mhurhangee/patent-ind-claim-en huggingface dataset:
A lock device comprising: - a handle ; and - an energy harvesting arrangement for an electronic locking system , wherein the energy harvesting arrangement comprises: - a driven member for driving an electric generator , the driven member being arranged to rotate about a driven member rotational axis ; - a drive member movable between a starting position , in which the drive member does not engage the driven member , and a releasing position , in which the drive member can drivingly engage the driven member ; - a harvesting elastic element arranged to force the drive member towards the starting position and arranged to store mechanical energy from displacement of the drive member from the starting position ; and - a release mechanism arranged to release mechanical energy stored in the harvesting elastic element to a returning movement of the drive member from the releasing position to the starting position ; and wherein the drive member is arranged to be moved from the starting position to the releasing position by manually turning the handle . - a handle ; and - an energy harvesting arrangement for an electronic locking system , wherein the energy harvesting arrangement comprises: - a driven member for driving an electric generator , the driven member being arranged to rotate about a driven member rotational axis ; - a drive member movable between a starting position , in which the drive member does not engage the driven member , and a releasing position , in which the drive member can drivingly engage the driven member ; - a harvesting elastic element arranged to force the drive member towards the starting position and arranged to store mechanical energy from displacement of the drive member from the starting position ; and - a release mechanism arranged to release mechanical energy stored in the harvesting elastic element to a returning movement of the drive member from the releasing position to the starting position ; and
A sachet of aerosol-forming substrate for use in an electrically heated aerosol-generating device , the sachet comprising: a porous container; and an aerosol-forming substrate , the aerosol-forming substrate within the container having a porosity of between about 0.2 and about 0.35, the porosity being the volume fraction of void space within the container. a porous container; and an aerosol-forming substrate , the aerosol-forming substrate within the container having a porosity of between about 0.2 and about 0.35, the porosity being the volume fraction of void space within the container.
A cleaner comprising: a head main body including a brush ; a main wheel coupled to the head main body to be positioned in the rear of the brush ; a suction pipe disposed between the brush and the main wheel to enable self-standing; a connector configured to connect the suction pipe and the head main body ; and a hose disposed between the head main body and the connector , characterised by the hose having an elasticity such that the suction pipe maintains a self-standing state. a head main body including a brush ; a main wheel coupled to the head main body to be positioned in the rear of the brush ; a suction pipe disposed between the brush and the main wheel to enable self-standing; a connector configured to connect the suction pipe and the head main body ; and a hose disposed between the head main body and the connector , characterised by the hose having an elasticity such that the suction pipe maintains a self-standing state.
A system for use with a downhole tool, comprising: a tubular comprising a fluid flow path therethrough for flowing a fluid; a housing coupleable to a downhole portion of the tubular and comprising a fluid inlet to receive at least a portion of the fluid flowing through the tubular; a fluid-driven motor assembly with a drive shaft rotatable to output rotational drive forces; an electric generator operatively coupled to the drive shaft and operable to convert the rotational drive forces into electrical power; an electric motor electrically coupled to the electric generator and operable to convert electrical output of the electric generator into a rotational drive force to control the downhole tool; an AC-DC converter electrically coupled between the electric generator and the electric motor ; a motor controller electrically coupled to the electric motor and the electric generator and operable to convert electrical power output from the electric motor to a DC bias voltage; a mud pulse telemetry system operatively coupled to the fluid flow path of the tubular; and a power controller operable to conduct the DC bias voltage to the electric generator and to dissipate excess energy produced by the electric motor to the fluid-driven motor assembly as hydraulic energy, wherein the power controller is further operable to adjust the electrical power output from the electric motor conducted to the electric generator to reduce pressure interference with the mud pulse telemetry system. a tubular comprising a fluid flow path therethrough for flowing a fluid; a housing coupleable to a downhole portion of the tubular and comprising a fluid inlet to receive at least a portion of the fluid flowing through the tubular; a fluid-driven motor assembly with a drive shaft rotatable to output rotational drive forces; an electric generator operatively coupled to the drive shaft and operable to convert the rotational drive forces into electrical power; an electric motor electrically coupled to the electric generator and operable to convert electrical output of the electric generator into a rotational drive force to control the downhole tool; an AC-DC converter electrically coupled between the electric generator and the electric motor ; a motor controller electrically coupled to the electric motor and the electric generator and operable to convert electrical power output from the electric motor to a DC bias voltage; a mud pulse telemetry system operatively coupled to the fluid flow path of the tubular; and a power controller operable to conduct the DC bias voltage to the electric generator and to dissipate excess energy produced by the electric motor to the fluid-driven motor assembly as hydraulic energy, wherein the power controller is further operable to adjust the electrical power output from the electric motor conducted to the electric generator to reduce pressure interference with the mud pulse telemetry system.
An electronic cigarette device comprising: - an elongate main body configured to house a liquid reservoir , - at least one slideable panel connected to the elongate main body and moveable in relation to the main body in a longitudinal direction of the elongate main body between an extended position and a retracted position, whereby the liquid reservoir is exposed or more exposed when the panel is in the retracted position, wherein one of the elongate main body and the panel comprises at least one guide member and the other of the elongate main body and the panel comprises at least one connector configured to connect to the at least one guide member , and wherein the at least one connector is connected to the at least one guide member such that the panel is slideably moveable relative to the elongate main body in the longitudinal direction, characterised in that the at least one connector is connected to the at least one guide member such that the panel is also movable in a transverse direction that is perpendicular to the longitudinal direction. - an elongate main body configured to house a liquid reservoir , - at least one slideable panel connected to the elongate main body and moveable in relation to the main body in a longitudinal direction of the elongate main body between an extended position and a retracted position, whereby the liquid reservoir is exposed or more exposed when the panel is in the retracted position, wherein one of the elongate main body and the panel comprises at least one guide member and the other of the elongate main body and the panel comprises at least one connector configured to connect to the at least one guide member , and wherein the at least one connector is connected to the at least one guide member such that the panel is slideably moveable relative to the elongate main body in the longitudinal direction, characterised in that the at least one connector is connected to the at least one guide member such that the panel is also movable in a transverse direction that is perpendicular to the longitudinal direction.
Method for viewing and selecting production resources, in particular peripheral devices, for the injection-molding industry, which are organized in at least one work cell (2 to 4) for producing an injection-molded part and are connected to one another via a network , wherein at least one production resource is designed as a processing machine , characterized in that, following a manual storage request on a control device, in particular a work cell controller (16 to 18), or on the processing machine , all connected production resources are queried, and defined data, such as the respective settings , as well as program sequences, formulations and other configurations, are read out from these and combined with the internal settings of the processing machine , in a manner depending on the injection-molded part , to form a mold data record and stored in one or several mold data records , whereby a list of the production resources required for the production of this injection-molded part is automatically generated at any time from the mold data record or records and displayed at an output point , preferably the processing machine , whereby the defined data associated with the respective production means are transmitted to the production resources as well.
An apparatus for filling non-coded residual sub-vectors of a transform coded audio signal, the apparatus comprising: means for compressing coded residual sub-vectors; means for rejecting compressed residual sub-vectors that do not fulfill a predetermined sparseness criterion; means for concatenating the remaining compressed residual sub-vectors to form a first virtual codebook (VC1); means for combining pairs of coefficients of the first virtual codebook (VC1) to form a second virtual codebook (VC2); means for filling non-coded residual sub-vectors below a predetermined frequency with coefficients from the first virtual codebook (VC1), and for filling non-coded residual sub-vectors above the predetermined frequency with coefficients from the second virtual codebook (VC2), characterized in that the means for compressing is configured to compress components X̂ ( k ) of the coded residual sub-vectors in accordance with: Y k = { 1 if X ^ k > 0 0 if X ^ k = 0 − 1 if X ^ k < 0 or Y k = { 1 if X ^ k > T 0 if − T ≤ X ^ k ≤ T − 1 if X ^ k < − T , where Y ( k ) are the components of the compressed residual sub-vectors and T is a small positive number that controls the amount of compression. means for compressing coded residual sub-vectors; means for rejecting compressed residual sub-vectors that do not fulfill a predetermined sparseness criterion; means for concatenating the remaining compressed residual sub-vectors to form a first virtual codebook (VC1); means for combining pairs of coefficients of the first virtual codebook (VC1) to form a second virtual codebook (VC2); means for filling non-coded residual sub-vectors below a predetermined frequency with coefficients from the first virtual codebook (VC1), and for filling non-coded residual sub-vectors above the predetermined frequency with coefficients from the second virtual codebook (VC2), characterized in that the means for compressing is configured to compress components X̂ ( k ) of the coded residual sub-vectors in accordance with: Y k = { 1 if X ^ k > 0 0 if X ^ k = 0 − 1 if X ^ k < 0 or Y k = { 1 if X ^ k > T 0 if − T ≤ X ^ k ≤ T − 1 if X ^ k < − T , where Y ( k ) are the components of the compressed residual sub-vectors and T is a small positive number that controls the amount of compression.
A method of operating a hybrid electric power plant , the hybrid electric power plant having an internal combustion engine (12; 23), an electric motor and a battery pack , the method comprising: a) absorbing heat generated by the internal combustion engine (12; 23), and b) using the heat absorbed from the internal combustion engine (12; 23) to warm the battery pack , wherein a) comprises circulating a coolant in heat exchange relationship with the internal combustion engine (12; 23), and b) comprises circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack , wherein a) further comprises circulating a liquid coolant through a housing of the internal combustion engine (12; 23), and circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack comprises circulating the liquid coolant around the battery pack , characterized in that b) further comprises controlling the flow of coolant to the battery pack as a function of an environmental temperature. wherein a) comprises circulating a coolant in heat exchange relationship with the internal combustion engine (12; 23), and b) comprises circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack , wherein a) further comprises circulating a liquid coolant through a housing of the internal combustion engine (12; 23), and circulating the coolant heated by the internal combustion engine (12; 23) in heat exchange relationship with the battery pack comprises circulating the liquid coolant around the battery pack , characterized in that b) further comprises controlling the flow of coolant to the battery pack as a function of an environmental temperature.
An article comprising a polycarbonate composition, the composition comprising up to 60 wt% of a bisphenol A homopolycarbonate composition comprising a bisphenol A homopolycarbonate having a weight average molecular weight from 15,000-40,000 grams/mole as measured via gel permeation chromatography using bisphenol A homopolycarbonate standards; 7-30 wt% of a poly(carbonate-siloxane); 10-70 wt%, preferably 10-50 wt% of a high heat copolycarbonate having a glass transition temperature of 170°C or higher as determined per ASTM D3418 with a 20 °C/min heating rate; 0.05-0.7 wt% of a flame retardant salt; 5-45 wt% of glass fibers; 0.3-0.6 wt%, of an anti-drip agent; and optionally, up to 10 wt% of an additive composition, wherein each amount is based on the total weight of the polycarbonate composition, which sums to 100 wt%; and wherein a molded sample of the polycarbonate composition has a Vicat B120 softening temperature of at least 150°C as measured according to ISO 306, an Izod notched impact strength of greater than or equal to 10 kiloJoule per square meter as measured at 23°C according to ISO 180/1 A, and a flame test rating of V1 as measured according to UL-94 at 0.8 millimeter and 1.2 millimeter thickness, more preferably V0 at 1.2 millimeter. 7-30 wt% of a poly(carbonate-siloxane); 10-70 wt%, preferably 10-50 wt% of a high heat copolycarbonate having a glass transition temperature of 170°C or higher as determined per ASTM D3418 with a 20 °C/min heating rate; 0.05-0.7 wt% of a flame retardant salt; 5-45 wt% of glass fibers; 0.3-0.6 wt%, of an anti-drip agent; and optionally, up to 10 wt% of an additive composition, a Vicat B120 softening temperature of at least 150°C as measured according to ISO 306, an Izod notched impact strength of greater than or equal to 10 kiloJoule per square meter as measured at 23°C according to ISO 180/1 A, and a flame test rating of V1 as measured according to UL-94 at 0.8 millimeter and 1.2 millimeter thickness, more preferably V0 at 1.2 millimeter.
An apparatus , comprising: a base comprising an ultrasonic transducer ; a tube extending from the base ; a first calibration target attached to the tube at a first distance from the ultrasonic transducer and extending into an interior of the tube ; and an orifice in the tube , wherein the orifice extends through the tube from an exterior of the tube to the interior of the tube and along the tube wherein an edge of the orifice is at the first distance from the ultrasonic transducer ; further comprising: a second calibration target attached to the tube at a second distance from the ultrasonic transducer and extending into the interior of the tube ; and wherein the orifice extends along the tube from the first distance from the ultrasonic transducer to the second distance from the ultrasonic transducer . a base comprising an ultrasonic transducer ; a tube extending from the base ; a first calibration target attached to the tube at a first distance from the ultrasonic transducer and extending into an interior of the tube ; and an orifice in the tube , wherein the orifice extends through the tube from an exterior of the tube to the interior of the tube and along the tube wherein an edge of the orifice is at the first distance from the ultrasonic transducer ; further comprising: a second calibration target attached to the tube at a second distance from the ultrasonic transducer and extending into the interior of the tube ; and wherein the orifice extends along the tube from the first distance from the ultrasonic transducer to the second distance from the ultrasonic transducer . a second calibration target attached to the tube at a second distance from the ultrasonic transducer and extending into the interior of the tube ; and wherein the orifice extends along the tube from the first distance from the ultrasonic transducer to the second distance from the ultrasonic transducer .
Conveyor for transporting products, a) comprising at least one carrier (T), which is allocated to at least one product and is formed to receive a product holder (P), b) further comprising at least one conveying element (M), to which the carrier (T) can be coupled and which can be moved along a conveying path, c) wherein the conveyor extends in a horizontal conveying direction (X), a likewise horizontal transverse direction (Y) at right angles thereto and a vertical direction (Z) running perpendicular to both directions (X, Y), and d) wherein the carrier (T) and a product holder (P) received by it can be moved along the conveying path into a processing position (X B ), which is defined within settable tolerances at least with respect to its X and Y position, e) wherein first movable alignment means (A T ) are provided in order to align the carrier (T) entering the processing position (X B ) in the X and/or Y direction relative to the conveying element (M) or a fixed component of the conveyor, and thereby to transfer it into a presettable target carrier position, characterized in that f) second alignment means (A P ) are provided for aligning the product holder (P) relatively to the carrier (T) into a presettable target product holder position, which is defined at least with respect to its X and Y position. a) comprising at least one carrier (T), which is allocated to at least one product and is formed to receive a product holder (P), b) further comprising at least one conveying element (M), to which the carrier (T) can be coupled and which can be moved along a conveying path, c) wherein the conveyor extends in a horizontal conveying direction (X), a likewise horizontal transverse direction (Y) at right angles thereto and a vertical direction (Z) running perpendicular to both directions (X, Y), and d) wherein the carrier (T) and a product holder (P) received by it can be moved along the conveying path into a processing position (X B ), which is defined within settable tolerances at least with respect to its X and Y position, e) wherein first movable alignment means (A T ) are provided in order to align the carrier (T) entering the processing position (X B ) in the X and/or Y direction relative to the conveying element (M) or a fixed component of the conveyor, and thereby to transfer it into a presettable target carrier position, characterized in that f) second alignment means (A P ) are provided for aligning the product holder (P) relatively to the carrier (T) into a presettable target product holder position, which is defined at least with respect to its X and Y position.
A pumping system comprising: a solar panel performing a photovoltaic conversion based on an insolation level including a first insolation level and a second insolation level; a fuel reservoir containing a fuel in a liquid state; a first electric motor ; a first pump rotatable by the first electric motor to pump the fuel; a first motor drive converting electrical energy supplied by the solar panel to drive the first electric motor; a second pump fluidly coupled to the fuel reservoir; a second electric motor; a second motor drive powered by a non-renewable source and operable to drive the second electric motor to pump the fuel; and control logic configured to detect a low performance level of the pumping system and, responsive to the detection of the low performance level, cause the second motor drive to drive the second motor. a solar panel performing a photovoltaic conversion based on an insolation level including a first insolation level and a second insolation level; a fuel reservoir containing a fuel in a liquid state; a first electric motor ; a first pump rotatable by the first electric motor to pump the fuel; a first motor drive converting electrical energy supplied by the solar panel to drive the first electric motor; a second pump fluidly coupled to the fuel reservoir; a second electric motor; a second motor drive powered by a non-renewable source and operable to drive the second electric motor to pump the fuel; and control logic configured to detect a low performance level of the pumping system and, responsive to the detection of the low performance level, cause the second motor drive to drive the second motor.