mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a multilayer tool in which a green part is produced by producing a primary layer provided with recesses by screen printing from a primary material provided with an organic binder system, and subsequently introducing abrasively acting particles into the recesses by stencil printing, and thereafter applying a cover layer of the primary material provided with the organic binder system for fixing the abrasively acting particles in the recesses by screen printing, wherein the tool is obtained by a final heat treatment of the green part. producing a primary layer provided with recesses by screen printing from a primary material provided with an organic binder system, and subsequently introducing abrasively acting particles into the recesses by stencil printing, and thereafter applying a cover layer of the primary material provided with the organic binder system for fixing the abrasively acting particles in the recesses by screen printing, wherein the tool is obtained by a final heat treatment of the green part.
Device comprising: - a syringe prefilled with a single-use dose of a composition for bone filling, such as a rod or pellets, said composition comprising at least one resorbable or non-resorbable thermoplastic polymer material, said composition having a viscosity between 40 and 4000 Pa.s at a temperature of about 50°C and a Young's modulus between 0.5 and 4 GPa at about 37°C, said syringe enabling both the storage and administration of said composition, said syringe comprising a syringe body having an opening at each of its two ends, the distal first opening bearing sealing means for sealing it closed, in particular a plug, and/or means for the administration of said composition, in particular a cannula, the proximal second opening being sealed closed by sealing means, in particular a piston seal, slidable inside the syringe body, in particular by means of a piston rod adapted to be moved toward the distal opening, in particular connected to said slidable sealing means, said syringe body, said sealing and/or administration means, and said slidable sealing means defining a volume within which said dose is contained; - an external heating means structurally separate from the syringe and making it possible to heat it and melt or soften the dose of the composition for bone filling for the purposes of its administration. - a syringe prefilled with a single-use dose of a composition for bone filling, such as a rod or pellets, said composition comprising at least one resorbable or non-resorbable thermoplastic polymer material, said composition having a viscosity between 40 and 4000 Pa.s at a temperature of about 50°C and a Young's modulus between 0.5 and 4 GPa at about 37°C, said syringe enabling both the storage and administration of said composition, said syringe comprising a syringe body having an opening at each of its two ends, the distal first opening bearing sealing means for sealing it closed, in particular a plug, and/or means for the administration of said composition, in particular a cannula, the proximal second opening being sealed closed by sealing means, in particular a piston seal, slidable inside the syringe body, in particular by means of a piston rod adapted to be moved toward the distal opening, in particular connected to said slidable sealing means, said syringe body, said sealing and/or administration means, and said slidable sealing means defining a volume within which said dose is contained; - an external heating means structurally separate from the syringe and making it possible to heat it and melt or soften the dose of the composition for bone filling for the purposes of its administration.
An anti-ice system for an aircraft, the anti-ice system comprising: one or more sensors (102-1 to 102-N) that are configured, alone or in combination, to generate data indicative of one or more of a size, shape, density and type of air borne particles in the vicinity of the aircraft; a data conditioner , coupled to the one or more sensors, that is configured to prepare the data for processing; a reasoner , coupled to the data conditioner, that is configured to determine from the data from the data conditioner, the severity and location of an icing threat to an airframe , at least one engine and at least one air data probe; and one or more controllers , responsive to the reasoner, wherein the one or more controllers automatically operate an anti-icing mechanism for at least one of the at least one engine, the airframe, and the at least one air data probe depending on the icing threats determined by the reasoner wherein one or more controllers includes: a bleed air controller , and valves , responsive to the reasoner, wherein the bleed air controller automatically operates the valves to selectively apply bleed air to the at least one engine , the airframe or both depending on the severity of the icing threats determined by the reasoner, and an air data probe heater controller , responsive to the reasoner, wherein the air data probe heater controller is configured to control the amount of electrical power applied to one or more air data probe heaters .. one or more sensors (102-1 to 102-N) that are configured, alone or in combination, to generate data indicative of one or more of a size, shape, density and type of air borne particles in the vicinity of the aircraft; a data conditioner , coupled to the one or more sensors, that is configured to prepare the data for processing; a reasoner , coupled to the data conditioner, that is configured to determine from the data from the data conditioner, the severity and location of an icing threat to an airframe , at least one engine and at least one air data probe; and one or more controllers , responsive to the reasoner, wherein the one or more controllers automatically operate an anti-icing mechanism for at least one of the at least one engine, the airframe, and the at least one air data probe depending on the icing threats determined by the reasoner wherein one or more controllers includes: a bleed air controller , and valves , responsive to the reasoner, wherein the bleed air controller automatically operates the valves to selectively apply bleed air to the at least one engine , the airframe or both depending on the severity of the icing threats determined by the reasoner, and an air data probe heater controller , responsive to the reasoner, wherein the air data probe heater controller is configured to control the amount of electrical power applied to one or more air data probe heaters ..
A motor vehicle transmission cable attachment device , comprising: a body having an elongated slot oriented to slidably receive a pin in a sliding direction (A) of the body transverse to a longitudinal axis of the pin ; a member having a portion displaceable at least partially into the elongated slot when the pin is received in the slot , the portion thereafter preventing release of the pin from the slot ; a lock supported on the body and movable between a lock disengaged position to a lock engaged position; and characterised by , a lock-out slide integrally connected to the member ; the lock-out slide movable from a first position wherein a lock-out slide portion is received in a cavity of the lock in the lock disengaged position to a second position when the pin is received in the slot , the second position having the lock-out slide portion positioned freely outside of the lock thereby allowing the lock to be displaced to the lock engaged position. a body having an elongated slot oriented to slidably receive a pin in a sliding direction (A) of the body transverse to a longitudinal axis of the pin ; a member having a portion displaceable at least partially into the elongated slot when the pin is received in the slot , the portion thereafter preventing release of the pin from the slot ; a lock supported on the body and movable between a lock disengaged position to a lock engaged position; and characterised by , a lock-out slide integrally connected to the member ; the lock-out slide movable from a first position wherein a lock-out slide portion is received in a cavity of the lock in the lock disengaged position to a second position when the pin is received in the slot , the second position having the lock-out slide portion positioned freely outside of the lock thereby allowing the lock to be displaced to the lock engaged position.
A method of estimating a quantity of short circuit current available, i.e. SCCA, at a node of an alternating current (AC) electrical circuit , the AC electrical circuit including a direct current (DC) charging circuit electrically connected to the node, the method comprising: measuring a current flowing into the DC charging circuit to produce a set of current measurements; determining a total harmonic current distortion, i.e. THDi, based on the set of current measurements; establishing a correlation between the quantity of SCCA at the node and the THDi of current drawn by the DC charging circuit ; estimating a quantity of SCCA at the node based on the determined THDi; and storing the estimate of a quantity of SCCA in a memory. measuring a current flowing into the DC charging circuit to produce a set of current measurements; determining a total harmonic current distortion, i.e. THDi, based on the set of current measurements; establishing a correlation between the quantity of SCCA at the node and the THDi of current drawn by the DC charging circuit ; estimating a quantity of SCCA at the node based on the determined THDi; and storing the estimate of a quantity of SCCA in a memory.
A radiation imaging apparatus characterized by comprising: acquisition means adapted to acquire a radiation image from radiation detected by radiation detection means ; correction coefficient calculation means (110; 710; 711; 1201) adapted to calculate at least two correction coefficients to correct deficiency pixels, generated in the radiation image with a radiation loss, by referring to adjacent non-deficiency pixels; correction means (111; 712) adapted to correct the deficiency pixels using the correction coefficients; calculation means adapted to calculate an evaluation value that evaluates an increase in a noise level caused when the deficiency pixel is corrected by the correcting means; and reduction means adapted to perform processing of reducing the noise level for the corrected deficiency pixel based on the evaluation value calculated by the calculation means. acquisition means adapted to acquire a radiation image from radiation detected by radiation detection means ; correction coefficient calculation means (110; 710; 711; 1201) adapted to calculate at least two correction coefficients to correct deficiency pixels, generated in the radiation image with a radiation loss, by referring to adjacent non-deficiency pixels; correction means (111; 712) adapted to correct the deficiency pixels using the correction coefficients; calculation means adapted to calculate an evaluation value that evaluates an increase in a noise level caused when the deficiency pixel is corrected by the correcting means; and reduction means adapted to perform processing of reducing the noise level for the corrected deficiency pixel based on the evaluation value calculated by the calculation means.
An intraocular lens configured to improve vision for a patient's eye, the intraocular lens comprising: an optic comprising a first surface and a second surface opposite the first surface, the first surface and the second surface intersected by an optical axis, the optic being symmetric about the optical axis, wherein the first or the second surface of the optic is aspheric, wherein the optic is configured to focus light incident along a direction parallel to the optical axis at the fovea to produce a functional foveal image, wherein the optic is configured to focus light incident on the patient's eye at an oblique angle with respect to the optical axis at a peripheral retinal location disposed at a distance from the fovea, characterized in that the peripheral retinal location has an eccentricity between 1 and 30 degrees, and wherein the optic is a meniscus lens having a concave anterior surface with negative optical power, a convex posterior surface with positive optical power, and a shape factor between minus 4 and minus 1.5, wherein the shape factor is equal to R p + R a R p − R a , wherein R a is the radius of curvature of the anterior surface and R p is the radius of curvature of the posterior surface, whereby image quality at the peripheral retinal location is improved by reducing astigmatism at the peripheral retinal location. an optic comprising a first surface and a second surface opposite the first surface, the first surface and the second surface intersected by an optical axis, the optic being symmetric about the optical axis, wherein the first or the second surface of the optic is aspheric, wherein the optic is configured to focus light incident along a direction parallel to the optical axis at the fovea to produce a functional foveal image, wherein the optic is configured to focus light incident on the patient's eye at an oblique angle with respect to the optical axis at a peripheral retinal location disposed at a distance from the fovea, characterized in that the peripheral retinal location has an eccentricity between 1 and 30 degrees, and wherein the optic is a meniscus lens having a concave anterior surface with negative optical power, a convex posterior surface with positive optical power, and a shape factor between minus 4 and minus 1.5, wherein the shape factor is equal to R p + R a R p − R a , wherein R a is the radius of curvature of the anterior surface and R p is the radius of curvature of the posterior surface, whereby image quality at the peripheral retinal location is improved by reducing astigmatism at the peripheral retinal location.
An icon display control method, comprising: displaying a first icon and a second icon in a first icon display area (P1) and a second icon display area (P2), respectively; displaying an icon control box (C1) corresponding to the first icon display area (P1) and an icon control box (C2) corresponding to the second icon display area (P2); wherein each of the icon control box (C1) corresponding to the first icon display area (P1) and the icon control box (C2) corresponding to the second icon display area (P2) is used to place one icon to be displayed in each of the corresponding first icon display area (P1) and the second icon display area (P2); receiving a first input by a user; in response to the first input, displaying the first icon in the icon control box (C2) corresponding to the second icon display area (P2); and updating display content of the second icon display area (P2) to the first icon. displaying a first icon and a second icon in a first icon display area (P1) and a second icon display area (P2), respectively; displaying an icon control box (C1) corresponding to the first icon display area (P1) and an icon control box (C2) corresponding to the second icon display area (P2); wherein each of the icon control box (C1) corresponding to the first icon display area (P1) and the icon control box (C2) corresponding to the second icon display area (P2) is used to place one icon to be displayed in each of the corresponding first icon display area (P1) and the second icon display area (P2); receiving a first input by a user; in response to the first input, displaying the first icon in the icon control box (C2) corresponding to the second icon display area (P2); and updating display content of the second icon display area (P2) to the first icon.
A modified starch from an aewx corn with an endosperm genotype having one or two doses of ae capable of forming a thermal-reversible gel, wherein the modified starch from the aewx corn is starch extracted from a corn endosperm that has three doses of wx and one or two doses of ae and wherein the starch is subjected to acid hydrolysis, shear, enzymatic reaction or other reactions that thins, debranches or degrades the native starch.
A method, comprising: receiving first input comprising real-world data from a traffic accident database and related to expected states of a vehicle and another vehicle at impact event initiation with positions, orientations, and velocities for a plurality of cases as parameters used for impact event evaluation; receiving second input related to expected vehicle occupant position and position transfer during a pre-impact event maneuver for at least a portion of the plurality of cases; and simulating an impact event using both the first input and the second input to predict a combined effect from a collision avoidance feature and an injury prevention feature. receiving first input comprising real-world data from a traffic accident database and related to expected states of a vehicle and another vehicle at impact event initiation with positions, orientations, and velocities for a plurality of cases as parameters used for impact event evaluation; receiving second input related to expected vehicle occupant position and position transfer during a pre-impact event maneuver for at least a portion of the plurality of cases; and simulating an impact event using both the first input and the second input to predict a combined effect from a collision avoidance feature and an injury prevention feature.
A method of manufacturing a fluid impermeable rigid composite pipe comprising the steps of:- a. providing a supporting mandrel that is shaped to define a bore of the pipe; b. laying onto the outer circumferential surface of the mandrel one or more first tapes made of a thermoplastic material thereby to create a first region that is predominantly thermoplastic material adjacent the bore of the pipe; c. providing a plurality of tows that comprise co-mingled reinforcing fibres and thermoplastic filaments; d. weaving a plurality of the tows to form one or more circular braids and laying down the one or more of the circular braids on to the first layer to form a second region; e. applying to the outer surface of the second region a heat-shrinkable layer ; f. heating the product of steps (b) to (e) on the mandrel to a first temperature at which the thermoplastic materials of the one or more tapes and the tows melt, and the heat-shrinkable layer shrinks radially inwards to consolidate the melted thermoplastic material to form a thermoplastic matrix in which the reinforcing fibres are embedded, and a thermoplastic rich region is formed at the bore of the pipe; and, g. allowing the pipe to cool to form a self-supporting pipe. a. providing a supporting mandrel that is shaped to define a bore of the pipe; b. laying onto the outer circumferential surface of the mandrel one or more first tapes made of a thermoplastic material thereby to create a first region that is predominantly thermoplastic material adjacent the bore of the pipe; c. providing a plurality of tows that comprise co-mingled reinforcing fibres and thermoplastic filaments; d. weaving a plurality of the tows to form one or more circular braids and laying down the one or more of the circular braids on to the first layer to form a second region; e. applying to the outer surface of the second region a heat-shrinkable layer ; f. heating the product of steps (b) to (e) on the mandrel to a first temperature at which the thermoplastic materials of the one or more tapes and the tows melt, and the heat-shrinkable layer shrinks radially inwards to consolidate the melted thermoplastic material to form a thermoplastic matrix in which the reinforcing fibres are embedded, and a thermoplastic rich region is formed at the bore of the pipe; and, g. allowing the pipe to cool to form a self-supporting pipe.
A bioresorbable polymer of Formula I wherein: R is: or or or wherein: m is between 4 and 90; n is between 5 and 200; x is between 1 and 200; and y is between 0 and 200, where TEA is triethylamine m is between 4 and 90; n is between 5 and 200; x is between 1 and 200; and y is between 0 and 200, where TEA is triethylamine
A monoclonal antibody or antigen binding domain thereof which comprises one or more amino acid changes in one or more of the heavy or light chain CDR1, CDR2 or CDR3 of an antibody, wherein a) the VL CDR1 has the sequence RASQSISRYLN of SEQ ID NO: 01, the VL CDR2 has the sequence GASSLQS of SEQ ID NO: 05, and the VL CDR3 has the sequence QHTRA of SEQ ID NO: 09, and b) the VH CDR1 has the sequence NYAIH of SEQ ID NO: 13, the VH CDR2 has the sequence WINAGNGNTKFSQKFQG of SEQ ID NO: 16, and the VH CDR3 has the sequence DSSNMVRGIIIAYYFDY of SEQ ID NO: 19, which binds to a portion of the amino acid sequence GGFYYLYANICFRHHETSGDLATEYLQLMVYVTKTSIKIP of SEQ ID NO: 76 from amino acid residue 212 to amino acid residue 250 of human OPGbp, wherein the monoclonal antibody or antigen binding domain thereof inhibits the formation or activation of osteoclasts mediated by human OPGbp. a) the VL CDR1 has the sequence RASQSISRYLN of SEQ ID NO: 01, the VL CDR2 has the sequence GASSLQS of SEQ ID NO: 05, and the VL CDR3 has the sequence QHTRA of SEQ ID NO: 09, and the VL CDR1 has the sequence RASQSISRYLN of SEQ ID NO: 01, the VL CDR2 has the sequence GASSLQS of SEQ ID NO: 05, and the VL CDR3 has the sequence QHTRA of SEQ ID NO: 09, and b) the VH CDR1 has the sequence NYAIH of SEQ ID NO: 13, the VH CDR2 has the sequence WINAGNGNTKFSQKFQG of SEQ ID NO: 16, and the VH CDR3 has the sequence DSSNMVRGIIIAYYFDY of SEQ ID NO: 19, the VH CDR1 has the sequence NYAIH of SEQ ID NO: 13, the VH CDR2 has the sequence WINAGNGNTKFSQKFQG of SEQ ID NO: 16, and the VH CDR3 has the sequence DSSNMVRGIIIAYYFDY of SEQ ID NO: 19,
A system for grading a food article that has been cut into portions , the system comprising: a first conveyor ; at least one spray-removal robot ; a first receiving conveyor and a second receiving conveyor , defining a space therebetween; and a third receiving conveyor , wherein the spray-removal robot comprises at least one valve with a nozzle , wherein the valve is configured to eject fluid through the nozzle to impact a food article being moved on the first conveyor toward the third receiving conveyor , such that at least one portion of the food article is moved by the impact through the space between the first receiving conveyor and the second receiving conveyor , and such that at least one portion of the food article is moved by the motion of the first receiving conveyor and the second receiving conveyor to the third receiving conveyor . a first conveyor ; at least one spray-removal robot ; a first receiving conveyor and a second receiving conveyor , defining a space therebetween; and a third receiving conveyor , wherein the spray-removal robot comprises at least one valve with a nozzle , wherein the valve is configured to eject fluid through the nozzle to impact a food article being moved on the first conveyor toward the third receiving conveyor , such that at least one portion of the food article is moved by the impact through the space between the first receiving conveyor and the second receiving conveyor , and such that at least one portion of the food article is moved by the motion of the first receiving conveyor and the second receiving conveyor to the third receiving conveyor .