mhurhangee/ep-ind-claims huggingface dataset:
A compact, varistor-based overvoltage protection device which can be preassembled, comprising a thermal separating unit, consisting of a circuit board laminated on two sides and having a through-connection region, wherein at least one varistor is connected, in particular soldered, to a first side of the laminated circuit board, and furthermore a separating slide operatively connected to the through-connection region is provided on the second side of the laminated circuit board, wherein a first contact surface contiguous with the through-connection region and a second contact surface spaced therefrom by a separation distance are formed on the second side of the laminated circuit board, the separating slide bridging both contact surfaces (4; 6) and releasing the separation distance in the event of overload, characterized in that the separating slide consists of a laminated circuit board material, wherein the conducting region of the circuit board material of the separating slide bridging the contact surfaces (4; 6) has a first and a second soldered section having a current constriction located between them.
Component for flow-conducting systems, a fluid within the flow-conducting system being influenced by the component, and the component being formed as a power-generating and/or working machine or as a fitting with shut-off element, the component having a sensor, characterized in that the sensor is placed in the component and comprises at least one transmitter and at least one receiver, the transmitter generating acoustic waves on the surface of the sensor, and the receiver detecting these surface waves generated by the transmitter, and the sensor generating signals for an evaluation unit, which determines the level of deposit formation in the component by means of a comparison with reference data.
A personal monitoring system for a user, comprising: a sensor (14, 26, 28) for sensing an ambient parameter of the ambient around said user, an earpiece for being worn at least in part in the ear canal of said user including an acoustic output transducer for providing sound to the user's ear canal, an evaluation unit communicating with said sensor, means (32, 34) for implementing a regulation for said sensed parameter into said evaluation unit, said evaluation unit being adapted for monitoring sensed values of said parameter over time and comparing them to said regulation for said sensed parameter and being adapted for continuously judging whether said sensed values of said parameter comply with said regulation or not, and a compliance control unit communicating with said evaluation unit and with said output transducer for providing acoustic signals to the user's ear via said output transducer for providing the user with acoustic information regarding the present compliance of said sensed parameter with said implemented regulation depending on the judgement made by said evaluation unit, wherein said ambient parameter sensor is a microphone located at the outer side of said earpiece for sensing the ambient sound exposure experienced by said user, characterized in that said regulation is an individually defined and individually implemented regulation which includes for each frequency band a sound level threshold value and an alarm limit for an accumulated time period during which the respective sound level threshold value is exceeded.
An apparatus for compressing or pumping fluid, the apparatus comprising: a) a housing having an interior chamber (22, 122), the housing including a first end wall (24, 124) on one side of the interior chamber (22, 122), the first end wall (24, 124) having a fluid inlet and a fluid outlet; characterized by: b) a rotating cam (23, 123, 223) rotatably mounted within the interior chamber (22, 122), the rotating cam (23, 123, 223) comprising a cam body (26, 126, 226) having a first end located adjacent to the first end wall (24, 124), the first end having a first sloped annular channel (30, 130, 230) formed therein, the first annular channel (30, 130, 230) including a ramp (50, 150, 250A), the first end having inner (52, 152, 252A) and outer (54, 154, 254A) circumferential sidewalls that circumscribe the ramp (50, 150, 250A); and c) a first end vane (28, 128, 228) slidably mounted within a slot (25, 125) in the first end wall (24, 124) so as to extend into the first sloped annular channel (30, 130, 230) for sliding therein as the rotating cam (23, 123, 223) rotates, the first end vane (28, 128. 228) being biased towards the ramp (50, 150, 250A) so as to divide the sloped annular channel (30, 130, 230) into an inlet chamber and an outlet chamber such that, as the rotating cam (23, 123, 223) rotates, the inlet chamber expands and communicates with the fluid inlet for receiving the fluid, and the outlet chamber contracts and communicates with the fluid outlet for expelling the fluid. a) a housing having an interior chamber (22, 122), the housing including a first end wall (24, 124) on one side of the interior chamber (22, 122), the first end wall (24, 124) having a fluid inlet and a fluid outlet; b) a rotating cam (23, 123, 223) rotatably mounted within the interior chamber (22, 122), the rotating cam (23, 123, 223) comprising a cam body (26, 126, 226) having a first end located adjacent to the first end wall (24, 124), the first end having a first sloped annular channel (30, 130, 230) formed therein, the first annular channel (30, 130, 230) including a ramp (50, 150, 250A), the first end having inner (52, 152, 252A) and outer (54, 154, 254A) circumferential sidewalls that circumscribe the ramp (50, 150, 250A); and c) a first end vane (28, 128, 228) slidably mounted within a slot (25, 125) in the first end wall (24, 124) so as to extend into the first sloped annular channel (30, 130, 230) for sliding therein as the rotating cam (23, 123, 223) rotates, the first end vane (28, 128. 228) being biased towards the ramp (50, 150, 250A) so as to divide the sloped annular channel (30, 130, 230) into an inlet chamber and an outlet chamber such that, as the rotating cam (23, 123, 223) rotates, the inlet chamber expands and communicates with the fluid inlet for receiving the fluid, and the outlet chamber contracts and communicates with the fluid outlet for expelling the fluid.
A cellular communication system supporting device-to-device "D2D" communication, the system comprising a wireless communication device (104, 106), said wireless communication device comprises: a receiver configured to receive pre-coding Multiple Input Multiple Output, MIMO,-parameters from a cellular base station over a cellular downlink communication channel defined by a communication specification for downlink transmission between base stations and wireless communication devices; and a transmitter characterized in that it is configured to apply the pre-coding MIMO parameters to a device-to-device "D2D" transmission signal transmitted to a receiving D2D mobile device, the pre-coding MIMO parameters based on channel parameters indicative of channel characteristics of at least an interference channel between the wireless communication device (104, 106) and a proximate receiving device, the channel parameters comprising spatial characteristics of the interference channel, the pre-coding MIMO parameters facilitating interference management of interference at the proximate receiving device due to the D2D transmission signal. a receiver configured to receive pre-coding Multiple Input Multiple Output, MIMO,-parameters from a cellular base station over a cellular downlink communication channel defined by a communication specification for downlink transmission between base stations and wireless communication devices; and a transmitter characterized in that it is configured to apply the pre-coding MIMO parameters to a device-to-device "D2D" transmission signal transmitted to a receiving D2D mobile device, the pre-coding MIMO parameters based on channel parameters indicative of channel characteristics of at least an interference channel between the wireless communication device (104, 106) and a proximate receiving device, the channel parameters comprising spatial characteristics of the interference channel, the pre-coding MIMO parameters facilitating interference management of interference at the proximate receiving device due to the D2D transmission signal.
Pump device, in particular high-pressure fuel pump device, having at least one pump element which has a pump piston which is driven in a reciprocating movement by a drive shaft via a tappet, wherein the drive shaft has at least one cam or eccentric on which the tappet is at least indirectly supported, wherein the drive shaft is rotatably mounted by means of at least one bearing point, wherein the at least one bearing point is supplied with lubricating medium which emerges from the at least one bearing point toward the at least one cam or eccentric, wherein the drive shaft has, between the at least one bearing point and the at least one cam or eccentric, an outer contour which increases in diameter from the at least one bearing point towards the at least one cam or eccentric, which outer contour ends, as viewed in the direction of an axis of rotation of the drive shaft, in the region of the tappet, and wherein, in the tappet, there is rotatably mounted a roller by means of which the tappet is supported on the cam or eccentric, and in that the outer contour of the drive shaft ends, as viewed in the direction of the axis of rotation of the drive shaft, in the region of a mounting of the roller in the tappet, wherein the tappet has a tappet body which has a receptacle which is open toward the drive shaft, in which receptacle the roller is arranged in the direction of the drive shaft, and a gap is present between the face side of the roller and the tappet body as viewed in the direction of an axis of rotation of the roller, characterized in that the outer contour of the drive shaft ends, as viewed in the direction of the axis of rotation of the drive shaft, in the region of the gap.
A method for responding to a touch operation, comprising: when a plurality of touch points are detected on a touch screen of a terminal, determining (101, 202, 302, 402, 502, 602) whether the terminal is in a charging mode currently; when the terminal is in the charging mode, determining a trip point from the plurality of touch points; and preventing (103, 205, 305, 406, 507, 608) the trip point from being responsive and allowing touch points other than the trip point in the plurality of touch points to be responsive; characterized in that determining the trip point from the plurality of touch points comprises: acquiring (203, 505, 606), for each of the plurality of touch points, a frequency at which the touch point receives a touch signal; and searching for (204, 506, 607), from the plurality of touch points, a target touch point receiving the touch signal at a frequency greater than a preset frequency, and determining the target touch point as the trip point. when a plurality of touch points are detected on a touch screen of a terminal, determining (101, 202, 302, 402, 502, 602) whether the terminal is in a charging mode currently; when the terminal is in the charging mode, determining a trip point from the plurality of touch points; and preventing (103, 205, 305, 406, 507, 608) the trip point from being responsive and allowing touch points other than the trip point in the plurality of touch points to be responsive; characterized in that determining the trip point from the plurality of touch points comprises: acquiring (203, 505, 606), for each of the plurality of touch points, a frequency at which the touch point receives a touch signal; and searching for (204, 506, 607), from the plurality of touch points, a target touch point receiving the touch signal at a frequency greater than a preset frequency, and determining the target touch point as the trip point. acquiring (203, 505, 606), for each of the plurality of touch points, a frequency at which the touch point receives a touch signal; and searching for (204, 506, 607), from the plurality of touch points, a target touch point receiving the touch signal at a frequency greater than a preset frequency, and determining the target touch point as the trip point.
A non-combustion-type flavor inhaler (100, 100A) comprising: an atomization assembly including an atomizer configured to atomize an aerosol source without combustion; and a power supply assembly including a power supply for supplying power to the atomizer, wherein the power supply assembly includes: paired electrodes for electrical connection with the atomizer; and a first electrode and a second electrode electrically connected with the power supply, at least one of the first electrode and the second electrode is electrically connectable to a charger for charging the power supply, characterized in that the non-combustion-type flavor inhaler (100, 100A) is provided with a control circuit configured to detect a predetermined current in an opposite direction to a direction of a current flowing through the first electrode or the second electrode when the charger charges the power supply, and the control circuit is configured to perform a predetermined control when the control circuit has detected the predetermined current a plurality of times within a predetermined period. an atomization assembly including an atomizer configured to atomize an aerosol source without combustion; and a power supply assembly including a power supply for supplying power to the atomizer, wherein the power supply assembly includes: paired electrodes for electrical connection with the atomizer; and a first electrode and a second electrode electrically connected with the power supply, at least one of the first electrode and the second electrode is electrically connectable to a charger for charging the power supply, characterized in that the non-combustion-type flavor inhaler (100, 100A) is provided with a control circuit configured to detect a predetermined current in an opposite direction to a direction of a current flowing through the first electrode or the second electrode when the charger charges the power supply, and the control circuit is configured to perform a predetermined control when the control circuit has detected the predetermined current a plurality of times within a predetermined period.
A printed circuit board mounted contactor (100, 200), comprising: a PCB with a planar surface; a supply terminal and a load terminal fixed to the PCB; a contact supported by the PCB and movable between an open position and a closed position, movement of the contact being parallel to the planar surface of the PCB; characterized in that the PCB defines an actuator aperture extending between opposite surfaces of the PCB, the contact open position and the closed position being disposed within the actuator aperture, and preferably further comprising a coil disposed within the aperture such that an orthogonal dimension of the contactor is independent of the thickness of the PCB. a PCB with a planar surface; a supply terminal and a load terminal fixed to the PCB; a contact supported by the PCB and movable between an open position and a closed position, movement of the contact being parallel to the planar surface of the PCB; characterized in that the PCB defines an actuator aperture extending between opposite surfaces of the PCB, the contact open position and the closed position being disposed within the actuator aperture, and preferably further comprising a coil disposed within the aperture such that an orthogonal dimension of the contactor is independent of the thickness of the PCB.
System comprising a cardiac stent-valve and a delivery catheter configured for use with the cardiac stent-valve, the delivery catheter comprising a distal end and a proximal end, the distal end including a cardiac stent-valve accommodation region for receiving the cardiac stent-valve, the catheter further comprising at least one radio-opaque indicator for indicating a rotational orientation of the cardiac stent-valve when observed using medical imaging during implantation of the cardiac stent-valve, wherein the delivery catheter comprises a tube member carrying a stent holder and the indicator, wherein the indicator comprises a first feature that is substantially elongate in an axial direction of the delivery catheter and a second feature that is substantially elongate in an axial direction of the delivery catheter, wherein the indicator is positioned adjacent to the stent holder, and wherein the indicator is arranged such that the indicator can be observed more easily in an image produced by a medical viewing apparatus, distinct from the relative clutter of the stent holder and the attached stent of the stent-valve. wherein the delivery catheter comprises a tube member carrying a stent holder and the indicator, wherein the indicator comprises a first feature that is substantially elongate in an axial direction of the delivery catheter and a second feature that is substantially elongate in an axial direction of the delivery catheter, wherein the indicator is positioned adjacent to the stent holder, and wherein the indicator is arranged such that the indicator can be observed more easily in an image produced by a medical viewing apparatus, distinct from the relative clutter of the stent holder and the attached stent of the stent-valve.
A wireless communication method, comprising: sending, by a wireless communication device (700, 900), a broadcast message to a terminal device, the broadcast message including device identification information of the wireless communication device (700, 900); receiving, by the wireless communication device (700, 900), a scan request message sent by the terminal device; sending, by the wireless communication device (700, 900), a scan response message to the terminal device in response to receiving the scan request message, wherein the scan response message includes attribute data associated with the wireless communication device (700, 900), and the attribute data includes identification information of content associated with a physical location of the wireless communication device (700, 900), and wherein the scan response message further comprises second identification information for identifying the wireless communication device (700, 900); wherein the second identification information and the device identification information are configured to allow the terminal device to determine its location. sending, by a wireless communication device (700, 900), a broadcast message to a terminal device, the broadcast message including device identification information of the wireless communication device (700, 900); receiving, by the wireless communication device (700, 900), a scan request message sent by the terminal device; sending, by the wireless communication device (700, 900), a scan response message to the terminal device in response to receiving the scan request message, wherein the scan response message includes attribute data associated with the wireless communication device (700, 900), and the attribute data includes identification information of content associated with a physical location of the wireless communication device (700, 900), and wherein the scan response message further comprises second identification information for identifying the wireless communication device (700, 900); wherein the second identification information and the device identification information are configured to allow the terminal device to determine its location.
A transmitting method for a transmitting device of storing data configuring an application into a predetermined data unit and transmitting the stored data in the predetermined data unit, the transmitting method comprising: generating time specification information indicating an operation time of the application, based on a reference time information received from an external source; and transmitting i) the predetermined data unit and ii) control information indicating the generated time specification information, the method is characterized in that the control information includes the generated time specification information and identification information indicating whether or not the time specification information is time information indicating the time that is before a leap second adjustment. generating time specification information indicating an operation time of the application, based on a reference time information received from an external source; and transmitting i) the predetermined data unit and ii) control information indicating the generated time specification information, the method is characterized in that the control information includes the generated time specification information and identification information indicating whether or not the time specification information is time information indicating the time that is before a leap second adjustment.
A calcification treatment device comprising: an outer body comprising an inner cavity and at least one outer calcification treatment member facing towards said inner cavity; an inner body movable into said inner cavity and comprising at least one inner calcification treatment member facing towards an inner surface of said outer body, wherein one of said outer and inner calcification treatment members (16, 20) comprises an expandable treatment member (16, 20) and one of said outer and inner calcification treatment members (16, 20) comprises one or more fracturing elements (16, 20) capable of fracturing a calcification of a valve tissue, wherein said one or more fracturing elements (16, 20) comprise a structure to limit a cutting depth through soft tissue. an outer body comprising an inner cavity and at least one outer calcification treatment member facing towards said inner cavity; an inner body movable into said inner cavity and comprising at least one inner calcification treatment member facing towards an inner surface of said outer body, wherein one of said outer and inner calcification treatment members (16, 20) comprises an expandable treatment member (16, 20) and one of said outer and inner calcification treatment members (16, 20) comprises one or more fracturing elements (16, 20) capable of fracturing a calcification of a valve tissue, wherein said one or more fracturing elements (16, 20) comprise a structure to limit a cutting depth through soft tissue.
A dose setting mechanism for a medicament delivery device, which dose setting mechanism comprises, - a tubular member; - a dose drum, coaxial with the tubular member, and being axially and rotationally movable relative to the tubular member; - a stop member, coaxial with the tubular member, and axially movable but rotationally locked relative to the tubular member, and further being axially jointly movable with the dose drum; characterised in that said stop member comprises a first stop element and in that said dose drum comprises a second stop element, and wherein said first stop element and said second stop element are configured to interact with each other to limit rotation of the dose drum to a predetermined angular interval. - a tubular member; - a dose drum, coaxial with the tubular member, and being axially and rotationally movable relative to the tubular member; - a stop member, coaxial with the tubular member, and axially movable but rotationally locked relative to the tubular member, and further being axially jointly movable with the dose drum;