mhurhangee/patent-ind-claim-en huggingface dataset:
Ultrasound imaging apparatus comprising: - an ultrasound acquisition unit connected to a plurality of ultrasound probes each for providing ultrasound data suitable for ultrasound imaging of a patient in a field of view of the ultrasound probes, - a detection unit for detecting an anatomical object of the patient in the field of view on the basis of the ultrasound data received from at least one of the ultrasound probes and for determining a spatial relationship of the anatomical object and each of the ultrasound probes, - a selection unit coupled to the detection unit for selecting at least one of the ultrasound probes on the basis of an acquisition quality of at least one physical parameter detectable from the ultrasound data, wherein the acquisition quality is determined on the basis of the spatial relationship of at least one anatomical feature of the anatomical object and each of the ultrasound probes, and - an evaluation unit coupled to the ultrasound acquisition unit for receiving the ultrasound data from the at least one selected ultrasound probe and for determining the at least one physical parameter on the basis of the ultrasound data received from the selected ultrasound probe, wherein the detection unit is adapted to detect as anatomical feature of the anatomical object (i) a fiber direction of the anatomical object, (ii) a surface of the anatomical object, or (iii) a flow direction of a fluid associated to the anatomical object, and wherein the detection unit is adapted to determine an orientation of (i) the fiber direction, (ii) the surface, or (iii) the flow direction with respect to a viewing direction of each of the ultrasound probes as the spatial relationship. - an ultrasound acquisition unit connected to a plurality of ultrasound probes each for providing ultrasound data suitable for ultrasound imaging of a patient in a field of view of the ultrasound probes, - a detection unit for detecting an anatomical object of the patient in the field of view on the basis of the ultrasound data received from at least one of the ultrasound probes and for determining a spatial relationship of the anatomical object and each of the ultrasound probes, - a selection unit coupled to the detection unit for selecting at least one of the ultrasound probes on the basis of an acquisition quality of at least one physical parameter detectable from the ultrasound data, wherein the acquisition quality is determined on the basis of the spatial relationship of at least one anatomical feature of the anatomical object and each of the ultrasound probes, and - an evaluation unit coupled to the ultrasound acquisition unit for receiving the ultrasound data from the at least one selected ultrasound probe and for determining the at least one physical parameter on the basis of the ultrasound data received from the selected ultrasound probe,
An oral care composition comprising: 45% to 52% by weight total formula water; at least 20% by weight of a water solution of 70% raw sorbitol by weight of the composition; and at least one thickening system comprising a combination of carboxymethyl cellulose and xanthan; wherein the composition is free of glycerin and free of water-soluble stannous ions, and wherein the composition has a Micro Robustness Index of at least 0.75. 45% to 52% by weight total formula water; at least 20% by weight of a water solution of 70% raw sorbitol by weight of the composition; and at least one thickening system comprising a combination of carboxymethyl cellulose and xanthan; wherein the composition is free of glycerin and free of water-soluble stannous ions, and wherein the composition has a Micro Robustness Index of at least 0.75.
A sheathed frame pool, comprising: a support frame comprising a plurality of interconnected support components; a pool liner comprising a pool bottom and a pool wall connected to an outer edge of the pool bottom and extends upward, an upper side of the pool wall being hanging on the support frame and being disposed on an inside of the support frame; and at least one sheath disposed on a junction between at least two of the plurality of interconnected support components and comprising a sheath body ; characterized in that at least one ring structure is disposed on an outer surface of the sheath body , said outer surface of the sheath body comprising at least one annular groove and the at least one ring structure being partially embedded in said annular groove . a support frame comprising a plurality of interconnected support components; a pool liner comprising a pool bottom and a pool wall connected to an outer edge of the pool bottom and extends upward, an upper side of the pool wall being hanging on the support frame and being disposed on an inside of the support frame; and at least one sheath disposed on a junction between at least two of the plurality of interconnected support components and comprising a sheath body ; characterized in that at least one ring structure is disposed on an outer surface of the sheath body , said outer surface of the sheath body comprising at least one annular groove and the at least one ring structure being partially embedded in said annular groove .
A tamper-evident cover for a component , the component comprising: first and second portions ; and an actuator mechanism for moving the first and second portions or allowing the first and second portions to move relative to one another; wherein the cover comprises: a cover portion defining a cavity configured to receive the actuator mechanism of the component so as to prevent access to the actuator mechanism from the exterior of the cover portion; and a retention barb connected to the cover portion and configured to engage with the component so as to retain the cover portion over the actuator mechanism, the retention barb housed within the cavity formed by the cover portion such that the retention barb is inaccessible from the exterior of the cover portion when the cover portion is retained over the actuator mechanism; characterized in that : the cover portion is formed by a first element and the retention barb is formed by a second element , wherein the first and second elements are separable from one another such that the cover portion can be removed to provide access to the actuator mechanism; and the first and second elements are connected by a pull-tab which is removable to separate the first and second elements. a cover portion defining a cavity configured to receive the actuator mechanism of the component so as to prevent access to the actuator mechanism from the exterior of the cover portion; and a retention barb connected to the cover portion and configured to engage with the component so as to retain the cover portion over the actuator mechanism, the retention barb housed within the cavity formed by the cover portion such that the retention barb is inaccessible from the exterior of the cover portion when the cover portion is retained over the actuator mechanism; characterized in that : the cover portion is formed by a first element and the retention barb is formed by a second element , wherein the first and second elements are separable from one another such that the cover portion can be removed to provide access to the actuator mechanism; and the first and second elements are connected by a pull-tab which is removable to separate the first and second elements. the cover portion is formed by a first element and the retention barb is formed by a second element , wherein the first and second elements are separable from one another such that the cover portion can be removed to provide access to the actuator mechanism; and the first and second elements are connected by a pull-tab which is removable to separate the first and second elements.
A two-liquid mixing-type aerosol product comprising: a double-structure container including a propellant filling space and two independent liquid concentrate filling spaces and having a discharging mechanism for simultaneously discharging contents filled in the two liquid concentrate filling spaces, wherein the propellant filling space in the double-structure container is filled with a propellant composed of a compressed gas, the first liquid concentrate filling space in the double-structure container is filled with a first liquid concentrate composition, and the second liquid concentrate filling space in the double-structure container is filled with a second liquid concentrate composition, the first liquid concentrate composition is a liquid that contains a first component in a first medium with the first component capable of being dissolved in the first medium, the second liquid concentrate composition is a liquid that contains a second component in a second medium with the second medium capable of being dissolved in the second medium and that is immiscible with the first liquid concentrate composition, the first liquid concentrate composition and the second liquid concentrate composition each have a viscosity from 1 to 1000 mPa·s at a temperature of 20°C, and the discharging mechanism has a function for breaking the first liquid concentrate composition and the second liquid concentrate composition down into fine droplets and discharging the liquid concentrate compositions as mists. a double-structure container including a propellant filling space and two independent liquid concentrate filling spaces and having a discharging mechanism for simultaneously discharging contents filled in the two liquid concentrate filling spaces, wherein the propellant filling space in the double-structure container is filled with a propellant composed of a compressed gas, the first liquid concentrate filling space in the double-structure container is filled with a first liquid concentrate composition, and the second liquid concentrate filling space in the double-structure container is filled with a second liquid concentrate composition, the first liquid concentrate composition is a liquid that contains a first component in a first medium with the first component capable of being dissolved in the first medium, the second liquid concentrate composition is a liquid that contains a second component in a second medium with the second medium capable of being dissolved in the second medium and that is immiscible with the first liquid concentrate composition, the first liquid concentrate composition and the second liquid concentrate composition each have a viscosity from 1 to 1000 mPa·s at a temperature of 20°C, and the discharging mechanism has a function for breaking the first liquid concentrate composition and the second liquid concentrate composition down into fine droplets and discharging the liquid concentrate compositions as mists.
A method for carbon nanotube purification, comprising: • coating a bed of carbon nanotubes with a polymer mask, the bed comprising a first population of carbon nanotubes and a second population of carbon nanotubes, wherein the polymer mask comprises: ∘ a first portion that coats the first population and not the second population; and ∘ a second portion that coats the second population and not the first population; • selectively depolymerizing the first portion of the polymer mask and not the second portion of the polymer mask, comprising selectively heating the first population more than the second population, thereby heating the first portion of the polymer mask; • after depolymerizing the first portion of the polymer mask, selectively removing the first population of carbon nanotubes and not the second population of carbon nanotubes, wherein the second portion of the polymer mask protects the second population during removal of the first population; and • after selectively removing the first population of carbon nanotubes, removing the second portion of the polymer mask from the bed of carbon nanotubes; wherein: • the first population consists essentially of metallic carbon nanotubes and the second population consists essentially of semiconducting carbon nanotubes; or • the first population consists essentially of semiconducting carbon nanotubes and the second population consists essentially of metallic carbon nanotubes. • coating a bed of carbon nanotubes with a polymer mask, the bed comprising a first population of carbon nanotubes and a second population of carbon nanotubes, wherein the polymer mask comprises: ∘ a first portion that coats the first population and not the second population; and ∘ a second portion that coats the second population and not the first population; ∘ a first portion that coats the first population and not the second population; and ∘ a second portion that coats the second population and not the first population; • selectively depolymerizing the first portion of the polymer mask and not the second portion of the polymer mask, comprising selectively heating the first population more than the second population, thereby heating the first portion of the polymer mask; • after depolymerizing the first portion of the polymer mask, selectively removing the first population of carbon nanotubes and not the second population of carbon nanotubes, wherein the second portion of the polymer mask protects the second population during removal of the first population; and • after selectively removing the first population of carbon nanotubes, removing the second portion of the polymer mask from the bed of carbon nanotubes; • the first population consists essentially of metallic carbon nanotubes and the second population consists essentially of semiconducting carbon nanotubes; or • the first population consists essentially of semiconducting carbon nanotubes and the second population consists essentially of metallic carbon nanotubes.
A processor-implemented method comprising: detecting , by a processor , an environment of a tank comprising a liquid, wherein detecting the environment comprises determining an effective attitude estimation associated with the tank ; selecting , by the processor , one or more liquid gauging algorithms from a plurality of liquid gauging algorithms based on the effective attitude estimation, wherein the plurality of liquid gauging algorithms comprises a plurality of neural networks, each neural network being designed to calculate the property based on a corresponding attitude range; receiving , by the processor , sensor data characterizing the liquid of the tank ; and utilizing , by the processor , the sensor data and the one or more liquid gauging algorithms to determine a property of the liquid. detecting , by a processor , an environment of a tank comprising a liquid, wherein detecting the environment comprises determining an effective attitude estimation associated with the tank ; selecting , by the processor , one or more liquid gauging algorithms from a plurality of liquid gauging algorithms based on the effective attitude estimation, wherein the plurality of liquid gauging algorithms comprises a plurality of neural networks, each neural network being designed to calculate the property based on a corresponding attitude range; receiving , by the processor , sensor data characterizing the liquid of the tank ; and utilizing , by the processor , the sensor data and the one or more liquid gauging algorithms to determine a property of the liquid.
An aerosol generating device , comprising: a power source configured to supply power to perform atomization of an aerosol source and/or heating of a flavor source; an inhalation sensor configured to output a measured value for controlling the power supplied; and a controller configured to control the power supplied from the power source based on the measured value, characterised in that the controller is configured to control to increase a power supply amount per unit time (hereinafter referred to as a "unit amount of power supplied") to a predetermined amount when a first condition that the measured value is equal to or larger than a first threshold is satisfied, and to decrease the unit amount of power supplied from the predetermined amount to zero when a second condition that the measured value is smaller than a second threshold larger than the first threshold and a third condition which is different from the first condition and the second condition are satisfied. a power source configured to supply power to perform atomization of an aerosol source and/or heating of a flavor source; an inhalation sensor configured to output a measured value for controlling the power supplied; and a controller configured to control the power supplied from the power source based on the measured value, characterised in that the controller is configured to control to increase a power supply amount per unit time (hereinafter referred to as a "unit amount of power supplied") to a predetermined amount when a first condition that the measured value is equal to or larger than a first threshold is satisfied, and to decrease the unit amount of power supplied from the predetermined amount to zero when a second condition that the measured value is smaller than a second threshold larger than the first threshold and a third condition which is different from the first condition and the second condition are satisfied.
A machine for finishing toothed workpieces, comprising: a tool carrier ; a tool spindle for chucking a finishing tool , the tool spindle being attached to the tool carrier; a tool spindle drive for driving the tool spindle so as to rotate about a tool spindle axis (B); at least one distance sensor , and a control device , characterized in that the control device is configured to perform the following method: carrying out at least one distance measurement from a finishing tool chucked on the tool spindle , in particular a grinding worm or a profile grinding wheel, by means of the distance sensor ; determining a characteristic parameter of the finishing tool from the at least one distance measurement, the characteristic quantity being a measure of an outside diameter (d) of the finishing tool ; and controlling the tool spindle drive in such a way that the tool spindle rotates at a rotating speed which varies as a function of the determined external diameter (d), or monitoring that the tool spindle is driven at a rotating speed which is lower than a maximum permissible speed which varies as a function of the determined external diameter (d). a tool carrier ; a tool spindle for chucking a finishing tool , the tool spindle being attached to the tool carrier; a tool spindle drive for driving the tool spindle so as to rotate about a tool spindle axis (B); at least one distance sensor , and a control device , carrying out at least one distance measurement from a finishing tool chucked on the tool spindle , in particular a grinding worm or a profile grinding wheel, by means of the distance sensor ; determining a characteristic parameter of the finishing tool from the at least one distance measurement, the characteristic quantity being a measure of an outside diameter (d) of the finishing tool ; and controlling the tool spindle drive in such a way that the tool spindle rotates at a rotating speed which varies as a function of the determined external diameter (d), or monitoring that the tool spindle is driven at a rotating speed which is lower than a maximum permissible speed which varies as a function of the determined external diameter (d).
A compound of Formula (I): or a pharmaceutically acceptable salt thereof, wherein m1, m2, m3, and m4 are each independently selected from 1, 2, 3, 4, or 5; L 1 , L 2 , L 3 , and L 4 are each independently selected from -CH(OH)-, - C(=O)-, -C(=O)O-, -OC(=O)-, -C(=O)S-, -SC(=O)-, -C(=O)NR a -, -NR a C(=O)-, - NR a C(=O)O-, -OC(=O)NR a -, -O-, -O-O-, -S-, -S-S-, -S-S-S-, -CH(OH)CH 2 O-, -CH(OH)CH 2 S-, or absent, wherein each R a is independently -H or optionally substituted C 1 -C 6 alkyl; R 1 , R 2 , R 3 , and R 4 are each independently selected from optionally substituted C 6 -C 30 alkyl, optionally substituted C 6 -C 30 alkenyl, or optionally substituted C 6 -C 30 alkynyl; G 1 , G 2 , G 3 and G 4 are each independently selected from -R c -, - R c CH(OH)R d -, -R c C(=O)R d -, -R c C(=O)OR d -, -R c OC(=O)R d -, -R c C(=O)SR d -, -R c SC(=O)R d -, -R c C(=O)N(R b )R d -, -R c N(R b )C(=O)R d -, -R c N(R b )C(=O)OR d -, - R c OC(=O)N(R b )R d -, -R c OR d -, -R c -O-O-R d -, -R c SR d -, -R c -S-S-R d -, -R c -S-S-S-R d -, or absent; wherein each R b is independently -H or optionally substituted C 1 -C 6 alkyl; each R c and R d are independently -(CH 2 ) n -, and n is 0, 1, 2, 3, or 4; R 5 and R 6 are each independently selected from -H, -OH, or optionally substituted C 1 -C 6 alkyl. m1, m2, m3, and m4 are each independently selected from 1, 2, 3, 4, or 5; L 1 , L 2 , L 3 , and L 4 are each independently selected from -CH(OH)-, - C(=O)-, -C(=O)O-, -OC(=O)-, -C(=O)S-, -SC(=O)-, -C(=O)NR a -, -NR a C(=O)-, - NR a C(=O)O-, -OC(=O)NR a -, -O-, -O-O-, -S-, -S-S-, -S-S-S-, -CH(OH)CH 2 O-, -CH(OH)CH 2 S-, or absent, wherein each R a is independently -H or optionally substituted C 1 -C 6 alkyl; R 1 , R 2 , R 3 , and R 4 are each independently selected from optionally substituted C 6 -C 30 alkyl, optionally substituted C 6 -C 30 alkenyl, or optionally substituted C 6 -C 30 alkynyl; G 1 , G 2 , G 3 and G 4 are each independently selected from -R c -, - R c CH(OH)R d -, -R c C(=O)R d -, -R c C(=O)OR d -, -R c OC(=O)R d -, -R c C(=O)SR d -, -R c SC(=O)R d -, -R c C(=O)N(R b )R d -, -R c N(R b )C(=O)R d -, -R c N(R b )C(=O)OR d -, - R c OC(=O)N(R b )R d -, -R c OR d -, -R c -O-O-R d -, -R c SR d -, -R c -S-S-R d -, -R c -S-S-S-R d -, or absent; each R b is independently -H or optionally substituted C 1 -C 6 alkyl; each R c and R d are independently -(CH 2 ) n -, and n is 0, 1, 2, 3, or 4;
A seal assembly for a rotary preheater , the seal assembly comprising: a first leaf having a first base section and a first substantially straight elongate section extending away from the first base section and terminating at a first distal end thereof, the first leaf having a first bend located between the first base section and the first elongate section ; a second leaf having a second distal end and a second substantially straight elongate section extending away from the second distal end towards the first base section of the first leaf ; a spacer positioned between and secured to the first distal end of the first leaf and the second distal end of the second leaf , the spacer extending along a portion of the first elongate section of the first leaf and forming a gap (G66) between a portion of the second elongate section and the first elongate section such that the portion of the second elongate section is spaced apart from the first elongate section , the second elongate section extending beyond an inboard end of the spacer and terminating along the first bend of the first leaf , at a terminus of the second leaf , so that a portion of the second leaf proximate the terminus is slidingly moveable relative to and in compressive engagement with a portion of the first bend . a first leaf having a first base section and a first substantially straight elongate section extending away from the first base section and terminating at a first distal end thereof, the first leaf having a first bend located between the first base section and the first elongate section ; a second leaf having a second distal end and a second substantially straight elongate section extending away from the second distal end towards the first base section of the first leaf ; a spacer positioned between and secured to the first distal end of the first leaf and the second distal end of the second leaf , the spacer extending along a portion of the first elongate section of the first leaf and forming a gap (G66) between a portion of the second elongate section and the first elongate section such that the portion of the second elongate section is spaced apart from the first elongate section , the second elongate section extending beyond an inboard end of the spacer and terminating along the first bend of the first leaf , at a terminus of the second leaf , so that a portion of the second leaf proximate the terminus is slidingly moveable relative to and in compressive engagement with a portion of the first bend .