mhurhangee/patent-ind-claim-en huggingface dataset:
Formulation for administration to drinking water of animals comprising a poorly water soluble active ingredient, a thickener combination and water, wherein the thickener combination comprises at least one thickener selected from the following groups A, B, C and D: (A) cellulose derivatives, selected from methyl cellulose, ethyl cellulose, hydroxyethyl cellulose, sodium carboxymethylcellulose, calcium carboxymethylcellulose, hydroxypropyl cellulose, hydroxypropyl methyl cellulose, preferably sodium carboxymethyl cellulose. (B) non-cellulosic polysaccharide thickeners such as xanthan gums, Arabic gum, (C)cross-linked polyacrylic acid polymers, and (D)hydrocolloidal hydrated silicates, wherein the formulation is in concentrated form such that the active ingredient content is 1 to 90 wt.%, wherein no oil and no surfactant is contained in the formulation and wherein the active ingredient exhibits a median particle size within the range of from 0.01 microns to 10 microns, preferably from 0.1 microns to 5 microns. (A) cellulose derivatives, selected from methyl cellulose, ethyl cellulose, hydroxyethyl cellulose, sodium carboxymethylcellulose, calcium carboxymethylcellulose, hydroxypropyl cellulose, hydroxypropyl methyl cellulose, preferably sodium carboxymethyl cellulose. (B) non-cellulosic polysaccharide thickeners such as xanthan gums, Arabic gum, (C)cross-linked polyacrylic acid polymers, and (D)hydrocolloidal hydrated silicates,
An item of furniture for bakery goods on a shop floor and for self-service by customers on the shop floor, with at least one compartment with a removal opening which is closed by means of a flap , wherein the flap has a transparent face made of transparent solid material and also a motor drive with a control switch which is set up to be actuated by a customer from outside the item of furniture , for opening and closing the flap , wherein a capacitive sensor field is arranged in the region of the removal opening and/or on the flap , the actuation of which triggers the opening of the flap by means of the motor drive [sic], and wherein the flap in the fully opened state is pivoted upwards into a horizontal position above the interior of the compartment and disappears approximately fully in the item of furniture .
An optical sensor module , comprising: a substrate ; a light source disposed on the substrate; a first encapsulant formed over the light source; a photodetector disposed on the substrate; a second encapsulant formed over the photodetector; and a partition coupled to the substrate and located between the light source and the photodetector ; wherein the partition is configured for blocking light directly from the light source to the photodetector , characterized in that : said first encapsulant has a surface or an interface formed as a first microstructure ; said second encapsulant has a surface or an interface formed as a second microstructure ; wherein the first microstructure is configured as a set of concentric arcs concaving toward the photodetector , the second microstructure is configured as a set of concentric circles, the first encapsulant and the second encapsulant each consist of multiple layers having different refractive indices decreasing outward from the substrate , and the first microstructure and the second microstructure are configured for concentrating light toward a predetermined direction. a substrate ; a light source disposed on the substrate; a first encapsulant formed over the light source; a photodetector disposed on the substrate; a second encapsulant formed over the photodetector; and a partition coupled to the substrate and located between the light source and the photodetector ; wherein the partition is configured for blocking light directly from the light source to the photodetector , characterized in that : said first encapsulant has a surface or an interface formed as a first microstructure ; said second encapsulant has a surface or an interface formed as a second microstructure ; wherein the first microstructure is configured as a set of concentric arcs concaving toward the photodetector , the second microstructure is configured as a set of concentric circles, the first encapsulant and the second encapsulant each consist of multiple layers having different refractive indices decreasing outward from the substrate , and the first microstructure and the second microstructure are configured for concentrating light toward a predetermined direction.
Connection panel for electronic components in form of a printed circuit board or an IC-substrate, said connection panel comprising a plurality of insulating layers and conductive layers forming the connection panel and further comprising an electronic sensor , characterized in that the sensor is comprised of at least one flexure member formed by a flexure layer , the flexure member protruding from the flexure layer and into a clearance within the flexure layer and carrying at least a part of a flexure sensing device that is arranged on the flexure layer , said flexure layer being a part of the connection panel and being formed by the material of the connection panel , wherein said flexure layer comprises at least one of said insulating layer.
A method of determining a parameter of interest of a downhole fluid using an acoustic assembly comprising at least two solid acoustic transmission media , wherein a first medium of the at least two solid acoustic transmission media has an acoustic impedance that is different than an acoustic impedance of a second medium of the at least two solid acoustic transmission media , and wherein the first medium and the second medium each have a corresponding face immersed in the downhole fluid , the method comprising: providing an acoustic pulse that propagates within the two media ; receiving the reflection pulse having reflected amplitudes r 21 and r 31 , respectively, from the solid-liquid interface at the corresponding face of the first medium and the second medium ; and estimating the parameter of interest using the reflected amplitudes of the pulse. providing an acoustic pulse that propagates within the two media ; receiving the reflection pulse having reflected amplitudes r 21 and r 31 , respectively, from the solid-liquid interface at the corresponding face of the first medium and the second medium ; and estimating the parameter of interest using the reflected amplitudes of the pulse.
A method for installing a liner in an underground utility structure , having an interior surface, wherein a drum carries a dry liner , a motor is connected to the drum and regulates the speed at which the drum rotates, and a computer controller regulates the motor, the method comprising the steps of: applying a first resin coating to the interior surface of the pipeline ; applying limited pressure, in conjunction with the computer controller and dispensing motor , to invert the dry liner into the interior of said pipeline at a controlled inversion rate of less than or equal to 0.15m (0.5 feet) per minute; and increasing a pressure on the interior of said dry liner , after said liner is fully inverted to embed said dry liner into said resin coating to fully bed said liner into said resin coating. wherein a drum carries a dry liner , a motor is connected to the drum and regulates the speed at which the drum rotates, and a computer controller regulates the motor, the method comprising the steps of: applying a first resin coating to the interior surface of the pipeline ; applying limited pressure, in conjunction with the computer controller and dispensing motor , to invert the dry liner into the interior of said pipeline at a controlled inversion rate of less than or equal to 0.15m (0.5 feet) per minute; and increasing a pressure on the interior of said dry liner , after said liner is fully inverted to embed said dry liner into said resin coating to fully bed said liner into said resin coating. applying a first resin coating to the interior surface of the pipeline ; applying limited pressure, in conjunction with the computer controller and dispensing motor , to invert the dry liner into the interior of said pipeline at a controlled inversion rate of less than or equal to 0.15m (0.5 feet) per minute; and increasing a pressure on the interior of said dry liner , after said liner is fully inverted to embed said dry liner into said resin coating to fully bed said liner into said resin coating.
A flower pot (10; 50) comprising: an outer pot body (12; 52); an inner pot body (14; 54) housed in the outer pot body (12; 52) with a gap as a water supply portion (15; 55) ; a folding portion provided on an upper end surface of a sidewall of the inner pot body; and a sealing portion (16; 56) formed of an elastic member (16a; 56a) and provided between the folding portion and an upper end surface of a sidewall of the outer pot body (12; 52), wherein an inner bottom surface of the outer pot body (12; 52) and an outer bottom surface of the inner pot body (14; 54) are provided with a threaded portion as a vertical position changeable member , the water stored in the water supply portion (15; 55) is supplied to the inner pot body (14; 54) through a nonwoven fabric member , characterized in that the planar shape of the nonwoven fabric member is a circular shape including a protruding portion , and the nonwoven fabric member is a planar member having the same thickness, the circular part of the nonwoven fabric member is housed in a bottom of the inner pot body (14; 54), a through-hole is provided in the bottom of the inner pot body (14; 54), and the protruding portion of the nonwoven fabric member reaches the gap as the water supply portion (15; 55) through the through-hole. an outer pot body (12; 52); an inner pot body (14; 54) housed in the outer pot body (12; 52) with a gap as a water supply portion (15; 55) ; a folding portion provided on an upper end surface of a sidewall of the inner pot body; and a sealing portion (16; 56) formed of an elastic member (16a; 56a) and provided between the folding portion and an upper end surface of a sidewall of the outer pot body (12; 52), wherein an inner bottom surface of the outer pot body (12; 52) and an outer bottom surface of the inner pot body (14; 54) are provided with a threaded portion as a vertical position changeable member , the water stored in the water supply portion (15; 55) is supplied to the inner pot body (14; 54) through a nonwoven fabric member , characterized in that the planar shape of the nonwoven fabric member is a circular shape including a protruding portion , and the nonwoven fabric member is a planar member having the same thickness, the circular part of the nonwoven fabric member is housed in a bottom of the inner pot body (14; 54), a through-hole is provided in the bottom of the inner pot body (14; 54), and the protruding portion of the nonwoven fabric member reaches the gap as the water supply portion (15; 55) through the through-hole.
An angle sensor comprising: analog circuitry configured to generate an analog value being proportional to a tangent value of an angle indicative of a direction of a magnetic field, the analog circuitry comprising a plurality of magnetoresistance elements comprising: a first magnetoresistance element configured to provide a cosine value indicative of the magnetic field along a first axis; and a second magnetoresistance element configured to provide a sine value indicative of the magnetic field along a second axis orthogonal to the first axis, wherein the tangent value is determined by the cosine value and the sine value; an analog-to-digital converter [ADC] configured to convert the analog value to a digital value; and digital circuitry configured to receive the digital value, the digital circuitry comprising an angle processor configured to use the digital value and a fixed value in an arctangent algorithm to calculate an angle of a direction of the magnetic field. analog circuitry configured to generate an analog value being proportional to a tangent value of an angle indicative of a direction of a magnetic field, the analog circuitry comprising a plurality of magnetoresistance elements comprising: a first magnetoresistance element configured to provide a cosine value indicative of the magnetic field along a first axis; and a second magnetoresistance element configured to provide a sine value indicative of the magnetic field along a second axis orthogonal to the first axis, wherein the tangent value is determined by the cosine value and the sine value; a first magnetoresistance element configured to provide a cosine value indicative of the magnetic field along a first axis; and a second magnetoresistance element configured to provide a sine value indicative of the magnetic field along a second axis orthogonal to the first axis, wherein the tangent value is determined by the cosine value and the sine value; an analog-to-digital converter [ADC] configured to convert the analog value to a digital value; and digital circuitry configured to receive the digital value, the digital circuitry comprising an angle processor configured to use the digital value and a fixed value in an arctangent algorithm to calculate an angle of a direction of the magnetic field.
A method for modifying a surface, the method comprising: generating surface data at a first time by moving a first plurality of sensors over the surface , the first plurality of sensors comprising a first type of height sensor ; generating a point cloud comprising height data based on the surface data generated at the first time ; generating a sensor specific surface representation by modifying the height data of the point cloud using a Gaussian filter based on characteristics of a sonic tracker ; generating surface data at a second time by moving the sonic tracker over the surface; comparing the surface data generated at the second time to the sensor specific surface representation; and modifying the surface based on the comparing . generating surface data at a first time by moving a first plurality of sensors over the surface , the first plurality of sensors comprising a first type of height sensor ; generating a point cloud comprising height data based on the surface data generated at the first time ; generating a sensor specific surface representation by modifying the height data of the point cloud using a Gaussian filter based on characteristics of a sonic tracker ; generating surface data at a second time by moving the sonic tracker over the surface; comparing the surface data generated at the second time to the sensor specific surface representation; and modifying the surface based on the comparing .
Method for checking the functionality of a braking system for motor vehicles, which braking system comprises a main module , comprising: • hydraulically actuatable wheel brakes , wherein pairs of said wheel brakes are assigned to respective brake circuits (I, II); • at least one electrically actuatable wheel valve (100-106; 110-116) per wheel brake for setting wheel-specific brake pressures; • a pressure provision device for actively building up pressure in the wheel brakes ; • a pressure-medium reservoir at atmospheric pressure, and furthermore comprising an auxiliary module , which comprises for each of two wheel brakes : • a pressure sensor for measuring the pressure in a wheel brake line leading to the wheel brake ; • an isolating valve , which is arranged in the wheel brake line and which is open when deenergized; • a pump , wherein at least one variable (P sys,1 , P sys,2 ) is measured in order to assess the functionality of the braking system , and wherein at least one acceptance criterion is used, and wherein it is checked whether the variable (P sys,1 , P sys,2 ) satisfies said acceptance criterion, and wherein at least one variable representing the viscosity of the brake fluid is determined, and wherein the at least one acceptance criterion depends on a variable representing the viscosity. • hydraulically actuatable wheel brakes , wherein pairs of said wheel brakes are assigned to respective brake circuits (I, II); • at least one electrically actuatable wheel valve (100-106; 110-116) per wheel brake for setting wheel-specific brake pressures; • a pressure provision device for actively building up pressure in the wheel brakes ; • a pressure-medium reservoir at atmospheric pressure, and furthermore comprising an auxiliary module , which comprises for each of two wheel brakes : • a pressure sensor for measuring the pressure in a wheel brake line leading to the wheel brake ; • an isolating valve , which is arranged in the wheel brake line and which is open when deenergized; • a pump , • a pressure sensor for measuring the pressure in a wheel brake line leading to the wheel brake ; • an isolating valve , which is arranged in the wheel brake line and which is open when deenergized; • a pump , wherein at least one variable (P sys,1 , P sys,2 ) is measured in order to assess the functionality of the braking system , and wherein at least one acceptance criterion is used, and wherein it is checked whether the variable (P sys,1 , P sys,2 ) satisfies said acceptance criterion, and wherein at least one variable representing the viscosity of the brake fluid is determined, and wherein the at least one acceptance criterion depends on a variable representing the viscosity.
Profiles and structural elements for assembling load-bearing structures, consisting of - uprights , and - connecting elements or cantilever elements , and - longitudinal supports which can be mounted on the connecting elements or cantilever elements , and/or - shelves which can be mounted on the connecting elements or cantilever elements or on the longitudinal supports , wherein the uprights have a tubular square cross-section which is formed of a U-shaped cross-section with, from the mutually aligned end flanges of the flanges arranged in a U-shape, between two straight legs projecting in parallel, said legs protruding into the interior of the cross-section and extending parallel to each other in the longitudinal direction of the upright, the legs having slots or apertures , which on both legs correspond in terms of shape and arrangement, for receiving hook-in protrusions projecting at hook-in ends of the connecting elements or cantilever elements having a T-shaped cross-section, characterized in that the inwardly protruding two legs of the uprights bear against each other or are spaced apart from each other by an amount corresponding to the thickness of the hook-in end , without hook-in protrusions, of the connecting element or cantilever element that can be mounted on the upright, and in that the hook-in protrusions protrude on both sides from the hook-in ends , which are shaped in such a way that they penetrate into the slots or apertures provided on the two legs when the hook-in ends are introduced between the two elastically spreadable legs of the upright , so as to hook onto the legs as a result of a downward displacement along the longitudinal extension of the upright. - uprights , and - connecting elements or cantilever elements , and - longitudinal supports which can be mounted on the connecting elements or cantilever elements , and/or - shelves which can be mounted on the connecting elements or cantilever elements or on the longitudinal supports ,
A computer-implemented method for controlling welding performed by a welding robot , the method comprises the following: a) obtaining operating data of the welding robot during welding, b) obtaining image data of a welded workpiece, c) processing the image data to determine parameters of the welded workpiece, d) processing the parameters to determine a quality of the welded workpiece by rating the parameters using a scoring function, wherein the scoring function is a generalised weighted scoring function S = ∑ i = 1 , ... , N a i S 1 , ... , S N S i wherein S is a result of the scoring function, S i denotes the parameters, a i denotes a respective coefficient for weighting the parameter, and N denotes the number of parameters, N being an integer, and e) inputting the result of the scoring function into a machine learning model; f) applying, using the machine learning model, the result of the scoring function to the obtained operating data to modify said operating data to improve the welding; and g) using said modified operating data to control the welding robot . a) obtaining operating data of the welding robot during welding, b) obtaining image data of a welded workpiece, c) processing the image data to determine parameters of the welded workpiece, d) processing the parameters to determine a quality of the welded workpiece by rating the parameters using a scoring function, wherein the scoring function is a generalised weighted scoring function S = ∑ i = 1 , ... , N a i S 1 , ... , S N S i wherein S is a result of the scoring function, S i denotes the parameters, a i denotes a respective coefficient for weighting the parameter, and N denotes the number of parameters, N being an integer, and e) inputting the result of the scoring function into a machine learning model; f) applying, using the machine learning model, the result of the scoring function to the obtained operating data to modify said operating data to improve the welding; and g) using said modified operating data to control the welding robot .
A pot assembly for a vertical garden, the pot assembly comprising: a. at least one pot holder provided with at least an angled volume for holding a pot and an angled base wal ; b. a drain sump with a drain opening through which liquid exits the pot assembly and a drain sump entry located in the angled base wall, the drain opening in the drain sump located below the drain sump entry ; and c. a water collection reservoir located above the drain sump entry and provided with an overflow weir over which liquid flows into the angled volume of the at least one pot holder. a. at least one pot holder provided with at least an angled volume for holding a pot and an angled base wal ; b. a drain sump with a drain opening through which liquid exits the pot assembly and a drain sump entry located in the angled base wall, the drain opening in the drain sump located below the drain sump entry ; and c. a water collection reservoir located above the drain sump entry and provided with an overflow weir over which liquid flows into the angled volume of the at least one pot holder.
A push chain , having - a plurality chain links situated one behind another along a longitudinal axis x-x of the push chain , which each have two side plates that are situated on opposite sides from each other and aligned parallel to each other and that are connected to each other by a connecting plate ; the side plates and the connecting plate together form an approximate U-shape in cross-section and - an elastically deformable backing belt , which is attached to the connecting plates of the chain links , wherein with an approximately straight alignment of the push chain , the chain links rest against one another with contact surfaces ; wherein the side plates of the chain links have recesses in the region of their contact surfaces and corresponding projections at the opposite ends in the longitudinal direction x-x so that the projections are situated in the recesses when the push chain is stretched straight; wherein the outsides of both side plates of a chain link have a toothed element . - a plurality chain links situated one behind another along a longitudinal axis x-x of the push chain , which each have two side plates that are situated on opposite sides from each other and aligned parallel to each other and that are connected to each other by a connecting plate ; the side plates and the connecting plate together form an approximate U-shape in cross-section and - an elastically deformable backing belt , which is attached to the connecting plates of the chain links ,