mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement with a first valve , a second valve , a third valve and a pneumatic or hydraulic piston rod cylinder with a cylinder and a first piston (3.1), which is coupled to at least one piston rod projecting from the cylinder and divides a volume accommodated in the cylinder into a first pressure chamber , through which the piston rod extends out of the cylinder , and a second pressure chamber , the first and second pressure chambers are fluidically connected to one another via a bypass as part of a first pressure connection line and each have a pressure connection which can be formed in a cylinder wall of the cylinder and via which the pressure chambers can be acted upon with a fluid pressure by means of the first valve connected to the first pressure connection line , and a first side of the first piston (3.1) delimits the first pressure chamber and a second side of the first piston (3.1), which is arranged opposite the first side and has a smaller area compared to the first side , delimits the second pressure chamber , the piston rod extending from the first piston (3.1) extends over the entire length of both the first pressure chamber and the second pressure chamber through the respective pressure chamber , the piston rod having a smaller diameter in the first pressure chamber than in the second pressure chamber , wherein a further pressure port is arranged vertically above the pressure port of the second pressure chamber by a piston displacement (x), via which a pressurization of the second pressure chamber can be provided independently of the first valve by the second valve connected to the further pressure port and a second pressure port line , wherein the piston rod can be separated from the first piston (3.1) through a separating element , which fluidically separates the second pressure chamber from a third pressure chamber of the cylinder , into the third pressure chamber and has at its end a second piston (3.2), which fluidically separates the third pressure chamber from a fourth pressure chamber of the cylinder , wherein the fourth pressure chamber is connected via a further pressure connection and an additional pressure connection line to the third valve , via which a fluid overpressure can be provided in the fourth pressure chamber , so that a force acting on the second piston (3.2) can displace the second piston (3.2) together with the piston rod and the first piston (3.1) vertically downwards.
An electrically operated aerosol-generating device for heating an aerosol-generating article including an aerosol-forming substrate by heating a susceptor element positioned to heat the aerosol-forming substrate, the device comprising: a device housing defining a chamber for receiving at least a portion of the aerosol-generating article; an inductor comprising an inductor coil disposed around at least a portion of the chamber; and a power source connected to the inductor coil and configured to provide a high frequency electric current to the inductor coil such that, in use, the inductor coil generates a fluctuating electromagnetic field to heat the susceptor element and thereby heat the aerosol-forming substrate, wherein the inductor further comprises a flux concentrator disposed around the inductor coil and configured to distort the fluctuating electromagnetic field, generated by the inductor coil during use, towards the chamber, and wherein the inductor further comprises a cushioning element positioned between the flux concentrator and the device housing. a device housing defining a chamber for receiving at least a portion of the aerosol-generating article; an inductor comprising an inductor coil disposed around at least a portion of the chamber; and a power source connected to the inductor coil and configured to provide a high frequency electric current to the inductor coil such that, in use, the inductor coil generates a fluctuating electromagnetic field to heat the susceptor element and thereby heat the aerosol-forming substrate, wherein the inductor further comprises a flux concentrator disposed around the inductor coil and configured to distort the fluctuating electromagnetic field, generated by the inductor coil during use, towards the chamber, and wherein the inductor further comprises a cushioning element positioned between the flux concentrator and the device housing.
UV-curable silicone pressure-sensitive adhesive composition comprising (A) 30 to 70 parts by weight of organopolysiloxane resin comprising essentially (a) R 1 3 SiO 1/2 units wherein R 1 is substituted or unsubstituted C 1 -C 10 monovalent hydrocarbon group, and (b) SiO 4/2 units, wherein a molar ratio of units (a) to units (b) is from 0.6:1 to 1.2:1, (B) 1 to 40 parts by weight of linear or branched organopolysiloxane having a backbone composed of repeating diorganosiloxane units and containing per molecule on average 1 to 4 groups having the general formula and/or : wherein R 2 is hydrogen or methyl, a is an integer of 1 to 3, and the broken line designates a valence bond bonded to silicon atom, wherein R 2 and a are as defined above, and the broken line designates a valence bond bonded to silicon atom, as the silicon-bonded monovalent substituent group in the molecule, the organopolysiloxane having a viscosity as measured at 25°C by a rotational viscometer of from more than 50 mPa·s to 500,000 mPa·s, and (C) 1 to 40 parts by weight of reactive diluent in the form of an organo(poly)-siloxane containing one group having the general formula : wherein a is as defined above and the broken line designates a valence bond, at an end or on a side chain of the molecular chain as the silicon-bonded monovalent substituent group in the molecule, the organo(poly)siloxane having a viscosity as measured at 25°C by a rotational viscometer of 1 to 50 mPa·s, with the proviso that the total of components (A) to (C) is 100 parts by weight, wherein the amount of component (C) blended is 20 to 70 parts by weight per 100 parts by weight of components (A) and (B) combined. (A) 30 to 70 parts by weight of organopolysiloxane resin comprising essentially (a) R 1 3 SiO 1/2 units wherein R 1 is substituted or unsubstituted C 1 -C 10 monovalent hydrocarbon group, and (b) SiO 4/2 units, wherein a molar ratio of units (a) to units (b) is from 0.6:1 to 1.2:1, (B) 1 to 40 parts by weight of linear or branched organopolysiloxane having a backbone composed of repeating diorganosiloxane units and containing per molecule on average 1 to 4 groups having the general formula and/or : wherein R 2 is hydrogen or methyl, a is an integer of 1 to 3, and the broken line designates a valence bond bonded to silicon atom, wherein R 2 and a are as defined above, and the broken line designates a valence bond bonded to silicon atom, as the silicon-bonded monovalent substituent group in the molecule, the organopolysiloxane having a viscosity as measured at 25°C by a rotational viscometer of from more than 50 mPa·s to 500,000 mPa·s, and (C) 1 to 40 parts by weight of reactive diluent in the form of an organo(poly)-siloxane containing one group having the general formula : wherein a is as defined above and the broken line designates a valence bond, at an end or on a side chain of the molecular chain as the silicon-bonded monovalent substituent group in the molecule, the organo(poly)siloxane having a viscosity as measured at 25°C by a rotational viscometer of 1 to 50 mPa·s,
An air conditioner pipeline device, comprising: a gaseous refrigerant connecting pipe and a liquid refrigerant connecting pipe which are configured to be connected between an indoor unit and an outdoor unit of the air conditioner, wherein at least one of the gaseous refrigerant connecting pipe and the liquid refrigerant connecting pipe adopts a multi-layer pipe; and characterized in that the multi-layer pipe comprises: at least two conductive pipes, sequentially and coaxially sleeved along a radial direction of the multi-layer pipe, and configured to be connected to a power supply of the air conditioner to transmit power to the air conditioner, an internal area of the innermost layer of conductive pipe being configured to allow a refrigerant to flow, and first insulating layers , configured to achieve insulation of at least two conductive pipes; the air conditioner pipeline device further comprises an adapter , a first refrigerant pipe adapted to be arranged in the indoor unit , and a second refrigerant pipe adapted to be arranged in the outdoor unit , wherein two ends of the multi-layer pipe respectively communicate with the first refrigerant pipe and the second refrigerant pipe through the adapter ; wherein the adapter comprises a main body part , an electrical connection structure and a connection terminal ; the electrical connection structure is arranged in the main body part ; the electrical connection structure has the same layer structure as the multi-layer pipe and is butted with the multi-layer pipe; and the connection terminal is led out from the electrical connection structure and is connectable to the power supply. at least two conductive pipes, sequentially and coaxially sleeved along a radial direction of the multi-layer pipe, and configured to be connected to a power supply of the air conditioner to transmit power to the air conditioner, an internal area of the innermost layer of conductive pipe being configured to allow a refrigerant to flow, and first insulating layers , configured to achieve insulation of at least two conductive pipes; the air conditioner pipeline device further comprises an adapter , a first refrigerant pipe adapted to be arranged in the indoor unit , and a second refrigerant pipe adapted to be arranged in the outdoor unit , wherein two ends of the multi-layer pipe respectively communicate with the first refrigerant pipe and the second refrigerant pipe through the adapter ; wherein the adapter comprises a main body part , an electrical connection structure and a connection terminal ; the electrical connection structure is arranged in the main body part ; the electrical connection structure has the same layer structure as the multi-layer pipe and is butted with the multi-layer pipe; and the connection terminal is led out from the electrical connection structure and is connectable to the power supply.
A method of manufacturing an LED device, comprising: providing a circuit board substrate , the circuit board substrate comprising a stack of core layers , a pre-preg and copper layers , the circuit board substrate further comprising a receiving portion for receiving an LED module ; providing the LED module in the receiving portion, wherein the LED module comprises an LED chip mounted on an LED substrate ; and after providing the LED module in the receiving portion, applying heat and pressure to allow the pre-preg material to flow into gaps between the LED substrate and the circuit board substrate and to cure the pre-peg material to bond the core layers of the circuit board substrate together and to integrate the LED substrate with the circuit board substrate . providing a circuit board substrate , the circuit board substrate comprising a stack of core layers , a pre-preg and copper layers , the circuit board substrate further comprising a receiving portion for receiving an LED module ; providing the LED module in the receiving portion, wherein the LED module comprises an LED chip mounted on an LED substrate ; and after providing the LED module in the receiving portion, applying heat and pressure to allow the pre-preg material to flow into gaps between the LED substrate and the circuit board substrate and to cure the pre-peg material to bond the core layers of the circuit board substrate together and to integrate the LED substrate with the circuit board substrate .
A processor implemented method comprising: detecting, by a movement detector , a set of vibration frequencies, each vibration frequency in the set of vibration frequencies corresponding to a vibrating part from a plurality of vibrating parts in a machine under inspection in a field of view (FOV) of the movement detector , each of the plurality of vibrating parts having a pre-defined marker for tracking the vibrating part associated thereof ; and initiating, by a stroboscope , strobing at each vibration frequency from the set of vibration frequencies, starting at a first detected vibration frequency , the step of strobing at each vibration frequency comprising: recording an output of the stroboscope in the form of a video having a pre-determined length ; and extracting from the video, at least one frame having a vibrating part corresponding to an associated vibration frequency, and mapping each vibration frequency detected by the movement detector to a corresponding vibrating part using the pre-defined marker . detecting, by a movement detector , a set of vibration frequencies, each vibration frequency in the set of vibration frequencies corresponding to a vibrating part from a plurality of vibrating parts in a machine under inspection in a field of view (FOV) of the movement detector , each of the plurality of vibrating parts having a pre-defined marker for tracking the vibrating part associated thereof ; and initiating, by a stroboscope , strobing at each vibration frequency from the set of vibration frequencies, starting at a first detected vibration frequency , the step of strobing at each vibration frequency comprising: recording an output of the stroboscope in the form of a video having a pre-determined length ; and extracting from the video, at least one frame having a vibrating part corresponding to an associated vibration frequency, and mapping each vibration frequency detected by the movement detector to a corresponding vibrating part using the pre-defined marker . recording an output of the stroboscope in the form of a video having a pre-determined length ; and extracting from the video, at least one frame having a vibrating part corresponding to an associated vibration frequency, and mapping each vibration frequency detected by the movement detector to a corresponding vibrating part using the pre-defined marker .
A dual-clutch automatic transmission cooling and lubrication hydraulic control system, comprising: a clutch lubrication control valve , the outlet end of the clutch lubrication control valve being connected with a clutch lubricating oil circuit; a gear lubrication control valve , the inlet end of the gear lubrication control valve being connected with the inlet end of the clutch lubrication control valve in parallel at a first common end , the outlet end of the gear lubrication control valve is connected to a gear and bearing lubricating oil circuit; a mechanical pump , the inlet end being connected to an oil tank, and the outlet end of the mechanical pump being connected with a first control valve ; an electronic pump , the inlet end being connected to the oil tank, the outlet end of the electronic pump being connected with a second control valve , the outlet end of the second control valve being connected with the outlet end of the first control valve in parallel at a second common end ; a cooler , connected in series between the first common end and the second common end ; wherein a bypass valve that is configured to operate in response to a pressure difference across the cooler is connected in parallel at both ends of the cooler . a clutch lubrication control valve , the outlet end of the clutch lubrication control valve being connected with a clutch lubricating oil circuit; a gear lubrication control valve , the inlet end of the gear lubrication control valve being connected with the inlet end of the clutch lubrication control valve in parallel at a first common end , the outlet end of the gear lubrication control valve is connected to a gear and bearing lubricating oil circuit; a mechanical pump , the inlet end being connected to an oil tank, and the outlet end of the mechanical pump being connected with a first control valve ; an electronic pump , the inlet end being connected to the oil tank, the outlet end of the electronic pump being connected with a second control valve , the outlet end of the second control valve being connected with the outlet end of the first control valve in parallel at a second common end ; a cooler , connected in series between the first common end and the second common end ; wherein a bypass valve that is configured to operate in response to a pressure difference across the cooler is connected in parallel at both ends of the cooler .
A laminated fluid warmer comprising: a laminate including a target fluid layer having a plurality of target fluid channels for flowing a warming target fluid, and a warming fluid layer that is laminated on the target fluid layer and has a plurality of warming fluid channels for flowing a warming fluid for warming the target fluid layer ; a header communicating with the plurality of warming fluid channels ; and an inflow pipe or an outflow pipe connected to the header , characterized by a collection device for collecting at least a part of the warming fluid accumulated in the plurality of warming fluid channels , wherein the collection device includes a reception pipe or a storage portion connected to the inflow pipe , the outflow pipe or the header , and configured to receive the warming fluid flowing out from the plurality of warming fluid channels when collecting the warming fluid from the plurality of warming fluid channels , and a switching mechanism configured to switch operation between a collection operation of collecting the warming fluid and a non-collection operation of not collecting the warming fluid. a laminate including a target fluid layer having a plurality of target fluid channels for flowing a warming target fluid, and a warming fluid layer that is laminated on the target fluid layer and has a plurality of warming fluid channels for flowing a warming fluid for warming the target fluid layer ; a target fluid layer having a plurality of target fluid channels for flowing a warming target fluid, and a warming fluid layer that is laminated on the target fluid layer and has a plurality of warming fluid channels for flowing a warming fluid for warming the target fluid layer ; a header communicating with the plurality of warming fluid channels ; and an inflow pipe or an outflow pipe connected to the header , characterized by a collection device for collecting at least a part of the warming fluid accumulated in the plurality of warming fluid channels , wherein the collection device includes a reception pipe or a storage portion connected to the inflow pipe , the outflow pipe or the header , and configured to receive the warming fluid flowing out from the plurality of warming fluid channels when collecting the warming fluid from the plurality of warming fluid channels , and a switching mechanism configured to switch operation between a collection operation of collecting the warming fluid and a non-collection operation of not collecting the warming fluid. a reception pipe or a storage portion connected to the inflow pipe , the outflow pipe or the header , and configured to receive the warming fluid flowing out from the plurality of warming fluid channels when collecting the warming fluid from the plurality of warming fluid channels , and a switching mechanism configured to switch operation between a collection operation of collecting the warming fluid and a non-collection operation of not collecting the warming fluid.
A cleaning robot, comprising a cleaning cloth bracket, wherein the cleaning cloth bracket comprises a main body , characterized in that the cleaning cloth bracket further comprises a soft member and a raised portion , a cleaning cloth is provided under the cleaning cloth bracket, the cleaning cloth bracket is floatingly disposed at a bottom of a base of the cleaning robot, and the raised portion is provided at a front end of the main body through the soft member .
A punching-free mounting assembly for installing a curtain to a window frame, wherein it comprises a mounting seat ; the mounting seat is provided with a top block slidingly connected with the mounting seat , and a self-locking unit used for pushing the top block outwards to be firmly locked on a wall body of the window frame; a part of the self-locking unit is exposed outside the mounting seat charcaterzied in that one end of the mounting seat is a closed end, the other end of the mounting seat is an open end; the self-locking unit comprises a worm gear , a worm , a lead screw and a lead screw nut , the worm gear is integrally formed with the lead screw , and the worm is in threaded fit with the worm gear ; the lead screw nut is screwed on the lead screw ; the closed end of the mounting seat is provided with a through hole (1.1) for the lead screw to extend into, and the worm gear and the worm are exposed outside mounting seat .
A method for recovering frequency content of modulated illumination of a beacon light source in a digital video sequence, the method comprising: receiving, by an image sensor of a mobile device , a digital video sequence of a scene, wherein the digital video sequence comprises a sequence of frames and the scene comprises both modulated illumination broadcast by the beacon light source and un-modulated illumination, and wherein each frame of the sequence of frames comprises a plurality of pixel values, and wherein each pixel value of the plurality of pixel values is at a given point in the frame; calculating a background frame of the digital video sequence, wherein the background frame comprises a constant pixel value at each given point in the background frame corresponding to the un-modulated illumination of the scene at each given point; subtracting, from each frame of the digital video sequence, the calculated background frame of the digital video sequence corresponding to the un-modulated illumination of the scene to obtain an isolated digital video sequence of the modulated illumination of the scene; calculating a frequency content of a frame of the isolated digital video sequence; and determining a particular symbol broadcast by the beacon light source based on the frequency content; wherein: calculating the background frame comprises averaging the plurality of pixel values from a same given point in a subset of frames from the sequence of frames to provide the constant pixel value corresponding to the un-modulated illumination of the scene. receiving, by an image sensor of a mobile device , a digital video sequence of a scene, wherein the digital video sequence comprises a sequence of frames and the scene comprises both modulated illumination broadcast by the beacon light source and un-modulated illumination, and wherein each frame of the sequence of frames comprises a plurality of pixel values, and wherein each pixel value of the plurality of pixel values is at a given point in the frame; calculating a background frame of the digital video sequence, wherein the background frame comprises a constant pixel value at each given point in the background frame corresponding to the un-modulated illumination of the scene at each given point; subtracting, from each frame of the digital video sequence, the calculated background frame of the digital video sequence corresponding to the un-modulated illumination of the scene to obtain an isolated digital video sequence of the modulated illumination of the scene; calculating a frequency content of a frame of the isolated digital video sequence; and determining a particular symbol broadcast by the beacon light source based on the frequency content; wherein: calculating the background frame comprises averaging the plurality of pixel values from a same given point in a subset of frames from the sequence of frames to provide the constant pixel value corresponding to the un-modulated illumination of the scene.