mhurhangee/patent-ind-claim-en huggingface dataset:
A method for microresistivity logging at multiple depths of investigation, the method comprising: (a) deploying a microresistivity logging tool in a borehole , the logging tool including (i) a guard electrode , (ii) a measuring electrode deployed in and electrically isolated from the guard electrode , (iii) a return electrode spaced apart the guard electrode , and (iv) a dual function electrode interposed between the guard electrode and the return electrode wherein the dual function electrode is capable of functioning as a guard electrode and/or a return electrode; characterised in that the method further comprises: (b) causing an electrical current to be injected into a subterranean formation at the guard electrode simultaneously at first and second frequencies; (c) causing an electrical potential (V2) of the dual function electrode to be set to a first potential that is equal to or greater than the potential (V3) of the return electrode and equal to or less than the potential (V1) of the guard electrode at the first frequency and to a second potential that is equal to or greater than the potential (V3) of the return electrode and equal to or less than the potential (V1) of the guard electrode at the second frequency, wherein the first potential is lower than the second potential; (d) causing electrical currents to be measured at the measuring electrode at each of the first and second frequencies; and (e) computing first and second quantities at least partially related to the formation resistivity from the electrical currents measured in (d) at the first and second frequencies. (a) deploying a microresistivity logging tool in a borehole , the logging tool including (i) a guard electrode , (ii) a measuring electrode deployed in and electrically isolated from the guard electrode , (iii) a return electrode spaced apart the guard electrode , and (iv) a dual function electrode interposed between the guard electrode and the return electrode wherein the dual function electrode is capable of functioning as a guard electrode and/or a return electrode; characterised in that the method further comprises: (b) causing an electrical current to be injected into a subterranean formation at the guard electrode simultaneously at first and second frequencies; (c) causing an electrical potential (V2) of the dual function electrode to be set to a first potential that is equal to or greater than the potential (V3) of the return electrode and equal to or less than the potential (V1) of the guard electrode at the first frequency and to a second potential that is equal to or greater than the potential (V3) of the return electrode and equal to or less than the potential (V1) of the guard electrode at the second frequency, wherein the first potential is lower than the second potential; (d) causing electrical currents to be measured at the measuring electrode at each of the first and second frequencies; and (e) computing first and second quantities at least partially related to the formation resistivity from the electrical currents measured in (d) at the first and second frequencies.
A vaporizer cartridge for use with a vaporizer device having a heating element , the cartridge comprising: a vaporizable material insert comprising an elongated body, the elongated body comprising a hollow core defined by sidewalls and a first end, wherein at least a portion of vaporizable material present within the vaporizable material insert surrounds at least the first end of the hollow core ; and a seal configured to force heated air in the cartridge to pass through vaporizable material present within the vaporizable material insert and into the hollow core , wherein the heated air is generated in the cartridge . a vaporizable material insert comprising an elongated body, the elongated body comprising a hollow core defined by sidewalls and a first end, wherein at least a portion of vaporizable material present within the vaporizable material insert surrounds at least the first end of the hollow core ; and a seal configured to force heated air in the cartridge to pass through vaporizable material present within the vaporizable material insert and into the hollow core , wherein the heated air is generated in the cartridge .
An electric working machine comprising a motor , a controller configured to control driving of the motor , a first setter configured to be operated for sequentially changing control methods preliminarily registered and setting, as a control method for the motor , which is usable by the controller , one of the control methods, and a second setter configured to be operated for setting, as a control method for the motor , which is usable by the controller , at least one of the control methods settable via the first setter , characterized in that the controller is configured to register, in response to a specified operation of the user to the electric working machine , a control method that is selected from the control methods settable via the first setter , wherein the second setter is operated by the user so as to change and set to the control method registered by the specified operation of the user, and wherein the controller is configured to, in response to an operation of the second setter , select, as a use control method used for controlling the motor , one of the control methods registered as the control method settable via the second setter . a motor , a controller configured to control driving of the motor , a first setter configured to be operated for sequentially changing control methods preliminarily registered and setting, as a control method for the motor , which is usable by the controller , one of the control methods, and a second setter configured to be operated for setting, as a control method for the motor , which is usable by the controller , at least one of the control methods settable via the first setter , characterized in that the controller is configured to register, in response to a specified operation of the user to the electric working machine , a control method that is selected from the control methods settable via the first setter , wherein the second setter is operated by the user so as to change and set to the control method registered by the specified operation of the user, and wherein the controller is configured to, in response to an operation of the second setter , select, as a use control method used for controlling the motor , one of the control methods registered as the control method settable via the second setter .
A compressor , comprising: a housing ; a shaft configured to be rotated relative to the housing to compress a fluid; a mesh foil bearing for supporting the shaft while rotating, the mesh foil bearing including a pad , the pad including a top foil and a wire mesh dampener , characterised in that the mesh foil bearing includes an actuator configured to be actuated with compressed gas to compress the wire mesh dampener. a housing ; a shaft configured to be rotated relative to the housing to compress a fluid; a mesh foil bearing for supporting the shaft while rotating, the mesh foil bearing including a pad , the pad including a top foil and a wire mesh dampener , characterised in that the mesh foil bearing includes an actuator configured to be actuated with compressed gas to compress the wire mesh dampener.
A water soluble dry powder formulation useful for forming an aqueous enteric coating solution comprising an alginate and a film formation polymer, wherein: the ratio of alginate to film formation polymer is 10:1 to 1:3 by weight, the alginate is water soluble at 10% solids and has a G content of 20% to 40% and a viscosity of 3-20 mPa·s (cps) at 1% solids (measured at 20°C+/- 2°C using a Brookfield viscometer spindle #62), the film formation polymer is water soluble at 10% solids, and whereby when the aqueous enteric coating solution comprising the water soluble dry powder formulation is applied on an oral dosage form containing an active ingredient, the active ingredient is not released into a medium of 0.1 N HCl at about 37°C for up to one hour, and thereafter about 90% or more of the active ingredient is released within two hours in a phosphate buffer medium having pH 7.2 at about 37°C. the ratio of alginate to film formation polymer is 10:1 to 1:3 by weight, the alginate is water soluble at 10% solids and has a G content of 20% to 40% and a viscosity of 3-20 mPa·s (cps) at 1% solids (measured at 20°C+/- 2°C using a Brookfield viscometer spindle #62), the film formation polymer is water soluble at 10% solids, and whereby when the aqueous enteric coating solution comprising the water soluble dry powder formulation is applied on an oral dosage form containing an active ingredient, the active ingredient is not released into a medium of 0.1 N HCl at about 37°C for up to one hour, and thereafter about 90% or more of the active ingredient is released within two hours in a phosphate buffer medium having pH 7.2 at about 37°C. whereby when the aqueous enteric coating solution comprising the water soluble dry powder formulation is applied on an oral dosage form containing an active ingredient, the active ingredient is not released into a medium of 0.1 N HCl at about 37°C for up to one hour, and thereafter about 90% or more of the active ingredient is released within two hours in a phosphate buffer medium having pH 7.2 at about 37°C.
A rubber index calculating method of a tire comprising a tire frictional energy measurement step in which a tire frictional energy of a tire under plural tire input conditions which are provided to the tire is measured by a frictional energy measurement device which performs measurement based on the shearing force and the slippage of a tire contact patch, a contact pressure measurement step in which a contact pressure at a site related to the evaluation of rubber wear of the contact patch portion of the tire is measured, whereas the site related to the evaluation of rubber wear is a tire center portion of the tire, or a tire shoulder portion of the tire, a pressing load setting step in which setting is performed such that the contact pressure is applied to a sample as a pressing load, a setting step in which sample frictional energy of a sample of the same material as that of the tire is determined under sample input conditions set based on the tire frictional energy under each of the measured tire input conditions in a state in which the pressing load is applied to the sample , and a measurement condition for measuring sample wear amount of the sample is set based on the tire frictional energy under each of the measured tire input conditions and the sample frictional energy determined under each of the sample input conditions, a sample wear amount measurement step in which the sample wear amount of the sample is measured by a wear amount measurement device under the set measurement condition and a rubber index calculation step in which the rubber index of the tire is calculated based on the measured sample frictional energy and the sample wear amount.
A heater for an image forming apparatus comprising: a substrate ; a heating element , provided on a first surface of the substrate and extending in a longitudinal direction of the substrate ; a protection part , provided on the first surface , extending in the longitudinal direction of the substrate , and covering the heating element ; and at least one relaxation part , provided on a second surface of the substrate facing the first surface , wherein a coefficient of thermal expansion of the protection part and a coefficient of thermal expansion of the at least one relaxation part are different from a coefficient of thermal expansion of the substrate ; a material of the at least one relaxation part is the same as a material of the protection part , or a main component of the material of the at least one relaxation part is the same as a main component of the material of the protection part , characterized in that a plurality of the at least one relaxation part are provided; and a distance (L) between each of the plurality of the at least one relaxation part is 7 mm or less. a substrate ; a heating element , provided on a first surface of the substrate and extending in a longitudinal direction of the substrate ; a protection part , provided on the first surface , extending in the longitudinal direction of the substrate , and covering the heating element ; and at least one relaxation part , provided on a second surface of the substrate facing the first surface , wherein a coefficient of thermal expansion of the protection part and a coefficient of thermal expansion of the at least one relaxation part are different from a coefficient of thermal expansion of the substrate ; a material of the at least one relaxation part is the same as a material of the protection part , or a main component of the material of the at least one relaxation part is the same as a main component of the material of the protection part , characterized in that a plurality of the at least one relaxation part are provided; and a distance (L) between each of the plurality of the at least one relaxation part is 7 mm or less.
A composition comprising lithium ascorbate for use in alleviating and treating stress, anxiety or depression in a subject.
A method for displaying multiple screens of an application on a display of an electronic device, the method comprising: detecting a first input for executing the application; displaying , in response to the detecting the first input for executing the application, a master screen of the application within a region of the display of the electronic device and at least one slave screen of the application within another region of the display, wherein the master screen of the application is an initial screen which is displayed in the application execution and the slave screen is a screen subordinate to the master screen; updating , in response to detecting an event on the application , at least one of the master screen and the at least one slave screen, wherein the master screen provides at least one icon respectively indicating at least one function of the application and a view for the function associated with the icon among the at least one icon, wherein the at least one slave screen provides at least another icon respectively indicating at least another function of the application and another view for the another function associated with the other icon among the at least one icon, and characterized in that the method further comprises: detecting an input on a slave screen among the at least one slave screen for switching the master screen with the slave screen; identifying the slave screen of the selected screen, defining the screen selected by the input as a new master screen and identifying a new slave screen corresponding to the new master screen; and displaying the new master screen and its new slave screen. detecting an input on a slave screen among the at least one slave screen for switching the master screen with the slave screen; identifying the slave screen of the selected screen, defining the screen selected by the input as a new master screen and identifying a new slave screen corresponding to the new master screen; and displaying the new master screen and its new slave screen.
Use of a gas comprising a hydrogen molecule in an amount of 1% (v/v) or higher in improving reduced sperm-motility in vitro.
A Rogowski coil comprising: a thermally stable core including an encircling core body ; and a winding including a conductive wire ; wherein the winding is disposed in a generally helical coil about the core body ; wherein the core body : is thermally stable, has an isotropic coefficient of linear thermal expansion, CLTE, of less than one of 15 ppm/°C, 12 ppm/°C, 10 ppm/°C, or 8 ppm/°C, wherein the Rogowski coil is characterised in that the core body is made of a thermally stable CLTE ceramic, wherein the ceramic is Steatite L-5. a thermally stable core including an encircling core body ; and a winding including a conductive wire ; wherein the winding is disposed in a generally helical coil about the core body ; wherein the core body : is thermally stable, has an isotropic coefficient of linear thermal expansion, CLTE, of less than one of 15 ppm/°C, 12 ppm/°C, 10 ppm/°C, or 8 ppm/°C, wherein the Rogowski coil is characterised in that the core body is made of a thermally stable CLTE ceramic, wherein the ceramic is Steatite L-5. is thermally stable, has an isotropic coefficient of linear thermal expansion, CLTE, of less than one of 15 ppm/°C, 12 ppm/°C, 10 ppm/°C, or 8 ppm/°C, wherein the Rogowski coil is characterised in that the core body is made of a thermally stable CLTE ceramic, wherein the ceramic is Steatite L-5.
A battery management apparatus , comprising: a voltage measuring unit configured to measure a voltage of a battery cell and measure an open circuit voltage (OCV) of the battery cell whenever the measured voltage reaches a reference discharge voltage; and a control unit configured to receive the OCV measured by the voltage measuring unit , compare the received OCV with a pre-stored reference voltage to calculate a voltage fluctuation rate, characterized in that the control unit is further configured to determine a voltage increase and decrease pattern based on the calculated voltage fluctuation rate and pre-stored voltage fluctuation rate data, determine a first degradation acceleration degree of the battery cell according to the determined voltage increase and decrease pattern, and change a preset control condition based on the received OCV and the first degradation acceleration degree. a voltage measuring unit configured to measure a voltage of a battery cell and measure an open circuit voltage (OCV) of the battery cell whenever the measured voltage reaches a reference discharge voltage; and a control unit configured to receive the OCV measured by the voltage measuring unit , compare the received OCV with a pre-stored reference voltage to calculate a voltage fluctuation rate, characterized in that the control unit is further configured to determine a voltage increase and decrease pattern based on the calculated voltage fluctuation rate and pre-stored voltage fluctuation rate data, determine a first degradation acceleration degree of the battery cell according to the determined voltage increase and decrease pattern, and change a preset control condition based on the received OCV and the first degradation acceleration degree.
A vehicle driving control apparatus for controlling driving of a vehicle based on information received from a plurality of sensors , the vehicle driving control apparatus characterized by comprising: at least one processor configured to determine a driving route to comprise a predetermined area of road, upon determining that calibration of a first sensor is required; and a memory configured to store values measured by the plurality of sensors while the vehicle is being driven along the driving route, wherein the at least one processor is further configured to calibrate the first sensor based on the stored measured values and information about the predetermined area of road. at least one processor configured to determine a driving route to comprise a predetermined area of road, upon determining that calibration of a first sensor is required; and a memory configured to store values measured by the plurality of sensors while the vehicle is being driven along the driving route, wherein the at least one processor is further configured to calibrate the first sensor based on the stored measured values and information about the predetermined area of road.
A vacuum tool comprising: a plurality of vacuum distributors , each vacuum distributor of the plurality of vacuum distributors coupled to at least one other vacuum distributor of the plurality of vacuum distributors, and at least one reinforcement portion extending from at least one vacuum distributor to at least another vacuum distributor ; a plurality of discrete vacuum distribution cavities , wherein each vacuum distributor of the plurality of vacuum distributors forms, at least in part, an associated vacuum distribution cavity of the plurality of vacuum distribution cavities; and a vacuum plate having a plurality of apertures, the vacuum plate coupled to the plurality of vacuum distributors, wherein the vacuum plate and the plurality of vacuum distributors enclose the plurality of vacuum distribution cavities , wherein a first vacuum distributor and a second vacuum distributor of the plurality of vacuum distributors are independently capable of maintaining a vacuum force. a plurality of vacuum distributors , each vacuum distributor of the plurality of vacuum distributors coupled to at least one other vacuum distributor of the plurality of vacuum distributors, and at least one reinforcement portion extending from at least one vacuum distributor to at least another vacuum distributor ; a plurality of discrete vacuum distribution cavities , wherein each vacuum distributor of the plurality of vacuum distributors forms, at least in part, an associated vacuum distribution cavity of the plurality of vacuum distribution cavities; and a vacuum plate having a plurality of apertures, the vacuum plate coupled to the plurality of vacuum distributors, wherein the vacuum plate and the plurality of vacuum distributors enclose the plurality of vacuum distribution cavities , wherein a first vacuum distributor and a second vacuum distributor of the plurality of vacuum distributors are independently capable of maintaining a vacuum force.
Holding stand for a multicoupling for filling and/or emptying a chemical plant container, having a mounting device for the substantially stationary fastening of the holding stand and at least one compensating device , couplable indirectly or directly to the multicoupling , for varying a position of the multicoupling in relation to the mounting device in the vertical direction and/or in the horizontal direction and/or for varying an angular attitude of the multicoupling in relation to the mounting device about a vertical and/or horizontal axis of rotation, wherein the at least one compensating device , couplable indirectly or directly to the multicoupling , is an oblique compensating device for pivoting the multicoupling about an oblique axis, running in particular substantially vertically and running transversely to a designated, in particular substantially horizontal contact direction for connecting a male coupling to a female coupling, characterized in that a first holding arm for the pivotable mounting of the multicoupling and a second holding arm for the pivotable mounting of the multicoupling for the purpose of forming a tilt compensating device are provided, the multicoupling being mountable by means of the first holding arm via a first long hole and by means of the second holding arm via a second long hole to form the oblique compensating device.