle, - these are placed together with their narrow sides and the respective cover layers (4a, b) are welded or glued together, wherein - either the narrow sides are rounded when viewed in cross section with contacting cover layers (4a, b) within a panel, and weld seams or adhesive seams are introduced into the inner angle or outer angle between the two curves, - or the narrow sides are chamfered when viewed in cross section, so that the chamfered surfaces of the narrow sides are parallel to one another when the panels (4.1, 4.2) are positioned at the nominal angle, wherein the chamfered surfaces are welded together at the inner and/or outer end of the chamfered surfaces with respect to the angle, and in particular the chamfered surfaces of the panels are glued together by means of adhesive surfaces. - the body shell comprises walls, in particular also a roof and/or a floor, which consist of lightweight panels with outer cover layers and a core layer made of the same material in the form of hollow chamber panels made of a thermoplastic material, - wherein the interior structure consists at least partially of the same panel material as the body shell, - the interior structure is designed and arranged in such a way that they improve the stability of the body shell, - and the box body has no light metal profiles on the outer edges of the body shell, - these are placed together with their narrow sides and the respective cover layers (4a, b) are welded or glued together, wherein - either the narrow sides are rounded when viewed in cross section with contacting cover layers (4a, b) within a panel, and weld seams or adhesive seams are introduced into the inner angle or outer angle between the two curves, - or the narrow sides are chamfered when viewed in cross section, so that the chamfered surfaces of the narrow sides are parallel to one another when the panels (4.1, 4.2) are positioned at the nominal angle, wherein the chamfered surfaces are welded together at the inner and/or outer end of the chamfered surfaces with respect to the angle, and in particular the chamfered surfaces of the panels are glued together by means of adhesive surfaces.
A thioxanthone-based autophagy inhibitor for use in treating cancer in a mammal that is also concurrently or sequentially administered a cancer therapeutic autophagy inducing compound, wherein said thioxanthone-based autophagy inhibitor is lucanthone and said autophagy inducing compound is vorinostat or belinostat.
Method for script-controlled execution of at least one application on a computer system with the aid of a software robot which actuates a graphical user interface (28, 28a, 28b) using pattern recognition, wherein the computer system provides a runtime environment which comprises hardware of a computer and an operating system installed on the computer; characterised in that - a terminal server is installed on the computer, - a terminal client is started on the computer by a first program component (18, 18a, 18b) inside the runtime environment, which terminal client establishes a remote connection to the terminal server via a remote control protocol, wherein the terminal client provides the graphical user interface (28, 28a, 28b) for the software robot, and - a second program component (22, 22a, 22b) is started by the first program component (18, 18a, 18b) within a session (24, 24a, 24b) allocated to the terminal client, which second program component calls up the software robot and executes a script (26, 26a, 26b) for executing the at least one application, wherein the terminal client is executed in hidden mode and the graphical user interface (28, 28a, 28b) provided by the terminal client is not displayed on a display unit of the computer. - a terminal server is installed on the computer, - a terminal client is started on the computer by a first program component (18, 18a, 18b) inside the runtime environment, which terminal client establishes a remote connection to the terminal server via a remote control protocol, wherein the terminal client provides the graphical user interface (28, 28a, 28b) for the software robot, and - a second program component (22, 22a, 22b) is started by the first program component (18, 18a, 18b) within a session (24, 24a, 24b) allocated to the terminal client, which second program component calls up the software robot and executes a script (26, 26a, 26b) for executing the at least one application,
A method of magnetic particle imaging, the method comprising: Placing magnetic particles into an imaging region; Generating within the imaging region an inhomogeneous magnetic field having a spatial gradient and having a field free region within the imaging region; Generating within the imaging region a scanning magnetic field that displaces the position of the field free region, wherein the scanning magnetic field causes the position of the field-free region to follow a predetermined trajectory; Generating an excitation magnetic field that excites the magnetic particles positioned at the field free region; Detecting signals produced by the magnetic particles distributed within the imaging region, wherein the signals detected at a given time are produced by magnetic particles located at positions coincident with a position of the field free region at the given time; and Producing from the detected signals an image of a distribution of the magnetic particles within the imaging region; and Wherein the scanning magnetic field within the imaging region is a homogeneous magnetic field. Placing magnetic particles into an imaging region; Generating within the imaging region an inhomogeneous magnetic field having a spatial gradient and having a field free region within the imaging region; Generating within the imaging region a scanning magnetic field that displaces the position of the field free region, wherein the scanning magnetic field causes the position of the field-free region to follow a predetermined trajectory; Generating an excitation magnetic field that excites the magnetic particles positioned at the field free region; Detecting signals produced by the magnetic particles distributed within the imaging region, wherein the signals detected at a given time are produced by magnetic particles located at positions coincident with a position of the field free region at the given time; and Producing from the detected signals an image of a distribution of the magnetic particles within the imaging region; and Wherein the scanning magnetic field within the imaging region is a homogeneous magnetic field.