mhurhangee/patent-ind-claim-en huggingface dataset:
An efficient automatic liquid-liquid extracting machine, comprising a body , wherein at least one set of stirring extractor is arranged on the body , the at least one set of stirring extractor comprises a cylindrical separating funnel and a stirring motor , the cylindrical separating funnel and the stirring motor are fixed on the body , a bottom funnel opening of the cylindrical separating funnel is connected to a liquid separating device , the stirring motor is arranged opposite to the bottom funnel opening of the cylindrical separating funnel , a motor shaft of the stirring motor is connected to a stirring device, and a stirring end of the stirring device penetrates into the cylindrical separating funnel , a cleaning device is arranged on the body , the cleaning device comprises a water outlet pipe , a water feeder and a water suction pipe, an outlet end of the water feeder is connected to the water outlet pipe , and an inlet end of the water feeder is connected to the water suction pipe, the water feeder is an electric water pump, the water outlet pipe is obliquely arranged on the body , an included angle a is formed between the water outlet pipe and an inner wall of the cylindrical separating funnel , and the included angle a ranges from 30 degrees to 60 degrees, characterized in that the water feeder is an automatic electric water pump, the liquid separating device is a three-way liquid separating device, and the cylindrical separating funnel is an open extraction vessel, so that there is no need to release a gas during an extraction process and reducing an extraction time length.
A plug assembly for a tire mold, the plug assembly comprising: a receiver or jacket having a first face with an irregular shaped cavity extending inwardly therefrom to a first surface ; a fastener for securing the receiver to an associated tire mold; characterised by a securing member extending from the receiver into the cavity ; and a plug contoured and dimensioned for mating receipt in the cavity and retained therein by engagement with the securing member . a receiver or jacket having a first face with an irregular shaped cavity extending inwardly therefrom to a first surface ; a fastener for securing the receiver to an associated tire mold; a securing member extending from the receiver into the cavity ; and a plug contoured and dimensioned for mating receipt in the cavity and retained therein by engagement with the securing member .
A method comprising: providing a MWD system, the MWD system including multiple sensors, wherein at least one of the multiple sensors is a gyro sensor, wherein the data collected by the sensors is interpreted by sensor models having adjustable sensor model parameters, wherein the sensor model parameters of the sensor model for the gyro sensor comprise azimuth offset and mass unbalance terms, and wherein the MWD system has an orientation, the orientation including azimuth and inclination; positioning the MWD system on a drill string; positioning the drill string at a first depth within a borehole drilled from a surface location, the depth measured from the location of the MWD system to the surface location, the direction of the borehole at the location of the MWD system generally being represented by the orientation of the MWD system; determining an estimated absolute orientation for the drill string at the first depth by combining the readings from two or more sensors of the multiple sensors of the MWD system when the sensors are stationary; moving, by a motion of the drill string, the location of the MWD system within the borehole from a first depth to a second depth; sensing changes in the orientation of the MWD system using one or more sensors of the multiple sensors as the MWD system is moved from the first depth to the second depth; and calculating the change in orientation of the MWD system between the first and second depths using the sensed changes in the orientation of the MWD system as the MWD system is moved. providing a MWD system, the MWD system including multiple sensors, wherein at least one of the multiple sensors is a gyro sensor, wherein the data collected by the sensors is interpreted by sensor models having adjustable sensor model parameters, wherein the sensor model parameters of the sensor model for the gyro sensor comprise azimuth offset and mass unbalance terms, and wherein the MWD system has an orientation, the orientation including azimuth and inclination; positioning the MWD system on a drill string; positioning the drill string at a first depth within a borehole drilled from a surface location, the depth measured from the location of the MWD system to the surface location, the direction of the borehole at the location of the MWD system generally being represented by the orientation of the MWD system; determining an estimated absolute orientation for the drill string at the first depth by combining the readings from two or more sensors of the multiple sensors of the MWD system when the sensors are stationary; moving, by a motion of the drill string, the location of the MWD system within the borehole from a first depth to a second depth; sensing changes in the orientation of the MWD system using one or more sensors of the multiple sensors as the MWD system is moved from the first depth to the second depth; and calculating the change in orientation of the MWD system between the first and second depths using the sensed changes in the orientation of the MWD system as the MWD system is moved.
A multiport amplifier which includes an input hybrid configured to receive a plurality of input signals corresponding to a plurality of channels, an output hybrid configured to output a plurality of output signals corresponding to said plurality of input signals from a plurality of output terminals (9a through 9d), a channel assignment part adapted to output a first signal on which an assignment of the plurality of input signals to frequency components corresponding to individual channels of said plurality of channels is based, and a plurality of amplifiers (7a - 7d) and a plurality of gain and phase control circuits (4a -4d, 4Da -4Dd) which are inserted between said input hybrid and said output hybrid , each amplifier having a corresponding gain control circuit and phase control circuit coupled to its input, wherein said plurality of amplifiers (7a -7d) are configured to be combined in parallel with one another, said multiport amplifier comprising: a plurality of output coupling circuits (8a through 8d) that are inserted between said output hybrid and said plurality of output terminals (9a through 9d) and are configured to receive output extraction signals corresponding to said plurality of output signals; and a feedback circuit that is inserted between said plurality of output coupling circuits (8a -8d) and said plurality of gain and phase control circuits (4a -4d, 4Da -4Dd) and is configured to reduce an amplitude difference and a phase difference among the plurality of output signals to reduce unnecessary frequency components included in each of the output signals; wherein said feedback circuit includes at least one frequency selection circuit adapted to decide passing frequencies based on a second signal output by the channel assignment part . a plurality of output coupling circuits (8a through 8d) that are inserted between said output hybrid and said plurality of output terminals (9a through 9d) and are configured to receive output extraction signals corresponding to said plurality of output signals; and a feedback circuit that is inserted between said plurality of output coupling circuits (8a -8d) and said plurality of gain and phase control circuits (4a -4d, 4Da -4Dd) and is configured to reduce an amplitude difference and a phase difference among the plurality of output signals to reduce unnecessary frequency components included in each of the output signals; wherein said feedback circuit includes at least one frequency selection circuit adapted to decide passing frequencies based on a second signal output by the channel assignment part .
Method for providing information for maintenance and servicing purposes for a battery comprising a control unit with a non-volatile memory and a plurality of battery units , with the following steps: a) Recording and quantizing usage data of the battery units ; b) Forming a histogram comprising the frequency values of the occurrence of certain values of the individual quantized usage data or values derived therefrom; c) Determining a check sum that is determined using the histogram and an individual key of the control unit ; wherein the check sum is calculated by means of a one-way function, in particular a cyclic redundancy check, or by using a hash function d) Storing (S5) the histogram and the check sum in the non-volatile memory of the control unit a) Recording and quantizing usage data of the battery units ; b) Forming a histogram comprising the frequency values of the occurrence of certain values of the individual quantized usage data or values derived therefrom; c) Determining a check sum that is determined using the histogram and an individual key of the control unit ; wherein the check sum is calculated by means of a one-way function, in particular a cyclic redundancy check, or by using a hash function d) Storing (S5) the histogram and the check sum in the non-volatile memory of the control unit
A device comprising: i) a main body adapted to receive a deformable envelope (ED) or a cartridge comprising a movable bottom (C), comprising a viscous material such as glue or mastic ii) a plunger (P) for exerting an axial force on a movable cartridge bottom or on a deformable envelope rear part for the application of a viscous material, iii) force transmission means connected to the plunger (P) and conformed so as to translate said plunger (P) by the transformation of the rotary motion, generated by a power drill or screwdriver (O), into linear motion, when the latter is coupled to said transmission means by a force input axis of the device, and iv) at least one connecting arm including two half-forks for controlling the main body clockwise and counterclockwise with a power drill or screwdriver (O), v) mechanical means (MS) for locking in position the connecting arm and the two half-forks , vi) at least one hinge axis supporting the mechanical position locking means (MS); which connecting arm is hinged about said at least one hinge axis and the position locking mechanical means, characterized in that said at least one hinge axis is horizontal and perpendicular to the axis . i) a main body adapted to receive a deformable envelope (ED) or a cartridge comprising a movable bottom (C), comprising a viscous material such as glue or mastic ii) a plunger (P) for exerting an axial force on a movable cartridge bottom or on a deformable envelope rear part for the application of a viscous material, iii) force transmission means connected to the plunger (P) and conformed so as to translate said plunger (P) by the transformation of the rotary motion, generated by a power drill or screwdriver (O), into linear motion, when the latter is coupled to said transmission means by a force input axis of the device, and iv) at least one connecting arm including two half-forks for controlling the main body clockwise and counterclockwise with a power drill or screwdriver (O), v) mechanical means (MS) for locking in position the connecting arm and the two half-forks , vi) at least one hinge axis supporting the mechanical position locking means (MS);
An apparatus for generating downhole fluid pressure pulses, comprising: a tubular housing defining an internal fluid flow passage and providing a housing wall having an internal surface and an external surface ; and a plurality of devices for selectively generating fluid pressure pulses, characterised by the device being mounted in an aperture defined in the housing wall and being movable, in unison, between a retracted position, where the device is seated within the aperture, and a radially extended position, where the device extends at least partially beyond the external surface and can be employed to issue separate or combined pressure pulse signals, further comprising a mounting block movably disposed within the aperture, wherein the device is mounted to the mounting block and the mounting block moves between the retracted and radially extended positions, wherein the mounting block is mounted for movement between the retracted and extended positions, carrying the device , and so serves for moving the device between said positions, and wherein the mounting block forms a floating mounting block which is mounted in the aperture , and which is sealed relative to the wall via suitable seals . a tubular housing defining an internal fluid flow passage and providing a housing wall having an internal surface and an external surface ; and a plurality of devices for selectively generating fluid pressure pulses, characterised by the device being mounted in an aperture defined in the housing wall and being movable, in unison, between a retracted position, where the device is seated within the aperture, and a radially extended position, where the device extends at least partially beyond the external surface and can be employed to issue separate or combined pressure pulse signals, further comprising a mounting block movably disposed within the aperture, wherein the device is mounted to the mounting block and the mounting block moves between the retracted and radially extended positions, wherein the mounting block is mounted for movement between the retracted and extended positions, carrying the device , and so serves for moving the device between said positions, and wherein the mounting block forms a floating mounting block which is mounted in the aperture , and which is sealed relative to the wall via suitable seals .
A method comprising: identifying , by a mobile computing device , one or more short-range wireless communication signals that are associated with a vehicle computing system of a vehicle; determining , by the mobile computing device , based on the one or more short-range wireless communication signals, that the mobile computing device is proximate to the vehicle computing system ; responsive to determining that the mobile computing device is proximate to the vehicle computing system , identifying , by the mobile computing device , an electrical connection between the mobile computing device and the vehicle, wherein the electrical connection is provided by an electrical cable that connects a port of the mobile computing device to a port of the vehicle; determining , by the mobile computing device , whether the electrical connection is a charge-only connection by periodically monitoring by a charge-only detector of the mobile computing device a state of at least one of the port of the mobile computing device or of the electrical connection, wherein the charge-only connection enables an electrical charging or discharging of the mobile computing device but prohibits any data transfer between the mobile computing device and the vehicle computing system ; and responsive to the mobile computing device determining, based on the monitoring, that the electrical connection is the charge-only connection, outputting , by the mobile computing device , a notification indicative of the charge-only connection. identifying , by a mobile computing device , one or more short-range wireless communication signals that are associated with a vehicle computing system of a vehicle; determining , by the mobile computing device , based on the one or more short-range wireless communication signals, that the mobile computing device is proximate to the vehicle computing system ; responsive to determining that the mobile computing device is proximate to the vehicle computing system , identifying , by the mobile computing device , an electrical connection between the mobile computing device and the vehicle, wherein the electrical connection is provided by an electrical cable that connects a port of the mobile computing device to a port of the vehicle; determining , by the mobile computing device , whether the electrical connection is a charge-only connection by periodically monitoring by a charge-only detector of the mobile computing device a state of at least one of the port of the mobile computing device or of the electrical connection, wherein the charge-only connection enables an electrical charging or discharging of the mobile computing device but prohibits any data transfer between the mobile computing device and the vehicle computing system ; and responsive to the mobile computing device determining, based on the monitoring, that the electrical connection is the charge-only connection, outputting , by the mobile computing device , a notification indicative of the charge-only connection.
An arrangement comprising a drawer wall and a wall element set onto the drawer wall in a mounted position, the drawer wall comprising: - an opening arranged on a shell surface of the drawer wall , - a movably supported cover portion configured to cover the opening in a closed position and to unblock the opening in an open position, - a spring element to pre-stress the cover portion in an operating direction of the spring element toward the closed position, wherein the cover portion is arranged so as to be stationary in a direction parallel to the shell surface and is movably supported in a direction approximately perpendicular to the shell surface against the operating direction of the spring element , characterized in that the cover portion is arranged within the drawer wall in all operating positions, and wherein the wall element is formed by a bent metal profile or by a decorative plate, preferably made of glass, wood, plastic, stone or ceramics. - an opening arranged on a shell surface of the drawer wall , - a movably supported cover portion configured to cover the opening in a closed position and to unblock the opening in an open position, - a spring element to pre-stress the cover portion in an operating direction of the spring element toward the closed position, wherein the cover portion is arranged so as to be stationary in a direction parallel to the shell surface and is movably supported in a direction approximately perpendicular to the shell surface against the operating direction of the spring element ,
A photovoltaic device , including: - one or more photovoltaic modules , each photovoltaic module including: - a first transparent layer forming the front face of the photovoltaic module , intended to receive a light flux, - a plurality of photovoltaic cells disposed side by side and electrically connected to each other, - an assembly encapsulating the plurality of photovoltaic cells , - a second layer forming the rear face of the photovoltaic module , the encapsulating assembly and the plurality of photovoltaic cells being located between the first and second layers, the photovoltaic device including at least one coating layer disposed on the first layer of the or each photovoltaic module , the first layer being located between said at least one coating layer and the assembly encapsulating the plurality of photovoltaic cells , characterised in that the photovoltaic device includes at least one element for indicating the wear of said at least one coating layer , allow information on the remaining thickness of the coating layer, integrated in said at least one coating layer and visible through said at least one coating layer . - one or more photovoltaic modules , each photovoltaic module including: - a first transparent layer forming the front face of the photovoltaic module , intended to receive a light flux, - a plurality of photovoltaic cells disposed side by side and electrically connected to each other, - an assembly encapsulating the plurality of photovoltaic cells , - a second layer forming the rear face of the photovoltaic module , the encapsulating assembly and the plurality of photovoltaic cells being located between the first and second layers,
An axial gap motor , which is for use in a pump device (P), in which a stator and a rotor are arranged to be opposed to each other with a predetermined gap along an axis line direction of a rotor output shaft of the rotor, a waterproof partition wall (Pw) interposed between the stator and the rotor, the stator includes plural core members (20a, 20b,..., 20i) annularly arranged centering on an axis line of the rotor output shaft, and the core members are coupled to one another via predetermined coupling means, wherein each of the core members includes a stator iron core including a teeth surface opposed to the rotor, a winding section that extends in the axis line direction from the teeth surface and around which a winding wire is wound, and a yoke strip for coupling the core members to form a part of an annular yoke section on one end side in the axis line direction of the stator, contact surfaces of the core members adjacent to each other in the circumferential direction that come into contact with the yoke strip are provided on both end sides in the circumferential direction of the yoke strip, and, when the surface area of the contact surfaces is represented as As, the projected area of the lateral surface of the yoke strip viewed from the circumferential direction is represented as Ap, the contact surfaces and the lateral surfaces are formed to satisfy a relation As>Ap, wherein the core member further includes an insulator that covers an outer circumference of the stator iron core leaving the teeth surface of the winding section, the insulator is formed in a bobbin shape including a pair of flange sections parallel to each other along the teeth surface and the yoke strip, and an upper flange on the teeth surface side is formed to be lower than the teeth surface in the axis line direction, and wherein a hook section functioning as first coupling means is protrudingly provided on one end side in the circumferential direction of the flange section, a locking shaft to which the hook section is locked is provided on the other end side in the circumferential direction of the flange section, and the locking shaft is formed to have axial direction height lower than the teeth surface in the axis line direction such that the teeth surface is the outermost surface of the core member in the axis line direction.
Fat wadding intended to be placed in the case of a cartridge between the explosive charge and the shot , said fat wadding comprising a cylindrical buffer of diameter Dt, adapted to be inserted slidingly in the case of said cartridge, said buffer having two end faces at least one of which is provided with a cup made of plastically deformable material comprising a bottom fixed to said face and a collar extending from the bottom in the extension of said buffer up to a circular edge adapted to be in contact with the inner face of the case , said fat wadding consisting of at least 95% by weight of biodegradable or decomposable materials.