mhurhangee/patent-ind-claim-en huggingface dataset:
A vapor delivery system , comprising: a RF generator console configured to provide RF power to a heating element of the vapor delivery device; a syringe inserted into the RF generator console , the syringe comprising a syringe handle and a plunger , characterized in that the syringe further comprises a handle magnet disposed on the syringe handle , and a plunger magnet disposed in the plunger ; a source of fluid coupled to the syringe ; and a generator magnet disposed in the RF generator and configured to align with the plunger magnet to advance and retract the plunger magnet ; wherein the RF generator console is configured to automatically refill the syringe with fluid from the source of fluid by advancing and retracting the generator magnet. a RF generator console configured to provide RF power to a heating element of the vapor delivery device; a syringe inserted into the RF generator console , the syringe comprising a syringe handle and a plunger , characterized in that the syringe further comprises a handle magnet disposed on the syringe handle , and a plunger magnet disposed in the plunger ; a source of fluid coupled to the syringe ; and a generator magnet disposed in the RF generator and configured to align with the plunger magnet to advance and retract the plunger magnet ; wherein the RF generator console is configured to automatically refill the syringe with fluid from the source of fluid by advancing and retracting the generator magnet.
A site light comprising: a body ; an arm coupled to the body and adjustable between an extended position, where the arm has a first arm length, and a retracted position, where the arm has a second arm length shorter than the first arm length; a power system ; a light assembly coupled to the arm and movable with respect to the body ; a cable extending between and in electrical communication with the light assembly and the power system , and wherein the cable is in operable communication with the arm and moves the arm between the extended configuration and the retracted configuration; and a drive assembly configured to drive the cable , the drive assembly including: a drive wheel mounted for rotation with respect to the body , characterized in that the drive assembly further includes: an idle wheel mounted for rotation with respect to the body , and a biasing member configured to bias the idle wheel toward the drive wheel to provide a clamping force against the cable . a body ; an arm coupled to the body and adjustable between an extended position, where the arm has a first arm length, and a retracted position, where the arm has a second arm length shorter than the first arm length; a power system ; a light assembly coupled to the arm and movable with respect to the body ; a cable extending between and in electrical communication with the light assembly and the power system , and wherein the cable is in operable communication with the arm and moves the arm between the extended configuration and the retracted configuration; and a drive assembly configured to drive the cable , the drive assembly including: a drive wheel mounted for rotation with respect to the body , characterized in that the drive assembly further includes: an idle wheel mounted for rotation with respect to the body , and a biasing member configured to bias the idle wheel toward the drive wheel to provide a clamping force against the cable . an idle wheel mounted for rotation with respect to the body , and a biasing member configured to bias the idle wheel toward the drive wheel to provide a clamping force against the cable .
A heating cooker comprising: a heating chamber that houses an object to be heated; a heating unit that heats the object to be heated disposed in the heating chamber ; an imaging unit that captures an image of an inside of the heating chamber ; a heating control information recognizing unit that recognizes heating control information of the object to be heated from the image captured by the imaging unit ; a heating controller that controls the heating unit based on the heating control information recognized by the heating control information recognizing unit ; characterized by a disposing position guide unit that determines a direction of guiding to guide a disposing position of the object to be heated to a capturing range of the imaging unit ; and an operation display unit configured to display the direction of guiding determined by the disposing position guide unit , wherein the disposing position guide unit determines the direction of guiding based on the image captured by the imaging unit . a heating chamber that houses an object to be heated; a heating unit that heats the object to be heated disposed in the heating chamber ; an imaging unit that captures an image of an inside of the heating chamber ; a heating control information recognizing unit that recognizes heating control information of the object to be heated from the image captured by the imaging unit ; a heating controller that controls the heating unit based on the heating control information recognized by the heating control information recognizing unit ; characterized by a disposing position guide unit that determines a direction of guiding to guide a disposing position of the object to be heated to a capturing range of the imaging unit ; and an operation display unit configured to display the direction of guiding determined by the disposing position guide unit , wherein the disposing position guide unit determines the direction of guiding based on the image captured by the imaging unit .
A liquid jet head comprising: a piezoelectric substrate having a plurality of groove rows in each of which elongated ejection grooves and elongated non-ejection grooves are alternately arranged in a reference direction (K), wherein the ejection grooves penetrate the substrate from an upper surface (US) through a lower surface (LS) of the substrate and the non-ejection grooves are opened in the lower surface (LS) of the substrate , wherein a thickness direction (T) of the piezoelectric substrate is defined as a vertical direction in which the upper and lower surfaces (US, LS) of the substrate are separated, wherein a groove direction in which the ejection grooves and the non-ejection grooves are elongated is perpendicular to the reference direction (K), and wherein the groove direction and the reference direction (K) are both perpendicular to the thickness direction (T), wherein, in adjacent ones of the groove rows, ends on a second side of ejection grooves included in a groove row located on a first side and ends on the first side of non-ejection grooves included in a groove row located on the second side are separated from each other and overlap each other in the thickness direction (T) of the piezoelectric substrate. a piezoelectric substrate having a plurality of groove rows in each of which elongated ejection grooves and elongated non-ejection grooves are alternately arranged in a reference direction (K), wherein the ejection grooves penetrate the substrate from an upper surface (US) through a lower surface (LS) of the substrate and the non-ejection grooves are opened in the lower surface (LS) of the substrate , wherein a thickness direction (T) of the piezoelectric substrate is defined as a vertical direction in which the upper and lower surfaces (US, LS) of the substrate are separated, wherein a groove direction in which the ejection grooves and the non-ejection grooves are elongated is perpendicular to the reference direction (K), and wherein the groove direction and the reference direction (K) are both perpendicular to the thickness direction (T), wherein, in adjacent ones of the groove rows, ends on a second side of ejection grooves included in a groove row located on a first side and ends on the first side of non-ejection grooves included in a groove row located on the second side are separated from each other and overlap each other in the thickness direction (T) of the piezoelectric substrate.
A method for calculating X^Y comprising: (i) calculating, by an electronic device, a first transcendental function taking as an input a function of X, the first transcendental function outputting M1H, M1L and M2, wherein M2 has a first precision and M1H and M1L combined have a second precision greater than the first precision; (ii) calculating, by a two element dot product (DP2) circuit of the electronic device, KH and KL according to a product of M1H and M2 and a product of M1L and M2; (iii) calculating, by the electronic device, a product of (a) a function of Y and (b) both KH and KL to obtain a high significance output TH and low significance output TL; (iv) calculating, by the electronic device, a second transcendental function according to a function of TH and TL to obtain an output that is an estimation of X^Y. (i) calculating, by an electronic device, a first transcendental function taking as an input a function of X, the first transcendental function outputting M1H, M1L and M2, wherein M2 has a first precision and M1H and M1L combined have a second precision greater than the first precision; (ii) calculating, by a two element dot product (DP2) circuit of the electronic device, KH and KL according to a product of M1H and M2 and a product of M1L and M2; (iii) calculating, by the electronic device, a product of (a) a function of Y and (b) both KH and KL to obtain a high significance output TH and low significance output TL; (iv) calculating, by the electronic device, a second transcendental function according to a function of TH and TL to obtain an output that is an estimation of X^Y.
Method of producing a component (B; B1, B2) from sheet metal, in which a sheet metal blank is formed by forming into a component (B; B1, B2) having flanges (F1, F2), and in which a calibration process is carried out to achieve a predetermined dimensional accuracy of the flanges (F1, F2), comprising the process steps: detecting an actual position of the flanges (F1, F2) after a forming process has been carried out, comparing data of the detected actual position with data of a nominal position of the flanges (F1, F2) of the component (B; B1, B2) to be produced, calculating a deviation of the actual position from the nominal position of the flanges (F1, F2), and automatically controlling at least one calibrating tool as a function of the calculated deviation in order to calibrate the flanges (F1, F2) of the component (B; B1, B2) and thereby bring them into the predetermined dimensional accuracy, characterized in that as calibrating tool a calibrating tool is used which has one or more height-adjustable devices for setting a driver stroke and/or a slider stroke. detecting an actual position of the flanges (F1, F2) after a forming process has been carried out, comparing data of the detected actual position with data of a nominal position of the flanges (F1, F2) of the component (B; B1, B2) to be produced, calculating a deviation of the actual position from the nominal position of the flanges (F1, F2), and automatically controlling at least one calibrating tool as a function of the calculated deviation in order to calibrate the flanges (F1, F2) of the component (B; B1, B2) and thereby bring them into the predetermined dimensional accuracy, characterized in that as calibrating tool a calibrating tool is used which has one or more height-adjustable devices for setting a driver stroke and/or a slider stroke.
A stamp structure for transferring an object of semiconductor ribbon, comprising: a stamp frame , having a plate part, the plate part including a plurality of holes (H), the plurality of holes configured to facilitate the adsorption of the object to the plate part during a transfer of the object from a donor substrate to a target substrate; wherein the stamp frame includes a rigid material, and wherein the stamp structure further comprises a membrane on one side of the plate part, the one side being configured to be opposite to a side facing the object during the transfer of the object, the membrane including a material more flexible than the rigid material, and the membrane being arranged to cover the plurality of holes. a stamp frame , having a plate part, the plate part including a plurality of holes (H), the plurality of holes configured to facilitate the adsorption of the object to the plate part during a transfer of the object from a donor substrate to a target substrate; wherein the stamp frame includes a rigid material, and wherein the stamp structure further comprises a membrane on one side of the plate part, the one side being configured to be opposite to a side facing the object during the transfer of the object, the membrane including a material more flexible than the rigid material, and the membrane being arranged to cover the plurality of holes.
A plastic wrought magnesium alloy, wherein the alloy is a Mg-Al-Bi-Sn-Ca-Y alloy, prepared from the following components in percentage by mass: 3 to 6.0 percent of Al, 1 to 3.0 percent of Bi, 0.5 to 2.0 percent of Sn, 0.02 to 0.05 percent of Ca, 0.02 to 0.05 percent of Y and the balance of Mg; and the percentage sum of Ca and Y elements is more than 0.05 percent and less than 0.1 percent.
A process for the production of synthetic gas by partial combustion of a carbonaceous feed in a gasification reactor at a pressure of between 25 to 60 barg, wherein a mixture of oxygen and the carbonaceous feed is fed to the gasification reactor via one or more burners , while oil is atomized into the reactor via one or more oil lances , each comprising an atomizing nozzle , characterized in that the atomizing nozzle comprises a coaxial arrangement of an oil channel and at least one adjacent steam channel , and the carbonaceous feed comprises a mixture of pulverized coal and biomass, wherein the biomass is present in an amount of up to 30% by weight of the pulverized coal.
A control device for a rotary air compressor of an air system of a vehicle , wherein the rotary air compressor is arranged to be driven by an electric motor , ch a r act e r i zed in that the control device comprises a control unit configured to: - determine a duty cycle of the rotary air compressor , wherein the duty cycle is indicative of a total time the rotary air compressor is active during a vehicle running time period of the vehicle , divided by the vehicle running time period; - determine speed control data of the rotary air compressor based on the determined duty cycle according to a predetermined rule, wherein the predetermined rule comprises a lower limit for the duty cycle, and the control unit is configured to determine whether the duty cycle is less than the limit, and upon determining that the duty cycle is less than the limit, the control unit is configured to determine speed control data indicating a speed of the rotary air compressor that is lower than a preset regular operating speed of the rotary air compressor ; and - control the speed of the rotary air compressor based on the determined speed control data. - determine a duty cycle of the rotary air compressor , wherein the duty cycle is indicative of a total time the rotary air compressor is active during a vehicle running time period of the vehicle , divided by the vehicle running time period; - determine speed control data of the rotary air compressor based on the determined duty cycle according to a predetermined rule, wherein the predetermined rule comprises a lower limit for the duty cycle, and the control unit is configured to determine whether the duty cycle is less than the limit, and upon determining that the duty cycle is less than the limit, the control unit is configured to determine speed control data indicating a speed of the rotary air compressor that is lower than a preset regular operating speed of the rotary air compressor ; and - control the speed of the rotary air compressor based on the determined speed control data.
A method of examining an object using electric fields, comprising the steps of: energizing a first active electrode during a coupling operation; monitoring a second active electrode during said coupling operation, in response to electric fields that penetrate said object when said object is placed on top of said active electrodes; characterised by : selecting an electrical attribute for each of a plurality of cooperating electrodes , wherein: said cooperating electrodes are displaced from and beneath said active electrodes; said electrical attributes are selected from a list including grounding, floating and energising; and at least two of said cooperating electrodes have different electrical attributes applied. energizing a first active electrode during a coupling operation; monitoring a second active electrode during said coupling operation, in response to electric fields that penetrate said object when said object is placed on top of said active electrodes; characterised by : selecting an electrical attribute for each of a plurality of cooperating electrodes , wherein: said cooperating electrodes are displaced from and beneath said active electrodes; said electrical attributes are selected from a list including grounding, floating and energising; and at least two of said cooperating electrodes have different electrical attributes applied.
A method for assessing health of a mechanical system , the method comprising: receiving discontinuous system data from one or more first sources that is obtained intermittently and is associated with health of the system ; and receiving continuous system data from one or more second sources that is obtained continuously and is associated with the health of the system; characterized in further comprising generating a single discontinuous health index that is based on the discontinuous system data; generating a single continuous health index that is based on the continuous system data, wherein the discontinuous health index and the continuous health index are configured to be combinable; combining the discontinuous health index and the continuous health index, including combining one or more discontinuous health indexes generated over time and one or more continuous health indexes generated over time; generating an overall health index based on the combination of the discontinuous health index and the continuous health index; and automatically taking one or more actions to maintain or improve health of the mechanical system and/or avoid risk based on the overall health index. receiving discontinuous system data from one or more first sources that is obtained intermittently and is associated with health of the system ; and receiving continuous system data from one or more second sources that is obtained continuously and is associated with the health of the system; generating a single discontinuous health index that is based on the discontinuous system data; generating a single continuous health index that is based on the continuous system data, wherein the discontinuous health index and the continuous health index are configured to be combinable; combining the discontinuous health index and the continuous health index, including combining one or more discontinuous health indexes generated over time and one or more continuous health indexes generated over time; generating an overall health index based on the combination of the discontinuous health index and the continuous health index; and automatically taking one or more actions to maintain or improve health of the mechanical system and/or avoid risk based on the overall health index.
A frame and connection base assembly for flush mounting mechanisms, wherein the frame comprises at least one opening for the introduction and the fitting of the connection base , the opening being delimited by a perimeter of the frame for guiding and fitting the connection base , in which the connection base comprises a connection body , a first configuration being defined in which the frame and the connection base are uncoupled and a second configuration in which the frame and the connection base are coupled, such that in the second configuration the connection body is introduced in the opening , the outline of the connection body at one of its ends being in contact with the guiding and fitting perimeter , the rest of the connection body protruding by its other end from the other side of the frame , and in which the connection body has two portions, a first portion that in the second configuration is fastened to the guiding and fitting perimeter by one of its ends and a second portion joined to the first portion , both first and second portions being of different sections such that in the transition between both of them bearing surfaces (S2) are defined, characterized in that in a third configuration these bearing surfaces (S2) rest on the edge of the frame adjacent to the guiding and fitting perimeter , the outline of the second portion in the section change between the first and second portions being inscribed in a first circle that is internally tangent to the guiding and fitting perimeter , such that in the third configuration the connection base can rotate with respect to the frame according to a rotation that has the direction normal to the plane of the frame .
A composition comprising: an air free solution of hypochlorous acid (HOCI) and acetic acid (HAc) in water; and an excipient comprising a thickening agent. an air free solution of hypochlorous acid (HOCI) and acetic acid (HAc) in water; and an excipient comprising a thickening agent.
An urban rail transit vehicle, comprising a vehicle body , a plurality of driving rubber wheels and guiding steel wheels mounted on a bottom of the vehicle body ; wherein, the plurality of driving rubber wheels are arranged along the length of the vehicle body , the plurality of guiding steel wheels are arranged along the length of the vehicle body ; a first driving device is provided on the vehicle body for driving the guiding steel wheels to move up and down along a height of the vehicle body ; the front and the back of the vehicle body are further provided with an auxiliary rubber wheel for supporting the vehicle body in an auxiliary manner; characterised in that the vehicle body is provided with a second driving device for driving the auxiliary rubber wheels to move up and down.