mhurhangee/patent-ind-claim-en huggingface dataset:
A disk-shaped projectile for projection by a mechanical launcher that includes a launching arm having a receptacle, into which the disk-shaped projectile is loaded prior to launching, the projectile comprising: a payload carrier having: a shell comprising shell holes , a top surface having a recess , a bottom cover , a secondary payload canister comprising holes with membranes , an active payload contained in the secondary payload canister , and a pyrotechnic fuse for burning the active payload to produce an irritant agent thereby tearing the membranes and dispersing said irritant agent in the air through the holes of the secondary payload canister and the shell holes of the shell ; an ignition unit contained in the recess of the payload carrier , electrical contacts for connecting between the ignition unit and a contacting surface of the mechanical launcher for receiving a signal encoding a time delay, and a data processor for delaying a detonation of said pyrotechnic fuse by said ignition unit according to said time delay. a payload carrier having: a shell comprising shell holes , a top surface having a recess , a bottom cover , a secondary payload canister comprising holes with membranes , an active payload contained in the secondary payload canister , and a pyrotechnic fuse for burning the active payload to produce an irritant agent thereby tearing the membranes and dispersing said irritant agent in the air through the holes of the secondary payload canister and the shell holes of the shell ; a shell comprising shell holes , a top surface having a recess , a bottom cover , a secondary payload canister comprising holes with membranes , an active payload contained in the secondary payload canister , and a pyrotechnic fuse for burning the active payload to produce an irritant agent thereby tearing the membranes and dispersing said irritant agent in the air through the holes of the secondary payload canister and the shell holes of the shell ; an ignition unit contained in the recess of the payload carrier , electrical contacts for connecting between the ignition unit and a contacting surface of the mechanical launcher for receiving a signal encoding a time delay, and a data processor for delaying a detonation of said pyrotechnic fuse by said ignition unit according to said time delay.
A process for producing a copper-beryllium alloy product, the process comprising: preparing a base alloy comprising 0.15 wt.-% - 4.0 wt.-% beryllium, optionally additional alloying elements, selected from the group consisting of cobalt, nickel, zirconium, and combinations thereof in an amount of from 0 wt.-% to 3 wt.-%, and less than 0.5 wt.-% of other elements, such as titanium, tin, lead, or zinc, or combinations thereof, with the balance being copper, and having grains and an initial cross section area; cold working the base alloy to a percentage of cold reduction of area (CRA) greater than 40%, based on the initial cross section area; and heat treating by aging the cold worked alloy, at a temperature of 260 to 427 ° C (500 to 800 °F) for a period of 1 minutes to 10 minutes, to produce the copper-beryllium alloy product; wherein the grain structure of the copper-beryllium alloy product has an orientation angle of less than 45° relative to the cold working surfaces when viewed along the direction of the cold working; wherein the copper-beryllium alloy product demonstrates a fatigue strength of at least 385 MPa after 10 6 cycles of testing; and wherein preparing the base alloy optionally comprises preliminary cold working and preliminary heat treating steps to provide the base alloy. preparing a base alloy comprising 0.15 wt.-% - 4.0 wt.-% beryllium, optionally additional alloying elements, selected from the group consisting of cobalt, nickel, zirconium, and combinations thereof in an amount of from 0 wt.-% to 3 wt.-%, and less than 0.5 wt.-% of other elements, such as titanium, tin, lead, or zinc, or combinations thereof, with the balance being copper, and having grains and an initial cross section area; cold working the base alloy to a percentage of cold reduction of area (CRA) greater than 40%, based on the initial cross section area; and heat treating by aging the cold worked alloy, at a temperature of 260 to 427 ° C (500 to 800 °F) for a period of 1 minutes to 10 minutes, to produce the copper-beryllium alloy product; wherein the grain structure of the copper-beryllium alloy product has an orientation angle of less than 45° relative to the cold working surfaces when viewed along the direction of the cold working; wherein the copper-beryllium alloy product demonstrates a fatigue strength of at least 385 MPa after 10 6 cycles of testing; and wherein preparing the base alloy optionally comprises preliminary cold working and preliminary heat treating steps to provide the base alloy.
A printing system comprising: a print controller including one or more processors to receive print data, rasterize the print data into bitmap data, analyze objects in each page of bitmap data to determine sizes of objects and generate mapping data for each page of bitmap data that maps locations of areas of page bitmap data having same size objects; a print engine to print the bitmap data to a medium ; and a print verification system to capture one or more images of the medium as print verification data, detect one or more defects in the print verification data and determine a size of each of the one or more defects, wherein the print verification system detects the one or more defects by comparing the print verification data to each page of the bitmap data, wherein the print verification system determines the size of a defect by determining a location of the defect in the mapping data and determining whether a defect size is greater than or equal to a minimum defect size threshold being associated with the location and set as a percentage of a size of an object, wherein the print verification system reports the defect upon a determination that the defect has a size that is greater than or equal to the minimum defect size threshold associated with the location. a print controller including one or more processors to receive print data, rasterize the print data into bitmap data, analyze objects in each page of bitmap data to determine sizes of objects and generate mapping data for each page of bitmap data that maps locations of areas of page bitmap data having same size objects; a print engine to print the bitmap data to a medium ; and a print verification system to capture one or more images of the medium as print verification data, detect one or more defects in the print verification data and determine a size of each of the one or more defects, wherein the print verification system detects the one or more defects by comparing the print verification data to each page of the bitmap data, wherein the print verification system determines the size of a defect by determining a location of the defect in the mapping data and determining whether a defect size is greater than or equal to a minimum defect size threshold being associated with the location and set as a percentage of a size of an object,
A system for coating at least a portion of an interior wall surface of a container , comprising: (a) a container comprising an open end , a second end opposite the open end , and a wall extending therebetween, the wall having an exterior wall surface and an interior wall surface , the container having a chamber within an area defined by the interior wall surface between the open end and the second end of the container , wherein the chamber is sealed from an exterior of the container and is configured to act as its own vacuum chamber; (b) a monomer gas supply source configured to supply at least one monomer gas ; (c) a gas inlet duct positioned at the open end of the container and having a portion extending into a portion of the chamber configured to supply at least one monomer gas received from the monomer gas supply source into the chamber ; (d) a photolysis energy source configured to provide photons to at least a portion of the monomer gas supplied to the chamber of the container to form a reactive gas comprising at least one reactive moiety from the monomer gas ; and (e) an outlet duct positioned at the open end of the container configured to remove excess reactive gas from the chamber . (a) a container comprising an open end , a second end opposite the open end , and a wall extending therebetween, the wall having an exterior wall surface and an interior wall surface , the container having a chamber within an area defined by the interior wall surface between the open end and the second end of the container , wherein the chamber is sealed from an exterior of the container and is configured to act as its own vacuum chamber; (b) a monomer gas supply source configured to supply at least one monomer gas ; (c) a gas inlet duct positioned at the open end of the container and having a portion extending into a portion of the chamber configured to supply at least one monomer gas received from the monomer gas supply source into the chamber ; (d) a photolysis energy source configured to provide photons to at least a portion of the monomer gas supplied to the chamber of the container to form a reactive gas comprising at least one reactive moiety from the monomer gas ; and (e) an outlet duct positioned at the open end of the container configured to remove excess reactive gas from the chamber .
A driverless transport system , having a monitoring device which is configured to monitor a protective field of the transport system , characterized in that the transport system comprises, in addition to the monitoring device, a projection device which is configured to project protective field information to the surroundings of the transport system , wherein the projection device is configured to generate a light projection onto the surroundings of the transport system in order to visibly project the protective field information, wherein the protective field information comprises information on a future protective field which is the basis for a future monitoring of the transport system at a later point in time. a monitoring device which is configured to monitor a protective field of the transport system , characterized in that the transport system comprises, in addition to the monitoring device, a projection device which is configured to project protective field information to the surroundings of the transport system , wherein the projection device is configured to generate a light projection onto the surroundings of the transport system in order to visibly project the protective field information, wherein the protective field information comprises information on a future protective field which is the basis for a future monitoring of the transport system at a later point in time.
A method of preparing a resin infused random fiber mat comprising the steps of: a. forming a slurry of fiber and liquid dispersion of polymeric resin, b. forming a mat from the slurry by depositing the slurry onto a porous substrate, c. removing an excess of the liquid dispersion after the mat is formed to obtain the desired quantity of resin and fiber, wherein the liquid dispersion undergoes no filtration and the removed liquid dispersion may be re-used to form the mat, d. removing water from the mat, and e. curing the mat. a. forming a slurry of fiber and liquid dispersion of polymeric resin, b. forming a mat from the slurry by depositing the slurry onto a porous substrate, c. removing an excess of the liquid dispersion after the mat is formed to obtain the desired quantity of resin and fiber, wherein the liquid dispersion undergoes no filtration and the removed liquid dispersion may be re-used to form the mat, d. removing water from the mat, and e. curing the mat.
A method for the manufacture of a dielectric resonator antenna, DRA , or an array of the DRA's, wherein each of the DRA comprises: a plurality of volumes of dielectric materials comprising N volumes, N being an integer equal to or greater than 3, disposed to form successive and sequential layered volumes V i , i being an integer from 1 to N, wherein volume V 1 forms an innermost first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1), wherein a successive volume V i+1 forms a layered shell disposed over and at least partially embedding volume V i , wherein volume V N at least partially embeds all volumes V 1 to V N-1 ; an electrically conductive ground structure ; and a signal feed , the method comprising: molding at least one volume of the plurality of volumes of the dielectric materials, or all of the volumes of the plurality of volumes of the dielectric materials ; molding a first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1) of the plurality of volumes of dielectric material; and subsequent to molding the first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1), molding a second volume (104.2, 204.2, 404.2, 504.2, 604.2, 704.2, 804.2, 904.2, 1004.2, 2904.2, 3204.2) of the plurality of volumes of dielectric materials into or onto the first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1).
A method for machining a stator opening of a stator and a bearing opening of an electromechanical converter , in particular an electric motor, the method comprising the steps of honing the stator opening using a honing tool and machining, preferably honing, the bearing opening , characterized in that a tool for machining the bearing opening is aligned coaxially with the stator opening during the machining of the bearing opening via a centering device which engages in the stator opening , or in that the honing tool for honing the stator opening is aligned coaxially with the bearing opening via a centering device which engages in the bearing opening . a tool for machining the bearing opening is aligned coaxially with the stator opening during the machining of the bearing opening via a centering device which engages in the stator opening , or in that the honing tool for honing the stator opening is aligned coaxially with the bearing opening via a centering device which engages in the bearing opening .
A thermoplastic composition comprising: from 29.9 wt% to 84.9 wt% of a base resin comprising poly(p-phenylene oxide) (PPO), polystyrene (PS) and an impact modifier; from 15 wt% to 70 wt% of a dielectric filler; and from 0.1 wt% to 10 wt% of an impact promoter comprising a polycarbonate-siloxane copolymer, a polyolefin-siloxane copolymer, or a combination thereof, wherein the thermoplastic composition has a dielectric constant (Dk) of from 3.0-8.0 between 1 and 5 gigahertz (GHz) and a dissipation factor (Df) of less than 0.003 between 1 and 5 GHz, Dk and Df determined as indicated in the specification, the combined weight percent value of all components does not exceed 100 wt%, and all weight percent values are based on the total weight of the thermoplastic composition. from 29.9 wt% to 84.9 wt% of a base resin comprising poly(p-phenylene oxide) (PPO), polystyrene (PS) and an impact modifier; from 15 wt% to 70 wt% of a dielectric filler; and from 0.1 wt% to 10 wt% of an impact promoter comprising a polycarbonate-siloxane copolymer, a polyolefin-siloxane copolymer, or a combination thereof, wherein the thermoplastic composition has a dielectric constant (Dk) of from 3.0-8.0 between 1 and 5 gigahertz (GHz) and a dissipation factor (Df) of less than 0.003 between 1 and 5 GHz, Dk and Df determined as indicated in the specification, the combined weight percent value of all components does not exceed 100 wt%, and all weight percent values are based on the total weight of the thermoplastic composition.
A dental mirror suction device for suctioning off liquids and particles from an oral cavity of a patient, having a hollow tubular base body which has an inner surface , an outer surface , a longitudinal axis (X-X), a connection opening for a hose, and a suction opening , wherein the inner surface has a mirrored surface which can be seen into through the suction opening and which is disposed in a manner such that at least regions of the oral cavity can be observed by means of it, wherein the hollow base body has a central wall along its longitudinal axis (X-X) which divides at least regions of the hollow space into a first hollow channel and a second hollow channel , characterized in that starting from a free frontal edge , the wall thickness of the central wall initially increases and then remains at a substantially constant thickness.
A method for processing an audio signal by an apparatus comprising a downmix processing unit , an information generating unit , and a multi-channel decoder , the method comprising: receiving, by the downmix processing unit, a downmix signal comprising at least one object signal; receiving, by the information generating unit, object information determined when the downmix signal is generated; receiving, by the information generating unit, mix information from a user-interface for controlling at least one object signal comprised in the downmix signal; decomposing, by the downmix processing unit, the downmix signal into a subband signal; generating, by the information generating unit, a downmix processing parameter using the object information and the mix information; processing, by the downmix processing unit, the subband signal using the downmix processing parameter to generate a processed downmix signal; and, generating, by the downmix processing unit, an output signal using the processed downmix signal; generating, by the multi-channel decoder, a multi-channel decoded signal using the processed downmix signal; wherein a number of channels of the downmix signal is equal to a number of the channels of the output signal, and the output signal corresponds to a time domain signal; and the object information is at least one of object level information and object correlation information. receiving, by the downmix processing unit, a downmix signal comprising at least one object signal; receiving, by the information generating unit, object information determined when the downmix signal is generated; receiving, by the information generating unit, mix information from a user-interface for controlling at least one object signal comprised in the downmix signal; decomposing, by the downmix processing unit, the downmix signal into a subband signal; generating, by the information generating unit, a downmix processing parameter using the object information and the mix information; processing, by the downmix processing unit, the subband signal using the downmix processing parameter to generate a processed downmix signal; and, generating, by the downmix processing unit, an output signal using the processed downmix signal; generating, by the multi-channel decoder, a multi-channel decoded signal using the processed downmix signal; wherein a number of channels of the downmix signal is equal to a number of the channels of the output signal, and the output signal corresponds to a time domain signal; and the object information is at least one of object level information and object correlation information.
A wireless sensor system for use in a refrigerated container , comprising at least one wireless sensor device (200; 300; 400), including: a flexible sensor body (220; 320; 420) including at least one of sensing elements (222; 322; 422) to sense at least one parameter of the refrigerated container ; a battery (226; 326; 426) to provide power to the at least one of sensing elements (222; 322; 422); and a battery housing (228; 328; 428) coupled to an end of the flexible sensor body (220; 320; 420); and at least a pair of parallel sensor mounting rails adapted to be mounted to a ceiling of a refrigerated container and extending horizontally, wherein the mounting rails have a keyed profile to interface with the at least one wireless sensor device (200; 300; 400); and portions of the battery housing (228; 328; 428) of the sensor device (200; 300; 400) are configured to slidingly engage with the mounting rails . a flexible sensor body (220; 320; 420) including at least one of sensing elements (222; 322; 422) to sense at least one parameter of the refrigerated container ; a battery (226; 326; 426) to provide power to the at least one of sensing elements (222; 322; 422); and a battery housing (228; 328; 428) coupled to an end of the flexible sensor body (220; 320; 420); and at least a pair of parallel sensor mounting rails adapted to be mounted to a ceiling of a refrigerated container and extending horizontally, wherein the mounting rails have a keyed profile to interface with the at least one wireless sensor device (200; 300; 400); and portions of the battery housing (228; 328; 428) of the sensor device (200; 300; 400) are configured to slidingly engage with the mounting rails .
Method for producing a steel component coated with an anticorrosion coating, comprising the following operating steps: a) providing a flat steel product coated with an aluminum-based anticorrosion coating, b) heat-treating a blank formed from the coated flat steel product, in a furnace, where: 0.0034 ° C / min ≤ Q ≤ 0 .021°C/min with Q = T * d / t * L , where T = furnace temperature in °C, d = blank thickness in mm, t = dwell time of the blank in the furnace in min, L = furnace length in mm c) shaping the blank in a shaping tool to form a steel component. a) providing a flat steel product coated with an aluminum-based anticorrosion coating, b) heat-treating a blank formed from the coated flat steel product, in a furnace, where: 0.0034 ° C / min ≤ Q ≤ 0 .021°C/min with Q = T * d / t * L , where T = furnace temperature in °C, d = blank thickness in mm, t = dwell time of the blank in the furnace in min, L = furnace length in mm with Q = T * d / t * L , where T = furnace temperature in °C, d = blank thickness in mm, t = dwell time of the blank in the furnace in min, L = furnace length in mm c) shaping the blank in a shaping tool to form a steel component.
A piston assembly for a spring-loaded contact , comprising: - a piston body , arranged to be received into a guiding cylinder of the spring loaded contact , - a piston head , with a contacting surface arranged for contacting an external part, - a clip arranged to mate with a conductive portion of the spring loaded contact, the piston assembly being characterized by that the piston body comprises a through hole , the clip being arranged into the through hole, and that the piston head is attached to the piston body by an ultrasonic welded portion. - a piston body , arranged to be received into a guiding cylinder of the spring loaded contact , - a piston head , with a contacting surface arranged for contacting an external part, - a clip arranged to mate with a conductive portion of the spring loaded contact, the piston assembly being characterized by that the piston body comprises a through hole , the clip being arranged into the through hole,
A composition comprising, based on the total weight of the composition, 25 wt% to 50 wt% of a polyetherimide; 50 wt% to 75 wt% of a polyphthalamide; and 5 wt% to 20 wt% of talc; wherein the composition has a number of drops to tracking at 250 volts of greater than or equal to 50 drops determined according to ASTM D-3638-85, and wherein polyphthalamide is a block copolymer or a random copolymer that comprises units of the formulas and wherein each G 1 is independently a branched or unbranched C 4-8 alkyl, and each G 2 and G 3 is independently a branched or unbranched C 4-12 alkyl group. 25 wt% to 50 wt% of a polyetherimide; 50 wt% to 75 wt% of a polyphthalamide; and 5 wt% to 20 wt% of talc; wherein the composition has a number of drops to tracking at 250 volts of greater than or equal to 50 drops determined according to ASTM D-3638-85, and wherein polyphthalamide is a block copolymer or a random copolymer that comprises units of the formulas and wherein each G 1 is independently a branched or unbranched C 4-8 alkyl, and each G 2 and G 3 is independently a branched or unbranched C 4-12 alkyl group.