mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for heating a portion of a subsea pipeline , said apparatus comprising: at least one electrical conductor , characterised in that said apparatus further comprises, a deployment mechanism configured to operatively support a length of said electrical conductor in a looped manner, the mechanism configured to deploy the looped conductor circumferentially about at least a portion of the pipeline thereby forming a circuit; an actuation assembly configured to operatively position the deployment mechanism relative to the pipeline and to actuate the deployment mechanism for subsequent deployment, the actuation assembly configured to displace said deployment mechanism in at least two planes in Euclidean space to allow desired positioning of the deployment mechanism relative to the pipeline ; an electrical power supply operatively connected to the conductor , said supply configured to operatively induce an alternating magnetic field within the circuit to generate heat in the portion of the pipeline through induction heating; and a controller for controlling said power supply and configured to automatically determine and maintain a resonant frequency in the circuit by dynamically adjusting a capacitive reactance to match an inductive reactance of the circuit during heating of the pipeline . at least one electrical conductor , characterised in that said apparatus further comprises, a deployment mechanism configured to operatively support a length of said electrical conductor in a looped manner, the mechanism configured to deploy the looped conductor circumferentially about at least a portion of the pipeline thereby forming a circuit; an actuation assembly configured to operatively position the deployment mechanism relative to the pipeline and to actuate the deployment mechanism for subsequent deployment, the actuation assembly configured to displace said deployment mechanism in at least two planes in Euclidean space to allow desired positioning of the deployment mechanism relative to the pipeline ; an electrical power supply operatively connected to the conductor , said supply configured to operatively induce an alternating magnetic field within the circuit to generate heat in the portion of the pipeline through induction heating; and a controller for controlling said power supply and configured to automatically determine and maintain a resonant frequency in the circuit by dynamically adjusting a capacitive reactance to match an inductive reactance of the circuit during heating of the pipeline .
A frequency converting element comprising: a mixer (106; 1106; 4106) having first and second input nodes and an output node (112; 1112); a plurality of passive voltage boosters cascaded in series, wherein each passive voltage booster comprises a charge pump having sampling capacitors and switches; wherein an input node of the charge pump of a first passive voltage booster is coupled to the output node of the mixer, and wherein the charge pump of the first passive voltage booster receives a mixer output signal at the input node of the charge pump of the first passive voltage booster, and the charge pumps of the plurality of passive voltage boosters output an amplified version of the mixer output signal, respectively. a mixer (106; 1106; 4106) having first and second input nodes and an output node (112; 1112); a plurality of passive voltage boosters cascaded in series, wherein each passive voltage booster comprises a charge pump having sampling capacitors and switches; wherein an input node of the charge pump of a first passive voltage booster is coupled to the output node of the mixer, and wherein the charge pump of the first passive voltage booster receives a mixer output signal at the input node of the charge pump of the first passive voltage booster, and the charge pumps of the plurality of passive voltage boosters output an amplified version of the mixer output signal, respectively.
A sharpening system for a cutter blade for cutting flexible materials mounted in an automatic cutting machine comprising such blade , the modular sharpening system comprising at least one sharpening element that can move toward the blade , the pressure and the position being modified depending on wear and type of sharpening, comprising a first sharpening module that includes at least one first sharpening element , and a second sharpening module that includes at least one second sharpening element , and a guide plate , characterized in that the guide plate consists of an outer disc and an inner disc that are mounted around the blade , wherein the inner disc is integral to the rotary motion of the blade , rotating at the same time as the blade , and said inner disc is rotatable with respect to said outer disc and the outer disc is static and integral to the guide plate , said first and second sharpening modules being mounted on the inner disc , which is integral to the rotary motion of the blade , such that the first and second sharpening modules are always positioned in the direction of the blade when the blade exists the cutting area. the modular sharpening system comprising at least one sharpening element that can move toward the blade , the pressure and the position being modified depending on wear and type of sharpening, comprising a first sharpening module that includes at least one first sharpening element , and a second sharpening module that includes at least one second sharpening element , and a guide plate , characterized in that the guide plate consists of an outer disc and an inner disc that are mounted around the blade , wherein the inner disc is integral to the rotary motion of the blade , rotating at the same time as the blade , and said inner disc is rotatable with respect to said outer disc and the outer disc is static and integral to the guide plate , said first and second sharpening modules being mounted on the inner disc , which is integral to the rotary motion of the blade , such that the first and second sharpening modules are always positioned in the direction of the blade when the blade exists the cutting area.
A polymerizable composition comprising: a) a phthalonitrile resin; b) a polyoxometalate of Formula I: H n [XM 12 O 40 ] (I), wherein M is W or Mo, n is 1 to 6, and X is a heteroatom selected from P, Si, S, Ge, As, Te, or Se; and c) a curative. a) a phthalonitrile resin; b) a polyoxometalate of Formula I: H n [XM 12 O 40 ] (I), wherein M is W or Mo, n is 1 to 6, and X is a heteroatom selected from P, Si, S, Ge, As, Te, or Se; and c) a curative.
A method for creating a new folder on a touch screen device, characterized by comprising the following steps: detecting that at least two objects on a current interface of the touch screen are successively within a preset time range selected, dragged to a specific area of the current interface and released by input of a user of the touch screen device; determining whether a type of each of the at least two objects matches one or more types of acceptance properties which are preconfigured for a folder in the current interface; wherein upon determining that the type of each of the at least two objects matches the one or more types of acceptance properties, creating a new folder at any vacant position on the current interface and saving the at least two objects in the new folder; and upon determining that the type of any of the at least two objects does not match the one or more types of acceptance properties, prompting the user that the type of the any of at least two objects does not match the one or more types of acceptance properties and that the creation of the new folder fails. detecting that at least two objects on a current interface of the touch screen are successively within a preset time range selected, dragged to a specific area of the current interface and released by input of a user of the touch screen device; determining whether a type of each of the at least two objects matches one or more types of acceptance properties which are preconfigured for a folder in the current interface; wherein upon determining that the type of each of the at least two objects matches the one or more types of acceptance properties, creating a new folder at any vacant position on the current interface and saving the at least two objects in the new folder; and upon determining that the type of any of the at least two objects does not match the one or more types of acceptance properties, prompting the user that the type of the any of at least two objects does not match the one or more types of acceptance properties and that the creation of the new folder fails.
A method for alignment of a receiver charging element of a hearing device and a transmitter charging element of a charger , the hearing device being a custom rechargeable hearing device designed to be worn by a user, the charger comprising a custom insert , the custom insert comprising a cavity configured to receive the hearing device , the method comprising: - obtaining a digital scan of the user's ear shape; - creating a digital three-dimensional hearing device model based on the digital scan of the user's ear shape, and adding a position of the receiver charging element to the digital three-dimensional hearing device model; - providing a digital three-dimensional charger model and adding a position of the transmitter charging element to the digital three-dimensional charger model; - providing a generic digital three-dimensional insert model ; - creating a digital cavity representing the cavity in the generic digital three-dimensional insert model, the digital cavity being created based on the digital three-dimensional hearing device model to thereby obtain a custom digital three-dimensional insert model; and - ensuring alignment between the receiver charging element in the digital three-dimensional hearing device model and the transmitter charging element in the three-dimensional charger model to thereby maximize coupling between the receiver charging element and the transmitter charging element . - obtaining a digital scan of the user's ear shape; - creating a digital three-dimensional hearing device model based on the digital scan of the user's ear shape, and adding a position of the receiver charging element to the digital three-dimensional hearing device model; - providing a digital three-dimensional charger model and adding a position of the transmitter charging element to the digital three-dimensional charger model; - providing a generic digital three-dimensional insert model ; - creating a digital cavity representing the cavity in the generic digital three-dimensional insert model, the digital cavity being created based on the digital three-dimensional hearing device model to thereby obtain a custom digital three-dimensional insert model; and - ensuring alignment between the receiver charging element in the digital three-dimensional hearing device model and the transmitter charging element in the three-dimensional charger model to thereby maximize coupling between the receiver charging element and the transmitter charging element .
A method performed by a host computing device comprising processing hardware and storage hardware , the method comprising: executing a host operating system, the host operating system executing a guest runtime environment, GRE, engine , the GRE engine configured to instantiate and manage the execution of GREs , each GRE comprising an environment that isolates execution within the GRE from the host operating system and from other GREs; providing a security policy for one of the GREs managed by the GRE environment, the security policy specifying execution restrictions to be imposed on code executing within the GRE, wherein the security policy for one of the GREs is implemented within a guest operating system; and enforcing the security policy with respect to the GRE by monitoring execution of code within the GRE to evaluate instructions to execute new processes or access resources against the security policy and enforcing the execution restrictions when they are determined to be applicable by performing a corrective action when the security policy is violated, wherein the corrective action is one of reversing an access to a resource, denying the corresponding request, and issuing a warning message or a signal outside the GRE which in turn triggers a further corrective action outside the GRE. executing a host operating system, the host operating system executing a guest runtime environment, GRE, engine , the GRE engine configured to instantiate and manage the execution of GREs , each GRE comprising an environment that isolates execution within the GRE from the host operating system and from other GREs; providing a security policy for one of the GREs managed by the GRE environment, the security policy specifying execution restrictions to be imposed on code executing within the GRE, wherein the security policy for one of the GREs is implemented within a guest operating system; and enforcing the security policy with respect to the GRE by monitoring execution of code within the GRE to evaluate instructions to execute new processes or access resources against the security policy and enforcing the execution restrictions when they are determined to be applicable by performing a corrective action when the security policy is violated, wherein the corrective action is one of reversing an access to a resource, denying the corresponding request, and issuing a warning message or a signal outside the GRE which in turn triggers a further corrective action outside the GRE.
System comprising a chain and an underwater connector for connecting the chain underwater, the underwater connector comprising a connector body having a first end with an anchoring point and a second end for the anchoring of the chain , the second end comprising an inlet opening , the connector body additionally comprises a housing communicated with the inlet opening in which at least the last link of an end of the chain is housed, and a locking plate which locks by contact one of the links of the end of the chain housed in said housing , characterized in that the locking plate has a through groove for receiving another one of the links of the end of the chain and thrusting means for being actuated by a remotely operated vehicle (ROV), the locking plate being movable from a first position, in which the locking plate is arranged outside the housing allowing the passage of the end of the chain into the housing , to a second position, in which the locking plate is arranged in the housing locking the link of the end of the chain housed in said housing by contact.
Method for producing a nitrided packaging steel from a hot-rolled steel product having a carbon content of 0.04 to 0.12 wt.%, and the following upper limits for the weight content of the alloying constituents: - Mn: maximum 0.4 %, - Si: maximum 0.04 %, - Al: maximum 0.1 %, - Cr: maximum 0.1 %, - P: maximum 0.03 %, - Cu: maximum 0.1 %, - Ni: maximum 0.15 %, - Sn: maximum 0.04 %, - As: maximum 0.02 %, - S: maximum 0.03 %, - Mo: maximum 0.05 %, - V: maximum 0.04 %; - Ti: maximum 0.05 %, - Nb: maximum 0.05 %, - B: maximum 0.005 %; - other alloying constituents, including contaminants: maximum 0.05 % and the remainder iron, characterised by the following steps: - cold-rolling the steel product to form a flat steel product; - recrystallisation annealing of the cold-rolled flat steel product in an annealing furnace, in particular a continuous annealing furnace, wherein a nitrogen-containing gas is introduced into the annealing furnace and directed onto the flat steel product in order to introduce uncombined nitrogen into the flat steel product in a quantity corresponding to a concentration of more than 0.021 wt.% or to increase the quantity of uncombined nitrogen in the flat steel product to a concentration of more than 0.021 wt.%; - cooling-down of the flat steel product annealed with recrystallisation to room temperature at a cooling rate of at least 100 K/s immediately after recrystallisation annealing. - other alloying constituents, including contaminants: maximum 0.05 % and the remainder iron, characterised by the following steps: - cold-rolling the steel product to form a flat steel product; - recrystallisation annealing of the cold-rolled flat steel product in an annealing furnace, in particular a continuous annealing furnace, wherein a nitrogen-containing gas is introduced into the annealing furnace and directed onto the flat steel product in order to introduce uncombined nitrogen into the flat steel product in a quantity corresponding to a concentration of more than 0.021 wt.% or to increase the quantity of uncombined nitrogen in the flat steel product to a concentration of more than 0.021 wt.%; - cooling-down of the flat steel product annealed with recrystallisation to room temperature at a cooling rate of at least 100 K/s immediately after recrystallisation annealing. - cold-rolling the steel product to form a flat steel product; - recrystallisation annealing of the cold-rolled flat steel product in an annealing furnace, in particular a continuous annealing furnace, wherein a nitrogen-containing gas is introduced into the annealing furnace and directed onto the flat steel product in order to introduce uncombined nitrogen into the flat steel product in a quantity corresponding to a concentration of more than 0.021 wt.% or to increase the quantity of uncombined nitrogen in the flat steel product to a concentration of more than 0.021 wt.%; - cooling-down of the flat steel product annealed with recrystallisation to room temperature at a cooling rate of at least 100 K/s immediately after recrystallisation annealing.
A method for issuing an alarm in an Electronic Article Surveillance ("EAS") system , comprising: using an exciter coil to generate an electromagnetic field within a surveillance zone through which one or more persons travel when exiting from a secured area; detecting a response to the electromagnetic field caused by one or more objects within the surveillance zone; based on the response to the electromagnetic field, selectively producing an alarm condition in accordance with at least one detection algorithm; measuring a speed of a person traveling through the surveillance zone; determining if the speed exceeds a threshold; selectively varying at least one characteristic of the at least one detection algorithm when the speed exceeds a predetermined threshold. using an exciter coil to generate an electromagnetic field within a surveillance zone through which one or more persons travel when exiting from a secured area; detecting a response to the electromagnetic field caused by one or more objects within the surveillance zone; based on the response to the electromagnetic field, selectively producing an alarm condition in accordance with at least one detection algorithm; measuring a speed of a person traveling through the surveillance zone; determining if the speed exceeds a threshold; selectively varying at least one characteristic of the at least one detection algorithm when the speed exceeds a predetermined threshold.
Electronics component arrangement , having: an electronic component with a component body and two connection wires which project from one side of the component body ; two contact forks for electrically contacting in each case one connection wire ; wherein the electronics component arrangement has a fixing apparatus for fixing the connection wires , wherein the fixing apparatus is arranged between the contact forks and the component body , wherein a first end of the fixing apparatus is mounted on a carrier plate and a second end of the fixing apparatus projects from the carrier plate , wherein a cutout in which a connection wire is received and fixed in a positionally secure manner is respectively arranged at the second end , and wherein the two contact forks for electrically contacting the respective connection wire on the carrier plate project substantially orthogonally from the carrier plate parallel to one another. an electronic component with a component body and two connection wires which project from one side of the component body ; two contact forks for electrically contacting in each case one connection wire ; wherein the electronics component arrangement has a fixing apparatus for fixing the connection wires , wherein the fixing apparatus is arranged between the contact forks and the component body , wherein a first end of the fixing apparatus is mounted on a carrier plate and a second end of the fixing apparatus projects from the carrier plate , wherein a cutout in which a connection wire is received and fixed in a positionally secure manner is respectively arranged at the second end , and wherein the two contact forks for electrically contacting the respective connection wire on the carrier plate project substantially orthogonally from the carrier plate parallel to one another.
Sodium nitrite which contains no greater than 0.02% by weight of sodium carbonate and no greater than 10 ppm of an anti-caking agent, wherein the sodium nitrite has a loss on drying of no greater than 0.25% by weight; wherein the water content in the sodium nitrite is no greater than 0.5% by weight; wherein the sodium nitrite contains no greater than 0.4% by weight of sodium nitrate, no greater than 0.005% by weight of insoluble matter, no greater than 0.005% by weight of chloride, no greater than 0.01% by weight of sulfate, no greater than 0.001% by weight of iron, no greater than 0.01% by weight of calcium, no greater than 0.005% by weight of potassium, no greater than 0.05 ppm of mercury, no greater than 2 ppm of aluminum, no greater than 3 ppm of arsenic, and no greater than 0.003% by weight of selenium; wherein the sodium nitrite contains no greater than 10 ppm, no greater than 100 ppm, no greater than 500 ppm, no greater than 1000 ppm, or no greater than 5000 ppm of organic volatile impurities; wherein the total non-volatile organic carbon content in the sodium nitrite is no greater than 2.5 ppm, or no greater than 10 ppm; wherein the sodium nitrite has total aerobic count of microbial load of no greater than 100 CFU/g, has total yeast and mold count of no greater than 20 CFU/g, contains no greater than 0.25 EU/mg of bacterial endotoxins; wherein the sodium nitrite contains no less than 97% by weight and no greater than 101% by weight of sodium nitrite as measured by USP colormetric assay; and wherein the heavy metal content in the sodium nitrite is no greater than 10 ppm. wherein the sodium nitrite has a loss on drying of no greater than 0.25% by weight; wherein the water content in the sodium nitrite is no greater than 0.5% by weight; wherein the sodium nitrite contains no greater than 0.4% by weight of sodium nitrate, no greater than 0.005% by weight of insoluble matter, no greater than 0.005% by weight of chloride, no greater than 0.01% by weight of sulfate, no greater than 0.001% by weight of iron, no greater than 0.01% by weight of calcium, no greater than 0.005% by weight of potassium, no greater than 0.05 ppm of mercury, no greater than 2 ppm of aluminum, no greater than 3 ppm of arsenic, and no greater than 0.003% by weight of selenium; wherein the sodium nitrite contains no greater than 10 ppm, no greater than 100 ppm, no greater than 500 ppm, no greater than 1000 ppm, or no greater than 5000 ppm of organic volatile impurities; wherein the total non-volatile organic carbon content in the sodium nitrite is no greater than 2.5 ppm, or no greater than 10 ppm; wherein the sodium nitrite has total aerobic count of microbial load of no greater than 100 CFU/g, has total yeast and mold count of no greater than 20 CFU/g, contains no greater than 0.25 EU/mg of bacterial endotoxins; wherein the sodium nitrite contains no less than 97% by weight and no greater than 101% by weight of sodium nitrite as measured by USP colormetric assay; and wherein the heavy metal content in the sodium nitrite is no greater than 10 ppm.