mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid sensor for measuring the pressure of a fluid, the fluid sensor comprising: a surface ; a recess formed at the surface, the recess being configured to affect the pressure of the fluid flowing at the recess, wherein a rim of the recess comprises a leading edge , a trailing edge and two side edges ; at least one ambient sensor port for measuring ambient fluid pressure at the surface; a first recess sensor port and a second recess sensor port for measuring the fluid pressure at the recess; a transducer at each of the respective sensor ports for converting the detected fluid pressure into a fluid pressure signal; a processor operably connected to each of the transducers and configured to: receive the fluid pressure signal from each transducer ; generate from the fluid pressure signals a fluid pressure profile, and determine, using the fluid pressure profile, at least one characteristic of the fluid; characterised in that ; the recess defines a funnel shape wherein the leading edge is wider than the trailing edge and wherein the fluid sensor defines a longitudinal axis (X); and, the at least one ambient sensor port is positioned at the leading edge and on the longitudinal axis. a surface ; a recess formed at the surface, the recess being configured to affect the pressure of the fluid flowing at the recess, wherein a rim of the recess comprises a leading edge , a trailing edge and two side edges ; at least one ambient sensor port for measuring ambient fluid pressure at the surface; a first recess sensor port and a second recess sensor port for measuring the fluid pressure at the recess; a transducer at each of the respective sensor ports for converting the detected fluid pressure into a fluid pressure signal; a processor operably connected to each of the transducers and configured to: receive the fluid pressure signal from each transducer ; generate from the fluid pressure signals a fluid pressure profile, and determine, using the fluid pressure profile, at least one characteristic of the fluid; receive the fluid pressure signal from each transducer ; generate from the fluid pressure signals a fluid pressure profile, and determine, using the fluid pressure profile, at least one characteristic of the fluid; characterised in that ; the recess defines a funnel shape wherein the leading edge is wider than the trailing edge and wherein the fluid sensor defines a longitudinal axis (X); and, the at least one ambient sensor port is positioned at the leading edge and on the longitudinal axis. the recess defines a funnel shape wherein the leading edge is wider than the trailing edge and wherein the fluid sensor defines a longitudinal axis (X); and, the at least one ambient sensor port is positioned at the leading edge and on the longitudinal axis.
A cooking control method of a cooking utensil, comprising: acquiring a rice species identifier of rice to be cooked (S1); receiving cooking preference information of a user (S2); acquiring a rice species type corresponding to the rice species identifier (S3); acquiring a cooking curve corresponding to the cooking preference information and the rice species type (S4); and controlling the cooking utensil based on the cooking curve (S5), characterized in that the rice species identifier is obtained by scanning with a viewfinder provided by the cooking utensil or a mobile terminal of the user; and/or wherein the rice species identifier is acquired by scanning a two-dimensional code in a rice bag, alternatively, the rice species identifier is acquired from an e-commerce purchase record of the user, alternatively, the rice species identifier is input with a mobile terminal of the user. acquiring a rice species identifier of rice to be cooked (S1); receiving cooking preference information of a user (S2); acquiring a rice species type corresponding to the rice species identifier (S3); acquiring a cooking curve corresponding to the cooking preference information and the rice species type (S4); and controlling the cooking utensil based on the cooking curve (S5), characterized in that the rice species identifier is obtained by scanning with a viewfinder provided by the cooking utensil or a mobile terminal of the user; and/or wherein the rice species identifier is acquired by scanning a two-dimensional code in a rice bag, alternatively, the rice species identifier is acquired from an e-commerce purchase record of the user, alternatively, the rice species identifier is input with a mobile terminal of the user.
A wind turbine blade comprising: a shell structure defining a leading edge and a trailing edge ; and an upwind shell and a downwind shell joined along at least one of: said leading edge or said trailing edge, wherein said shell structure comprises a root laminate made from a second plurality of blade root preformed parts, characterized in that the shell structure comprises: a spar cap laminate made from a first plurality of spar cap preformed parts, and an aerodynamic fairing laminate made from a third plurality of aerodynamic fairing preformed parts. a shell structure defining a leading edge and a trailing edge ; and an upwind shell and a downwind shell joined along at least one of: said leading edge or said trailing edge, wherein said shell structure comprises a root laminate made from a second plurality of blade root preformed parts, characterized in that the shell structure comprises: a spar cap laminate made from a first plurality of spar cap preformed parts, and an aerodynamic fairing laminate made from a third plurality of aerodynamic fairing preformed parts. a spar cap laminate made from a first plurality of spar cap preformed parts, and an aerodynamic fairing laminate made from a third plurality of aerodynamic fairing preformed parts.
A multipurpose tool comprising: a plurality of handles configured for relative movement between a closed position and an open position, wherein the plurality of handles comprise a first handle defining a longitudinal axis between opposite ends of the first handle and comprising opposed sidewalls and a floor extending between the opposed sidewalls; a plurality of tool members carried by at least a first handle and foldable into the first handle such that the tool members are configured for movement through a first open side of the first handle, opposite the floor, between a stowed position and an open position, wherein the plurality of tool members are disposed alongside one another in a stowed position so as to define a composite tool profile, characterized in that the floor of the first handle includes a web extending between the opposed sidewalls and defines an opening having a shape that corresponds to the composite tool profile, wherein the opening defined by the web has the same general shape and the same size as the plurality of tool members foldable into the first handle, and wherein the plurality of tool members are accessible through the opening a plurality of handles configured for relative movement between a closed position and an open position, wherein the plurality of handles comprise a first handle defining a longitudinal axis between opposite ends of the first handle and comprising opposed sidewalls and a floor extending between the opposed sidewalls; a plurality of tool members carried by at least a first handle and foldable into the first handle such that the tool members are configured for movement through a first open side of the first handle, opposite the floor, between a stowed position and an open position, wherein the plurality of tool members are disposed alongside one another in a stowed position so as to define a composite tool profile, characterized in that the floor of the first handle includes a web extending between the opposed sidewalls and defines an opening having a shape that corresponds to the composite tool profile, wherein the opening defined by the web has the same general shape and the same size as the plurality of tool members foldable into the first handle, and wherein the plurality of tool members are accessible through the opening
A vehicle velocity control method , comprising determining (S 110), by an onboard sensor of a current vehicle, drivable distances in different directions in front of the current vehicle, and obtaining, at least based on types of targets in the different directions, an area of a drivable space in front of the current vehicle; and characterized by comprising: determining (S 120), based on the area of the drivable space and a current vehicle velocity, a result of a safety degree in a current driving scenario; and controlling (S 130) the vehicle velocity of the current vehicle based on the result of the safety degree. determining (S 110), by an onboard sensor of a current vehicle, drivable distances in different directions in front of the current vehicle, and obtaining, at least based on types of targets in the different directions, an area of a drivable space in front of the current vehicle; and characterized by comprising: determining (S 120), based on the area of the drivable space and a current vehicle velocity, a result of a safety degree in a current driving scenario; and controlling (S 130) the vehicle velocity of the current vehicle based on the result of the safety degree.
A cationic coating formulation consisting of: water, at least one anionic ultrafine ground calcium carbonate, at least one non-ionic polyvinyl alcohol, at least one water-soluble salt of a divalent metal ion, at least one dispersing agent, and at least one cationic polymer, wherein the at least one anionic ultrafine ground calcium carbonate, when in the form of a compacted bed, has a monomodal pore size distribution, a volume defined pore size polydispersity expressed as full width at half maximum, FWHM, from 40 to 80 nm, and a volume defined median pore diameter from 30 to 80 nm, wherein the cationic coating formulation has a solid content in the range from 10 to 80 wt.-%, based on the total weight of the cationic coating formulation, and wherein the ultrafine ground calcium carbonate is a ground calcium carbonate with a weight median particle size d 50 of ≤ 300 nm. water, at least one anionic ultrafine ground calcium carbonate, at least one non-ionic polyvinyl alcohol, at least one water-soluble salt of a divalent metal ion, at least one dispersing agent, and at least one cationic polymer, wherein the at least one anionic ultrafine ground calcium carbonate, when in the form of a compacted bed, has a monomodal pore size distribution, a volume defined pore size polydispersity expressed as full width at half maximum, FWHM, from 40 to 80 nm, and a volume defined median pore diameter from 30 to 80 nm, wherein the cationic coating formulation has a solid content in the range from 10 to 80 wt.-%, based on the total weight of the cationic coating formulation, and wherein the ultrafine ground calcium carbonate is a ground calcium carbonate with a weight median particle size d 50 of ≤ 300 nm.
A flame retardant resin composition comprising: a polyolefin resin; calcium carbonate particles blended at a ratio of 5 parts by mass or more and 80 parts by mass or less relative to 100 parts by mass of the polyolefin resin; aluminum hydroxide blended at a ratio of 50 parts by mass or more and 125 parts by mass or less relative to 100 parts by mass of the polyolefin resin; a silicone-based compound blended at a ratio of more than 1 part by mass and 10 parts by mass or less relative to 100 parts by mass of the polyolefin resin; a fatty acid-containing compound blended at a ratio of 3 parts by mass or more and 20 parts by mass or less relative to 100 parts by mass of the polyolefin resin; and a zinc-containing inorganic compound blended at a ratio of 1 part by mass or more and 7 parts by mass or less relative to 100 parts by mass of the polyolefin resin, wherein the calcium carbonate particles and the aluminum hydroxide are blended in total at a ratio of 55 parts by mass or more and 130 parts by mass or less relative to 100 parts by mass of the polyolefin resin. a polyolefin resin; calcium carbonate particles blended at a ratio of 5 parts by mass or more and 80 parts by mass or less relative to 100 parts by mass of the polyolefin resin; aluminum hydroxide blended at a ratio of 50 parts by mass or more and 125 parts by mass or less relative to 100 parts by mass of the polyolefin resin; a silicone-based compound blended at a ratio of more than 1 part by mass and 10 parts by mass or less relative to 100 parts by mass of the polyolefin resin; a fatty acid-containing compound blended at a ratio of 3 parts by mass or more and 20 parts by mass or less relative to 100 parts by mass of the polyolefin resin; and a zinc-containing inorganic compound blended at a ratio of 1 part by mass or more and 7 parts by mass or less relative to 100 parts by mass of the polyolefin resin, wherein the calcium carbonate particles and the aluminum hydroxide are blended in total at a ratio of 55 parts by mass or more and 130 parts by mass or less relative to 100 parts by mass of the polyolefin resin.
Glass container , comprising a wall section and a bottom section , wherein the wall section and the bottom section surround an inner volume, wherein at least the wall section comprises a tempered section having a wall thickness (tw) between 1,1 mm and 2,3 mm, wherein the bottom section comprises a bottom tempered section, wherein a thickness relation between the wall thickness (tw) of the wall tempered section and the bottom thickness of the bottom tempered section is between 2 and 4,5. wherein the wall section and the bottom section surround an inner volume, wherein at least the wall section comprises a tempered section having a wall thickness (tw) between 1,1 mm and 2,3 mm, wherein the bottom section comprises a bottom tempered section, wherein a thickness relation between the wall thickness (tw) of the wall tempered section and the bottom thickness of the bottom tempered section is between 2 and 4,5.
A vehicle roof glass element, having an exterior glass pane and a transparent insulating layer foamed onto the glass pane on the inside, and a circumferential frame which is provided on the interior rim portion of the glass pane and applied thereon by injection molding or foaming and which extends up to the rim , characterized in that all runner points and ventilation points of the frame are provided on the inside.
A raw material composition of neodymium-iron-boron magnet material, wherein, the raw material composition of neodymium-iron-boron magnet material comprises the following components by mass percentage, wherein the percentage refers to the mass percentage relative to the total mass of the raw material composition of neodymium-iron-boron magnet material: 29.5-32% of R', R' is a rare earth element and includes Pr and Nd; wherein, Pr ≥17.15%; Cu ≥ 0.35%; 64-69.2% of Fe; characterized by 0.9-1.2% of B. Cu ≥ 0.35%; 64-69.2% of Fe; characterized by 0.9-1.2% of B.
A method to prepare a graphene coated sponge-based electrode comprising: - obtaining a graphene coated sponge by: filling mineral wool with a solution comprising graphene material by successive squeezing to obtain a mineral wool soaked with graphene material; transferring the mineral wool soaked with graphene material into a hydrothermal reactor and submitting it to heating from 60 to 240 oC for 5 minutes to 72 hours to have graphene material bonded to mineral wool; cleaning the heated material to remove the unbonded graphene material and reaction by-products from the graphene coated mineral wool; and - connecting the graphene coated sponge to electrical current. - obtaining a graphene coated sponge by: filling mineral wool with a solution comprising graphene material by successive squeezing to obtain a mineral wool soaked with graphene material; transferring the mineral wool soaked with graphene material into a hydrothermal reactor and submitting it to heating from 60 to 240 oC for 5 minutes to 72 hours to have graphene material bonded to mineral wool; cleaning the heated material to remove the unbonded graphene material and reaction by-products from the graphene coated mineral wool; and filling mineral wool with a solution comprising graphene material by successive squeezing to obtain a mineral wool soaked with graphene material; transferring the mineral wool soaked with graphene material into a hydrothermal reactor and submitting it to heating from 60 to 240 oC for 5 minutes to 72 hours to have graphene material bonded to mineral wool; cleaning the heated material to remove the unbonded graphene material and reaction by-products from the graphene coated mineral wool; and - connecting the graphene coated sponge to electrical current.
A latchless locking system, comprising: a handle half , comprising: a left handle portion and a right handle portion held apart to form a blade groove there between, wherein the left handle portion and the right handle portion each include a liner comprising a pivot slot ; and a first lock pin disposed between the first left handle portion and the first right handle portion ; a blade characterised in that the blade has a tang that is pivotally and slidably coupled to the handle half with a pivot pin wherein the tang comprises a tang slot and a hook portion extending over the tang slot , wherein the hook portion is configured to capture the lock pin when the blade is in a first locked position and thereby prevent rotation of the blade from the first locked position. a handle half , comprising: a left handle portion and a right handle portion held apart to form a blade groove there between, wherein the left handle portion and the right handle portion each include a liner comprising a pivot slot ; and a first lock pin disposed between the first left handle portion and the first right handle portion ; a left handle portion and a right handle portion held apart to form a blade groove there between, wherein the left handle portion and the right handle portion each include a liner comprising a pivot slot ; and a first lock pin disposed between the first left handle portion and the first right handle portion ; a blade characterised in that the blade has a tang that is pivotally and slidably coupled to the handle half with a pivot pin wherein the tang comprises a tang slot and a hook portion extending over the tang slot , wherein the hook portion is configured to capture the lock pin when the blade is in a first locked position and thereby prevent rotation of the blade from the first locked position.
Multifunctional mug comprising: - a main container comprising a first internal compartment and a bottom ; - a secondary container that is coaxial and can be separably associated with the bottom of said main container , said secondary container comprising a second internal compartment , said first internal compartment being separated from said second internal compartment ; - a lid that is coaxial with said main container and comprises a first element and a second element separably connected together, said second element being in direct contact with said main container and said first element being mounted on top of said second element ; characterized by - an elastic band that is connected to an outer surface of said main container ; - a piece of cutlery ; and further characterized in that said elastic band has externally a fixing seat , said piece of cutlery being removably connected to said fixing seat and adjacent to said outer surface of said main container , and in that said elastic band is further adapted to be at least partially interposed between said first element of the lid and said second element of the lid so as to form a fluid-tight joint. - a main container comprising a first internal compartment and a bottom ; - a secondary container that is coaxial and can be separably associated with the bottom of said main container , said secondary container comprising a second internal compartment , said first internal compartment being separated from said second internal compartment ; - a lid that is coaxial with said main container and comprises a first element and a second element separably connected together, said second element being in direct contact with said main container and said first element being mounted on top of said second element ; characterized by - an elastic band that is connected to an outer surface of said main container ; - a piece of cutlery ;
Fin stabilizer having a pivotable fin for a ship, the pivotable fin being mounted via at least one self-aligning roller bearing about its longitudinal axis , the self-aligning roller bearing comprising an inner ring , an outer ring and a plurality of rollers , the inner ring and the outer ring together forming a rolling body space , in which the rollers are arranged, characterized in that the self-aligning roller bearing comprises a seal arrangement for lateral sealing of the rolling body space , the seal arrangement having a seal carrier section which is screwed on the outer ring and a seal section which is arranged on the seal carrier section , the seal section forming a sealing region with the inner ring , and the rolling body space of the self-aligning roller bearing being filled with lubricating grease.
A method of microbiological sanitisation of the surface of whole eggs in shell, characterized in that it comprises the following sequence of treatment steps: - pre-thermization step, by heating the whole eggs in shell at a temperature comprised between 70 and 82°C for a period of time sufficient to allow the surface of the eggs to reach the above temperature, wherein said heating is carried out by IR radiation at a wavelength comprised between 5 and 18 micrometres (microns); - high-temperature heating step, by heating the whole eggs in shell at a temperature comprised between 85 and 105°C, which is maintained for a period of time comprised between 3 and 20 seconds, wherein said heating is carried out by IR radiation at a wavelength comprised between 18 and 30 micrometres (microns); and - cooling step, by cooling the whole eggs in shell to a temperature comprised between 15 and 25°C at the surface of the whole eggs in shell, wherein the pre-thermization step and the high-temperature heating step are carried out by carrying the whole eggs in shell through a tunnel in which the eggs are rotated 360° about their major axis for a predetermined number of rotations. - pre-thermization step, by heating the whole eggs in shell at a temperature comprised between 70 and 82°C for a period of time sufficient to allow the surface of the eggs to reach the above temperature, wherein said heating is carried out by IR radiation at a wavelength comprised between 5 and 18 micrometres (microns); - high-temperature heating step, by heating the whole eggs in shell at a temperature comprised between 85 and 105°C, which is maintained for a period of time comprised between 3 and 20 seconds, wherein said heating is carried out by IR radiation at a wavelength comprised between 18 and 30 micrometres (microns); and - cooling step, by cooling the whole eggs in shell to a temperature comprised between 15 and 25°C at the surface of the whole eggs in shell, wherein the pre-thermization step and the high-temperature heating step are carried out by carrying the whole eggs in shell through a tunnel in which the eggs are rotated 360° about their major axis for a predetermined number of rotations.