mhurhangee/patent-ind-claim-en huggingface dataset:
A wound dressing for an aspirated wound dressing system , the wound dressing comprising: a wound interface region for contacting or facing a wound site ; an aspiration port for receiving suction for aspiration of wound exudate; a liquid permeable pressure barrier disposed between the wound interface region and the aspiration port for substantially preventing application of negative pressure from the aspiration port to the wound interface region; and a non-contact liquid sensor for sensing wound exudate liquid within the wound dressing and for controlling the application of suction through the aspiration port . a wound interface region for contacting or facing a wound site ; an aspiration port for receiving suction for aspiration of wound exudate; a liquid permeable pressure barrier disposed between the wound interface region and the aspiration port for substantially preventing application of negative pressure from the aspiration port to the wound interface region; and a non-contact liquid sensor for sensing wound exudate liquid within the wound dressing and for controlling the application of suction through the aspiration port .
A mop bucket for containing clean and dirty liquid, comprising: first and second compartments adjacent one another; characterized in that said first compartment comprising a sump portion including a recess configured to receive a floor care tool head such that the floor care tool receives clean liquid from the first compartment for use in cleaning a floor; said sump portion positioned at a lowest point within said first compartment; and said second compartment configured to receive dirty liquid from the floor care tool . first and second compartments adjacent one another; characterized in that said first compartment comprising a sump portion including a recess configured to receive a floor care tool head such that the floor care tool receives clean liquid from the first compartment for use in cleaning a floor; said sump portion positioned at a lowest point within said first compartment; and said second compartment configured to receive dirty liquid from the floor care tool .
A multilayer reflective polarizer, comprising: a plurality of alternating first polymer layers and second polymer layers; wherein each of the first polymer layers and the second polymer layers has an in-plane birefringence of at least 0.01; wherein each of the first polymer layers and the second polymer layers exhibits crystallinity; wherein for at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is at least 0.04; wherein for a second in-plane direction orthogonal to the at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is less than 0.04; wherein the multilayer reflective polarizer has at least four edges; wherein no index of refraction for either of the first or second polymer layers, measured at 550 nm, is greater than 1.7; and wherein the first polymer layers include polyethylene terephthalate, and wherein the second polymer layers include a glycol-modified co(polyethylene terephthalate). wherein each of the first polymer layers and the second polymer layers has an in-plane birefringence of at least 0.01; wherein each of the first polymer layers and the second polymer layers exhibits crystallinity; wherein for at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is at least 0.04; wherein for a second in-plane direction orthogonal to the at least one in-plane direction, the difference in refractive index between each of the first polymer layers and the second polymer layers is less than 0.04; wherein the multilayer reflective polarizer has at least four edges; wherein no index of refraction for either of the first or second polymer layers, measured at 550 nm, is greater than 1.7; and wherein the first polymer layers include polyethylene terephthalate, and wherein the second polymer layers include a glycol-modified co(polyethylene terephthalate).
Shading device comprising a housing , a support device , a locking device , a cloth shaft and a cloth which can be wound onto and unwound from the cloth shaft and can be unwound from the latter, wherein the cloth shaft is accommodated in the housing , which is attached to the support device , wherein the locking device has at least one adjustable locking element which is adjustable between a locking position, in which it holds the housing form-fittingly on the support device , and a release position, in which the housing can be removed from the support device , wherein the locking element is a displaceably and/or pivotably mounted locking bolt , and wherein the housing is clamped against the support device by means of the locking bolt when the locking bolt in its locking position, wherein a cloth guide is provided on the shading device for the cloth , wherein the locking bar is adjustably mounted on the cloth guide , characterized in that a recess , a groove or a guide track is formed in the cloth guide , into which recess, groove or guide track the locking bolt is displaceably inserted.
An atomizer, wherein the atomizer comprises an upper cover assembly and a liquid injection cover , the upper cover assembly is provided with a liquid injection hole , the liquid injection cover is provided at one end of the upper cover assembly and covers the liquid injection hole , the upper cover assembly is provided with a locking structure , and the liquid injection cover is provided with a locking groove , or the upper cover assembly is provided with a locking groove , and the liquid injection cover is provided with a locking structure , when the locking structure is locked in the locking groove , the liquid injection cover is limited at a position for covering the liquid injection hole , and when the locking structure moves out of the locking groove , the liquid injection cover is able to slide to expose the liquid injection hole ; characterized in that the locking structure comprises a mounting groove provided in the upper cover assembly , and a locking member and an elastic member received in the mounting groove , the mounting groove is provided with an upper opening and a side opening , the locking member is provided with a locking arm , the elastic member is arranged at the inner end of the mounting groove , the locking member and the elastic member are received in the mounting groove in series, the locking member and the elastic member abut against each other, the locking member extends from the side opening to an outside of the atomizer, and the locking arm is exposed through the upper opening .
A lubricant composition, comprising: a base oil, a liquid olefin copolymer, a phosphorothioate compound, and phosphonium phosphate; wherein the liquid olefin copolymer is prepared by copolymerizing ethylene and alphaolefin using a single-site catalyst system, and included in an amount of 0.5 to 30 wt% based on 100 wt% of the lubricant composition; wherein the phosphorothioate compound is at least one selected from the group consisting of monophosphorothioate, diphosphorothioate, triphosphorothioate, methylphosphorothioate, ethylphosphorothioate, and sulfonylphosphorothioate, and included in an amount of 0.1 to 5.0 wt% based on 100 wt% of the lubricant composition; and wherein the phosphonium phosphate has a structure of Chemical Formula 7 below: and is included in an amount of 0.05 to 3.0 wt% based on 100 wt% of the lubricant composition. a base oil, a liquid olefin copolymer, a phosphorothioate compound, and phosphonium phosphate; wherein the liquid olefin copolymer is prepared by copolymerizing ethylene and alphaolefin using a single-site catalyst system, and included in an amount of 0.5 to 30 wt% based on 100 wt% of the lubricant composition; wherein the phosphorothioate compound is at least one selected from the group consisting of monophosphorothioate, diphosphorothioate, triphosphorothioate, methylphosphorothioate, ethylphosphorothioate, and sulfonylphosphorothioate, and included in an amount of 0.1 to 5.0 wt% based on 100 wt% of the lubricant composition; and wherein the phosphonium phosphate has a structure of Chemical Formula 7 below: and is included in an amount of 0.05 to 3.0 wt% based on 100 wt% of the lubricant composition.
A method of sample analysis, comprising: (a) filtering a liquid sample containing rolling circle amplification (RCA) products using a porous capillary membrane, thereby producing an array of the RCA products on the membrane; wherein the sample contains at least a first population of labelled RCA products and a second population of labelled RCA products, wherein the first and second populations of labeled RCA products are distinguishably labeled; and (b) determining the amount of the first labeled population of RCA products and the amount of the second labeled population of RCA products in an area of the membrane, where the determining step (b) includes counting the numbers of first and second labeled RCA products in the area. (a) filtering a liquid sample containing rolling circle amplification (RCA) products using a porous capillary membrane, thereby producing an array of the RCA products on the membrane; wherein the sample contains at least a first population of labelled RCA products and a second population of labelled RCA products, wherein the first and second populations of labeled RCA products are distinguishably labeled; and (b) determining the amount of the first labeled population of RCA products and the amount of the second labeled population of RCA products in an area of the membrane,
A system for controlling the optical transmission of a plurality of active windows V k with electro-controllable optical transmission properties, comprising: - at least one spatial brightness sensor for supplying at least one value representative of brightness respectively Li=L(Xi) for each spatial area forming a subset X i of a set X and thus supplying a mapping L of brightness in which the subsets L i of L are associated with the subsets X i ; - a control unit comprising a memory in which programs are stored which are capable of controlling the optical transmission of each of said windows; said programs being capable of: - defining a mapping A of spatial areas A j of glare from the mapping L of brightness, the spatial areas A j forming subsets of the subset A ; - using a mapping O of spatial areas O m with electro-controllable brightness, the spatial areas O m forming subsets of the subset O and each subset O m being associated with one or more of said active windows V k ; - controlling the optical transmission of each of said active windows V k as a function of A and of O and as a function also of information concerning the relative influence of each active window V k on the value representative of brightness of each spatial area O m , for example a coefficient assigned to each window V k for each area O m . - at least one spatial brightness sensor for supplying at least one value representative of brightness respectively Li=L(Xi) for each spatial area forming a subset X i of a set X and thus supplying a mapping L of brightness in which the subsets L i of L are associated with the subsets X i ; - a control unit comprising a memory in which programs are stored which are capable of controlling the optical transmission of each of said windows; - defining a mapping A of spatial areas A j of glare from the mapping L of brightness, the spatial areas A j forming subsets of the subset A ; - using a mapping O of spatial areas O m with electro-controllable brightness, the spatial areas O m forming subsets of the subset O and each subset O m being associated with one or more of said active windows V k ; - controlling the optical transmission of each of said active windows V k as a function of A and of O and as a function also of information concerning the relative influence of each active window V k on the value representative of brightness of each spatial area O m , for example a coefficient assigned to each window V k for each area O m .
A mobile communication device comprising a transceiver for wireless data exchange, the transceiver comprising a mobile radio communication module configured for remote communication with a cloud-based computer system via a telecommunications network , and a processor connected to the transceiver , the processor is programmed to implement a card reader agent configured to enable authentication and access control protocols between a smart card module and a virtual card reader which is arranged in the remote cloud-based computer system by exchanging authentication and access control protocol data units between the smart card module , which is in connection with said mobile communications device , and the virtual card reader via the telecommunications network , whereby the exchanging of authentication and access control protocol data units comprises: the card reader agent receiving (S5) via the telecommunications network a request protocol data unit from the virtual card reader in the remote cloud-based computer system , the card reader agent forwarding (S6) the request protocol data unit to the smart card module , the card reader agent receiving (S8) a response protocol data unit from the smart card module , and the card reader agent forwarding (S9) the response protocol data unit via the telecommunications network to the virtual card reader in the remote cloud-based computer system .
A suction hopper dredger , comprising a hopper for collecting and precipitating solids in dredged material, the hopper being provided with an overflow including a pipe for transporting liquid from the hopper to the environment of the dredger and a valve for adjusting flow through the pipe , characterized in that the valve comprises an inflatable element located in the pipe .
A lithium secondary battery comprising: a positive electrode; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode includes, as a positive electrode active material, a lithium composite transition metal oxide powder having a layered structure and a nickel content accounting for 50 atm% to 75 atm% of total transition metals, wherein the lithium composite transition metal oxide powder has a lithium-oxygen (Li-O) interlayer spacing change rate of 3% or less in a state-of-charge (SOC) range of 58% to 86%, wherein the lithium-oxygen (Li-O) interlayer spacing is measured by in-situ high-temperature XRD measuring instrument using synchrotron radiation, wherein the lithium composite transition metal oxide is represented by Chemical Formula 1: [Chemical Formula 1] Li x [Ni a Co b Mn c M d ]O 2 wherein, in Chemical Formula 1, M is a doping element and includes Zr and Co, and 0.9≤x≤1.2, 0.50≤a≤0.75, 0<b<0.4, 0<c<0.4, and 0<d<0.2. a positive electrode; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte, wherein the positive electrode includes, as a positive electrode active material, a lithium composite transition metal oxide powder having a layered structure and a nickel content accounting for 50 atm% to 75 atm% of total transition metals, wherein the lithium composite transition metal oxide powder has a lithium-oxygen (Li-O) interlayer spacing change rate of 3% or less in a state-of-charge (SOC) range of 58% to 86%, wherein the lithium-oxygen (Li-O) interlayer spacing is measured by in-situ high-temperature XRD measuring instrument using synchrotron radiation, wherein the lithium composite transition metal oxide is represented by Chemical Formula 1: [Chemical Formula 1] Li x [Ni a Co b Mn c M d ]O 2 wherein, in Chemical Formula 1, M is a doping element and includes Zr and Co, and 0.9≤x≤1.2, 0.50≤a≤0.75, 0<b<0.4, 0<c<0.4, and 0<d<0.2.
Method for operating an energy recovery rectifier device , in particular for an industrial plant , for connection to an AC system , comprising an energy recovery rectifier and a buffer capacitor that is connected in parallel with the DC side of the energy recovery rectifier , wherein an electrical current flow between the energy recovery rectifier and the buffer capacitor is reduced at the time of a commutation , wherein a step-up converter is connected between the buffer capacitor and the energy recovery rectifier , with switching signals being applied to the semiconductor switches (58, 60; 70, 72, 74, 76) of said step-up converter by means of a control circuit , wherein, for reduction purposes, the current flow between the energy recovery rectifier and the buffer capacitor is regulated or controlled to a value which is the product from a modulation factor and an unreduced current flow (DCA), wherein, for as long as the recovery of energy persists, the electrical current flow is regulated by means of the control circuit to the value , and wherein the modulation factor changes between zero and one according to the variation of the unreduced current flow (DCA).
A composition comprising, in weight percent (wt%) based on the weight of the composition: (A) greater than zero to 39 wt% of at least one of a polar olefin polymer and a styrenic block copolymer, wherein the styrenic block copolymer is grafted with a polar group, and wherein before grafting with a polar group, the styrenic block copolymer includes at least two monoalkenyl arene blocks separated by a block of saturated conjugated diene; (B) greater than zero to 20 wt% of an epoxy or amine-functionalized silane; (C) 60 to 99 wt% of an organic solvent for a mixture of the polar olefin polymer and/or styrenic block copolymer, and the epoxy or amine-functionalized silane; and (D) zero to 10 wt% of a polyisocyanate crosslinking agent. (A) greater than zero to 39 wt% of at least one of a polar olefin polymer and a styrenic block copolymer, wherein the styrenic block copolymer is grafted with a polar group, and wherein before grafting with a polar group, the styrenic block copolymer includes at least two monoalkenyl arene blocks separated by a block of saturated conjugated diene; (B) greater than zero to 20 wt% of an epoxy or amine-functionalized silane; (C) 60 to 99 wt% of an organic solvent for a mixture of the polar olefin polymer and/or styrenic block copolymer, and the epoxy or amine-functionalized silane; and (D) zero to 10 wt% of a polyisocyanate crosslinking agent.
Vehicle pneumatic tire of radial construction having a superstructure , a radial carcass and two tire beads , each having a bead base, wherein the radial carcass extends from one bead base to the other bead base via the superstructure , wherein the superstructure and at least one bead base are of electrically conductive configuration, wherein the radial carcass is of electrically nonconductive configuration and has at least one carcass ply , which consists of a reinforcement embedded in an electrically nonconductive rubber mixture and the surface of which has an overlay composed of electrically conductive material, characterized in that - the overlay is an electrically conductive rubber mixture, in that - the carcass ply extends from the electrically conductive bead base to the superstructure , wherein the overlaid surface of the carcass ply makes contact with the superstructure and the electrically conductive bead base , in that - the overlay extends continuously on the surface of the carcass ply from the electrically conductive bead base to the superstructure , and in that - the overlay makes electrical contact both with the electrically conductive bead base and with the superstructure , with the result that the electrically conductive bead base and the superstructure are connected to one another in an electrically conductive manner. - the overlay is an electrically conductive rubber mixture, in that - the carcass ply extends from the electrically conductive bead base to the superstructure , wherein the overlaid surface of the carcass ply makes contact with the superstructure and the electrically conductive bead base , in that - the overlay extends continuously on the surface of the carcass ply from the electrically conductive bead base to the superstructure , and in that - the overlay makes electrical contact both with the electrically conductive bead base and with the superstructure , with the result that the electrically conductive bead base and the superstructure are connected to one another in an electrically conductive manner.
Water supply system for a tank for a rescue vehicle , said water supply system comprising: • a tank defining an inner space for storing water; • at least one input hydraulic coupling for hydraulic connecting to a source (H) of water in pressure, • at least one hydraulic output for hydraulic connecting to an output device for ejecting a pressurized fluid; wherein said at least one hydraulic coupling is fluidly connected to said tank by a conduit in order to allow its filling, whereby the water supply system further comprising a separation device in fluidic communication with the inner space of said tank and with said conduit and configured to allow a hydraulic bypass between said at least one input hydraulic coupling and said hydraulic output without a direct physical fluidic communication between said at least one input hydraulic coupling and said hydraulic output , wherein said separation device comprises a housing defining a space in fluidic communication with inner space of said tank and at least one first opening in fluid communication with said conduit and at least one second opening in fluid communication with said hydraulic output , characterized in that the first and second openings being arranged to be faced one with respect to the other so that the water coming from said input hydraulic coupling can flow to said hydraulic output by jumping from said at least one first opening to said at least second opening . • a tank defining an inner space for storing water; • at least one input hydraulic coupling for hydraulic connecting to a source (H) of water in pressure, • at least one hydraulic output for hydraulic connecting to an output device for ejecting a pressurized fluid; wherein said at least one hydraulic coupling is fluidly connected to said tank by a conduit in order to allow its filling, whereby the water supply system further comprising a separation device in fluidic communication with the inner space of said tank and with said conduit and configured to allow a hydraulic bypass between said at least one input hydraulic coupling and said hydraulic output without a direct physical fluidic communication between said at least one input hydraulic coupling and said hydraulic output , wherein said separation device comprises a housing defining a space in fluidic communication with inner space of said tank and at least one first opening in fluid communication with said conduit and at least one second opening in fluid communication with said hydraulic output , characterized in that the first and second openings being arranged to be faced one with respect to the other so that the water coming from said input hydraulic coupling can flow to said hydraulic output by jumping from said at least one first opening to said at least second opening .
A paste-like zinc-free preparation for forming a semirigid dressing comprising the following formulation: - 30-70% by weight of water - 1-10% by weight of gelling agent - 10-40% by weight of glycerol or polyhydric alcohols, especially propylene glycol or sorbitol - 0-30% by weight of oil - 0,2-5% by weight of water-soluble salts - 0,2-2% by weight of rheological fillers - 1-5% by weight of adsorbent fillers. - 30-70% by weight of water - 1-10% by weight of gelling agent - 10-40% by weight of glycerol or polyhydric alcohols, especially propylene glycol or sorbitol - 0-30% by weight of oil - 0,2-5% by weight of water-soluble salts - 0,2-2% by weight of rheological fillers - 1-5% by weight of adsorbent fillers.