mhurhangee/ep-ind-claims huggingface dataset:
A gel polymer electrolyte comprising: a polymer network; and an electrolyte solution impregnated in the polymer network, wherein the polymer network is formed by combining a first oligomer represented by Formula 1, which includes unit A derived from a monomer including at least one copolymerizable acrylate or acrylic acid, unit C including urethane, and unit E including siloxane, in a three-dimensional structure. [Formula 1] A-[C-E] k -C-A where k is an integer of 1 to 200. a polymer network; and an electrolyte solution impregnated in the polymer network, wherein the polymer network is formed by combining a first oligomer represented by Formula 1, which includes unit A derived from a monomer including at least one copolymerizable acrylate or acrylic acid, unit C including urethane, and unit E including siloxane, in a three-dimensional structure. [Formula 1] A-[C-E] k -C-A where k is an integer of 1 to 200.
System for receiving a single-use vessel containing a mixing device, the system comprising: - a support structure adapted to receive the single-use vessel, and - a drive-unit adapted to power, to control, or to power and control a mixing of contents of the single-use vessel when the single-use vessel is arranged in the support structure, wherein - the support structure and the drive-unit are provided as separate components that may be arranged both in an operating position, wherein the drive-unit is connectable to the mixing device of the single-use bag in the support structure, and in a separated position, wherein the drive-unit is separated from the support structure, and - the drive-unit comprises a tag reader that, in the operating position, is arranged to read a vessel tag of the single-use vessel arranged in the support structure. - a support structure adapted to receive the single-use vessel, and - a drive-unit adapted to power, to control, or to power and control a mixing of contents of the single-use vessel when the single-use vessel is arranged in the support structure, wherein - the support structure and the drive-unit are provided as separate components that may be arranged both in an operating position, wherein the drive-unit is connectable to the mixing device of the single-use bag in the support structure, and in a separated position, wherein the drive-unit is separated from the support structure, and - the drive-unit comprises a tag reader that, in the operating position, is arranged to read a vessel tag of the single-use vessel arranged in the support structure.
A single crystal CVD diamond material having the following characteristics: (i) a μτ product measured at 300 K greater than 1.5 x 10 -6 cm 2 V -1 where μ is the mobility and τ is the lifetime of the charge carriers; and (ii) in electron paramagnetic resonance, a spin density < 1 x 10 17 cm -3 at g=2.0028. (i) a μτ product measured at 300 K greater than 1.5 x 10 -6 cm 2 V -1 where μ is the mobility and τ is the lifetime of the charge carriers; and (ii) in electron paramagnetic resonance, a spin density < 1 x 10 17 cm -3 at g=2.0028.
An optical transducer, comprising: at least one optical waveguide; at least one sensing element disposed in a portion of the optical waveguide; a feedthrough element designed to isolate a first portion of the transducer in communication with the sensing element from a second portion of the transducer containing the sensing element, wherein the feedthrough element comprises at least a first seal formed by a first portion of the optical waveguide in contact with a bore extending through a housing of the feedthrough element and a second seal formed by contact between an arrangement of sealing elements with a second portion of the optical waveguide and an inner surface of the feedthrough housing; and a member in contact with a third portion of the optical waveguide and configured to apply a first pre-loading force to promote sealing of at least the first seal prior to deployment in an operating environment, wherein the third portion of the optical waveguide has a maximum outer diameter greater than a maximum outer diameter of the first portion of the optical waveguide and greater than an outer diameter of the second portion of the optical waveguide to allow the pre-loading force to be applied. at least one optical waveguide; at least one sensing element disposed in a portion of the optical waveguide; a feedthrough element designed to isolate a first portion of the transducer in communication with the sensing element from a second portion of the transducer containing the sensing element, wherein the feedthrough element comprises at least a first seal formed by a first portion of the optical waveguide in contact with a bore extending through a housing of the feedthrough element and a second seal formed by contact between an arrangement of sealing elements with a second portion of the optical waveguide and an inner surface of the feedthrough housing; and a member in contact with a third portion of the optical waveguide and configured to apply a first pre-loading force to promote sealing of at least the first seal prior to deployment in an operating environment, wherein the third portion of the optical waveguide has a maximum outer diameter greater than a maximum outer diameter of the first portion of the optical waveguide and greater than an outer diameter of the second portion of the optical waveguide to allow the pre-loading force to be applied.
An apparatus to index fragments of objects, comprising: a fragmenter to encode an object with error correction coding to separate the object into fragments; a node index assigner to create a first index indicative of storage nodes where the fragments of the object are to be stored; and a fragment index assigner to encode a second index into identifiers of the fragments of the object, the second index based on the first index, the fragmenter to store the fragments of the object and the corresponding second index encoded identifiers in the storage nodes based on the first index; further including a fragment compiler to: send a message to a first one of the storage nodes requesting a first one of the fragments of the object; and receive a response from the first one of the storage nodes, the response indicating that the first one of the fragments of the object is not stored in the first one of the storage nodes and that a second one of the fragments of the object is stored in the first one of the storage nodes. a fragmenter to encode an object with error correction coding to separate the object into fragments; a node index assigner to create a first index indicative of storage nodes where the fragments of the object are to be stored; and a fragment index assigner to encode a second index into identifiers of the fragments of the object, the second index based on the first index, the fragmenter to store the fragments of the object and the corresponding second index encoded identifiers in the storage nodes based on the first index; further including a fragment compiler to: send a message to a first one of the storage nodes requesting a first one of the fragments of the object; and receive a response from the first one of the storage nodes, the response indicating that the first one of the fragments of the object is not stored in the first one of the storage nodes and that a second one of the fragments of the object is stored in the first one of the storage nodes. send a message to a first one of the storage nodes requesting a first one of the fragments of the object; and receive a response from the first one of the storage nodes, the response indicating that the first one of the fragments of the object is not stored in the first one of the storage nodes and that a second one of the fragments of the object is stored in the first one of the storage nodes.
Method to generate final software code resistant to reverse engineering analysis from an initial software code, said initial software code executing a function formed by a plurality of blocks of initial instructions (INST_A, INST_B,...) and transforming an input data to an output data, said final software code being executed by a processor being able to directly handle data of a maximum bit length M and having an instructions set, characterized in that it comprises: - building a conversion table comprising in one side one instruction (INST_A) and in the other side a plurality of functionally equivalent instructions or sets of instructions (EQ INSTA_1, EQ_INSTA 2,... EQ_INSTA_n), - for each initial instruction of a block of initial instructions (INST_A, INST_B,...), selecting pseudo-randomly an equivalent instruction or set of instruction (EQ_INSTA_1, EQ_INSTA 2,... EQ_INSTA_n) from the conversion table, an instruction (INST_A, INST_B,...) is implemented as table lookups, wherein the tables are scrambled, - appending the plurality of equivalent instructions or sets of instruction to obtain the final software code. - building a conversion table comprising in one side one instruction (INST_A) and in the other side a plurality of functionally equivalent instructions or sets of instructions (EQ INSTA_1, EQ_INSTA 2,... EQ_INSTA_n), - for each initial instruction of a block of initial instructions (INST_A, INST_B,...), selecting pseudo-randomly an equivalent instruction or set of instruction (EQ_INSTA_1, EQ_INSTA 2,... EQ_INSTA_n) from the conversion table, an instruction (INST_A, INST_B,...) is implemented as table lookups, wherein the tables are scrambled, - appending the plurality of equivalent instructions or sets of instruction to obtain the final software code.
A water evacuation system, comprising: a sill providing: a dam that defines one or more drain ports; an accumulation chamber defined within the interior of the sill and in fluid communication with the dam via the one or more drain ports; and one or more discharge ports defined in a front face of the sill and in fluid communication with the accumulation chamber; and an internal ramp comprising a structure separate from the sill and arrangeable within the accumulation chamber below the one or more drain ports, the internal ramp including an angled upper surface directed toward the one or more discharge ports, wherein water entering the accumulation chamber via the one or more drain ports will impinge upon the angled upper surface and flow towards the one or more discharge ports to be evacuated from the sill. a sill providing: a dam that defines one or more drain ports; an accumulation chamber defined within the interior of the sill and in fluid communication with the dam via the one or more drain ports; and one or more discharge ports defined in a front face of the sill and in fluid communication with the accumulation chamber; and a dam that defines one or more drain ports; an accumulation chamber defined within the interior of the sill and in fluid communication with the dam via the one or more drain ports; and one or more discharge ports defined in a front face of the sill and in fluid communication with the accumulation chamber; and an internal ramp comprising a structure separate from the sill and arrangeable within the accumulation chamber below the one or more drain ports, the internal ramp including an angled upper surface directed toward the one or more discharge ports, wherein water entering the accumulation chamber via the one or more drain ports will impinge upon the angled upper surface and flow towards the one or more discharge ports to be evacuated from the sill.
A defrosting device (170, 270, 370), comprising: a heating unit (171, 271, 371) that is provided at a first side of an evaporator (130, 330) and that is configured to heat fluid passing through the heating unit (171, 271, 371); and a plurality of heat pipes (172, 272, 372) that are coupled to the heating unit (171, 271, 371), that are disposed adjacent to a cooling tube (131, 331) of the evaporator (130, 330), and that are configured to provide heat from the fluid to the cooling tube (131, 331), wherein the fluid passes through each of the plurality of heat pipes (172, 272, 372) and is heated by the heating unit (171, 271, 371), the plurality of heat pipes (172, 272, 372) comprising: a first heat pipe (172', 372') that is disposed adjacent to a first portion of the evaporator (130, 330), and a second heat pipe (172", 372") that is disposed adjacent to a second portion of the evaporator (130, 330), characterized in that a length of the first heat pipe (172', 372') is different from a length of the second heat pipe (172", 372"). a heating unit (171, 271, 371) that is provided at a first side of an evaporator (130, 330) and that is configured to heat fluid passing through the heating unit (171, 271, 371); and a plurality of heat pipes (172, 272, 372) that are coupled to the heating unit (171, 271, 371), that are disposed adjacent to a cooling tube (131, 331) of the evaporator (130, 330), and that are configured to provide heat from the fluid to the cooling tube (131, 331), wherein the fluid passes through each of the plurality of heat pipes (172, 272, 372) and is heated by the heating unit (171, 271, 371), the plurality of heat pipes (172, 272, 372) comprising: a first heat pipe (172', 372') that is disposed adjacent to a first portion of the evaporator (130, 330), and a second heat pipe (172", 372") that is disposed adjacent to a second portion of the evaporator (130, 330), characterized in that a length of the first heat pipe (172', 372') is different from a length of the second heat pipe (172", 372"). a first heat pipe (172', 372') that is disposed adjacent to a first portion of the evaporator (130, 330), and a second heat pipe (172", 372") that is disposed adjacent to a second portion of the evaporator (130, 330), characterized in that a length of the first heat pipe (172', 372') is different from a length of the second heat pipe (172", 372").
An autonomous floor cleaner comprising: an autonomously moveable housing; a controller; a drive system operably coupled with the controller and adapted to autonomously move the housing over the surface to be cleaned; a tank assembly comprising a recovery tank adapted to hold liquid and a supply tank adapted to hold liquid, characterized in that the autonomous floor cleaner further comprises: a carry handle joined with the tank assembly, the carry handle movable between multiple positions, including a first position, a second position, and a third position; and a tank latching member on the carry handle that engages a portion of the housing to latch the tank assembly to the housing in the first position and the second position; wherein: in the first position, the carry handle is stowed on the housing; in the second position the autonomous floor cleaner is liftable via the carry handle; and in the third position, the tank assembly is unlatched from the housing and is liftable away from the housing via the carry handle. an autonomously moveable housing; a controller; a drive system operably coupled with the controller and adapted to autonomously move the housing over the surface to be cleaned; a tank assembly comprising a recovery tank adapted to hold liquid and a supply tank adapted to hold liquid, characterized in that the autonomous floor cleaner further comprises: a carry handle joined with the tank assembly, the carry handle movable between multiple positions, including a first position, a second position, and a third position; and a tank latching member on the carry handle that engages a portion of the housing to latch the tank assembly to the housing in the first position and the second position; wherein: in the first position, the carry handle is stowed on the housing; in the second position the autonomous floor cleaner is liftable via the carry handle; and in the third position, the tank assembly is unlatched from the housing and is liftable away from the housing via the carry handle. a carry handle joined with the tank assembly, the carry handle movable between multiple positions, including a first position, a second position, and a third position; and a tank latching member on the carry handle that engages a portion of the housing to latch the tank assembly to the housing in the first position and the second position; wherein: in the first position, the carry handle is stowed on the housing; in the second position the autonomous floor cleaner is liftable via the carry handle; and in the third position, the tank assembly is unlatched from the housing and is liftable away from the housing via the carry handle. in the first position, the carry handle is stowed on the housing; in the second position the autonomous floor cleaner is liftable via the carry handle; and in the third position, the tank assembly is unlatched from the housing and is liftable away from the housing via the carry handle.
A flower shipment kit comprising: • a container holding an aqueous flower gel; and • one or more cut flowers whose stems are immersed in the aqueous flower gel; wherein the aqueous flower gel comprises (i) 1-4 wt.% of disc-shaped smectite clay nanoparticles having two opposing flat surfaces that are negatively charged and a rim that is positively charged, and (ii) 0.01-250 mM of one or more gel destabilizing agents selected from acidulants, dissolved metal cations and dissolved ammonium cations. • a container holding an aqueous flower gel; and • one or more cut flowers whose stems are immersed in the aqueous flower gel; wherein the aqueous flower gel comprises (i) 1-4 wt.% of disc-shaped smectite clay nanoparticles having two opposing flat surfaces that are negatively charged and a rim that is positively charged, and (ii) 0.01-250 mM of one or more gel destabilizing agents selected from acidulants, dissolved metal cations and dissolved ammonium cations.
Tradipitant for use in treating pruritus and/or atopic dermatitis in an individual by achieving and maintaining a tradipitant plasma concentration of 175 ng/mL or greater throughout a duration of treatment in the individual being treated, such use comprising: internal administration to the individual of tradipitant in an amount of 170 mg/day.
Composite particle for assay comprising nanoparticles dispersed in a matrix wherein: - nanoparticles selectively absorb or selectively emit light; - nanoparticles have a size in at least one of its dimensions shorter than 20 nm; - weight fraction of nanoparticles in said composite particle is greater than 0.5% and less than 50%; - composite particle is functionalized with a specific-binding component; and - composite particle has a mean size greater than 50 nm and less than 1000 nm, wherein the matrix is inorganic; wherein the matrix comprises SiO 2, Al 2 O 3, ZrO 2, or HfO 2, or a mixture thereof, such as Si 1-x Zr x O 2, Al 2-2x Zr 2x O (3+x), or Hf 1-x Z x rO 2, x being a rational number between 0 (excluded) and 1 (excluded), and wherein the matrix comprises less than 90% by weight of silica. - nanoparticles selectively absorb or selectively emit light; - nanoparticles have a size in at least one of its dimensions shorter than 20 nm; - weight fraction of nanoparticles in said composite particle is greater than 0.5% and less than 50%; - composite particle is functionalized with a specific-binding component; and - composite particle has a mean size greater than 50 nm and less than 1000 nm, wherein the matrix is inorganic; wherein the matrix comprises SiO 2, Al 2 O 3, ZrO 2, or HfO 2, or a mixture thereof, such as Si 1-x Zr x O 2, Al 2-2x Zr 2x O (3+x), or Hf 1-x Z x rO 2, x being a rational number between 0 (excluded) and 1 (excluded), and wherein the matrix comprises less than 90% by weight of silica.
Composition comprising: - at least one hydrophobic silica present at a percentage by weight between 30 and 60% of the total weight of the composition, said at least one hydrophobic silica comprising at least one pyrogenic silica, - at least one epoxy or polyester polymer resin present at a percentage by weight between 20 and 80% of the total weight of the composition, and - at least one anchoring agent at a percentage by weight between 0.5 and 2% of the total weight of the composition, said at least one anchoring agent being designated to increase the anchoring of said composition to a substrate. - at least one hydrophobic silica present at a percentage by weight between 30 and 60% of the total weight of the composition, said at least one hydrophobic silica comprising at least one pyrogenic silica, - at least one epoxy or polyester polymer resin present at a percentage by weight between 20 and 80% of the total weight of the composition, and - at least one anchoring agent at a percentage by weight between 0.5 and 2% of the total weight of the composition, said at least one anchoring agent being designated to increase the anchoring of said composition to a substrate.
A method for transmitting a channel state information reference signal, CSI-RS, comprising: obtaining, by a first device, an unlicensed carrier, by using a Listen Before Talk, LBT, rule; determining, by the first device, a target CSI-RS from M pre-configured groups of CSI-RSs, wherein each group of CSI-RSs in the M groups of CSI-RSs is periodically sent in a time domain, different groups of CSI-RSs in the M groups of CSI-RSs have different information, the information comprises sending periods and offsets, wherein each of the offsets is a time interval between a signal start sending moment of each group of CSI-RSs and a reference moment, and M is an integer greater than 1; and sending, by the first device, the determined target CSI-RS to a second device on the unlicensed carrier at a start sending moment of the target CSI-RS, said start sending moment of the target CSI-RS being determined based on a time moment at which the first device is allowed to start to send data after occupying the unlicensed carrier. obtaining, by a first device, an unlicensed carrier, by using a Listen Before Talk, LBT, rule; determining, by the first device, a target CSI-RS from M pre-configured groups of CSI-RSs, wherein each group of CSI-RSs in the M groups of CSI-RSs is periodically sent in a time domain, different groups of CSI-RSs in the M groups of CSI-RSs have different information, the information comprises sending periods and offsets, wherein each of the offsets is a time interval between a signal start sending moment of each group of CSI-RSs and a reference moment, and M is an integer greater than 1; and sending, by the first device, the determined target CSI-RS to a second device on the unlicensed carrier at a start sending moment of the target CSI-RS, said start sending moment of the target CSI-RS being determined based on a time moment at which the first device is allowed to start to send data after occupying the unlicensed carrier.
An adhesive film for a touch panel comprising a sheet-form adhesive layer and satisfying the equation X ≥ 100,000, where X represents the number of times the adhesive film passes through a writing test performed using a 0.8R pen at a transfer rate of 60 mm/s and a weight of 450 gf until an average terminal resistance increase value of the touch panel is 1 Ω or more, and wherein the adhesive layer is a cured product of an adhesive composition comprising an acrylic resin having a weight average molecular weight of 1,000,000 or more, and a polyfunctional crosslinking agent, wherein the weight average molecular weight is obtainable based on polystyrene conversion in gel permeation chromatography.