mhurhangee/patent-ind-claim-en huggingface dataset:
A method of creating a horizontal wellbore section , the method comprising: drilling a first horizontal bore section with a bore wall having a first bore diameter; lining the first horizontal bore section with a first liner having a wall and a first liner diameter, the wall of the first liner comprising initially-closed flow ports; isolating the wall of the first bore section with the first liner by isolating a first annulus between the wall of the first bore section and the first liner , to minimise the pressure differential during drilling a second horizontal bore section , ;wherein isolation of the wall of the first bore section by provision of the first liner is achieved without cementing; subsequently drilling the second horizontal bore section beyond the first horizontal bore section which includes the first liner therein, the second horizontal bore section having a bore wall with a second bore diameter, wherein the first liner diameter is greater than the second bore diameter; lining the second horizontal bore section with a second liner , the second liner being installed separately from the first liner by the second liner being deployed through the first liner ; directing stimulation fluid into the first and second liners so that the stimulation fluid passes through the wall of the second liner to stimulate the second horizontal bore section ; and opening flow ports in the wall of the first liner so that the stimulation fluid passes through the wall of the first liner and through the first annulus to stimulate the first horizontal bore section . drilling a first horizontal bore section with a bore wall having a first bore diameter; lining the first horizontal bore section with a first liner having a wall and a first liner diameter, the wall of the first liner comprising initially-closed flow ports; isolating the wall of the first bore section with the first liner by isolating a first annulus between the wall of the first bore section and the first liner , to minimise the pressure differential during drilling a second horizontal bore section , ;wherein isolation of the wall of the first bore section by provision of the first liner is achieved without cementing; subsequently drilling the second horizontal bore section beyond the first horizontal bore section which includes the first liner therein, the second horizontal bore section having a bore wall with a second bore diameter, wherein the first liner diameter is greater than the second bore diameter; lining the second horizontal bore section with a second liner , the second liner being installed separately from the first liner by the second liner being deployed through the first liner ; directing stimulation fluid into the first and second liners so that the stimulation fluid passes through the wall of the second liner to stimulate the second horizontal bore section ; and opening flow ports in the wall of the first liner so that the stimulation fluid passes through the wall of the first liner and through the first annulus to stimulate the first horizontal bore section .
A compound of Formula 1: wherein: R1 is H or -CH 3 ; R is selected from: and G is selected from: or a pharmaceutically acceptable salt thereof. R1 is H or -CH 3 ; R is selected from: and G is selected from:
A power circuit comprising: an input configured to be coupled to an AC source and to receive input AC power from the AC source, the input AC power having an input AC voltage level; an auxiliary charger coupled to the input, the auxiliary charger configured to convert the input AC power from the input into DC power; a differential amplifier coupled to the auxiliary charger and the input, characterised in that the differential amplifier configured to be powered by the DC power from the auxiliary charger, to monitor the input AC voltage level, and to generate a sense signal based on a status of the input AC voltage level; and a processor , having at least a low power mode of operation and a normal mode of operation, coupled to the auxiliary charger and the differential amplifier , the processor configured to be coupled to a Logic Power Supply, LPS, to be powered into the low power mode of operation by the DC power from the auxiliary charger, and to analyze the sense signal from the differential amplifier in the low power mode of operation, to turn on the LPS in response to a determination that the input AC voltage level is above a threshold level, and to be powered into the normal mode of operation by DC power from the LPS, after the end of the low power mode. an input configured to be coupled to an AC source and to receive input AC power from the AC source, the input AC power having an input AC voltage level; an auxiliary charger coupled to the input, the auxiliary charger configured to convert the input AC power from the input into DC power; a differential amplifier coupled to the auxiliary charger and the input, characterised in that the differential amplifier configured to be powered by the DC power from the auxiliary charger, to monitor the input AC voltage level, and to generate a sense signal based on a status of the input AC voltage level; and a processor , having at least a low power mode of operation and a normal mode of operation, coupled to the auxiliary charger and the differential amplifier , the processor configured to be coupled to a Logic Power Supply, LPS, to be powered into the low power mode of operation by the DC power from the auxiliary charger, and to analyze the sense signal from the differential amplifier in the low power mode of operation, to turn on the LPS in response to a determination that the input AC voltage level is above a threshold level, and to be powered into the normal mode of operation by DC power from the LPS, after the end of the low power mode.
Vehicle illumination device for illuminating the surroundings of a vehicle of a vehicle, comprising at least one vehicle headlamp arranged on the vehicle and a control unit for controlling the vehicle headlamp , wherein an input unit is connected to the control unit , which input unit has a touch-sensitive screen , characterised in that the vehicle headlamp has a matrix-like structure and comprises a matrix of a plurality of light segments which can be controlled individually by means of the control unit , an interface being connected to the control unit for input by a driver of the vehicle of image data corresponding to an illumination backdrop, the illumination backdrop being used to light up or illuminate surroundings of a vehicle in a pre-definable manner when the vehicle is not active in accordance with an intended driving mode, wherein the control unit is adapted to convert the image data into corresponding greyscale values, to assign brightness values thereto and to adjust the light segments for providing the illumination backdrop in accordance with the image data input by the driver, and the control unit is further adapted to display, by means of the touch-sensitive image screen , the illuminable surroundings of the vehicle for post-processing by the user of data for the illumination backdrop.
An actuator, comprising: a cavity containing a working medium (B) that reversibly expands as it undergoes a phase change from a solid to a liquid state; a diaphragm disposed adjacent the cavity such that expansion and contraction of the expandable working medium (B) causes the diaphragm to deflect; means disposed in the cavity arranged to heat the working medium (B) to cause it to undergo the phase change into the liquid state, and means disposed in the cavity arranged to measure temperature, characterised in that a semiconductor diode (A) forms both the heating means and temperature measuring means in first and second respective modes of operation of the diode (A), the diode (A) being arranged to measure the temperature of the working medium (B) at the diode (A), wherein the actuator is arranged such that a first constant current is applied across the diode (A) in the first mode to heat the working medium (B), and a second constant current lower than the first constant current is applied across the diode (A) in the second mode, the actuator being further arranged to measure the voltage drop across the diode (A) and to infer the temperature at the diode (A) therefrom. a cavity containing a working medium (B) that reversibly expands as it undergoes a phase change from a solid to a liquid state; a diaphragm disposed adjacent the cavity such that expansion and contraction of the expandable working medium (B) causes the diaphragm to deflect; means disposed in the cavity arranged to heat the working medium (B) to cause it to undergo the phase change into the liquid state, and means disposed in the cavity arranged to measure temperature, characterised in that a semiconductor diode (A) forms both the heating means and temperature measuring means in first and second respective modes of operation of the diode (A), the diode (A) being arranged to measure the temperature of the working medium (B) at the diode (A), wherein the actuator is arranged such that a first constant current is applied across the diode (A) in the first mode to heat the working medium (B), and a second constant current lower than the first constant current is applied across the diode (A) in the second mode, the actuator being further arranged to measure the voltage drop across the diode (A) and to infer the temperature at the diode (A) therefrom.
A wing for an aircraft , comprising: a composite upper wing skin and a composite lower wing skin , a composite wing grid structure located between each of the upper and lower composite wing skins , which composite wing grid structure is attached to the upper and lower composite wing skins , each of the upper and lower composite skins is orthotropic and has an interlaminar fracture toughness, and wherein the interlaminar fracture toughness of the upper composite wing skin is less than the interlaminar fracture toughness of the lower composite wing skin , wherein the upper composite wing skin has a stiffness less than the stiffness of the lower composite wing skin . a composite upper wing skin and a composite lower wing skin , a composite wing grid structure located between each of the upper and lower composite wing skins , which composite wing grid structure is attached to the upper and lower composite wing skins , each of the upper and lower composite skins is orthotropic and has an interlaminar fracture toughness, and wherein the interlaminar fracture toughness of the upper composite wing skin is less than the interlaminar fracture toughness of the lower composite wing skin , wherein the upper composite wing skin has a stiffness less than the stiffness of the lower composite wing skin .
A medical device comprising: - a body ; and - a plurality of stabilizer wheel assemblies coupled to the body , wherein the stabilizer wheel assemblies each comprise a motor assembly and a stabilization leg , wherein the motor assembly is configured to drive the stabilization leg onto a contact surface to stabilize the body ; characterized in that the medical device comprises - a display assembly coupled to the body ; - a computer processor electronically coupled to the body and the display, wherein the computer processor is configured to drive the stabilization leg of each of the stabilizer wheel assemblies into the contact surface until each stabilization leg exerts a predetermined force on the contact surface, and - wherein the stabilizer wheel assemblies are activated using the display assembly of the medical device. - a body ; and - a plurality of stabilizer wheel assemblies coupled to the body , wherein the stabilizer wheel assemblies each comprise a motor assembly and a stabilization leg , wherein the motor assembly is configured to drive the stabilization leg onto a contact surface to stabilize the body ; characterized in that the medical device comprises - a display assembly coupled to the body ; - a computer processor electronically coupled to the body and the display, wherein the computer processor is configured to drive the stabilization leg of each of the stabilizer wheel assemblies into the contact surface until each stabilization leg exerts a predetermined force on the contact surface, and - wherein the stabilizer wheel assemblies are activated using the display assembly of the medical device.
An LED-driver , comprising: - an actively switched PFC circuitry , - a DALI bus interface connectable to a DALI bus, - a bus power supply unit configured to supply power to the DALI bus interface for powering the DALI bus by tapping a supply voltage for the DALI bus interface off an output voltage of the actively switched PFC circuitry , - a control circuitry for feedback control of the output voltage of the actively switched PFC by the control circuitry being configured for controlling a switch of the actively switched PFC , and - a microcontroller configured to control the DALI bus interface and to communicate with the control circuitry , characterized in that the microcontroller is further configured to selectively increase a control speed of the actively switched PFC in time periods in which the microcontroller sends out DALI signals over the DALI bus interface or detects incoming DALI signals from the DALI bus interface . - an actively switched PFC circuitry , - a DALI bus interface connectable to a DALI bus, - a bus power supply unit configured to supply power to the DALI bus interface for powering the DALI bus by tapping a supply voltage for the DALI bus interface off an output voltage of the actively switched PFC circuitry , - a control circuitry for feedback control of the output voltage of the actively switched PFC by the control circuitry being configured for controlling a switch of the actively switched PFC , and - a microcontroller configured to control the DALI bus interface and to communicate with the control circuitry ,
An electrically operated aerosol-generating system comprising: a heating element for heating an aerosol-forming substrate proximate to the heating element ; a power supply for supplying power to the heating element ; and electric circuitry in communication with the heating element and the power supply , the electric circuitry comprising a memory and being configured to: regulate the supply of power to the heating element during a plurality of discrete heating cycles in response to user inputs; determine a maximum electrical resistance of the heating element during each heating cycle; calculate a rolling average value of maximum electrical resistance of the heating element for n preceding heating cycles, wherein n is an integer greater than 1; compare the electrical resistance of the heating element with the calculated rolling average value; determine an adverse condition when the electrical resistance is greater than that the rolling average value by more than a threshold value, said threshold value being stored in the memory; and control power supplied to the heating element based on whether there is an adverse condition at the heating element or to provide an indication based on whether there is an adverse condition at the heating element . a heating element for heating an aerosol-forming substrate proximate to the heating element ; a power supply for supplying power to the heating element ; and electric circuitry in communication with the heating element and the power supply , the electric circuitry comprising a memory and being configured to: regulate the supply of power to the heating element during a plurality of discrete heating cycles in response to user inputs; determine a maximum electrical resistance of the heating element during each heating cycle; calculate a rolling average value of maximum electrical resistance of the heating element for n preceding heating cycles, wherein n is an integer greater than 1; compare the electrical resistance of the heating element with the calculated rolling average value; determine an adverse condition when the electrical resistance is greater than that the rolling average value by more than a threshold value, said threshold value being stored in the memory; and control power supplied to the heating element based on whether there is an adverse condition at the heating element or to provide an indication based on whether there is an adverse condition at the heating element .
Tool set for disassembling a planet carrier , said planet carrier comprising: - a cage comprising a first and a second platform connected together by at least one internal saddle and one external saddle , said internal saddle and said external saddle being separated by a housing, a first through opening being formed in the internal saddle and a second through opening being formed in the external saddle , the first through opening and the second through opening being coaxial, - a cage carrier comprising at least one finger configured to be introduced into the housing defined between the internal saddle and the external saddle , a third through opening being formed in the finger so that when the cage is mounted on the cage carrier , the first, the second and the third through openings are coaxial, and - a connection axle , accommodated in the first, the second and the third through openings so as to retain the cage on the cage carrier , the tool set being characterised in that it comprises: - a cylinder comprising a body and a piston , the piston being configured to apply a force to the connection axle , and - a support configured to be supported on the finger when the piston applies a force to the connection axle . - a cage comprising a first and a second platform connected together by at least one internal saddle and one external saddle , said internal saddle and said external saddle being separated by a housing, a first through opening being formed in the internal saddle and a second through opening being formed in the external saddle , the first through opening and the second through opening being coaxial, - a cage carrier comprising at least one finger configured to be introduced into the housing defined between the internal saddle and the external saddle , a third through opening being formed in the finger so that when the cage is mounted on the cage carrier , the first, the second and the third through openings are coaxial, and - a connection axle , accommodated in the first, the second and the third through openings so as to retain the cage on the cage carrier , the tool set being characterised in that it comprises: - a cylinder comprising a body and a piston , the piston being configured to apply a force to the connection axle , and - a support configured to be supported on the finger when the piston applies a force to the connection axle .
An aerosol delivery device, comprising: an outer body ; a base coupled to a first end of the outer body ; a mouthpiece coupled to an opposing second end of the outer body ; a flow director extending from a first flow director end to a second flow director end through the outer body such that a reservoir is defined between the flow director and the outer body , the reservoir defining an open space configured to receive an aerosol precursor composition and the base comprising one or more fill ports configured to receive the aerosol precursor composition therethrough; and an atomizer extending through the flow director at a position between the first flow director end and the second flow director end, the atomizer including a liquid transport element and a heating element configured to vaporize at least a portion of the aerosol precursor composition to produce an aerosol within the flow director , wherein a longitudinal axis of the liquid transport element extends substantially perpendicularly to a longitudinal axis of the flow director , and wherein the flow director , the atomizer , and the reservoir are entirely retained within the outer body . an outer body ; a base coupled to a first end of the outer body ; a mouthpiece coupled to an opposing second end of the outer body ; a flow director extending from a first flow director end to a second flow director end through the outer body such that a reservoir is defined between the flow director and the outer body , the reservoir defining an open space configured to receive an aerosol precursor composition and the base comprising one or more fill ports configured to receive the aerosol precursor composition therethrough; and an atomizer extending through the flow director at a position between the first flow director end and the second flow director end, the atomizer including a liquid transport element and a heating element configured to vaporize at least a portion of the aerosol precursor composition to produce an aerosol within the flow director , wherein a longitudinal axis of the liquid transport element extends substantially perpendicularly to a longitudinal axis of the flow director , and wherein the flow director , the atomizer , and the reservoir are entirely retained within the outer body .
A seafood storage container, the container comprising: a bottom wall , two side walls and two end walls ; and at least one channel located on at least one of the two side walls and the two end walls of the container and comprising a channel inlet near the bottom wall, a channel body , and a channel outlet , the channel body being defined by an inner channel wall , an outer channel wall being a portion of at least one of the two side walls and the two end walls , and channel side walls , wherein the channel inlet fluidically communicates the channel with the lower portion of the interior of the container , and the channel outle fluidically communicates the channel with the upper portion of the exterior of the container . a bottom wall , two side walls and two end walls ; and at least one channel located on at least one of the two side walls and the two end walls of the container and comprising a channel inlet near the bottom wall, a channel body , and a channel outlet , the channel body being defined by an inner channel wall , an outer channel wall being a portion of at least one of the two side walls and the two end walls , and channel side walls , wherein the channel inlet fluidically communicates the channel with the lower portion of the interior of the container , and the channel outle fluidically communicates the channel with the upper portion of the exterior of the container .