mhurhangee/patent-ind-claim-en huggingface dataset:
Gasket (G) for sealing an assembly of two tubes each comprising an extremity with a seating surface, the gasket (G) comprising a sealing portion with two opposite faces , each being arranged to contact a respective seating surface, the sealing portion comprising at least a compressible portion , wherein the gasket (G) comprises an optical fiber comprising a sensing portion at least partially enclosed in the compressible portion and arranged to detect a compression force applied by the tube assembly to the compressible portion via the opposite faces , wherein the compressible portion comprises a strip spirally wound, characterized in that the gasket comprises guiding means arranged to provide guiding of the optical fiber out of the sealing portion, wherein the sensing portion is at least partially wound with the strip. the gasket (G) comprising a sealing portion with two opposite faces , each being arranged to contact a respective seating surface, the sealing portion comprising at least a compressible portion , wherein the gasket (G) comprises an optical fiber comprising a sensing portion at least partially enclosed in the compressible portion and arranged to detect a compression force applied by the tube assembly to the compressible portion via the opposite faces , wherein the compressible portion comprises a strip spirally wound, characterized in that the gasket comprises guiding means arranged to provide guiding of the optical fiber out of the sealing portion, wherein the sensing portion is at least partially wound with the strip.
Device comprising at least two interconnected reactors suitable for continuous operation with contaminating substances, comprising a first reactor , which is a thermolysis reactor or pyrolysis reactor and is suitable for a temperature of at least 300°C, has a heating element and a supply regulated by the input pressure and pressure resistances, and is connected to a jet pump via a line, wherein the jet pump is suitable for generating a negative pressure in the first reactor , wherein a negative pressure zone of the jet pump is operatively connected via the line to the first reactor, so that during operation a first product fluid of the first reactor passes through the negative pressure zone into a propulsion jet of a propulsion medium of the jet pump , and comprising a second reactor , in which the propulsion jet is guided for collection of the propulsion medium together with the first product fluid of the propulsion jet, and which has an outlet for a second product fluid formed in the second reactor , and a pump for conveying the propulsion medium from the second reactor for feeding into the jet pump as a propulsion medium, wherein the propulsion medium can be separated from the second product fluid in the second reactor .
Roller shutter box , in particular a roller shutter box made of plastics extruded parts and/or plastics injection-moulded parts, comprising a front wall , a rear wall and a top wall , as well as two end walls which laterally close the roller shutter box , an inlet part for guiding slats in a vertically extending guide groove preferably being provided, a bottom base part additionally being provided on the bottom for connecting the roller shutter box to a window frame and/or door frame , which bottom base part is preferably connected to the end walls in an interlocking manner, the bottom of the roller shutter box being further formed by one or more bottom supplementary parts , at least one bottom supplementary part being arranged between the rear wall and the bottom base part and optionally a further bottom supplementary part between the bottom base part and the front wall , the bottom base part being provided so as to be horizontally movable relative to the end walls in order to achieve different installation situations of the roller shutter box , characterised in that a plurality of projecting formations or projecting receiving portions that are spaced apart from one another in the horizontal direction are formed in the end walls so as to face the bottom base part , such that a horizontally aligned grid is formed, in which grid the bottom base part can be securely inserted in the horizontal direction and/or in that holes positioned according to the different horizontal positions of the bottom base part are provided in the end wall for pushing through securing screws engaging in the base part at the end.
A system comprising: a network topology comprising a spine node (S1, S2) and a plurality of leaf nodes (L1, L2, L3), wherein at least one of the plurality of leaf nodes (L1, L2, L3) is associated with one or more networking prefixes (P1, P2, P3, P4); characterized by : the spine node (S1, S2) storing a prefix table, the prefix table comprising: a listing of networking prefixes (P1, P2, P3, P4) in the network topology ; an indication of at least one equal-cost multipath routing, ECMP, group associated with multiple networking prefixes of the networking prefixes (P1, P2, P3, P4) in the network topology ; and an indication of at least one leaf node of the plurality of leaf nodes (L1, L2, L3) associated with each of the networking prefixes (P1, P2, P3, P4) in the network topology ; wherein the spine node (S1, S2) is further configured to: receive the networking prefixes (P1, P2, P3, P4) from one or more downstream leaf nodes; allocate a local label to the at least one ECMP group; and advertise the local label for the multiple networking prefixes (P1, P2, P3, P4) such that the plurality of leaf nodes (L1, L2, L3) perform label rewrite using the local label for all of the multiple networking prefixes (P1, P2, P3, P4). a network topology comprising a spine node (S1, S2) and a plurality of leaf nodes (L1, L2, L3), wherein at least one of the plurality of leaf nodes (L1, L2, L3) is associated with one or more networking prefixes (P1, P2, P3, P4); characterized by : the spine node (S1, S2) storing a prefix table, the prefix table comprising: a listing of networking prefixes (P1, P2, P3, P4) in the network topology ; an indication of at least one equal-cost multipath routing, ECMP, group associated with multiple networking prefixes of the networking prefixes (P1, P2, P3, P4) in the network topology ; and an indication of at least one leaf node of the plurality of leaf nodes (L1, L2, L3) associated with each of the networking prefixes (P1, P2, P3, P4) in the network topology ; wherein the spine node (S1, S2) is further configured to: receive the networking prefixes (P1, P2, P3, P4) from one or more downstream leaf nodes; allocate a local label to the at least one ECMP group; and a listing of networking prefixes (P1, P2, P3, P4) in the network topology ; an indication of at least one equal-cost multipath routing, ECMP, group associated with multiple networking prefixes of the networking prefixes (P1, P2, P3, P4) in the network topology ; and an indication of at least one leaf node of the plurality of leaf nodes (L1, L2, L3) associated with each of the networking prefixes (P1, P2, P3, P4) in the network topology ; wherein the spine node (S1, S2) is further configured to: receive the networking prefixes (P1, P2, P3, P4) from one or more downstream leaf nodes; allocate a local label to the at least one ECMP group; and receive the networking prefixes (P1, P2, P3, P4) from one or more downstream leaf nodes; allocate a local label to the at least one ECMP group; and
A system for processing samples from a body of fluid, the system comprising: one or more sample bottles for acquiring a sample from the body of fluid , each sample bottle initially retaining a pre-filling fluid, each sample bottle including a fluidic inlet port and a bottle outlet port , each sample bottle having an inlet check valve coupled to the fluidic inlet port , the inlet check valve having a cracking pressure and configured to allow fluid from the body of fluid into a sample bottle via the fluidic inlet port when the pressure difference between the body of fluid and fluid within the sample bottle reaches the cracking pressure; and at least one pump , the bottle outlet port of each sample bottle selectively coupled to the at least one pump via a respective control valve , wherein the at least one pump is configured to remove prefilling fluid from each selected sample bottle such that, for each selected sample bottle , the cracking pressure is reached and a sample from the body of fluid is acquired. one or more sample bottles for acquiring a sample from the body of fluid , each sample bottle initially retaining a pre-filling fluid, each sample bottle including a fluidic inlet port and a bottle outlet port , each sample bottle having an inlet check valve coupled to the fluidic inlet port , the inlet check valve having a cracking pressure and configured to allow fluid from the body of fluid into a sample bottle via the fluidic inlet port when the pressure difference between the body of fluid and fluid within the sample bottle reaches the cracking pressure; and at least one pump , the bottle outlet port of each sample bottle selectively coupled to the at least one pump via a respective control valve , wherein the at least one pump is configured to remove prefilling fluid from each selected sample bottle such that, for each selected sample bottle , the cracking pressure is reached and a sample from the body of fluid is acquired.
Method to regulate a conditioning apparatus comprising a conditioning body inside which conditioning means are disposed, suitable to modify the state of a flow of air (W) to cause a determinate effect in an internal environment , wherein the method comprises: - receiving an indication of values of target environmental parameters to be reached in said internal environment ; - detecting the current environmental parameters in the internal environment to be conditioned in correspondence with a detection zone (Z1; Z2), characterized in that the method provides to: - detect a distance (D) between the conditioning body and a portable remote detection unit comprising one or more detection devices configured to detect one or more environmental parameters in a detection zone (Z1) surrounding the position thereof; - regulate the functioning of the conditioning means by means of a control and command unit communicating with said portable remote detection unit to regulate on each occasion the flow rate and/or the thermo-hygrometric characteristics of a conditioned flow of air (W) to be delivered in said internal environment as a function of said distance (D) detected so as to align said detected environmental parameters with said target environmental parameters. - receiving an indication of values of target environmental parameters to be reached in said internal environment ; - detecting the current environmental parameters in the internal environment to be conditioned in correspondence with a detection zone (Z1; Z2), characterized in that the method provides to: - detect a distance (D) between the conditioning body and a portable remote detection unit comprising one or more detection devices configured to detect one or more environmental parameters in a detection zone (Z1) surrounding the position thereof; - regulate the functioning of the conditioning means by means of a control and command unit communicating with said portable remote detection unit to regulate on each occasion the flow rate and/or the thermo-hygrometric characteristics of a conditioned flow of air (W) to be delivered in said internal environment as a function of said distance (D) detected so as to align said detected environmental parameters with said target environmental parameters. - detect a distance (D) between the conditioning body and a portable remote detection unit comprising one or more detection devices configured to detect one or more environmental parameters in a detection zone (Z1) surrounding the position thereof; - regulate the functioning of the conditioning means by means of a control and command unit communicating with said portable remote detection unit to regulate on each occasion the flow rate and/or the thermo-hygrometric characteristics of a conditioned flow of air (W) to be delivered in said internal environment as a function of said distance (D) detected so as to align said detected environmental parameters with said target environmental parameters.
System for removing equipment from inside oil wells, comprising: - a rod string positionable at least partially inside an oil well ; - a fishing element connected to the bottom portion of the rod string , said fishing element comprising means for rotatably attaching to an equipment to be removed from the oil well by rotating the rod string ; - a circular manipulator fixed to the top portion of the rod string , positionable external to the oil well , wherein the circular manipulator is formed from two semicircles fixed together and fixed removably at any point of the top portion of the rod string . - a rod string positionable at least partially inside an oil well ; - a fishing element connected to the bottom portion of the rod string , said fishing element comprising means for rotatably attaching to an equipment to be removed from the oil well by rotating the rod string ; - a circular manipulator fixed to the top portion of the rod string , positionable external to the oil well ,
An insect attractive lamp comprising: a) a translucent sleeve made of an ultraviolet light transmissive material and having a surface coated with fluorinated ethylene propylene, said translucent sleeve having opposing ends; b) a pair of connectors (24 and 26) adapted to cap the opposing ends of the sleeve, each connector having a pair of contact pins (31/32 and 33/34), c) a circuit positioned within the translucent sleeve that is (i) electrically coupled to each of the contact pins (31/32 and 33/34), (ii) adapted to convert alternating current to direct current and regulate voltage, and (iii) comprises a controller , and (iv) a plurality of light emitting diodes (LEDs) (51-61) controlled by the controller , said plurality of LEDs (51-61) adapted to primarily emit light having a wavelength in the range of 315 to 400 nanometers. a) a translucent sleeve made of an ultraviolet light transmissive material and having a surface coated with fluorinated ethylene propylene, said translucent sleeve having opposing ends; b) a pair of connectors (24 and 26) adapted to cap the opposing ends of the sleeve, each connector having a pair of contact pins (31/32 and 33/34), c) a circuit positioned within the translucent sleeve that is (i) electrically coupled to each of the contact pins (31/32 and 33/34), (ii) adapted to convert alternating current to direct current and regulate voltage, and (iii) comprises a controller , and (iv) a plurality of light emitting diodes (LEDs) (51-61) controlled by the controller , said plurality of LEDs (51-61) adapted to primarily emit light having a wavelength in the range of 315 to 400 nanometers.
A gong for a striking work of a watch , the gong in the form of a wire or of a blade comprising a straight part connected to a curved part , characterised in that the gong comprises at least two notches or grooves at geometric points, which are nodes and/or antinodes of certain natural vibration frequencies of the gong, defined over a portion of its length so as to adjust at least two natural vibration frequencies within an audible range between 1 kHz and 5 kHz, and in that the ratio between these two frequencies is a number N+d, where N is an integer equal to or greater than 2, and d/N is comprised between -0.01 and +0.01, so that the sound produced by the vibrating gong has consonant harmonic intervals, and in that at least two notches or grooves are made in the curved part .
An electrically heated aerosol-generating system comprising a heater element comprising a thermally conductive substrate comprising a non-stick coating applied over at least a portion of an outer surface of the thermally conductive substrate, characterized in that the non-stick coating includes a superhydrophobic material.
A heat insulating sheet, comprising: a resin film having a metal layer; and a nonwoven fabric including resin fiber, wherein the resin film and the nonwoven fabric are joined by through holes penetrating the resin film and the nonwoven fabric, and a ratio (La/Lb) of an average distance (La) between the through holes in the resin film to an average distance (Lb) between the through holes in the nonwoven fabric is 1.0010 or more and 1.10 or less, wherein the nonwoven fabric is in a taut state between the through holes, whereas the resin film having the metal layer is in a loose state between the through holes, and wherein the average distance (La) between the through holes in the resin film and the average distance (Lb) between the through holes in the nonwoven fabric are measured by a method of stretching the wrinkles in the resin film having the metal layer and the nonwoven fabric after once removing the connections in the through holes, and then measuring the distance between the through holes in both at 10 points or more among the same through holes, and calculating the average value. a resin film having a metal layer; and a nonwoven fabric including resin fiber, wherein the resin film and the nonwoven fabric are joined by through holes penetrating the resin film and the nonwoven fabric, and a ratio (La/Lb) of an average distance (La) between the through holes in the resin film to an average distance (Lb) between the through holes in the nonwoven fabric is 1.0010 or more and 1.10 or less, wherein the nonwoven fabric is in a taut state between the through holes, whereas the resin film having the metal layer is in a loose state between the through holes, and wherein the average distance (La) between the through holes in the resin film and the average distance (Lb) between the through holes in the nonwoven fabric are measured by a method of stretching the wrinkles in the resin film having the metal layer and the nonwoven fabric after once removing the connections in the through holes, and then measuring the distance between the through holes in both at 10 points or more among the same through holes, and calculating the average value.
Mandoline slicer for the cutting of material such as fruit, vegetables or the like, 1.1 having a main body and at least one blade , gripped in the main body , in order to cut off pieces from the material, 1.2 having a guide surface , on which the material can be guided in relation to the blade , and 1.3 having an applicator , which is intended to feed a fluid directly or indirectly to the blade , characterized in that 1.4 the applicator is mounted in the mandoline slicer such that it acts through the guide surface . 1.1 having a main body and at least one blade , gripped in the main body , in order to cut off pieces from the material, 1.2 having a guide surface , on which the material can be guided in relation to the blade , and 1.3 having an applicator , which is intended to feed a fluid directly or indirectly to the blade , characterized in that 1.4 the applicator is mounted in the mandoline slicer such that it acts through the guide surface .
A method for performing verification by using a public land mobile network identifier, PLMN ID, comprising: receiving , by a security edge protection proxy, SEPP, in a second network, an N32 interface message from a SEPP in a first network, wherein the N32 interface message carries an N32 interface context identifier and a PLMN ID of the first network; obtaining, by the SEPP in the second network, based on the N32 interface context identifier in the N32 interface message, the N32 interface context corresponding to the SEPP in the first network and; determining , by the SEPP in the second network, whether a remote PLMN ID stored in the N32 interface context corresponding to the N32 interface context identifier is the same as the PLMN ID carried in the N32 interface message; and if the remote PLMN ID stored in the N32 interface context is the same as the PLMN ID carried in the N32 interface message, sending , by the SEPP in the second network, a second message to a network function entity in the second network. receiving , by a security edge protection proxy, SEPP, in a second network, an N32 interface message from a SEPP in a first network, wherein the N32 interface message carries an N32 interface context identifier and a PLMN ID of the first network; obtaining, by the SEPP in the second network, based on the N32 interface context identifier in the N32 interface message, the N32 interface context corresponding to the SEPP in the first network and; determining , by the SEPP in the second network, whether a remote PLMN ID stored in the N32 interface context corresponding to the N32 interface context identifier is the same as the PLMN ID carried in the N32 interface message; and if the remote PLMN ID stored in the N32 interface context is the same as the PLMN ID carried in the N32 interface message, sending , by the SEPP in the second network, a second message to a network function entity in the second network.
A method of producing stable disinfectant for use as a biocidal composition, the method comprising: providing reagents, the reagents comprising: a) an amine source of disinfectant in concentrated form, b) an oxidizing halogen compound in concentrated form, and c) a diluent asynchronously feeding the amine source of disinfectant in concentrated form and oxidizing halogen compound in concentrated form into an area in a mixing line where the diameter of the line is larger than the largest individual reagent supply line leading into it and in which the transition from the smaller to larger diameter is not streamlined, whereby when a liquid flows into this area the change in diameter results in eddies which mix the fed materials in an erratic manner and prevents channeling, and allowing all three of the reagents to come into contact and mix with each other, wherein the disinfectant is produced according to a continuous dose process. providing reagents, the reagents comprising: a) an amine source of disinfectant in concentrated form, b) an oxidizing halogen compound in concentrated form, and c) a diluent a) an amine source of disinfectant in concentrated form, b) an oxidizing halogen compound in concentrated form, and c) a diluent asynchronously feeding the amine source of disinfectant in concentrated form and oxidizing halogen compound in concentrated form into an area in a mixing line where the diameter of the line is larger than the largest individual reagent supply line leading into it and in which the transition from the smaller to larger diameter is not streamlined, whereby when a liquid flows into this area the change in diameter results in eddies which mix the fed materials in an erratic manner and prevents channeling, and allowing all three of the reagents to come into contact and mix with each other, wherein the disinfectant is produced according to a continuous dose process.