mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising: a display; a touch sensor configured to sense taps applied to the display; and a controller configured to: activate the display and periodically activate the touch sensor with a second period shorter than a first period, if a first tap input to the touch sensor is detected in a state of the display being deactivated and the touch sensor being periodically activated with the first period and subsequently a second tap input to the touch sensor satisfying pre-set conditions is detected in a state of the display being deactivated, wherein the pre-set conditions require the second tap input to be applied to the touch sensor within a predetermined region within a predefined period of time, wherein the predetermined region is calculated from the spot from which the first tap was sensed, and maintain the state of the display being deactivated and periodically activate the touch sensor with the first period, if the second tap input fails to satisfy the pre-set conditions. a display; a touch sensor configured to sense taps applied to the display; and a controller configured to: activate the display and periodically activate the touch sensor with a second period shorter than a first period, if a first tap input to the touch sensor is detected in a state of the display being deactivated and the touch sensor being periodically activated with the first period and subsequently a second tap input to the touch sensor satisfying pre-set conditions is detected in a state of the display being deactivated, wherein the pre-set conditions require the second tap input to be applied to the touch sensor within a predetermined region within a predefined period of time, wherein the predetermined region is calculated from the spot from which the first tap was sensed, and maintain the state of the display being deactivated and periodically activate the touch sensor with the first period, if the second tap input fails to satisfy the pre-set conditions. activate the display and periodically activate the touch sensor with a second period shorter than a first period, if a first tap input to the touch sensor is detected in a state of the display being deactivated and the touch sensor being periodically activated with the first period and subsequently a second tap input to the touch sensor satisfying pre-set conditions is detected in a state of the display being deactivated, wherein the pre-set conditions require the second tap input to be applied to the touch sensor within a predetermined region within a predefined period of time, wherein the predetermined region is calculated from the spot from which the first tap was sensed, and maintain the state of the display being deactivated and periodically activate the touch sensor with the first period, if the second tap input fails to satisfy the pre-set conditions.
A container for storing and planting seeds, bulbs or tubers, the container comprising: a housing made of non-water soluble material, the housing comprising: a first compartment for receiving at least one seed, bulb or tuber, the first compartment being essentially free of water, a second compartment for receiving nutrients enabling growth of the seed, bulb or tuber, the second compartment being arranged below the first compartment, and a bottom portion; wherein the container comprises further a separation layer separating the first and the second compartments (5, 7), and wherein the bottom portion of the housing has a rounded shape characterised in that, the container has a center of gravity arranged such that the container is adapted to erect itself when it is deposited on a supporting surface in a tilted manner. a housing made of non-water soluble material, the housing comprising: a first compartment for receiving at least one seed, bulb or tuber, the first compartment being essentially free of water, a second compartment for receiving nutrients enabling growth of the seed, bulb or tuber, the second compartment being arranged below the first compartment, and a bottom portion; wherein the container comprises further a first compartment for receiving at least one seed, bulb or tuber, the first compartment being essentially free of water, a second compartment for receiving nutrients enabling growth of the seed, bulb or tuber, the second compartment being arranged below the first compartment, and a bottom portion; wherein the container comprises further a separation layer separating the first and the second compartments (5, 7), and wherein the bottom portion of the housing has a rounded shape characterised in that, the container has a center of gravity arranged such that the container is adapted to erect itself when it is deposited on a supporting surface in a tilted manner.
A method of fabricating a composite structure, the method comprising the steps of: providing a pair of preforms (1, 2), each comprising a plurality of reinforcing fibres; providing an intermediate layer of resiliently deformable material between said preforms (1,2) to space said preforms apart from one another such that each preform (1,2) bears against a respective side of the intermediate layer; providing a curable matrix material around said fibres; and curing said matrix material to form said composite structure, whereby the method further comprises either: (i) measuring the thickness of the preforms (1, 2); or (ii) determining the thickness of the preforms (1, 2) by measuring the thickness of the fibres or plies of the fibres of a batch of plies from which the preforms (1, 2) are formed; and the thickness (t 4) of said intermediate layer is selected in dependence on the measured or determined thickness (t 1, t 2) of one or more of said preforms (1,2) such that the composite structure fabricated via the method has a predetermined desired thickness.
Cutting device, which includes: - a frame and a circular counter construction fitted in the frame, - a force member rotatably supported to the frame and extending in the radial direction up to the circular counter construction, said circular counter construction and force member being arranged to overlap each other in the axial direction relative to the axis of rotation of the force member having a sharp tip, and - equipment for rotating the force member and thereby for cutting material in cooperation with the circular counter construction, and between the frame and the material is a feeding direction, which is crosswise with the axis of rotation of the force member, and the force member includes a profile, which is a spiral aperture for taking the material to be cut against the circular counter construction for cutting the material, characterised in that the force member includes adjusting members arranged in the tip for changing the curvature of the force member by bending the tip. - a frame and a circular counter construction fitted in the frame, - a force member rotatably supported to the frame and extending in the radial direction up to the circular counter construction, said circular counter construction and force member being arranged to overlap each other in the axial direction relative to the axis of rotation of the force member having a sharp tip, and - equipment for rotating the force member and thereby for cutting material in cooperation with the circular counter construction,
Trailer coupling for a motor vehicle, in particular a car, for attaching a trailer to the motor vehicle, with a coupling body support which may be attached to the motor vehicle and with a vehicle coupling body, in particular spherical, fitted on a free end section of the coupling body support, for coupling to a towing coupling of the trailer wherein, when coupled together, the towing coupling and the coupling body are rotatably mounted relative to one another around at least one axis of rotation, in particular multi-axis, and the towing coupling is mounted on a bearing surface of the coupling body, wherein there is movably mounted on the coupling body a driver which has at least one driving projection protruding beyond the bearing surface of the coupling body and drivable by the towing coupling and movable relative to the coupling body, wherein the driver forms part of a sensor array to detect an angular position of the towing coupling relative to the coupling body support, characterised in that the driver has at least one seating cavity for the driving projection or projections, into which the driving projection or projections may be displaced by the towing coupling, so that the towing coupling may be moved past the driving projection, wherein the seating cavity has a free volume to accommodate at least roughly that volume of the driving projection or projections which protrudes beyond the bearing surface when the driving projection is not under load from the towing coupling.
A fluid container detachably connectable with a fluid consuming device, the fluid container comprising: a fluid container body configured to contain a fluid; a fluid supply structure located at one end portion of the fluid container body; a container-side electrical connection structure including a contact element that comes into contact with a device-side electrical connection structure provided in the fluid consuming device; characterized in that the fluid container comprises a linkage member including a linkage part configured to link the fluid supply structure with the container-side electrical connection structure and a handle part that is grasped. a fluid container body configured to contain a fluid; a fluid supply structure located at one end portion of the fluid container body; a container-side electrical connection structure including a contact element that comes into contact with a device-side electrical connection structure provided in the fluid consuming device; characterized in that
A test method for an amplification way (Vi) of a satellite repeater, said way being connected on the one hand to at least one receiving antenna of wanted signals and a first transmitting antenna for broadcasting said wanted signals, and a second transmitting antenna for broadcasting telemetry data, the amplification way allowing wanted signals from a plurality of communication channels to be amplified in frequencies, said channels being comprised in a first frequency band, the amplification way being adapted to the first band, the satellite further comprising at least one signal generator (TMi) of a sub-system enabling telemetry data to be generated towards a transmitting antenna (45, ANT2) which can be either the first transmitting antenna, or the telemetry transmitting antenna so as to be received on the ground, characterised in that the method comprises: • defining a test signal comprising selecting a carrier frequency comprised in the first frequency band; • configuring the repeater allowing: ∘ to transmit the test signal generated by the signal generator towards the amplification way (Vi), the signal generator being at least one generator of a sub-system for managing telemetry commands (TMi); ∘ to direct the test signal amplified by the amplification way (Vi) towards one of the transmitting antennas (ANT2, 45); • analysing the parameters of the signals defined and amplified by the amplification way (Vi) and transmitted by the transmitting antenna (ANT2, 45) after the signals are received on the ground. • defining a test signal comprising selecting a carrier frequency comprised in the first frequency band; • configuring the repeater allowing: ∘ to transmit the test signal generated by the signal generator towards the amplification way (Vi), the signal generator being at least one generator of a sub-system for managing telemetry commands (TMi); ∘ to direct the test signal amplified by the amplification way (Vi) towards one of the transmitting antennas (ANT2, 45); ∘ to transmit the test signal generated by the signal generator towards the amplification way (Vi), the signal generator being at least one generator of a sub-system for managing telemetry commands (TMi); ∘ to direct the test signal amplified by the amplification way (Vi) towards one of the transmitting antennas (ANT2, 45); • analysing the parameters of the signals defined and amplified by the amplification way (Vi) and transmitted by the transmitting antenna (ANT2, 45) after the signals are received on the ground.
A suction teat arrangement for an automatic feeder for feeding livestock, in particular calves, with • a suction teat holder, which has a suction teat receiver for receiving a suction teat, a fastening device for fastening the suction teat holder on a feed stand and a supply connection for connection with a supply line, • a valve, with which a liquid supply from the supply line to the suction teat can be released and blocked, wherein the valve has an adjustable valve member and a valve seat, and • a branch connection for connection with a branch line, wherein • the valve and the branch connection are integrated into the suction teat holder, characterized in that • the valve seat is formed by the suction teat receiver and • the valve is a magnetic valve, which has an electric control line. • a suction teat holder, which has a suction teat receiver for receiving a suction teat, a fastening device for fastening the suction teat holder on a feed stand and a supply connection for connection with a supply line, • a valve, with which a liquid supply from the supply line to the suction teat can be released and blocked, wherein the valve has an adjustable valve member and a valve seat, and • a branch connection for connection with a branch line, wherein • the valve and the branch connection are integrated into the suction teat holder, characterized in that • the valve seat is formed by the suction teat receiver and • the valve is a magnetic valve, which has an electric control line.
A stabilized radio-frequency ("RF") accelerator system, comprising: an RF accelerator to accelerate charged particles; an RF source coupled to the accelerator to provide RF power into the accelerator; a charged particle source coupled to the accelerator to inject charged particles into the accelerator; an electric power source coupled to the RF source and the charged particle source to provide electric power thereto; and a controller; characterized in that the controller is coupled to the electric power source to control operation of the electric power source, the controller configured to: generate a compensated control voltage (V-C) based, at least in part, on a nominal control voltage value and a compensation voltage value, the compensation voltage value compensating for dose and/or energy instability in the respective acceleration system based, at least in part, on past performance of the system; and provide the compensated control voltage (V-C) to the electric power source; wherein the electric power provided to the RF source by the electric power source is based, at least in part, on the compensated control voltage. an RF accelerator to accelerate charged particles; an RF source coupled to the accelerator to provide RF power into the accelerator; a charged particle source coupled to the accelerator to inject charged particles into the accelerator; an electric power source coupled to the RF source and the charged particle source to provide electric power thereto; and a controller; characterized in that the controller is coupled to the electric power source to control operation of the electric power source, the controller configured to: generate a compensated control voltage (V-C) based, at least in part, on a nominal control voltage value and a compensation voltage value, the compensation voltage value compensating for dose and/or energy instability in the respective acceleration system based, at least in part, on past performance of the system; and provide the compensated control voltage (V-C) to the electric power source; generate a compensated control voltage (V-C) based, at least in part, on a nominal control voltage value and a compensation voltage value, the compensation voltage value compensating for dose and/or energy instability in the respective acceleration system based, at least in part, on past performance of the system; and provide the compensated control voltage (V-C) to the electric power source; wherein the electric power provided to the RF source by the electric power source is based, at least in part, on the compensated control voltage.
A method in an audio encoder for allocating bits to a gain adjustment quantizer and a shape quantizer to be used for encoding a gain shape vector, the method comprising: - determining a current bitrate and a first signal property value, wherein the first signal property is bandwidth, and wherein the method is characterized by - identifying a bit allocation for the gain adjustment quantizer and the shape quantizer for the determined current bitrate and the first signal property by using information from a table indicating at least one bit allocation for the gain adjustment quantizer and the shape quantizer which are mapped to a bitrate and the first signal property, and - applying the identified bit allocation when encoding the gain shape vector. - determining a current bitrate and a first signal property value, wherein the first signal property is bandwidth, and wherein the method is characterized by - identifying a bit allocation for the gain adjustment quantizer and the shape quantizer for the determined current bitrate and the first signal property by using information from a table indicating at least one bit allocation for the gain adjustment quantizer and the shape quantizer which are mapped to a bitrate and the first signal property, and - applying the identified bit allocation when encoding the gain shape vector.
A method of mass and/or ion mobility spectrometry comprising: trapping ions in an annular ion trap, wherein the trapped ions are distributed around the entire circumference of the annular trap; and then axially ejecting at least some of said ions from said annular ion trap into an annular ion guide (6, 7), wherein the ions separate axially as they travel along the ion guide (6, 7), and wherein as the ions travel along at least a portion of the length of the ion guide (6, 7) their motion around the circumference of the annular ion guide (6, 7) is unrestricted; characterised by subsequently converting the ions from an ion beam having an annular shaped cross section to an ion beam having a non-annular shaped cross-section by either a) applying one or more DC and/or RF voltages to one or more portions of said annular ion guide in order to force the ions circumferentially around the ion guide into an arcuate section of the ion guide; or b) providing said ion guide (6, 7) having a cross-section that varies such that a first end of the ion guide proximal to the annular ion trap has an annular cross-section and a second distal end of said ion guide has a non-annular cross-section. trapping ions in an annular ion trap, wherein the trapped ions are distributed around the entire circumference of the annular trap; and then axially ejecting at least some of said ions from said annular ion trap into an annular ion guide (6, 7), wherein the ions separate axially as they travel along the ion guide (6, 7), and wherein as the ions travel along at least a portion of the length of the ion guide (6, 7) their motion around the circumference of the annular ion guide (6, 7) is unrestricted; characterised by subsequently converting the ions from an ion beam having an annular shaped cross section to an ion beam having a non-annular shaped cross-section by either a) applying one or more DC and/or RF voltages to one or more portions of said annular ion guide in order to force the ions circumferentially around the ion guide into an arcuate section of the ion guide; or b) providing said ion guide (6, 7) having a cross-section that varies such that a first end of the ion guide proximal to the annular ion trap has an annular cross-section and a second distal end of said ion guide has a non-annular cross-section. a) applying one or more DC and/or RF voltages to one or more portions of said annular ion guide in order to force the ions circumferentially around the ion guide into an arcuate section of the ion guide; or b) providing said ion guide (6, 7) having a cross-section that varies such that a first end of the ion guide proximal to the annular ion trap has an annular cross-section and a second distal end of said ion guide has a non-annular cross-section.
A self-contained airshock assembly comprising: a shock absorber; an airspring, said airspring axially coupled with a portion of said shock absorber, said airspring to modify a ride height of said shock absorber; and an air compressor assembly coupled with a portion of said shock absorber, characterized in that said air compressor assembly to modify an air pressure in said airspring without requiring said airshock assembly to utilize an air reservoir. a shock absorber; an airspring, said airspring axially coupled with a portion of said shock absorber, said airspring to modify a ride height of said shock absorber; and an air compressor assembly coupled with a portion of said shock absorber, characterized in that said air compressor assembly to modify an air pressure in said airspring without requiring said airshock assembly to utilize an air reservoir.
A label applicator that applies a label provided with an RFID tag having an IC chip and communication antenna to an item, the application being carried out by folding a section of the label including a tag providing portion at which the RFID tag is provided so as to project into an angled shape with a back surface facing inside and a front surface facing outside, thereby forming a flexed portion including one side surface and the other side surface each having a curved portion on a base end side taking a peak portion as a border between the one side surface and the other side surface, the applicator comprising: a suction-holding plate configured to suction and hold the label from a side of the front surface, and provided with a pair of divided bodies (21b, 21c) that are relatively movable between two positions: a contact position at which end surfaces of the divided bodies (21b, 21c) that face toward each other are brought into contact with each other, and a separated position at which the divided bodies (21b, 21c) are spaced apart from each other, the section of the label being folded into the flexed portion with the end surfaces of the divided bodies (21b, 21c) that face toward each other by the movement of one of the divided bodies (21b, 21c), characterized in that noncontact portions are provided, by eliminating corners, at edge portions of the divided bodies (21b, 21c) that respectively correspond to the curved portions of the flexed portion on the base end side so as to prevent the noncontact portions from being brought into contact with each other when the end surfaces of the divided bodies (21b, 21c) are brought into contact with each other. a suction-holding plate configured to suction and hold the label from a side of the front surface, and provided with a pair of divided bodies (21b, 21c) that are relatively movable between two positions: a contact position at which end surfaces of the divided bodies (21b, 21c) that face toward each other are brought into contact with each other, and a separated position at which the divided bodies (21b, 21c) are spaced apart from each other, the section of the label being folded into the flexed portion with the end surfaces of the divided bodies (21b, 21c) that face toward each other by the movement of one of the divided bodies (21b, 21c), characterized in that noncontact portions are provided, by eliminating corners, at edge portions of the divided bodies (21b, 21c) that respectively correspond to the curved portions of the flexed portion on the base end side so as to prevent the noncontact portions from being brought into contact with each other when the end surfaces of the divided bodies (21b, 21c) are brought into contact with each other.