mhurhangee/patent-ind-claim-en huggingface dataset:
Method for mounting a carport for a motor vehicle, - whereby the carport has a substructure and a superstructure , wherein the substructure has a plurality of support elements for attachment to a floor structure and the support elements form a receiving space for a motor vehicle, - wherein the substructure has a mounting structure which is arranged on the support elements , - the superstructure being mountable on the mounting structure , - wherein the superstructure has a base structure for attachment to the mounting structure and a support structure for attachment of photovoltaic cells - wherein the superstructure is mounted so as to be rotatable about at least one spatial axis, - wherein a charging element for charging an electrical energy storage device of a vehicle with electric drive is arranged on the carport , with the following assembly steps: a) the superstructure is initially attached to the mounting structure without special alignment, b) the superstructure is then rotated around at least one spatial axis on the substructure in such a way that the photovoltaic cells are aligned according to the position of the sun, c) the superstructure is then fixed to the mounting structure so that it is not possible to accidentally change the alignment of the photovoltaic cells without loosening the fixing. - whereby the carport has a substructure and a superstructure , wherein the substructure has a plurality of support elements for attachment to a floor structure and the support elements form a receiving space for a motor vehicle, - wherein the substructure has a mounting structure which is arranged on the support elements , - the superstructure being mountable on the mounting structure , - wherein the superstructure has a base structure for attachment to the mounting structure and a support structure for attachment of photovoltaic cells - wherein the superstructure is mounted so as to be rotatable about at least one spatial axis, - wherein a charging element for charging an electrical energy storage device of a vehicle with electric drive is arranged on the carport , a) the superstructure is initially attached to the mounting structure without special alignment, b) the superstructure is then rotated around at least one spatial axis on the substructure in such a way that the photovoltaic cells are aligned according to the position of the sun, c) the superstructure is then fixed to the mounting structure so that it is not possible to accidentally change the alignment of the photovoltaic cells without loosening the fixing.
A firearm having an aim-compensation system, comprising a firearm having a barrel , wherein the firearm is configured to fire a projectile; a sensor disposed on the firearm that is configured to determine an orientation of the firearm; a control unit configured to determine an intended point-of-aim of the firearm and an actual point-of-aim of the firearm based on the orientation of the firearm as determined by the sensor, wherein the control unit determines a differential of the intended point-of-aim and the actual point-of-aim; and a muzzle device arranged on the barrel of the firearm, wherein the muzzle device is in communication with the control unit, and wherein, when the projectile is fired, the muzzle device is configured to direct a gas toward the projectile in an amount and direction based on the differential determined by the control unit so as to exert an aerodynamic force on the projectile to alter the trajectory of the projectile towards the intended point-of-aim. a firearm having a barrel , wherein the firearm is configured to fire a projectile; a sensor disposed on the firearm that is configured to determine an orientation of the firearm; a control unit configured to determine an intended point-of-aim of the firearm and an actual point-of-aim of the firearm based on the orientation of the firearm as determined by the sensor, wherein the control unit determines a differential of the intended point-of-aim and the actual point-of-aim; and a muzzle device arranged on the barrel of the firearm, wherein the muzzle device is in communication with the control unit, and wherein, when the projectile is fired, the muzzle device is configured to direct a gas toward the projectile in an amount and direction based on the differential determined by the control unit so as to exert an aerodynamic force on the projectile to alter the trajectory of the projectile towards the intended point-of-aim.
An elastic structure for absorbent sanitary products having elasticized portions alternating with non-elasticized portions, comprising - a sleeve comprising a first and a second layer of non-elastic flexible material overlapping each other, - at least one elastic thread which extends within said sleeve in a longitudinal direction, and - a plurality of first connecting portions spaced apart in the longitudinal direction, wherein each of said first connecting portions comprises two first welds arranged on opposite sides of the thread , wherein the first welds weld said first and said second layers to each other in a first longitudinal portion of said sleeve , and wherein said first welds of each of said first connecting portions have respective proximal surfaces facing the thread spaced apart by a distance (D1), less than the diameter (D) of the untensioned thread , in order to anchor the thread to said first longitudinal portion of the sleeve , thereby forming an elasticized portion of the elastic structure, characterized in that it comprises a plurality of second connecting portions spaced apart in the longitudinal direction, wherein each of said second connecting portions comprises at least one second weld , wherein said at least one second weld of each of said second connecting portions welds said first and said second layers to each other in a second longitudinal portion of said sleeve without axially connecting the thread to said second longitudinal portion of the sleeve , thereby forming a non-elasticized portion of the elastic structure and wherein each of said second connecting portions comprises two second welds arranged on opposite sides of the thread and having respective proximal surfaces facing the thread , spaced apart by a distance (D2) greater than the diameter (D) of the untensioned thread . - a sleeve comprising a first and a second layer of non-elastic flexible material overlapping each other, - at least one elastic thread which extends within said sleeve in a longitudinal direction, and - a plurality of first connecting portions spaced apart in the longitudinal direction, wherein each of said first connecting portions comprises two first welds arranged on opposite sides of the thread , wherein the first welds weld said first and said second layers to each other in a first longitudinal portion of said sleeve , and wherein said first welds of each of said first connecting portions have respective proximal surfaces facing the thread spaced apart by a distance (D1), less than the diameter (D) of the untensioned thread , in order to anchor the thread to said first longitudinal portion of the sleeve , thereby forming an elasticized portion of the elastic structure,
A method for the non-invasive optical characterization of a heterogeneous medium, the method comprising: - a step of illuminating, by means of a series of incident light waves, a given field of view of said heterogeneous medium, positioned in a focal plane of a microscope objective; the method being characterized in that it comprises: - a step of determining a first distortion matrix ( D ur , D rr ) in an observation basis defined between a conjugate plane of said focal plane and an observation plane, said first distortion matrix corresponding, in a correction basis defined between a conjugate plane of said focal plane and an aberration correction plane, to the term-by-term matrix product of a first reflection matrix ( R ur ) of said field of view, determined in said correction basis, with the phase conjugate matrix of a reference reflection matrix, defined for a model medium, in said correction basis; - a step of determining, on the basis of said first distortion matrix, at least one mapping of a physical parameter of said heterogeneous medium. - a step of illuminating, by means of a series of incident light waves, a given field of view of said heterogeneous medium, positioned in a focal plane of a microscope objective; the method being characterized in that it comprises: - a step of determining a first distortion matrix ( D ur , D rr ) in an observation basis defined between a conjugate plane of said focal plane and an observation plane, said first distortion matrix corresponding, in a correction basis defined between a conjugate plane of said focal plane and an aberration correction plane, to the term-by-term matrix product of a first reflection matrix ( R ur ) of said field of view, determined in said correction basis, with the phase conjugate matrix of a reference reflection matrix, defined for a model medium, in said correction basis; - a step of determining, on the basis of said first distortion matrix, at least one mapping of a physical parameter of said heterogeneous medium.
A decorative laminate comprising a core impregnated with a phenolic resin, associated on at least one of the faces thereof with a sheet impregnated with a mixture consisting of an alkylated melamine resin crosslinked with an acrylic polyol resin having at least two hydroxyl functions, and up to 5% by weight, relative to the total weight of the mixture, of one or more additives chosen from anti-UV agents, antioxidants and surfactants, said core is not impregnated with a resin other than the phenolic resin.
A collapsible bottle for liquid enteral nutrition, comprising a body extending axially from a base to a neck and having a front , a back and two sides that define a width dimension of the bottle, wherein the bottle can stand upright on its base with the base being provided with an integrally formed tab for also hanging the bottle neck-down, the body having a shoulder region adjacent to the neck, a hip region adjacent to the base and a waist region therebetween, wherein a circumference of the bottle in the waist region is less than a circumference of the bottle in both the hip region and the shoulder region, the bottle further comprising hinge columns extending at the sides of the bottle in at least the waist region, the hinge columns providing the wall of the body with a region of increased stiffness in the axial direction while facilitating collapse by bending of the wall about the hinge column.
A device for screwing objects, comprising: - a tool unit designed for screwing screw connection elements , - a rotation default output means designed to output the torque to be applied when screwing with the tool unit and/or the angle of rotation to be achieved when screwing, and - a data processing unit designed to detect torque data or rotational angle data representing the torque applied during screwing or the rotational angle achieved during screwing, - an image capturing unit comprising a stereo camera for capturing a spatial image of a working area having at least a portion of an object to be screwed together and providing the captured image data, and - the data processing unit comprises an image analysis unit designed to recognize the object , the tool unit and a screwing location on the object in the captured image and to generate a protocol tuple (p) including data representing the recognized screwing location, the detected torque data and/or rotational angle data associated with each other, and - characterized in that the device comprises a carrier unit carrying at least the image capturing unit , the carrier unit being designed to be carried on the body of a user. - a tool unit designed for screwing screw connection elements , - a rotation default output means designed to output the torque to be applied when screwing with the tool unit and/or the angle of rotation to be achieved when screwing, and - a data processing unit designed to detect torque data or rotational angle data representing the torque applied during screwing or the rotational angle achieved during screwing, - an image capturing unit comprising a stereo camera for capturing a spatial image of a working area having at least a portion of an object to be screwed together and providing the captured image data, and - the data processing unit comprises an image analysis unit designed to recognize the object , the tool unit and a screwing location on the object in the captured image and to generate a protocol tuple (p) including data representing the recognized screwing location, the detected torque data and/or rotational angle data associated with each other, and - characterized in that the device comprises a carrier unit carrying at least the image capturing unit , the carrier unit being designed to be carried on the body of a user.
Method of presence detection in a system of: stationary sensors at predetermined locations; at least one user owned mobile terminal such as a smart device; and a server storing links between each of the sensors and a location thereof, the method comprising: - broadcasting, by one of the sensors, a unique sensor identifier; - detecting, by the terminal, the unique sensor identifier; - forwarding, by the terminal, the detected sensor identifier to the server; - determining, by the server, of a location of the terminal to be the same as that of the sensor, based on the sensor identifier; - sending, by the server, of a verification request, based on the received sensor identifier, to at least one of the sensor and the terminal; - generating, by the at least one of the sensor and the terminal, of a response to the verification request and transmitting the response to the other of the sensor and the terminal; - generating, by the other of the sensor and the terminal, of a validation request based on the received response and transmitting the validation request to the server; and - validating, by the server, of the validation request based on the response to the verification request. - broadcasting, by one of the sensors, a unique sensor identifier; - detecting, by the terminal, the unique sensor identifier; - forwarding, by the terminal, the detected sensor identifier to the server; - determining, by the server, of a location of the terminal to be the same as that of the sensor, based on the sensor identifier; - sending, by the server, of a verification request, based on the received sensor identifier, to at least one of the sensor and the terminal; - generating, by the at least one of the sensor and the terminal, of a response to the verification request and transmitting the response to the other of the sensor and the terminal; - generating, by the other of the sensor and the terminal, of a validation request based on the received response and transmitting the validation request to the server; and - validating, by the server, of the validation request based on the response to the verification request.
A dry-compressing vacuum pump comprising two rotor elements which are arranged in a suction chamber , two rotor shafts , each supporting a rotor element , two toothed belt wheels respectively arranged on one shaft end extending from the suction chamber , a drive means driving the rotor shafts , and a toothed belt for driving and synchronizing the rotor shafts , the belt being connected with the drive means and the toothed belt wheels , characterized in that a circumferential backlash between the two rotor elements of more than ± 0.75°, in particular more than ± 1° is provided.
A light control member comprising: a first laminate which includes a substrate and an alignment layer; a second laminate which includes a substrate and an alignment layer and is disposed with respect to the first laminate so that their alignment layers face each other; a liquid crystal layer which is disposed between the first laminate and the second laminate and of which alignment is controlled by the driving of an electrode provided in at least one of the first laminate and the second laminate ; and a plurality of bead spacers which are disposed in the liquid crystal layer , wherein at least one alignment layer of the alignment layer of the first laminate and the alignment layer of the second laminate is provided with a plurality of projections which protrude toward the liquid crystal layer , wherein at least a part of the bead spacers is held by the projections provided by the one alignment layer, and wherein a ratio of a number S2 of the aggregated bead spacers aggregated in two or more and four or less with respect to a total number S1 of the plurality of bead spacers disposed in the liquid crystal layer is 20% or more, wherein the total number S1 of bead spacers is the sum of the number of non-aggregated bead spacers and the number of the aggregations. a first laminate which includes a substrate and an alignment layer; a second laminate which includes a substrate and an alignment layer and is disposed with respect to the first laminate so that their alignment layers face each other; a liquid crystal layer which is disposed between the first laminate and the second laminate and of which alignment is controlled by the driving of an electrode provided in at least one of the first laminate and the second laminate ; and a plurality of bead spacers which are disposed in the liquid crystal layer , wherein at least one alignment layer of the alignment layer of the first laminate and the alignment layer of the second laminate is provided with a plurality of projections which protrude toward the liquid crystal layer , wherein at least a part of the bead spacers is held by the projections provided by the one alignment layer, and wherein a ratio of a number S2 of the aggregated bead spacers aggregated in two or more and four or less with respect to a total number S1 of the plurality of bead spacers disposed in the liquid crystal layer is 20% or more, wherein the total number S1 of bead spacers is the sum of the number of non-aggregated bead spacers and the number of the aggregations.
A brush , comprising: a wire core having a proximal end and a distal end; a round tip formed on said distal end of said wire core, said round tip being unitary with said wire core and being formed by melting or welding a portion of said wire core at said distal end; and a molded tip attached to said wire core; wherein said round tip of said wire core is received within a socket formed in a body of said molded tip to affix said molded tip to said wire core. a wire core having a proximal end and a distal end; a round tip formed on said distal end of said wire core, said round tip being unitary with said wire core and being formed by melting or welding a portion of said wire core at said distal end; and a molded tip attached to said wire core; wherein said round tip of said wire core is received within a socket formed in a body of said molded tip to affix said molded tip to said wire core.
A thermosetting material for use in a 3D printing process comprising: a) at least one epoxy resin A, b) at least one elastomer-modified epoxy resin B, c) at least one resin C with a dynamic viscosity of below 4 Pas at 150 °C as determined according to the method given in the description, d) at least one curing agent D capable of reacting with A, B and optionally C, e) and optionally additional compounds, wherein the glass transition temperature of the uncured material is at least 30 °C, preferably at least 40 °C, as measured with DSC at a heating rate of 20 °C/min as determined according to the method given in the description, characterized in that the epoxy resin A is or comprises a bisphenol-based epoxy resin, a phenolic epoxy resin, a Novolac epoxy resin or a mixture thereof. a) at least one epoxy resin A, b) at least one elastomer-modified epoxy resin B, c) at least one resin C with a dynamic viscosity of below 4 Pas at 150 °C as determined according to the method given in the description, d) at least one curing agent D capable of reacting with A, B and optionally C, e) and optionally additional compounds, wherein the glass transition temperature of the uncured material is at least 30 °C, preferably at least 40 °C, as measured with DSC at a heating rate of 20 °C/min as determined according to the method given in the description, characterized in that the epoxy resin A is or comprises a bisphenol-based epoxy resin, a phenolic epoxy resin, a Novolac epoxy resin or a mixture thereof.
A process for recovering valuable products from jadarite ore includes the steps of: (a) beneficiating a mined or stockpiled jadarite ore and producing a jadarite concentrate, (b) digesting the concentrate in an acid and taking boron and lithium into solution in a digestion liquor, and (c) subsequent steps to separate valuable boron-containing and lithium-containing products from the digestion liquor. (a) beneficiating a mined or stockpiled jadarite ore and producing a jadarite concentrate, (b) digesting the concentrate in an acid and taking boron and lithium into solution in a digestion liquor, and (c) subsequent steps to separate valuable boron-containing and lithium-containing products from the digestion liquor.
A core-shell catalyst system, characterized in that - the core comprises at least one oxide selected among ceria, a ceria-based mixed oxide and mixtures thereof, preferably ceria, said core comprising at least one particle having size of 2-100 nm, preferably of 5-100 nm, more preferably of 20-80 nm; and - the shell comprises an amorphous phase comprising Pd and an oxide selected among ceria, a ceria-based mixed oxide and mixtures thereof, the shell having thickness of ≤ 5 nm, preferably of 0.5 - 5 nm. - the core comprises at least one oxide selected among ceria, a ceria-based mixed oxide and mixtures thereof, preferably ceria, said core comprising at least one particle having size of 2-100 nm, preferably of 5-100 nm, more preferably of 20-80 nm; and - the shell comprises an amorphous phase comprising Pd and an oxide selected among ceria, a ceria-based mixed oxide and mixtures thereof, the shell having thickness of ≤ 5 nm, preferably of 0.5 - 5 nm.
A coating composition comprising a hydroxyl group-containing acrylic resin (A), a polyisocyanate compound (B), a matting agent (C), an organic solvent (D1) and an organic solvent (D2), wherein: the organic solvent (D1) is an organic solvent with a boiling point in the range of 190 to 250°C and a solubility parameter of 9 to 11, the organic solvent (D2) is an organic solvent with a boiling point in the range of 100 to 140°C and a solubility parameter of 8 or greater and less than 9, and the content of the organic solvent (D1) is in the range of 5 to 40 parts by mass and the content of the organic solvent (D2) is in the range of 35 to 75 parts by mass, based on 100 parts by mass as the total solid content of the hydroxyl group-containing acrylic resin (A) and polyisocyanate compound (B). the organic solvent (D1) is an organic solvent with a boiling point in the range of 190 to 250°C and a solubility parameter of 9 to 11, the organic solvent (D2) is an organic solvent with a boiling point in the range of 100 to 140°C and a solubility parameter of 8 or greater and less than 9, and the content of the organic solvent (D1) is in the range of 5 to 40 parts by mass and the content of the organic solvent (D2) is in the range of 35 to 75 parts by mass, based on 100 parts by mass as the total solid content of the hydroxyl group-containing acrylic resin (A) and polyisocyanate compound (B).