mhurhangee/ep-ind-claims huggingface dataset:
Security element with a security structure, which can be interrogated optically as an image, and electrically as a network of electrical resistances, with a substrate, which carries a number n of individual electrical contacts, wherein the security structure is located in the region between these contacts, has an electrical conductivity, and provides an electrical connection in each case between many, preferably all n, contacts, characterised in that, the geometric shape of the security structure is determined: i) either, by a biological organism grown on the substrate, which, originating from a starting region, has a branched growth, and whose growth can be stimulated, in that it grows towards attractors, which are positioned on the respective contacts, ii) or, by a biological organism grown on an auxiliary substrate, which organism, originating from a starting region, has a branched growth, and the growth of which can be stimulated by growing towards attractors positioned at the sites on the auxiliary substrate at which the contacts are located on the substrate, wherein the geometric shape of the biological organism thus obtained has been transferred to the substrate. the security structure is located in the region between these contacts, has an electrical conductivity, and provides an electrical connection in each case between many, preferably all n, contacts, characterised in that, the geometric shape of the security structure is determined: i) either, by a biological organism grown on the substrate, which, originating from a starting region, has a branched growth, and whose growth can be stimulated, in that it grows towards attractors, which are positioned on the respective contacts, ii) or, by a biological organism grown on an auxiliary substrate, which organism, originating from a starting region, has a branched growth, and the growth of which can be stimulated by growing towards attractors positioned at the sites on the auxiliary substrate at which the contacts are located on the substrate, wherein the geometric shape of the biological organism thus obtained has been transferred to the substrate. i) either, by a biological organism grown on the substrate, which, originating from a starting region, has a branched growth, and whose growth can be stimulated, in that it grows towards attractors, which are positioned on the respective contacts, ii) or, by a biological organism grown on an auxiliary substrate, which organism, originating from a starting region, has a branched growth, and the growth of which can be stimulated by growing towards attractors positioned at the sites on the auxiliary substrate at which the contacts are located on the substrate, wherein the geometric shape of the biological organism thus obtained has been transferred to the substrate.
A stripping tool for removing a conductor bar out of a slot of a core of an electric machine, comprising a piston and a support to apply the piston to the core, a rope to be wound around the conductor bar, and a puller suitable to move the rope vertically to the core to pull the conductor bar out of the slot by means of the rope, characterized in that the puller is designed as a massive tube slidable along the piston with a bolt projecting from the puller, the rope wound around the bolt and the conductor bar to pull the conductor bar out of the slot by means of the rope.
A process of preparation of a leaf tea product comprising the steps of: a. incubating fresh tea leaf at a temperature in the range 4°C to 60°C under anaerobic conditions, wherein the gas phase in contact with the tea leaf has less than 3% oxygen by volume, for a period of 14 to 60 hours; and b. subjecting the incubated leaf to a gyratory motion. a. incubating fresh tea leaf at a temperature in the range 4°C to 60°C under anaerobic conditions, wherein the gas phase in contact with the tea leaf has less than 3% oxygen by volume, for a period of 14 to 60 hours; and b. subjecting the incubated leaf to a gyratory motion.
A temperature sensor that is configured to be attached to a rectangular electric wire and to detect the temperature of the electric wire in the mounted state, the temperature sensor comprising: a sensor holder extending from a front end side toward a back end side; a sensor body that is held by the sensor holder to locate a thermosensitive device on the front end side and from which lead wires (13A,13B) are drawn, the lead wires (13A,13B) being electrically connected to the thermosensitive device; and a clip that is fixed to the sensor holder so as to press the electric wire, in the mounted state on the electric wire, against the sensor body by elastic force, characterised in that the clip is made of a metal plate that is bent in a U-shape. a sensor holder extending from a front end side toward a back end side; a sensor body that is held by the sensor holder to locate a thermosensitive device on the front end side and from which lead wires (13A,13B) are drawn, the lead wires (13A,13B) being electrically connected to the thermosensitive device; and a clip that is fixed to the sensor holder so as to press the electric wire, in the mounted state on the electric wire, against the sensor body by elastic force, characterised in that the clip is made of a metal plate that is bent in a U-shape.
A portable tool comprising; a work data acquisition device configured to obtain a work data which identifies a work task that has been performed; a storage device configured to store the work data obtained by the work data acquisition device; a read and write device configured to read and write data into an external data storage device (3a, 5a) which is independent from a body of the portable tool; and a control device configured to identify a worker by reading out a worker identification data using the read and write device, and write the work data stored on the storage device into the external data storage device (3a, 5a) using the read and write device, characterized in that the portable tool comprises a clocking device configured to clock a working time; the control device is configured to identify a worker by reading out the worker identification data from the external data storage device (3, 5) using the read and write device and to write a working time data clocked by the clocking device into the external data storage device (3a, 5a) using the read and write device, the control device is configured to place a drive mechanism of the portable tool into an operational state when the worker is found to be a legitimate one by reading out the worker identification data from the external data storage device (3, 5), so that any persons other than legitimate workers cannot operated the portable tool, wherein a consumable supply container which contains a consumable supply used during the work task can freely be attached to and removed from the body of the portable tool; wherein the external data storage device comprises a consumable supply data storage device provided on the consumer supply container, the consumable supply data storage device storing a consumable supply identification data identifying a type of the consumable supply and a consumable supply quantity data; the control device identifies the type of the consumable supply by reading out the consumable supply identification data and the consumable supply quantity data using the read and write device, the control device recognizes the quantity of the consumable supply before the work task is carried out, the control device calculates a remaining quantity of the consumable supply left within the consumable supply container from a number of the consumable supply used while the work task is carried out, and the control device writes the remaining quantity data of the consumable supply into the consumable supply data storage device of the consumable supply container using the read and write device.
Adjustment fitting (1, 100), in particular for a vehicle seat, having a first fitting part (2, 102), having a second fitting part (3, 103) which is rotatably adjustable around a rotational axis relative to the first fitting part (2, 102), wherein an outer wheel (4, 104, 301) having an inner toothing (12, 112, 308) is allocated to the first fitting part (2, 102), into which outer wheel an inner wheel (7, 107, 320) having an outer toothing (16, 116, 323) according to the type of a wobble gear, allocated to the second fitting part (3, 103), is inserted eccentrically to the rotational axis, and wherein the inner wheel (7, 107, 320) forms an eccentric receiving space (25, 124) with respect to the rotational axis, having an eccentric (30, 32, 126, 127) inserted rotatably into the eccentric receiving space (25, 124), and having a drive shaft to drive the eccentric (30, 32, 126, 127), characterised in that the outer wheel (4, 104, 301) is formed as a hollow wheel having a base (9, 109) and having an outer wall (10, 110, 304) extended beyond the inner toothing (12, 112, 308) in the axial direction, said outer wall overlapping the outer toothing (16, 116, 323) of the inner wheel (7, 107, 320) with a collar (21, 115) directed radially inwards; and the inner wheel (7, 107, 320) comprises a cylindrical inner wall (18, 116, 321) extended beyond the outer toothing (16, 116, 323) in the axial direction, said inner wall penetrating the collar (21, 115) in the axial direction.
A method of placing a node in a wireless communication network into a standby mode, said node comprising a plurality of antennae (13, 14), a primary radio and a secondary radio wherein said primary radio and said secondary radio share at least two of said plurality of antennae, said node further comprising a Radio Frequency, RF, switch arranged to connect said secondary radio to any one of said at least two shared antennae, wherein said primary radio is arranged to operate within a first frequency band, and wherein said secondary radio is arranged to operate within a second frequency band, wherein said second frequency band is a sub-band of said first frequency band, said method comprising the steps of: - receiving, by said primary radio, via said plurality of antennae (13, 14), a packet; - determining, by said primary radio, for each of said shared antennae separately, a signal quality indicator of said second frequency band corresponding to said received packet; - selecting, by said primary radio, one of said shared antennae based on said determined signal quality indicators by controlling said RF switch such that said selected antenna connects to said secondary radio; - placing said node in a standby mode, characterised in that, in said standby mode, said secondary radio is arranged to listen to an activation signal in said second frequency band through said connected antenna for activating said node and further wherein, in said standby mode, said primary radio does not transmit or receive any packets nor senses a channel state. - receiving, by said primary radio, via said plurality of antennae (13, 14), a packet; - determining, by said primary radio, for each of said shared antennae separately, a signal quality indicator of said second frequency band corresponding to said received packet; - selecting, by said primary radio, one of said shared antennae based on said determined signal quality indicators by controlling said RF switch such that said selected antenna connects to said secondary radio; - placing said node in a standby mode,
A method of indicating to a node in an IP Multimedia Subsystem network a transfer between two endpoints: at a node in a first network, determining that a communication session is to be transferred from a first endpoint to a second endpoint; including in a message an indication of at least one of the endpoints and an explicit communication transfer indicator; and sending the message towards the node in the IP Multimedia Subsystem network, and wherein the node in the IP Multimedia Subsystem network is the Serving Call Session Control Function that serves the second endpoint, characterised in that the method further comprises the step of, at the node in the IP Multimedia Subsystem network, determining the presence of an explicit communication transfer indicator and, as a result of the determination, informing a Lawful Intercept node that a transfer has taken place. at a node in a first network, determining that a communication session is to be transferred from a first endpoint to a second endpoint; including in a message an indication of at least one of the endpoints and an explicit communication transfer indicator; and sending the message towards the node in the IP Multimedia Subsystem network, and wherein the node in the IP Multimedia Subsystem network is the Serving Call Session Control Function that serves the second endpoint, characterised in that the method further comprises the step of, at the node in the IP Multimedia Subsystem network, determining the presence of an explicit communication transfer indicator and, as a result of the determination, informing a Lawful Intercept node that a transfer has taken place.
A temperature detection assembly for a cooking pot, wherein said temperature detection assembly comprises: - a straight and elongated bar, - at least one SAW (surface acoustic wave) temperature sensor arranged inside a lower end portion of the bar, - a sensor antenna connected to an upper end of the bar, and - at least one handle connected to the upper end of the bar, wherein - the SAW temperature sensor or a heat conducting element connected to said SAW temperature sensor is spaced from a lower end of the bar by a predetermined distance, and wherein - a non-heat-conducting material is arranged between the SAW temperature sensor or the heat conducting element, respectively, and the lower end of the bar, characterized in, that the bar is a telescopic bar with a variable length. - a straight and elongated bar, - at least one SAW (surface acoustic wave) temperature sensor arranged inside a lower end portion of the bar, - a sensor antenna connected to an upper end of the bar, and - at least one handle connected to the upper end of the bar, wherein - the SAW temperature sensor or a heat conducting element connected to said SAW temperature sensor is spaced from a lower end of the bar by a predetermined distance, and wherein - a non-heat-conducting material is arranged between the SAW temperature sensor or the heat conducting element, respectively, and the lower end of the bar,
A portable device comprising: a touch sensitive display unit configured to sense a touch input; a tactile feedback unit configured to generate tactile feedback; a camera unit configured to detect a user's gaze; and a control unit configured to: when the portable device is in a locked state, detect a first touch gesture with respect to a first region corresponding to an application on the touch sensitive display unit, wherein the first touch gesture enters the first region from outside of the first region; attempt to detect the user's gaze when the first touch gesture is detected; generate tactile feedback indicating that the first touch gesture enters the first region; unlock the visual user interface in response to the first touch gesture if the user's gaze is detected; unlock the tactile user interface in response to the first touch gesture if the user's gaze is not detected; detect a second touch gesture of activating the application, wherein the second touch gesture is input consecutively to the first touch gesture; and execute the application in response to the second touch gesture. a touch sensitive display unit configured to sense a touch input; a tactile feedback unit configured to generate tactile feedback; a camera unit configured to detect a user's gaze; and a control unit configured to: when the portable device is in a locked state, detect a first touch gesture with respect to a first region corresponding to an application on the touch sensitive display unit, wherein the first touch gesture enters the first region from outside of the first region; attempt to detect the user's gaze when the first touch gesture is detected; generate tactile feedback indicating that the first touch gesture enters the first region; unlock the visual user interface in response to the first touch gesture if the user's gaze is detected; unlock the tactile user interface in response to the first touch gesture if the user's gaze is not detected; detect a second touch gesture of activating the application, wherein the second touch gesture is input consecutively to the first touch gesture; and execute the application in response to the second touch gesture. when the portable device is in a locked state, detect a first touch gesture with respect to a first region corresponding to an application on the touch sensitive display unit, wherein the first touch gesture enters the first region from outside of the first region; attempt to detect the user's gaze when the first touch gesture is detected; generate tactile feedback indicating that the first touch gesture enters the first region; unlock the visual user interface in response to the first touch gesture if the user's gaze is detected; unlock the tactile user interface in response to the first touch gesture if the user's gaze is not detected; detect a second touch gesture of activating the application, wherein the second touch gesture is input consecutively to the first touch gesture; and execute the application in response to the second touch gesture.
A processing system comprising: a common base; an object mount configured to hold an object for inspection or processing; at least one aperture plate provided on the object mount, wherein the aperture plate has at least one aperture; a laser device mounted on the common base; a transport device configured to displace the object mount relative to the common base from a first position to a second position, wherein, when the object mount is in the first position, the object and the at least one aperture are positioned within the scan region of the laser device; characterised in that the laser device is configured to scan a laser beam across a scan region and in that the system comprises at least one light guide provided on the object mount, wherein the light guide has an input port provided by the at least one aperture, and an output port; and at least one light detector mounted at a fixed position relative to the common base and configured to detect laser light emerging from the output port of the light guide. a common base; an object mount configured to hold an object for inspection or processing; at least one aperture plate provided on the object mount, wherein the aperture plate has at least one aperture; a laser device mounted on the common base; a transport device configured to displace the object mount relative to the common base from a first position to a second position, wherein, when the object mount is in the first position, the object and the at least one aperture are positioned within the scan region of the laser device; characterised in that the laser device is configured to scan a laser beam across a scan region and in that the system comprises at least one light guide provided on the object mount, wherein the light guide has an input port provided by the at least one aperture, and an output port; and at least one light detector mounted at a fixed position relative to the common base and configured to detect laser light emerging from the output port of the light guide.
A gyro stabilizer comprising; - a rotor arranged to rotate about a spin axis (s), and - a stator, wherein the rotor and the stator comprise rotor and stator assemblies (31, 21), respectively, wherein the rotor assembly is arranged radially outside the stator assembly with respect to the spin axis (s), characterized in that the rotor and/or stator assemblies (31, 21) comprises magnets with magnetic axis in the direction of the spin axis (s) wherein, the rotor/and or stator assembly magnets (31a, 21a) are stacked with alternating magnetic field directions in the direction of the spin axis (s). - a rotor arranged to rotate about a spin axis (s), and - a stator, wherein the rotor and the stator comprise rotor and stator assemblies (31, 21), respectively, wherein the rotor assembly is arranged radially outside the stator assembly with respect to the spin axis (s), characterized in that the rotor and/or stator assemblies (31, 21) comprises magnets with magnetic axis in the direction of the spin axis (s) wherein, the rotor/and or stator assembly magnets (31a, 21a) are stacked with alternating magnetic field directions in the direction of the spin axis (s). the rotor and the stator comprise rotor and stator assemblies (31, 21), respectively, wherein the rotor assembly is arranged radially outside the stator assembly with respect to the spin axis (s), characterized in that the rotor and/or stator assemblies (31, 21) comprises magnets with magnetic axis in the direction of the spin axis (s) wherein, the rotor/and or stator assembly magnets (31a, 21a) are stacked with alternating magnetic field directions in the direction of the spin axis (s).
A glove comprising a fibrous glove and a coating layer of a rubber or a vinyl chloride-based resin formed on an outer surface side of the fibrous glove, characterized in that an inner surface side and the outer surface side of the fibrous glove are knitted separately by plating, and 50% by weight or more of the yarn used in the inner surface side comprises a microfiber having a diameter of a monofilament of not more than 6 μm.
A power supply system, comprising: an input node for receiving an input signal; an output node for driving a load; a plurality of output drivers (102; 104) the inputs of which are coupled to the input node and the outputs (114; 116) of which are coupled to the output node, each of the output drivers (102; 104) being powered by different supply rail voltages (V1; V2); and a controller (202; 302; 403; 503) configured to enable each of the output drivers (102; 104) via an associated enable control signal (206; 212) and disable each of the output drivers via an associated disable control signal (208; 214) separate from the enable control signal associated with each output driver, the controller (202; 302; 403; 503) being configured to enable one or more of the output drivers (102; 104) via the associated enable control signal (206; 212) depending upon an output voltage level at the output node while disabling remaining ones of the output drivers via the associated disable control signal (208; 214), and an output voltage of the power supply system powering a power amplifier of a radio-frequency power amplifier system. an input node for receiving an input signal; an output node for driving a load; a plurality of output drivers (102; 104) the inputs of which are coupled to the input node and the outputs (114; 116) of which are coupled to the output node, each of the output drivers (102; 104) being powered by different supply rail voltages (V1; V2); and a controller (202; 302; 403; 503) configured to enable each of the output drivers (102; 104) via an associated enable control signal (206; 212) and disable each of the output drivers via an associated disable control signal (208; 214) separate from the enable control signal associated with each output driver, the controller (202; 302; 403; 503) being configured to enable one or more of the output drivers (102; 104) via the associated enable control signal (206; 212) depending upon an output voltage level at the output node while disabling remaining ones of the output drivers via the associated disable control signal (208; 214), and an output voltage of the power supply system powering a power amplifier of a radio-frequency power amplifier system.