mhurhangee/ep-ind-claims huggingface dataset:
Method for providing information from a webpage displayed on a computer to a mobile phone, wherein a browser module of a browser unit at a computer carries out the steps of: analysing a webpage which is to be displayed by the browser unit identifying specific information within the webpage, generating at the computer an option list of actions to be performed with the specific information at a mobile phone, wherein the actions are the native phone functions of call initiation or of sending of messages or the actions are storing of the specific information at the mobile phone, upon selection of an option from the option list generating a request comprising the identified specific information and an indication of the selected action to be performed with the specific information, sending the request to a network server for processing and for transmission of the information and an indication of the selected action to the mobile phone; and wherein the network server upon receipt of the request carries out the steps of generating a command for a mobile phone to process the information according to the intended action, selecting a gateway for transmission of the command to the mobile phone, wherein the selection of the gateway is carried out in view of the intended delivery method of the command message to the mobile phone and forwarding the command to the gateway for transmission to the mobile phone. analysing a webpage which is to be displayed by the browser unit identifying specific information within the webpage, generating at the computer an option list of actions to be performed with the specific information at a mobile phone, wherein the actions are the native phone functions of call initiation or of sending of messages or the actions are storing of the specific information at the mobile phone, upon selection of an option from the option list generating a request comprising the identified specific information and an indication of the selected action to be performed with the specific information, sending the request to a network server for processing and for transmission of the information and an indication of the selected action to the mobile phone; and wherein the network server upon receipt of the request carries out the steps of generating a command for a mobile phone to process the information according to the intended action, selecting a gateway for transmission of the command to the mobile phone, wherein the selection of the gateway is carried out in view of the intended delivery method of the command message to the mobile phone and forwarding the command to the gateway for transmission to the mobile phone.
Actuator device of a sliding cam system, having at least one sliding cam and having an engagement pin which projects out of a housing, wherein the housing can be fastened to a component of a cylinder head or to the cylinder head of an internal combustion engine, and the engagement pin can be placed in contact with at least one groove of the sliding cam system, which groove has at least one throw-out ramp which is oriented in the direction of the housing and which brings about a force acting on the engagement pin, and wherein the engagement pin has, within the housing, a permanent holding magnet and, adjoining the latter, is controlled by a static coil core which can be magnetized by an electrical coil, and the engagement pin is spring-loaded in the direction of the sliding cam, characterized in that, at least at that end region of the engagement pin which faces toward the sliding cam, there is installed an actuating device which is active in the region in which the throw-out ramp runs out at the high circle, which actuating device generates an auxiliary force - which arises in addition to the force brought about by the throw-out ramp - on the engagement pin in the direction of the housing, by means of which auxiliary force the engagement pin reliably reaches an inner end position.
Sensor arrangement, comprising: - an amplifier having a signal input to receive an input signal and a signal output to provide an amplified sensor signal (SOUT) that is an inverted signal with respect to the input signal, - a series connection of a capacitive sensor and a feedback capacitor, wherein the series connection couples the signal output to the signal input, and - a voltage source arrangement that is connected to a feedback node between the capacitive sensor and the feedback capacitor, characterized in that the voltage source arrangement is arranged between the feedback node and a reference potential terminal or the signal output and that the voltage source arrangement comprises a charge pump. - an amplifier having a signal input to receive an input signal and a signal output to provide an amplified sensor signal (SOUT) that is an inverted signal with respect to the input signal, - a series connection of a capacitive sensor and a feedback capacitor, wherein the series connection couples the signal output to the signal input, and - a voltage source arrangement that is connected to a feedback node between the capacitive sensor and the feedback capacitor,
A manual device for applying α coating on a medium by means of a tape, the device comprising an applicator endpiece assembled to a casing and projecting from said casing, the endpiece presenting a tongue extending along a longitudinal direction and a lateral direction, an applicator portion being formed at the distal end of the tongue, the applicator portion having an applicator edge, and a tape arranged longitudinally around the endpiece covering the tongue so as to go around the applicator portion, the width (Lpa) of the applicator portion being greater than the width (Lr) of the tape, the device being characterized in that the width (Lba) of the applicator edge is greater than or substantially equal to the width (Lr) of the tape and less than the width (Lpa) of the applicator portion, recesses being provided in the applicator portion in the vicinity of the lateral ends of the applicator edge, and width being measured along the lateral direction.
A high-pressure gas tank production method of forming a fiber layer on a liner by filament winding technique of repeatedly winding the fiber on an outer surface of the liner, where in the liner comprises a cylinder section in a tubular shape and dome sections in a convex curve shape joined with both ends of the cylinder section, the high-pressure gas tank production method comprising: forming the fiber layer by laminating a plurality of layers of a hoop layer (20F1, 20F2) formed by hoop winding of repeatedly winding the fiber over an entire outer surface of the cylinder section and a helical layer (20H2) formed by helical winding of reversing a winding direction at the respective dome sections, wherein the forming of the fiber layer comprises: fixing a winding start end of the fiber at a fixation position that is away from the top of the dome section on one end of the cylinder section, for formation of an innermost helical layer (20H1) closest to the outer surface of the liner out of the helical layers (20H1, 20H2), forming the innermost helical layer (20H1) from the fiber extending from the fixation position; forming the hoop layer (20F1) as an inner hoop layer (20F1) over the innermost helical layer (20H1); and, after formation of the inner hoop layer (20F1), cutting the extending fiber of the innermost helical layer (20H1) on a periphery of top of the dome section and forming the helical layer (20H2) to be laid over the inner hoop layer (20F1). forming the fiber layer by laminating a plurality of layers of a hoop layer (20F1, 20F2) formed by hoop winding of repeatedly winding the fiber over an entire outer surface of the cylinder section and a helical layer (20H2) formed by helical winding of reversing a winding direction at the respective dome sections, wherein the forming of the fiber layer comprises: fixing a winding start end of the fiber at a fixation position that is away from the top of the dome section on one end of the cylinder section, for formation of an innermost helical layer (20H1) closest to the outer surface of the liner out of the helical layers (20H1, 20H2), forming the innermost helical layer (20H1) from the fiber extending from the fixation position; forming the hoop layer (20F1) as an inner hoop layer (20F1) over the innermost helical layer (20H1); and, fixing a winding start end of the fiber at a fixation position that is away from the top of the dome section on one end of the cylinder section, for formation of an innermost helical layer (20H1) closest to the outer surface of the liner out of the helical layers (20H1, 20H2), forming the innermost helical layer (20H1) from the fiber extending from the fixation position; forming the hoop layer (20F1) as an inner hoop layer (20F1) over the innermost helical layer (20H1); and, after formation of the inner hoop layer (20F1), cutting the extending fiber of the innermost helical layer (20H1) on a periphery of top of the dome section and forming the helical layer (20H2) to be laid over the inner hoop layer (20F1).
A locking system for a telescopic crane jib, in particular for a mobile crane, in which a lock is established between a telescoping cylinder (10, 20) and a telescopic part by means of a locking unit in order to extend and retract the telescopic parts, wherein the locking unit: is arranged on the telescoping cylinder (10, 20) in such a way that it can be shifted longitudinally; moves on the outer cylinder tube of the telescoping cylinder (10, 20); and comprises a second cylinder stage of the telescoping cylinder (10, 20) and a cylinder lock; characterised in that the locking unit is arranged on the telescoping cylinder (10, 20) in such a way that it can fixed in any position of the locking unit, and in that the total lift of a telescopically extending system is divided between the shift of the locking unit and the telescopic path of the telescoping cylinder (10, 20).
System for vision in virtual reality or in augmented reality (700; 800) comprising, in a support intended to be mounted on the head of a user: - at least one matrix of light-emission elements which extends according to a display surface (Sa) and dedicated to the display of images intended to be seen by the user; - at least one optical projection system (740; 840), capable of forming an image of the matrix of light-emission elements on a focusing surface at a distance from an eye of the user; the system for vision in virtual reality or in augmented reality further comprising: - at least one matrix of photo-detectors (760; 860), adapted for acquiring at least one image of a region of the eye, which extends according to a capture surface (Sc) and which is arranged substantially coplanar with the matrix of light-emission elements, with an at least partial overlap between the capture surface (Sc) and the display surface (Sa); and - a computer, configured to receive as an input the at least one image acquired by the matrix of photo-detectors, and to implement a processing of said at least one image in such a way as to deduce therefrom one or more parameters relative to the user; characterised in that the optical projection system (740; 840) is a variable-focal-length optical system, connected to a control device (741; 841) for the control of its focal length. - at least one matrix of light-emission elements which extends according to a display surface (Sa) and dedicated to the display of images intended to be seen by the user; - at least one optical projection system (740; 840), capable of forming an image of the matrix of light-emission elements on a focusing surface at a distance from an eye of the user; - at least one matrix of photo-detectors (760; 860), adapted for acquiring at least one image of a region of the eye, which extends according to a capture surface (Sc) and which is arranged substantially coplanar with the matrix of light-emission elements, with an at least partial overlap between the capture surface (Sc) and the display surface (Sa); and - a computer, configured to receive as an input the at least one image acquired by the matrix of photo-detectors, and to implement a processing of said at least one image in such a way as to deduce therefrom one or more parameters relative to the user;
A method of controlling the rapping of at least one collecting electrode plate of an electrostatic precipitator, comprising the steps of applying, by means of a power source, a voltage between said at least one collecting electrode plate and at least one discharge electrode, continuously measuring the sparking rate NR between said at least one collecting electrode plate and said at least one discharge electrode, and controlling, using the measured sparking rate NR, the rapping of said at least one collecting electrode plate wherein the rapping of said at least one collecting electrode plate is controlled to occur when the measured sparking rate reaches a selected control sparking rate NR2, characterized in that the control sparking rate NR2 is determined in a calibration measurement and it is chosen as the value of the sparking rate NR that corresponds to a time TR1 or a time TR being equal to TR1 + TR1 * 0.3 or any time greater than TR1 and smaller than TR, wherein the time TR1 is found at that point in time when the derivative of the sparking rate NR1 suddenly increases.
Combination of two adjacently placed heat exchangers (1L, 1R) and a coupling system for coupling the two adjacently placed heat exchangers (1L, 1R), said coupling system comprising: a first coupling unit connected to the heat exchangers (1L, 1R) on a first side thereof, and a second coupling unit connected to the heat exchangers (1L, 1R) on a second side thereof, wherein in each coupling unit (11A, 11B) at least one inlet duct is formed for one of the heat exchangers connected thereto and at least one outlet duct is formed for the other heat exchanger connected thereto, and wherein the at least one inlet duct and the at least one outlet duct intersect in each coupling unit (11A, 11B), characterized by at least one bypass duct extending from the first to the second side and running along the heat exchangers (1L, 1R), wherein the at least one bypass duct runs through the first and second coupling unit (11A, 11B) and between the heat exchangers (1L, 1R) connected thereby, and wherein the heat exchangers (1L, 1R) are offset as seen in the flow direction and the at least one bypass duct has a bending course. a first coupling unit connected to the heat exchangers (1L, 1R) on a first side thereof, and a second coupling unit connected to the heat exchangers (1L, 1R) on a second side thereof, wherein in each coupling unit (11A, 11B) at least one inlet duct is formed for one of the heat exchangers connected thereto and at least one outlet duct is formed for the other heat exchanger connected thereto, and wherein the at least one inlet duct and the at least one outlet duct intersect in each coupling unit (11A, 11B), characterized by at least one bypass duct extending from the first to the second side and running along the heat exchangers (1L, 1R), wherein the at least one bypass duct runs through the first and second coupling unit (11A, 11B) and between the heat exchangers (1L, 1R) connected thereby, and wherein the heat exchangers (1L, 1R) are offset as seen in the flow direction and the at least one bypass duct has a bending course.
An actuation assembly for a magnetically-triggered proximity switch, comprising: an actuator shaft including a first segment and a second segment, the first segment intersecting the second segment, the first segment defining a first end of the actuator shaft, the second segment defining a second end of the actuator shaft opposite the first end and further defining a slot; a detector magnet assembly coupled to the first segment of the actuator shaft adjacent the first end of the first segment, the detector magnet assembly adapted to detect the proximity of a target; and a switch arm coupled to the second segment of the actuator shaft, the switch arm including a first end, a second end opposite the first end of the switch arm, and a portion located between the first and second ends (158, 160) of the switch arm, the portion being positioned in the slot of the actuator shaft; characterized in that the first segment includes a mechanical stop and extends through the detector magnet assembly, said mechanical stop including one or more protrusions configured to prevent the detector magnet assembly from moving past the mechanical stop; and the detector magnet assembly abuts against the protrusions of the mechanical stop to move the actuator shaft to place the switch arm in a first switch position when the target is beyond a specified range and to place the switch arm in a second switch position when the target is within the specified range. an actuator shaft including a first segment and a second segment, the first segment intersecting the second segment, the first segment defining a first end of the actuator shaft, the second segment defining a second end of the actuator shaft opposite the first end and further defining a slot; a detector magnet assembly coupled to the first segment of the actuator shaft adjacent the first end of the first segment, the detector magnet assembly adapted to detect the proximity of a target; and a switch arm coupled to the second segment of the actuator shaft, the switch arm including a first end, a second end opposite the first end of the switch arm, and a portion located between the first and second ends (158, 160) of the switch arm, the portion being positioned in the slot of the actuator shaft; characterized in that the first segment includes a mechanical stop and extends through the detector magnet assembly, said mechanical stop including one or more protrusions configured to prevent the detector magnet assembly from moving past the mechanical stop; and the detector magnet assembly abuts against the protrusions of the mechanical stop to move the actuator shaft to place the switch arm in a first switch position when the target is beyond a specified range and to place the switch arm in a second switch position when the target is within the specified range.
A method of producing a rotor blade, by arranging a foam material (23, 24) in a semi-finished product, introducing resin into the semi-finished product containing foam material, the resin introduced hardening during the dissipation of heat and a hardening temperature distribution being produced in this case, characterized in that a first foam material is provided in regions of the semi-finished product in which a first hardening temperature is set and a second foam material is provided in regions in which a second hardening temperature is set, and a foam material with a higher temperature than the second foam material is selected as first foam material and the first hardening temperature is made higher than the second hardening temperature.
A centrifugal compressor comprising: a case; an impeller configured to accelerate refrigerant introduced to an inside of the case; a variable diffuser provided on a flow passage of the refrigerant for regulating opening of the flow passage; a rotating member to rotate the variable diffuser, and a drive motor for providing rotating power to the rotating member, wherein the case includes: a shroud having a refrigerant inlet formed therein, and a supporting member arranged spaced from the shroud to form a space for housing the impeller and forming the flow passage of compressed refrigerant on an outside circumference of the impeller, wherein the rotating member has a helix formed on a side thereof, and the drive motor has a gear engaged with the side of the rotating member, wherein the supporting member has a ring shaped inserting portion screw coupled to the variable diffuser, wherein the variable diffuser is mounted movably to the rotating member in axial direction and the variable diffuser is screw coupled to an inside of the supporting member to regulate the opening of the flow passage as the variable diffuser moves axially by rotation. a case; an impeller configured to accelerate refrigerant introduced to an inside of the case; a variable diffuser provided on a flow passage of the refrigerant for regulating opening of the flow passage; a rotating member to rotate the variable diffuser, and a drive motor for providing rotating power to the rotating member, wherein the case includes: a shroud having a refrigerant inlet formed therein, and a supporting member arranged spaced from the shroud to form a space for housing the impeller and forming the flow passage of compressed refrigerant on an outside circumference of the impeller, a shroud having a refrigerant inlet formed therein, and a supporting member arranged spaced from the shroud to form a space for housing the impeller and forming the flow passage of compressed refrigerant on an outside circumference of the impeller, wherein the rotating member has a helix formed on a side thereof, and the drive motor has a gear engaged with the side of the rotating member, wherein the supporting member has a ring shaped inserting portion screw coupled to the variable diffuser, wherein the variable diffuser is mounted movably to the rotating member in axial direction and the variable diffuser is screw coupled to an inside of the supporting member to regulate the opening of the flow passage as the variable diffuser moves axially by rotation.
A method of communicating with a user equipment, UE, in a carrier aggregation system, the method performed by a base station and comprising: transmitting data in a subframe n-k of a secondary cell; and receiving ACK/NACK information for the data in a subframe n of a primary cell, wherein the primary cell uses a time division duplex, TDD, frame, wherein the secondary cell uses a frequency division duplex, FDD, frame, and wherein when an UL-DL configuration for the primary cell is UL-DL configuration 0, 2 or 5 among UL-DL configurations included in the following table 1, wherein D denotes a downlink subframe, S denotes a special subframe and U denotes an uplink subframe: [Table 1] UL-DL configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein the subframe n and the k are configured based on the following table 2: [Table 2] UL-DL Configuration Subframe n 0 1 2 3 4 5 6 7 8 9 0 - - 6, 5 5,4 4 - - 6, 5 5, 4 4 2 - - 8, 7, 6, 5, 4 - - - - 8, 7, 6, 5, 4 - - 5 - - 13, 12, 11, 10, 9, 8, 7, 6, 5, 4 - - - - - - - wherein k is any one element of a set which is defined for the subframe n based on the table 2. transmitting data in a subframe n-k of a secondary cell; and receiving ACK/NACK information for the data in a subframe n of a primary cell, wherein the primary cell uses a time division duplex, TDD, frame, wherein the secondary cell uses a frequency division duplex, FDD, frame, and wherein when an UL-DL configuration for the primary cell is UL-DL configuration 0, 2 or 5 among UL-DL configurations included in the following table 1, wherein D denotes a downlink subframe, S denotes a special subframe and U denotes an uplink subframe: [Table 1] UL-DL configuration Subframe number 0 1 2 3 4 5 6 7 8 9 0 D S U U U D S U U U 1 D S U U D D S U U D 2 D S U D D D S U D D 3 D S U U U D D D D D 4 D S U U D D D D D D 5 D S U D D D D D D D 6 D S U U U D S U U D wherein the subframe n and the k are configured based on the following table 2: [Table 2] UL-DL Configuration Subframe n 0 1 2 3 4 5 6 7 8 9 0 - - 6, 5 5,4 4 - - 6, 5 5, 4 4 2 - - 8, 7, 6, 5, 4 - - - - 8, 7, 6, 5, 4 - - 5 - - 13, 12, 11, 10, 9, 8, 7, 6, 5, 4 - - - - - - - wherein k is any one element of a set which is defined for the subframe n based on the table 2.