mhurhangee/ep-ind-claims huggingface dataset:
An intrinsically anti-microbial hollow fiber membrane module for filtration of liquids comprising a plurality of porous hollow membrane fibers wherein the fibers are formed from a polymer by embedding into said polymer an anti-microbial substance, wherein the polymer used to form the fibers is polyethersulfone, wherein the anti-microbial substance is selected from zinc oxide, zinc, a zinc salt, or a zinc salt in an aqueous or organic solvent, and the at least one said antimicrobial compound is added to a solution or a dispersion in an aqueous solution or organic solvent of the monomers used to synthesize the polyethersulfone polymer used to form the fibers or the said antimicrobial compound is added during the reaction of polymerization of the starting monomers used to synthesize the polyethersulfone polymer used to form the fibers such that the antimicrobial substance is physically trapped and chemically bonded within the crosslinked polymeric chains of the polymer rendering the polymer intrinsically antimicrobial in nature,; wherein the hollow membrane fibers are prepared from a dope comprising 12% to 25% polyethersulfone, from 10 to 45% polyethylene glycol, and from 40% to 90% N-methyl pyrrolidone solution; and optionally the fibers further comprise lithium chloride; wherein the percentages are in weight ratio, and wherein in use the liquid enters from outside of the fiber membranes and passes through the porous membranes into and along the lumen of the fibers, thereby retaining the retentate outside of the membranes and filtered liquid (filtrate) flows out from the hollow end of the fibers.
Device for pyrolyzing pyrolysis goods, comprising a receiving body having a cavity for receiving the pyrolysis goods, a fluid feed line arranged partially outside the receiving body, a plurality of fluid distribution lines, arranged in the cavity, for distributing the fluid fed by the fluid feed line inside of the cavity, wherein the fluid distribution lines are fluidically connected to the fluid feed line and extend in different directions (R1, R2) inside the cavity, and a fluid distribution unit arranged inside the cavity, in particular centrally, the fluid distribution unit comprising a distribution unit cavity for distributing to the fluid distribution lines the fluid fed by the fluid feed line, characterized in that: the device has a cover element for covering a part of a wall of the receiving body, the cover element having multiple holes and being arranged inside the cavity; and the device has a fluid input line, wherein the fluid fed by the fluid input line can be fed through the holes in the cover element to the pyrolysis goods, and the fluid input line opens into the receiving body. a receiving body having a cavity for receiving the pyrolysis goods, a fluid feed line arranged partially outside the receiving body, a plurality of fluid distribution lines, arranged in the cavity, for distributing the fluid fed by the fluid feed line inside of the cavity, wherein the fluid distribution lines are fluidically connected to the fluid feed line and extend in different directions (R1, R2) inside the cavity, and a fluid distribution unit arranged inside the cavity, in particular centrally, the fluid distribution unit comprising a distribution unit cavity for distributing to the fluid distribution lines the fluid fed by the fluid feed line, characterized in that: the device has a cover element for covering a part of a wall of the receiving body, the cover element having multiple holes and being arranged inside the cavity; and the device has a fluid input line, wherein the fluid fed by the fluid input line can be fed through the holes in the cover element to the pyrolysis goods, and the fluid input line opens into the receiving body. the device has a cover element for covering a part of a wall of the receiving body, the cover element having multiple holes and being arranged inside the cavity; and the device has a fluid input line, wherein the fluid fed by the fluid input line can be fed through the holes in the cover element to the pyrolysis goods, and the fluid input line opens into the receiving body.
A decorative sheet comprising: a base material layer; and a surface protective layer provided on one surface of the base material layer, wherein the surface protective layer has ridge-like parts provided to project in a ridge-like shape and form an irregular shape on a surface, characterized in that RSm/Ra of the irregular shape of the surface protective layer is within a range of 10 or more and 300 or less, the surface protective layer contains an ionizing radiation curable resin as a main material, the ionizing radiation curable resin contains, as a main component, a trifunctional acrylic resin containing a repeating structure, the repeating structure is any one of the structures of ethylene oxide, propylene oxide, and ε-caprolactone, and the number of repetitions of the repeating structure is 3 or more. a base material layer; and a surface protective layer provided on one surface of the base material layer, wherein the surface protective layer has ridge-like parts provided to project in a ridge-like shape and form an irregular shape on a surface, characterized in that RSm/Ra of the irregular shape of the surface protective layer is within a range of 10 or more and 300 or less, the surface protective layer contains an ionizing radiation curable resin as a main material, the ionizing radiation curable resin contains, as a main component, a trifunctional acrylic resin containing a repeating structure, the repeating structure is any one of the structures of ethylene oxide, propylene oxide, and ε-caprolactone, and the number of repetitions of the repeating structure is 3 or more.
An endcover assembly for a combustor, the endcover assembly comprising: an endcover; a fuel nozzle rigidly connected to the endcover, the fuel nozzle including a plurality of tubes that extends axially through a first plate, a fuel plenum, and a second plate of the fuel nozzle, where each tube includes an inlet defined upstream of the first plate and an outlet disposed downstream from the second plate; an inlet flow conditioner having a forward end connected to the endcover and an aft end axially spaced from the forward end, the inlet flow conditioner circumferentially surrounding at least a portion of the fuel nozzle; and a support plate joined to the aft end of the inlet flow conditioner, wherein each tube of the fuel nozzle extends through a corresponding tube hole defined by the support plate, and wherein the fuel nozzle is connected to the support plate. an endcover; a fuel nozzle rigidly connected to the endcover, the fuel nozzle including a plurality of tubes that extends axially through a first plate, a fuel plenum, and a second plate of the fuel nozzle, where each tube includes an inlet defined upstream of the first plate and an outlet disposed downstream from the second plate; an inlet flow conditioner having a forward end connected to the endcover and an aft end axially spaced from the forward end, the inlet flow conditioner circumferentially surrounding at least a portion of the fuel nozzle; and a support plate joined to the aft end of the inlet flow conditioner, wherein each tube of the fuel nozzle extends through a corresponding tube hole defined by the support plate, and wherein the fuel nozzle is connected to the support plate.
An antenna adjustment apparatus, configured to adjust a downtilt angle of an antenna assembly, wherein the antenna assembly comprises multiple phase shifters, and the antenna adjustment apparatus further comprises a first drive wheel, a first rotating shaft, a gear carrier, a first gear, a second drive wheel, a second gear, and multiple output gears, wherein the first drive wheel is meshed with the first gear, the second drive wheel is meshed with the second gear, an axis of the second gear coincides with an axis of the first drive wheel, the output gears are connected to the phase shifters in a one-to-one correspondence manner, the gear carrier is sleeved on the first rotating shaft, the second gear is fixedly connected to the gear carrier, the first gear rotates together with the gear carrier, the second drive wheel is configured to propel the second gear to rotate and drive the first gear to revolve around the axis of the second gear, so that the first gear is selectively meshed with one of the output gears, the first drive wheel is configured to propel the first gear to rotate and drive the output gear meshed with the first gear to rotate, and the output gear is configured to propel the phase shifter connected to the output gear.
A Software Defined Wide Area Network, SD-WAN, edge node comprising: one or more edge node SD-WAN ports (111a, 111b) configured to couple to one or more untrusted underlay networks and one or more trusted underlay networks; a transmitter; a receiver; a non-transitory memory comprising computer executable instructions; and a processor coupled to the transmitter, the receiver, and the memory, wherein the computer executable instructions, when executed by the processor, cause the SD-WAN edge node to: transmit a first Border Gateway Protocol, BGP, update message advertising wide area network, WAN, properties of the edge node SD-WAN ports to a local controller via an encrypted channel over the untrusted underlay networks; receive a second BGP update message from the local controller, the second BGP update message advertising WAN properties of peer node SD-WAN ports of a peer node; and establish a security association with the peer node or the peer node SD-WAN ports of the peer node over the untrusted underlay networks based on the WAN properties of the edge node SD-WAN ports and the WAN properties of the peer node SD-WAN ports. one or more edge node SD-WAN ports (111a, 111b) configured to couple to one or more untrusted underlay networks and one or more trusted underlay networks; a transmitter; a receiver; a non-transitory memory comprising computer executable instructions; and a processor coupled to the transmitter, the receiver, and the memory, wherein the computer executable instructions, when executed by the processor, cause the SD-WAN edge node to: transmit a first Border Gateway Protocol, BGP, update message advertising wide area network, WAN, properties of the edge node SD-WAN ports to a local controller via an encrypted channel over the untrusted underlay networks; receive a second BGP update message from the local controller, the second BGP update message advertising WAN properties of peer node SD-WAN ports of a peer node; and establish a security association with the peer node or the peer node SD-WAN ports of the peer node over the untrusted underlay networks based on the WAN properties of the edge node SD-WAN ports and the WAN properties of the peer node SD-WAN ports. transmit a first Border Gateway Protocol, BGP, update message advertising wide area network, WAN, properties of the edge node SD-WAN ports to a local controller via an encrypted channel over the untrusted underlay networks; receive a second BGP update message from the local controller, the second BGP update message advertising WAN properties of peer node SD-WAN ports of a peer node; and establish a security association with the peer node or the peer node SD-WAN ports of the peer node over the untrusted underlay networks based on the WAN properties of the edge node SD-WAN ports and the WAN properties of the peer node SD-WAN ports.
System for corrective lens determination by way of eccentric photorefraction, comprising: - a mobile computer apparatus (11; 20), wherein the mobile computer apparatus (11; 20) comprises a housing and a camera installed in the housing, characterized by: - a component having an optics element (21; 31; 36) for adapting the eccentricity of an integrated light source of the mobile computer apparatus (11; 20) for the eccentric photorefraction and a fastening element (13; 29; 40; 63) for fastening the component to the housing releasably in a reversible manner. - a mobile computer apparatus (11; 20), wherein the mobile computer apparatus (11; 20) comprises a housing and a camera installed in the housing, characterized by: - a component having an optics element (21; 31; 36) for adapting the eccentricity of an integrated light source of the mobile computer apparatus (11; 20) for the eccentric photorefraction and a fastening element (13; 29; 40; 63) for fastening the component to the housing releasably in a reversible manner.
Arrangement for converting an input signal ( z(t)) into a mechanical or acoustical output signal ( p(t)) comprising a transducer, a controller, a detector and a measurement device; said controller receiving said input signal ( z(t)) and generating a control output signal ( w(t)) supplied to said transducer; said measurement device providing at least one sensing signal (i(t)) comprising a state variable of said transducer, said detector receiving said at least one sensing signal ( i(t)) from the measurement device, wherein said detector has a parameter output generating based on the sensing signal (i(t)) a parameter vector ( P [ n]), the parameter vector ( P [ n]) describing the properties of said transducer during such a moment ( n), when the instantaneous properties of said control output signal ( w(t)) provide persistent excitation of said transducer; said detector has a property output generating based on the sensing signal (i(t)) a time variant property vector ( S * ( t)), comprising time varying parameters describing the instantaneous properties of said transducer for arbitrary properties of said control output signal ( w(t)), wherein said time varying parameters contain only low frequency components which are not supplied by the control output signal ( w(t)); and said controller has a parameter input provided with said parameter vector ( P [ n]) from said parameter output and has a property input provided with said time variant property vector ( S * (t)) from said property output, wherein based on said parameter vector and said time variant property vector ( S * ( t)) said controller is configured to generate - a predefined transfer behavior between said input signal ( z(t)) and said output signal ( p(t)) and/or - a control output signal for stabilizing the vibration of said transducer and/or - a control output signal for protecting said transducer against overload. - a predefined transfer behavior between said input signal ( z(t)) and said output signal ( p(t)) and/or - a control output signal for stabilizing the vibration of said transducer and/or - a control output signal for protecting said transducer against overload.
A method for coordinating movable objects (100, 410, 420, 430, 440, 510, 530), the method comprising: directing a first movable object (100, 410, 420, 430, 440, 510, 530) and a second movable object (100, 410, 420, 430, 440, 510, 530) to track a target (450, 550) at predetermined positions around the target (450, 550); and directing the first movable object (100, 410, 420, 430, 440, 510, 530) to perform a coordinated action with the second movable object (100, 410, 420, 430, 440, 510, 530) keeping track of the target (450, 550) generating a moving path of the first movable object (100, 410, 420, 430, 440, 510, 530) to maintain the predetermined position of the first movable object (100, 410, 420, 430, 440, 510, 530) relative to a position of the target (450, 550), receiving an image from the second movable object (100, 410, 420, 430, 440, 510, 530), wherein the method is characterized by transforming the image from a perspective of the second movable object (100, 410, 420, 430, 440, 510, 530) to a perspective of the first movable object (100, 410, 420, 430, 440, 510, 530), identifying an obstacle in the transformed image, and avoiding the obstacle by altering the moving path of the first movable object (100, 410, 420, 430, 440, 510, 530). directing a first movable object (100, 410, 420, 430, 440, 510, 530) and a second movable object (100, 410, 420, 430, 440, 510, 530) to track a target (450, 550) at predetermined positions around the target (450, 550); and directing the first movable object (100, 410, 420, 430, 440, 510, 530) to perform a coordinated action with the second movable object (100, 410, 420, 430, 440, 510, 530) keeping track of the target (450, 550) generating a moving path of the first movable object (100, 410, 420, 430, 440, 510, 530) to maintain the predetermined position of the first movable object (100, 410, 420, 430, 440, 510, 530) relative to a position of the target (450, 550), receiving an image from the second movable object (100, 410, 420, 430, 440, 510, 530), wherein the method is characterized by transforming the image from a perspective of the second movable object (100, 410, 420, 430, 440, 510, 530) to a perspective of the first movable object (100, 410, 420, 430, 440, 510, 530), identifying an obstacle in the transformed image, and avoiding the obstacle by altering the moving path of the first movable object (100, 410, 420, 430, 440, 510, 530).
A composition being a biocide formulation, the composition comprises: sodium hypochlorite as halogen source, a halogen stabilizer comprising a mixture of sulfamic acid and ammonium sulfate, and sodium hydroxide, wherein the amount of sodium hydroxide in the composition is in the range of 0.5 to 3.2%, and wherein the amount of sulfamic acid in the composition is 12% and the amount of ammonium sulfate in the composition is 3%, and wherein the molar ratio of Cl 2 to N 2 is 4:1. sodium hypochlorite as halogen source, a halogen stabilizer comprising a mixture of sulfamic acid and ammonium sulfate, and sodium hydroxide,
A composition comprising: a) an epoxy resin; and b) a hardener comprising a copolymer of: i) an ethylenically unsaturated anhydride, and ii) a vinyl compound, wherein said vinyl compound is styrene or a styrene derivative and wherein said copolymer has an anhydride content of less than 15 weight percent, based on the total weight of said copolymer; wherein said composition is prepared from a halogen-containing compound, and wherein said copolymer is present in an amount in the range of from 10 weight percent to 90 weight percent, based on the total weight of said composition; wherein a fully cured laminate prepared from said composition has a glass transition temperature, Tg, in the range from 150°C to 220°C and a dissipation factor D f of less than 0.015 at 1 GHz test frequency. a) an epoxy resin; and b) a hardener comprising a copolymer of: i) an ethylenically unsaturated anhydride, and ii) a vinyl compound, wherein said vinyl compound is styrene or a styrene derivative and wherein said copolymer has an anhydride content of less than 15 weight percent, based on the total weight of said copolymer;
A station, STA, comprising: means for indicating to an access point, AP, whether the STA has a capability to use power saving group information for the purpose of saving power or not; means for receiving from the AP a management frame indicating to the STA that it has been assigned to one or more groups; means for receiving a data frame from the AP, wherein a group identifier for each group of STAs that has data in the frame is indicated in the data frame; and means for entering a power saving mode if the group identifier for the STA is not present in the frame, characterized in that the STA further comprises: means for confirming to the AP that the STA has received the assignment to the one or more groups. means for indicating to an access point, AP, whether the STA has a capability to use power saving group information for the purpose of saving power or not; means for receiving from the AP a management frame indicating to the STA that it has been assigned to one or more groups; means for receiving a data frame from the AP, wherein a group identifier for each group of STAs that has data in the frame is indicated in the data frame; and means for entering a power saving mode if the group identifier for the STA is not present in the frame, characterized in that the STA further comprises: means for confirming to the AP that the STA has received the assignment to the one or more groups.
Device for gripping hollow bodies, which comprises: - a freely rotating shaft; - a mandrel secured to the shaft, this mandrel comprising: ∘ an end piece, ∘ a heatsink, ∘ a spacer inserted between the end piece and the heatsink, ∘ an expandable ring mounted between the end piece and the spacer, ∘ an elastic member mounted between the end piece and the expandable ring, this device being characterized in that - the heatsink is mounted directly on the end piece, - the mandrel comprises an insert produced in a material with high thermal conductivity, driven into a recess formed in the end piece and emerging on a free end face thereof, the insert extending just to the level of the heatsink. - a freely rotating shaft; - a mandrel secured to the shaft, this mandrel comprising: ∘ an end piece, ∘ a heatsink, ∘ a spacer inserted between the end piece and the heatsink, ∘ an expandable ring mounted between the end piece and the spacer, ∘ an elastic member mounted between the end piece and the expandable ring, ∘ an end piece, ∘ a heatsink, ∘ a spacer inserted between the end piece and the heatsink, ∘ an expandable ring mounted between the end piece and the spacer, ∘ an elastic member mounted between the end piece and the expandable ring, - the heatsink is mounted directly on the end piece, - the mandrel comprises an insert produced in a material with high thermal conductivity, driven into a recess formed in the end piece and emerging on a free end face thereof, the insert extending just to the level of the heatsink.
A hearing prosthesis system comprising: a first stimulator located in a first hearing prosthesis; a first transducer located in a second hearing prosthesis; and a processor arranged to: generate a first stimulation signal with the processor; communicate the first stimulation signal to the first stimulator; receive an indication of a first input signal measured by the first transducer associated with the first stimulation signal; calculate a first bilateral feedback associated with first stimulation signal based on the measured input signal; and adjust a first stimulation parameter based on the calculated first bilateral feedback, wherein bilateral feedback occurs when sound vibrations produced by one prosthesis are captured by an opposing prosthesis. a first stimulator located in a first hearing prosthesis; a first transducer located in a second hearing prosthesis; and a processor arranged to: generate a first stimulation signal with the processor; communicate the first stimulation signal to the first stimulator; receive an indication of a first input signal measured by the first transducer associated with the first stimulation signal; calculate a first bilateral feedback associated with first stimulation signal based on the measured input signal; and adjust a first stimulation parameter based on the calculated first bilateral feedback, generate a first stimulation signal with the processor; communicate the first stimulation signal to the first stimulator; receive an indication of a first input signal measured by the first transducer associated with the first stimulation signal; calculate a first bilateral feedback associated with first stimulation signal based on the measured input signal; and adjust a first stimulation parameter based on the calculated first bilateral feedback, wherein bilateral feedback occurs when sound vibrations produced by one prosthesis are captured by an opposing prosthesis.