mhurhangee/ep-ind-claims huggingface dataset:
A high voltage electrical switch comprising: a plurality of series connected semiconductor switches (110, 112, 114); a plurality of rectifiers (120, 122, 124) wherein each rectifier is connected to a semiconductor switch control input of a corresponding one of the semiconductor switches (110, 112, 114); a radio frequency signal generator; and a plurality of galvanic isolators (130, 132, 134), wherein each galvanic isolator (130, 132, 134) connects the radio frequency signal generator to a corresponding one of the plurality of rectifiers (120, 122, 124), wherein the plurality of semiconductor switches (110, 112, 114) are isolated from one another by a plurality of isolation trenches (190, 191, 192), each said isolation trench (190, 191, 192) surrounding at least one of the semiconductor switches (110, 112, 114) wherein the high voltage electrical switch is configured to be switched on and off by switching the radio frequency signal generator on and off; wherein the plurality of semiconductor switches (110, 112, 114), the plurality of galvanic isolators and the plurality of rectifiers (120,122,124) are all on a single integrated circuit. a plurality of series connected semiconductor switches (110, 112, 114); a plurality of rectifiers (120, 122, 124) wherein each rectifier is connected to a semiconductor switch control input of a corresponding one of the semiconductor switches (110, 112, 114); a radio frequency signal generator; and a plurality of galvanic isolators (130, 132, 134), wherein each galvanic isolator (130, 132, 134) connects the radio frequency signal generator to a corresponding one of the plurality of rectifiers (120, 122, 124), wherein the plurality of semiconductor switches (110, 112, 114) are isolated from one another by a plurality of isolation trenches (190, 191, 192), each said isolation trench (190, 191, 192) surrounding at least one of the semiconductor switches (110, 112, 114) wherein the high voltage electrical switch is configured to be switched on and off by switching the radio frequency signal generator on and off; wherein the plurality of semiconductor switches (110, 112, 114), the plurality of galvanic isolators and the plurality of rectifiers (120,122,124) are all on a single integrated circuit. wherein the high voltage electrical switch is configured to be switched on and off by switching the radio frequency signal generator on and off; wherein the plurality of semiconductor switches (110, 112, 114), the plurality of galvanic isolators and the plurality of rectifiers (120,122,124) are all on a single integrated circuit.
A method comprising: assigning a first bit sequence of a first length to a first group of signaling bits; generating a first scrambling sequence; scrambling the first bit sequence with the first scrambling sequence; assigning a first orthogonal frequency division multiplexing symbol to the first scrambled bit sequence; transmitting the first orthogonal frequency division multiplexing symbol as synchronization symbol of a data frame, wherein the first group of signaling bits indicates whether a next symbol comprises a second orthogonal frequency division multiplexing symbol as an additional synchronization symbol or a signaling information symbol comprising parameters to access data carried in the data frame; and transmitting, for the case the first group of signaling bits indicate that the next symbol comprises a second orthogonal frequency division multiplexing symbol as an additional synchronization symbol, the second orthogonal frequency multiplexing symbol as the additional synchronization symbol, wherein the second orthogonal frequency division multiplexing symbol corresponds to a second bit sequence of a second length scrambled by a second scrambling sequence and assigned to a second group of signaling bits, and wherein the second scrambling sequence is different from the first scrambling sequence. assigning a first bit sequence of a first length to a first group of signaling bits; generating a first scrambling sequence; scrambling the first bit sequence with the first scrambling sequence; assigning a first orthogonal frequency division multiplexing symbol to the first scrambled bit sequence; transmitting the first orthogonal frequency division multiplexing symbol as synchronization symbol of a data frame, wherein the first group of signaling bits indicates whether a next symbol comprises a second orthogonal frequency division multiplexing symbol as an additional synchronization symbol or a signaling information symbol comprising parameters to access data carried in the data frame; and transmitting, for the case the first group of signaling bits indicate that the next symbol comprises a second orthogonal frequency division multiplexing symbol as an additional synchronization symbol, the second orthogonal frequency multiplexing symbol as the additional synchronization symbol, wherein the second orthogonal frequency division multiplexing symbol corresponds to a second bit sequence of a second length scrambled by a second scrambling sequence and assigned to a second group of signaling bits, and wherein the second scrambling sequence is different from the first scrambling sequence.
An aerosol generating device configured for user inhalation of a generated aerosol, the device comprising: a heater element configured to heat an aerosol-forming substrate; a power source connected to the heater element; and a controller connected to the heater element and to the power source, wherein the controller is configured to control power supplied to the heater element from the power source to maintain the heater element at a target temperature, and characterised in that the controller is configured to monitor changes in a temperature of the heater element or changes in the power supplied to the heater element to detect a change in air flow past the heater element indicative of a user inhalation. a heater element configured to heat an aerosol-forming substrate; a power source connected to the heater element; and a controller connected to the heater element and to the power source, wherein the controller is configured to control power supplied to the heater element from the power source to maintain the heater element at a target temperature, and characterised in that the controller is configured to monitor changes in a temperature of the heater element or changes in the power supplied to the heater element to detect a change in air flow past the heater element indicative of a user inhalation.
Packaging machine, with a deep-drawing station, which forms packaging troughs in a material web, and a sealing station, which fastens an upper material web to the material web in a material bond wherein, before the material bond is made, the packaging trough is degassed and gasified and a cutting device, which separates the thus completed packagings from the material web (8, 14), wherein it operates cyclically, characterised in that it has a vacuum storage volume provided in the area of the packaging machine, in which at least the vacuum volume required for a cycle is provided.
A receipt printer, comprising: a discharge port configured to discharge a receipt; a conveyance section configured to convey a paper becoming the receipt; a clamping section including a first section and a second section forming a paper insertion section, and an elastic body configured to apply a pressure to one of the first and second sections to clamp a front end of the paper inserted into the paper insertion section at an upstream side of the discharge port in a paper discharge direction; and a discharge control module configured to control the conveyance section to convey the paper towards the paper insertion section, wherein a paper conveyance direction in which the paper is directed to the paper insertion section is different from the paper discharge direction in which the paper is discharged from the discharge port, characterized in that the discharge control module is further configured to: control the clamping section to clamp the front end of the paper inserted into the paper insertion section, and control the conveyance section to continue conveying the paper with the front end being clamped to discharge a part of the paper which is bent into a loop shape from the discharge port. a discharge port configured to discharge a receipt; a conveyance section configured to convey a paper becoming the receipt; a clamping section including a first section and a second section forming a paper insertion section, and an elastic body configured to apply a pressure to one of the first and second sections to clamp a front end of the paper inserted into the paper insertion section at an upstream side of the discharge port in a paper discharge direction; and a discharge control module configured to control the conveyance section to convey the paper towards the paper insertion section, wherein a paper conveyance direction in which the paper is directed to the paper insertion section is different from the paper discharge direction in which the paper is discharged from the discharge port, characterized in that the discharge control module is further configured to: control the clamping section to clamp the front end of the paper inserted into the paper insertion section, and control the conveyance section to continue conveying the paper with the front end being clamped to discharge a part of the paper which is bent into a loop shape from the discharge port. control the clamping section to clamp the front end of the paper inserted into the paper insertion section, and control the conveyance section to continue conveying the paper with the front end being clamped to discharge a part of the paper which is bent into a loop shape from the discharge port.
An active vibration control system (AVCS) (100, 200) comprising: a plurality of digital bus communication lines (102, 104, 202, 204); at least one circular force generator in electrical communication with each of the plurality of digital bus communication lines (102, 104, 202, 204); wherein each of the plurality of digital bus communication lines (102, 104, 202, 204) is configured to electrically communicate redundant information simultaneously to the at least one CFG; wherein the CFG is configured to process the redundant information and produce a force that substantially cancels an unwanted vibration force; and wherein the at least one CFG is configured to process the redundant information via a plurality of microprocessors (110, 110A, 216). a plurality of digital bus communication lines (102, 104, 202, 204); at least one circular force generator in electrical communication with each of the plurality of digital bus communication lines (102, 104, 202, 204); wherein each of the plurality of digital bus communication lines (102, 104, 202, 204) is configured to electrically communicate redundant information simultaneously to the at least one CFG; wherein the CFG is configured to process the redundant information and produce a force that substantially cancels an unwanted vibration force; and wherein the at least one CFG is configured to process the redundant information via a plurality of microprocessors (110, 110A, 216).
A geo-fencing system, comprising: a base device configured to create a virtual fence around the base device that bounds a safe zone; a wearable device initially located within the safe zone; and a processing system, contained in the base device and/or the wearable device, configured to execute a dynamic adaptive control algorithm that computes at least one operating parameter for at least one of the base device and the wearable device based on a dynamic and adaptive combination of distance measurements between the wearable device and the base device, each distance measurement being determined by the base device and the wearable device, wherein the processing system conveys the at least one operating parameter to the at least one of the base device and the wearable device, which employs the at least one operating parameter for operation and determination of subsequent distance measurements, characterized by the at least one operating parameter including at least one of a power amplification signal, and a power amplification level signal. a base device configured to create a virtual fence around the base device that bounds a safe zone; a wearable device initially located within the safe zone; and a processing system, contained in the base device and/or the wearable device, configured to execute a dynamic adaptive control algorithm that computes at least one operating parameter for at least one of the base device and the wearable device based on a dynamic and adaptive combination of distance measurements between the wearable device and the base device, each distance measurement being determined by the base device and the wearable device, wherein the processing system conveys the at least one operating parameter to the at least one of the base device and the wearable device, which employs the at least one operating parameter for operation and determination of subsequent distance measurements, characterized by the at least one operating parameter including at least one of a power amplification signal, and a power amplification level signal.
A method of orienting a satellite antenna, the method comprising: transmitting a plurality of downlink spot beam signals over a plurality of spot beams from a satellite (105-b), each of the spot beams associated with a specific coverage area; transmitting a wide beam downlink signal over a wide area beam from the satellite, the wide area beam associated with a coverage area that includes each of the spot beams; receiving an uplink beacon signal at the satellite; generating azimuth and elevation antenna pointing error signals using a measurement of the uplink beacon signal; generating azimuth and elevation antenna pointing bias signals using a plurality of spot beam signal strength measurements made at a plurality of ground measurement terminals, the spot beam signal strength measurements made relative to the wide beam downlink signal; and positioning the satellite antenna based at least in part on the azimuth and elevation antenna pointing error signals and the azimuth and elevation antenna pointing bias signals. transmitting a plurality of downlink spot beam signals over a plurality of spot beams from a satellite (105-b), each of the spot beams associated with a specific coverage area; transmitting a wide beam downlink signal over a wide area beam from the satellite, the wide area beam associated with a coverage area that includes each of the spot beams; receiving an uplink beacon signal at the satellite; generating azimuth and elevation antenna pointing error signals using a measurement of the uplink beacon signal; generating azimuth and elevation antenna pointing bias signals using a plurality of spot beam signal strength measurements made at a plurality of ground measurement terminals, the spot beam signal strength measurements made relative to the wide beam downlink signal; and positioning the satellite antenna based at least in part on the azimuth and elevation antenna pointing error signals and the azimuth and elevation antenna pointing bias signals.
A franking machine with a communication unit arranged in the franking machine, the franking machine comprising a non-destructively inaccessible security area in a security housing, wherein said communication unit has a first connection element and can be connected by a plug-in movement to a main control board arranged in the security area of the franking machine, wherein the communication unit has a carrier circuit board which adapts a communication component selectable from a number of communication components to the first connection element and effects its contacting by a second connection element of the main control board arranged in the security area of the franking machine, characterized in that a non-security area of the franking machine with a compartment-shaped cavity is accessible under a cover that can be non-destructively removed from the security housing, wherein form and size of the compartment-shaped cavity are adapted to the pluggable communication unit and wherein the compartment-shaped cavity is arranged in a housing shell of the security housing, and that the cavity contains at least the second connection element and at least one third connection element (31, 32, 33), wherein the second and the at least one third connection element (31, 32, 33) project into the cavity, are connected with a metal chassis part of the franking machine in an electrically conducting and mechanical manner, and are connectible to the communication unit, wherein an earthing of the carrier circuit board of the communication unit is allowed by means of at least one contacting and fixing element (131, 132, 133) via the at least one third connection element (31, 32, 33), wherein respective drill holes (171, 172, 173) for the at least one contacting and fixing element (131, 132, 133) are worked into the carrier circuit board of the communication unit for centring, fixing and earthing, said drill holes being metallized or having a close metal conductor layer in the edge region.
Milking parlor comprising plural milking stations, of which each can accommodate an animal to be milked and comprises a milking equipment to be put on the animal, and a transport system with a transport means for transporting a person to each of the plural milking stations, a sensor system which is connected to the plural milking stations and is configured to provide a sensor signal suited for controlling the transport means, and a sensor element for detecting a parameter related with the current milk flow in each of the plural milking stations, a control system which is connected to the transport system and the sensor system and is configured to instruct the transport system to transport the transport means in accordance with a control parameter determined from the sensor signal to one of the milking stations, characterized in that the control system comprises a reference data device which is configured to individually provide reference data of relevance to the milking process at least for some of the animals to be milked so as to determine the control parameter.
A method for secure latching a first body to a second body of an aerial vehicle by means of an interlock arrangement comprising a latch fitting member of a first body and a laterally moveable latch bar member of a second body, which interlock arrangement is configured for latching the first body to the second body into a closed position (Cp) whereas the laterally moveable latch bar member is configured to subsequently latch the latch fitting member in a latching position (Lp); the latch fitting member is configured to move with the first body making a first motion from an open position (Op) to the closed position (Cp); a blocking member portion of a blocking member is configured to block a stop surface of the laterally moveable laterally moveable latch bar member for blocking the laterally moveable latch bar member from making a second motion from an unlatching position (Up) into the latching position (Lp), which blocking member portion is configured to be pushed away from the stop surface by means of a pressing portion moved together with the first body during the first motion, the method is characterized by the steps of: - closing the first body into the closed position (Cp); - pushing away the blocking member portion from the stop surface by means of the first motion; - providing the second motion of the laterally moveable latch bar member from the unlatching position (Up) into the latching position (Lp) subsequently the blocking member portion has been pushed away from the stop surface; and - latching the first body to the second body in a closed position (Cp) by positioning the laterally moveable latch bar member in the latching position (Lp). - closing the first body into the closed position (Cp); - pushing away the blocking member portion from the stop surface by means of the first motion; - providing the second motion of the laterally moveable latch bar member from the unlatching position (Up) into the latching position (Lp) subsequently the blocking member portion has been pushed away from the stop surface; and - latching the first body to the second body in a closed position (Cp) by positioning the laterally moveable latch bar member in the latching position (Lp).
A tool head for a hydraulically actuatable tool, wherein the tool head, as viewed from the side, has an essentially C-shaped head body with two C-legs (4, 5) lying opposite each other along a longitudinal axis (x) of the tool head and a connecting web that connects the C-legs (4, 5), wherein a first C-leg has a first tool carrier for receiving a first tool part, and wherein a second C-leg has a second tool carrier for receiving a second tool part, wherein the second tool carrier is mounted in the tool head so as to be displaceable to the first tool carrier, so that the second tool carrier can be displaced from a first starting position remote from the first tool carrier while traversing a device jaw of the C-shaped head body into a final working position adjacent to the first tool carrier, and wherein the connecting web, as viewed from the side transverse to the longitudinal axis (x) of the tool head, has several through openings (12, 13, 14, 15) lying one behind the other along the longitudinal axis (x), wherein adjacent through openings (12, 13, 14, 15) are separated by a material bracing (17, 18, 19), and the head body of the tool head is manufactured in a metal casting process, characterized in that the through openings (12, 13, 14, 15) follow an arched shape of the connecting web, and not a line parallel to the longitudinal axis (x) of the tool head.
Apparatus for illuminating an assembly of an interior fitting of the vehicle, having a two-dimensional light guide, having an optical varnish layer, which at least partially covers the light guide and has a defined refractive index controlling the emergence of light beams at the surface of the light guide, having a first adhesive layer at least partially wetting the varnish layer, having at least one covering element, which is connected to the varnish layer by way of the adhesive layer, wherein the covering element consists of a film that is deep-drawn and printed. having a two-dimensional light guide, having an optical varnish layer, which at least partially covers the light guide and has a defined refractive index controlling the emergence of light beams at the surface of the light guide, having a first adhesive layer at least partially wetting the varnish layer, having at least one covering element, which is connected to the varnish layer by way of the adhesive layer, wherein the covering element consists of a film that is deep-drawn and printed.