mhurhangee/patent-ind-claim-en huggingface dataset:
A patch panel (1400/1500/1600) comprising: a plurality of termination arrangements (1420/1520/1620/2820/2920/3020) in a stacked configuration, wherein each termination arrangement (1420/1520/1620/2820/2920/3020) comprises: a support member (1423/1523/1623/2823/2923/3023) extending between opposite first and second ends; an adapter holder (1425/2825/2925/3025) adjacent the first end of the support member (1423/1523/1623/2823/2923/3023), the adapter holder (1425/2825/2925/3025) structured to hold at least one optical adapter (150/250/450/750); and a mounting structure (1424/1624) positioned adjacent the second end of the support member (1423/1523/1623/2823/2923/3023), the mounting structure (1424/1624) configured for attaching the support member to a telecommunications fixture (1410/1510/1610), wherein the support member (1423/1523/1623/2823/2923/3023) of the termination arrangement (1420/1520/1620/2820/2920/3020) is elastically flexible for allowing biased movement of the adapter holder (1425/2825/2925/3025) away from the point of attachment between the mounting structure (1424/1624) and the telecommunications fixture (1410/1510/1610). a plurality of termination arrangements (1420/1520/1620/2820/2920/3020) in a stacked configuration, wherein each termination arrangement (1420/1520/1620/2820/2920/3020) comprises: a support member (1423/1523/1623/2823/2923/3023) extending between opposite first and second ends; an adapter holder (1425/2825/2925/3025) adjacent the first end of the support member (1423/1523/1623/2823/2923/3023), the adapter holder (1425/2825/2925/3025) structured to hold at least one optical adapter (150/250/450/750); and a mounting structure (1424/1624) positioned adjacent the second end of the support member (1423/1523/1623/2823/2923/3023), the mounting structure (1424/1624) configured for attaching the support member to a telecommunications fixture (1410/1510/1610), a support member (1423/1523/1623/2823/2923/3023) extending between opposite first and second ends; an adapter holder (1425/2825/2925/3025) adjacent the first end of the support member (1423/1523/1623/2823/2923/3023), the adapter holder (1425/2825/2925/3025) structured to hold at least one optical adapter (150/250/450/750); and a mounting structure (1424/1624) positioned adjacent the second end of the support member (1423/1523/1623/2823/2923/3023), the mounting structure (1424/1624) configured for attaching the support member to a telecommunications fixture (1410/1510/1610), wherein the support member (1423/1523/1623/2823/2923/3023) of the termination arrangement (1420/1520/1620/2820/2920/3020) is elastically flexible for allowing biased movement of the adapter holder (1425/2825/2925/3025) away from the point of attachment between the mounting structure (1424/1624) and the telecommunications fixture (1410/1510/1610).
A method of determining a use for a plurality of gas turbine engine components (100; 120A, 120B) comprising the steps of: measuring at least one property of said components (100; 120A, 120B); comparing the at least one property of each component (100; 120A, 120B) to a known specification; and classifying each component (100; 120A, 120B) into one of at least first and second categories, wherein the at least one property of components in the first category is closer to said known specification than the at least one property of components in the second category, and recommending a suggested future use for the first category on a first aircraft expected to operate in more challenging flight conditions and for the second category on a second aircraft expected to operate in less challenging flight conditions, wherein the recommended future use includes a suggestion to utilize components of said first and second categories on particular type flights (A, B, C). measuring at least one property of said components (100; 120A, 120B); comparing the at least one property of each component (100; 120A, 120B) to a known specification; and classifying each component (100; 120A, 120B) into one of at least first and second categories, wherein the at least one property of components in the first category is closer to said known specification than the at least one property of components in the second category, and recommending a suggested future use for the first category on a first aircraft expected to operate in more challenging flight conditions and for the second category on a second aircraft expected to operate in less challenging flight conditions, wherein the recommended future use includes a suggestion to utilize components of said first and second categories on particular type flights (A, B, C).
Puncture system with a three-layer structure, consisting of an outer tubular body , which is adapted to dwell in a body part of a living being, an inner tubular body and a puncture needle , wherein the inner tubular body is guided through a working lumen of the outer tubular body and is longitudinally displaceable relative to the outer tubular body , and the puncture needle is guided through a puncture lumen of the inner tubular body and the inner tubular body is longitudinally displaceable relative to the puncture needle , wherein after puncturing of a body part by means of a puncture section of the puncture needle projecting from an end of the puncture system close to the patient, the inner tubular body is at least partially out of the outer tubular body and, at the same time, the puncture section of the puncture needle projecting out of the end of the puncture system close to the patient is designed to be at least partially accommodated in the puncture lumen of the inner tubular body , characterized in that the outer diameter of the inner tubular body is at most twice as large as the outer diameter of the puncture needle and in that the outer diameter of the outer tubular body is at least twice as large as the outer diameter of the inner tubular body .
Heat pump with a hydraulic module , wherein the hydraulic module has a casing, with at least one flow connection , at least one first return connection through which a fluid can be conducted, and a heating element , characterised in that the casing for conducting fluid is formed by at least one first wall and a second wall which is injection moulded from plastic, which are joined together by means of a welding process, the first wall forms with the second wall a cavity , which is permanently watertight and pressure-tight, for mounting the heating element , there is a fluid-conducting connection of the cavity to the flow connection and the first return connection , a 3/2-way valve is provided by means of which a heat consumption side of the building services appliance can be switched between heating operation and domestic hot water heating, wherein the hydraulic module has the first return connection and a second return connection for connecting a return pipe from the heating and the domestic hot water system respectively, wherein the cavity is sealed to be watertight and pressure-tight by means of a heating flange .
A fluid ejection system comprising: a fluid ejection die comprising a plurality of nozzles configured to eject fluid drops and a plurality of strain gauge sensors configured to sense strain at various locations within the fluid ejection die ; and characterized in that the fluid ejection system further comprises: a controller configured to receive the sensed strain from each strain gauge sensor to determine a strain profile of the fluid ejection die indicating a fluid ejection die flatness and/or fragility.
A method, comprising: • providing a representative inhale-exhale cycle breathing volume over time profile; • measuring a subject's: - inhale-exhale cycle breathing volume, and - at least one of: oxygen consumption and carbon dioxide production, over time over one or more inhale-exhale cycles; • presenting in real-time a current measured breathing volume over time of the subject relative to the representative inhale-exhale cycle breathing volume over time profile and relative to a correspondence criterion , wherein the correspondence criterion comprises an allowed deviation from the representative inhale-exhale cycle breathing volume over time profile; • obtaining data relating to oxygen consumption and/or carbon dioxide production that was measured during a discrete inhale-exhale cycle meeting the correspondence criterion , wherein meeting the correspondence criterion comprises having the current measured breathing volume over time of the subject within the allowed deviation; and • processing the data relating to oxygen consumption and/or carbon dioxide production to determine a metabolic property in the subject. • providing a representative inhale-exhale cycle breathing volume over time profile; • measuring a subject's: - inhale-exhale cycle breathing volume, and - at least one of: oxygen consumption and carbon dioxide production, over time over one or more inhale-exhale cycles; - inhale-exhale cycle breathing volume, and - at least one of: oxygen consumption and carbon dioxide production, over time over one or more inhale-exhale cycles; • presenting in real-time a current measured breathing volume over time of the subject relative to the representative inhale-exhale cycle breathing volume over time profile and relative to a correspondence criterion , wherein the correspondence criterion comprises an allowed deviation from the representative inhale-exhale cycle breathing volume over time profile; • obtaining data relating to oxygen consumption and/or carbon dioxide production that was measured during a discrete inhale-exhale cycle meeting the correspondence criterion , wherein meeting the correspondence criterion comprises having the current measured breathing volume over time of the subject within the allowed deviation; and • processing the data relating to oxygen consumption and/or carbon dioxide production to determine a metabolic property in the subject.
A water ride system , comprising a mat racer ; and a controller, wherein the controller is adapted to receive control information selected by a rider and to receive an association between the rider and the mat racer , the mat racer further comprising: a mat configured to accommodate the rider , wherein the mat comprises a rider surface configured to support the rider and an opposing surface configured to contact a ride floor or slide surface; one or more handles coupled to the mat ; and a functional module coupled to the mat , wherein the functional module comprises: one or more light sources that are positioned on or in the functional module ; a light drive configured to drive the one or more light sources ; a memory storing instructions to control the light drive ; a processor configured to execute the instructions based on control information on receipt of an activation signal; and a transceiver configured to receive a wireless signal from the controller, wherein the wireless signal comprises the control information selected by the rider for the one or more light sources a mat configured to accommodate the rider , wherein the mat comprises a rider surface configured to support the rider and an opposing surface configured to contact a ride floor or slide surface; one or more handles coupled to the mat ; and a functional module coupled to the mat , wherein the functional module comprises: one or more light sources that are positioned on or in the functional module ; a light drive configured to drive the one or more light sources ; a memory storing instructions to control the light drive ; a processor configured to execute the instructions based on control information on receipt of an activation signal; and a transceiver configured to receive a wireless signal from the controller, wherein the wireless signal comprises the control information selected by the rider for the one or more light sources one or more light sources that are positioned on or in the functional module ; a light drive configured to drive the one or more light sources ; a memory storing instructions to control the light drive ; a processor configured to execute the instructions based on control information on receipt of an activation signal; and a transceiver configured to receive a wireless signal from the controller, wherein the wireless signal comprises the control information selected by the rider for the one or more light sources
Composition for production of rigid polyurethane foam, comprising at least one isocyanate component, a polyol component, optionally a catalyst that catalyses the formation of a urethane or isocyanurate bond, optionally blowing agents, where the composition additionally comprises polyalkylsiloxane containing no polyether modification, and polyether-modified siloxane, characterized in that the polyalkylsiloxanes are used in combination with polyether-modified siloxanes in a mass ratio of 1:5 to 1:200.
Control method for controlling heating elements said method comprising the steps of: - providing a thermoforming machine configured for thermoforming a product made of thermoplastics, said thermoforming machine comprising heating elements ; - creating a graphic representation (RG) of said heating elements , such that with each heating element a zone of said product is associated intended for being heated by a corresponding heating element ; - setting, for each heating element , a power value (RI) so as to heat a corresponding zone of said product and define a power distribution on said product ; - assigning to each of said zones a respective power value (RI); - detecting, preferably at each heating cycle, for each of said zones, a detected temperature value (TA) by a thermal imaging camera included in said thermoforming machine ; - creating by said thermal imaging camera , preferably after each heating cycle, a thermal image (IT) of said product that has just been heated so as to define a temperature distribution on said product that has just been heated; characterized by comprising the step of - superimposing said thermal image (IT) on said graphic representation (RG) so as to display how said temperature distribution is correlated with said power distribution. - providing a thermoforming machine configured for thermoforming a product made of thermoplastics, said thermoforming machine comprising heating elements ; - creating a graphic representation (RG) of said heating elements , such that with each heating element a zone of said product is associated intended for being heated by a corresponding heating element ; - setting, for each heating element , a power value (RI) so as to heat a corresponding zone of said product and define a power distribution on said product ; - assigning to each of said zones a respective power value (RI); - detecting, preferably at each heating cycle, for each of said zones, a detected temperature value (TA) by a thermal imaging camera included in said thermoforming machine ; - creating by said thermal imaging camera , preferably after each heating cycle, a thermal image (IT) of said product that has just been heated so as to define a temperature distribution on said product that has just been heated; - superimposing said thermal image (IT) on said graphic representation (RG) so as to display how said temperature distribution is correlated with said power distribution.
A method for making a deployable antenna comprising: assembling a waveguide antenna feed section comprising a first plurality of wires and a first plurality of biased hinges coupling the first plurality of wires together to be self-biased to move between a collapsed stored configuration and an extended deployed configuration; and assembling a horn antenna section coupled to the waveguide antenna feed section and comprising a second plurality of wires and a second plurality of biased hinges coupling the second plurality of wires together to be self-biased to move between the collapsed stored configuration and the extended deployed configuration.
A cooling panel for a metallurgical furnace comprising a body with a front face and an opposite rear face , a top face and an opposite bottom face and two opposite side faces , said body having at least one cooling channel therein, said cooling channel having openings in said rear face ; wherein, in use, said front face of said body is turned towards a furnace interior, characterized by at least one cooling pipe having an elongate middle section and at either end thereof, an angled branch , said at least one cooling pipe forming said cooling channel, wherein said body comprises at least one elongate recess formed in said front face , said at least one cooling pipe being arranged in said at least one elongate recess such that said angled branches protrude through said openings in said rear face of said body , wherein said at least one cooling pipe is dimensioned so as to snuggly fit inside said at least one elongate recess in the body .
An oligonucleotide consisting of 2'-O-methyl RNA nucleotide residues, having a backbone wherein all phosphate moieties are replaced by phosphorothioate moieties, and comprising one or more 5-methylpyrimidine bases, wherein said oligonucleotide is able to hybridize to a (CAG)n repetitive nucleotide unit, wherein said oligonucleotide comprises or consists of a repetitive nucleotide unit (XYG)m, wherein m is an integer from 4 to 12 and each X is C or 5-methylcytosine and each Y is U or 5-methyluracil, wherein each X is 5-methylcytosine and/or each Y is 5-methyluracil, for use in treating, delaying, and/or preventing Huntington's disease (HD), spinocerebellar ataxia (SCA) type 1, 2, 3, 6, 7, 12 or 17, spinal and bulbar muscular atrophy (SBMA), or dentatorubral-pallidoluysian atrophy (DRPLA).
A once-through evaporator comprising: an inlet manifold ; one or more inlet headers (204(n)) in fluid communication with the inlet manifold ; one or more tube stacks (210(n)), where each tube stack (210(n)) comprises one or more substantially horizontal evaporator tubes; the one or more tube stacks (210(n)) being in fluid communication with the one or more inlet headers (204(n)); a fluid supply line (214(n + n')) between the inlet manifold and each of the one or more inlet headers (204(n)); each of the fluid supply lines (214(n + n')) is provided with a control device (212(n + n')); one or more outlet headers (206(n)) in fluid communication with one or more tube stacks (210(n)); and a separator in fluid communication with the one or more outlet headers (206(n)); characterized in that the once-through evaporator comprises a first flow control device in fluid communication with the separator and at least one of the tube stacks (210(n)) used for startup; a second flow control device in fluid communication with a superheater to bypass the separator and at least one of the tube stacks (210(n)) used for startup; and a controller for controlling the actuation of the first and second flow control devices in response to a parameter of the evaporator ; where one or more tube stacks (210(n)) are used for a start-up of the once-through evaporator . an inlet manifold ; one or more inlet headers (204(n)) in fluid communication with the inlet manifold ; one or more tube stacks (210(n)), where each tube stack (210(n)) comprises one or more substantially horizontal evaporator tubes; the one or more tube stacks (210(n)) being in fluid communication with the one or more inlet headers (204(n)); a fluid supply line (214(n + n')) between the inlet manifold and each of the one or more inlet headers (204(n)); each of the fluid supply lines (214(n + n')) is provided with a control device (212(n + n')); one or more outlet headers (206(n)) in fluid communication with one or more tube stacks (210(n)); and a separator in fluid communication with the one or more outlet headers (206(n)); characterized in that the once-through evaporator comprises a first flow control device in fluid communication with the separator and at least one of the tube stacks (210(n)) used for startup; a second flow control device in fluid communication with a superheater to bypass the separator and at least one of the tube stacks (210(n)) used for startup; and a controller for controlling the actuation of the first and second flow control devices in response to a parameter of the evaporator ; where one or more tube stacks (210(n)) are used for a start-up of the once-through evaporator .
A gas turbine engine comprising: a compressor section ; a compressor case substantially surrounding the compressor section , wherein the compressor section extends from a forward compressor end to an aft compressor end ; a diffuser case having a first end and a second end , the diffuser case being attached at an attachment interface at the first end to the compressor case , the attachment interface being between a forward and an aft end of the compressor section , and wherein the attachment interface includes a compressor mount flange 90 at an aft compressor case end 71 of the compressor case 74 and a diffuser mount flange 92 of the diffuser case 76, and wherein the compressor mount flange 90 and the diffuser mount flange 92 are in direct abutting engagement with each other to_comprise a radially external flange connection ; a support structure for an outer flowpath static structure that has a radially internal flange connection to the diffuser case that is positioned axially aft of the external flange connection and is positioned aft of the aft compressor end ; and at least one bleed formed in the diffuser case , wherein the bleed is positioned aft of the external flange connection and forward of the internal flange connection , and wherein the at least one bleed 96 comprises at least one boss formed in an outer surface of the diffuser case and that includes an internal air passage that is in fluid communication with a compressor flow path , and wherein the at least one boss 98 is positioned adjacent the first end of the diffuser case .
Method for determining a tailback limit in road traffic, the method exhibiting: - providing a signal quality map for a cell of a base station of a mobile radio system, the signal quality map having overview information about signal qualities occurring within the cell, - determining signal quality information for each mobile radio communication device connected to the base station , - determining a probability density function based on the corresponding signal quality information determined, - determining a position of the probability density function having a function gradient which corresponds to an angular amount of at least 75° with respect to a horizontal function axis (X) of the probability density function, preferably an angular amount between 80° and 90°, especially preferably an angular amount between 85° and 90°, the position being indicative of a tailback limit in the cell of the base station, and - determining a location of the tailback limit based on the position determined and the signal quality map . - providing a signal quality map for a cell of a base station of a mobile radio system, the signal quality map having overview information about signal qualities occurring within the cell, - determining signal quality information for each mobile radio communication device connected to the base station , - determining a probability density function based on the corresponding signal quality information determined, - determining a position of the probability density function having a function gradient which corresponds to an angular amount of at least 75° with respect to a horizontal function axis (X) of the probability density function, preferably an angular amount between 80° and 90°, especially preferably an angular amount between 85° and 90°, the position being indicative of a tailback limit in the cell of the base station, and - determining a location of the tailback limit based on the position determined and the signal quality map .