mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for performing multiple commands in a group of M2M devices , comprising a non-volatile memory and a processor , the non-volatile memory storing computer- executable instructions that, when executed by the processor, causes the apparatus to perform steps of: sending a first group management request to a management server to create a device group, and sending a second group management request to the management server to create a command group of multiple commands; receiving a request to initiate the multiple commands including commands of a group resource defined in a uniform resource indicator; processing the request; and sending a third group management request to the management server to execute the commands on the devices, the third group management request specifying how responses from the individual devices on command execution are to be processed by the management server; and receiving a response from the management server indicating execution status of the commands by the devices. sending a first group management request to a management server to create a device group, and sending a second group management request to the management server to create a command group of multiple commands; receiving a request to initiate the multiple commands including commands of a group resource defined in a uniform resource indicator; processing the request; and sending a third group management request to the management server to execute the commands on the devices, the third group management request specifying how responses from the individual devices on command execution are to be processed by the management server; and receiving a response from the management server indicating execution status of the commands by the devices.
A precursor for a device for filtering, comprising: at least two layers of filter element, each layer of filter element comprising a plurality of three-dimensional geometric cages joined in fixed relationship to each other, wherein each layer further comprises a peripheral member that encompasses the layer; and a plurality of spacer members that span the peripheral members of a pair of adjacent layers, holding the layers in fixed spaced-apart relationship. at least two layers of filter element, each layer of filter element comprising a plurality of three-dimensional geometric cages joined in fixed relationship to each other, wherein each layer further comprises a peripheral member that encompasses the layer; and a plurality of spacer members that span the peripheral members of a pair of adjacent layers, holding the layers in fixed spaced-apart relationship.
A method for sterilizing a sleeve in an aseptic filling system that molds the sleeve into a paper container having a bottomed tubular shape by closing surfaces of an open end part of the sleeve and performs sterilization, filling and sealing of the paper container , the sleeve being a tubular body having walls formed by laminating at least paper, wherein, in a state where the sleeve stands in a columnar shape, a mandrel having small openings is inserted into the part of the sleeve that is to form a bottom part of the paper container molded from the sleeve and heated air containing a sterilizer which contains at least hydrogen peroxide and being capable of melting a thermoplastic resin on four inner surfaces of the sleeve is blasted from the small openings in four surfaces of the mandrel to four inner surfaces of the sleeve that are to form the bottom part of the paper container to perform sterilization and heating of the inner surface of the bottom of the sleeve at the same time, and after the heated air containing the sterilizer is blasted to the sleeve , folded triangular parts are bonded together under pressure on which the bottom part of the sleeve is formed, characterized in that the heated air containing the sterilizer is produced by supplying the sterilizer in the form of liquid drops from a sterilizer supply path and compressed air from a compressed air supply path , introducing said sterilizer and compressed air into a sterilizer supplying portion , spraying the sterilizer into an evaporating portion to gasify the sterilizer by heating, hence producing a sterilized gas, generating heated air from a heating apparatus , and mixing said sterilizer gas with said heated air in a mixing apparatus . wherein, in a state where the sleeve stands in a columnar shape, a mandrel having small openings is inserted into the part of the sleeve that is to form a bottom part of the paper container molded from the sleeve and heated air containing a sterilizer which contains at least hydrogen peroxide and being capable of melting a thermoplastic resin on four inner surfaces of the sleeve is blasted from the small openings in four surfaces of the mandrel to four inner surfaces of the sleeve that are to form the bottom part of the paper container to perform sterilization and heating of the inner surface of the bottom of the sleeve at the same time, and after the heated air containing the sterilizer is blasted to the sleeve , folded triangular parts are bonded together under pressure on which the bottom part of the sleeve is formed, characterized in that the heated air containing the sterilizer is produced by supplying the sterilizer in the form of liquid drops from a sterilizer supply path and compressed air from a compressed air supply path , introducing said sterilizer and compressed air into a sterilizer supplying portion , spraying the sterilizer into an evaporating portion to gasify the sterilizer by heating, hence producing a sterilized gas, generating heated air from a heating apparatus , and mixing said sterilizer gas with said heated air in a mixing apparatus .
A heat source unit for a refrigeration apparatus having a refrigerant circuit, the heat source unit is configured to use CO 2 refrigerant and to exchange heat between the CO 2 refrigerant and another fluid, the heat source unit comprising: a compressor that is configured to perform multi-stage compression of two or more stages; a main heat exchanger that is configured to exchange heat between the refrigerant and the fluid; and a sub-heat exchanger that is disposed independently from the main heat exchanger and that is configured to exchange heat between the refrigerant and the fluid, wherein the sub-heat exchanger is an intermediate heat exchanger that is configured to exchange heat between the refrigerant and the fluid after the compressor has performed first-stage compression and before the compressor performs final-stage compression, and wherein the intermediate heat exchanger is disposed on the upstream side of the main heat exchanger in the flow of the fluid; wherein the fluid is air, and, the heat source unit further comprising: a fan for moving the air to the main heat exchanger, and a housing that contains the compressor, the main heat exchanger, the fan, and the intermediate heat exchanger, and wherein the fan is configured to suck the air from a side of the housing and to blow out the air upward from a top of the housing; wherein the intermediate heat exchanger is disposed at a height above half the height of the main heat exchanger. a compressor that is configured to perform multi-stage compression of two or more stages; a main heat exchanger that is configured to exchange heat between the refrigerant and the fluid; and a sub-heat exchanger that is disposed independently from the main heat exchanger and that is configured to exchange heat between the refrigerant and the fluid, wherein the sub-heat exchanger is an intermediate heat exchanger that is configured to exchange heat between the refrigerant and the fluid after the compressor has performed first-stage compression and before the compressor performs final-stage compression, and wherein the intermediate heat exchanger is disposed on the upstream side of the main heat exchanger in the flow of the fluid; wherein the fluid is air, and, the heat source unit further comprising: a fan for moving the air to the main heat exchanger, and a housing that contains the compressor, the main heat exchanger, the fan, and the intermediate heat exchanger, and a fan for moving the air to the main heat exchanger, and a housing that contains the compressor, the main heat exchanger, the fan, and the intermediate heat exchanger, and wherein the fan is configured to suck the air from a side of the housing and to blow out the air upward from a top of the housing; wherein the intermediate heat exchanger is disposed at a height above half the height of the main heat exchanger.
Method for actuating an induction heater of a tumble dryer , comprising: actuating an induction heater in order to heat a drum (T, 2) of the tumble dryer , wherein an induction coil (L R , 3) together with the drum (T, 2) or a ferromagnetic material attached to the drum (T, 2) forms an inductor of an oscillatory circuit of the induction heater, wherein the oscillatory circuit also contains a capacitor (C R ); interrupting the actuation of the induction heater for a time interval such that the oscillatory circuit of the induction heater can oscillate freely; measuring the resonant frequency of the oscillatory circuit during the time interval; filtering the measured resonant frequency in order to account for a rotation of the drum (T, 2); and determining the temperature of the drum (T, 2) based on the measured resonant frequency. actuating an induction heater in order to heat a drum (T, 2) of the tumble dryer , wherein an induction coil (L R , 3) together with the drum (T, 2) or a ferromagnetic material attached to the drum (T, 2) forms an inductor of an oscillatory circuit of the induction heater, wherein the oscillatory circuit also contains a capacitor (C R ); interrupting the actuation of the induction heater for a time interval such that the oscillatory circuit of the induction heater can oscillate freely; measuring the resonant frequency of the oscillatory circuit during the time interval; filtering the measured resonant frequency in order to account for a rotation of the drum (T, 2); and determining the temperature of the drum (T, 2) based on the measured resonant frequency.
A sea water intake riser system (100; 100') for a floating production unit , comprising at least two caissons , wherein the height of each caisson is substantially equal to a vertical height (L) of a hull of the floating production unit and extends, when mounted to the hull of the floating production unit, from a predetermined minimum distance from the bottom side of the hull up to at least the water-line (WL) during use, each caisson comprising an open top side at substantially the same height as the deck and a through-opening in a bottom side ; a lift pump arranged inside each of the caissons and having an inlet at a vertical distance with a predetermined minimum submergence (d) and adapted for pumping cold water from the caisson up to the floating production unit for use as cooling medium by production equipment of the floating production unit, and a sump tank , attached to the bottom side of each of the caissons such that each through-opening thereof is in fluid communication with a volume inside the sump tank , the sump tank being located between the bottom side of the hull and the at least two caissons when mounted, defining a sump volume extending between the bottom side of the hull, when the sea water intake riser system is mounted thereto, and the bottom side of each of the caissons over the entire width of the at least two caissons , and having a through-opening in a bottom side and being connectable to an upper end of a riser pipe , wherein the caissons have a width equal to the width of the sump tank divided by the at least two caissons connected thereto. a lift pump arranged inside each of the caissons and having an inlet at a vertical distance with a predetermined minimum submergence (d) and adapted for pumping cold water from the caisson up to the floating production unit for use as cooling medium by production equipment of the floating production unit, and a sump tank , attached to the bottom side of each of the caissons such that each through-opening thereof is in fluid communication with a volume inside the sump tank , the sump tank being located between the bottom side of the hull and the at least two caissons when mounted, defining a sump volume extending between the bottom side of the hull, when the sea water intake riser system is mounted thereto, and the bottom side of each of the caissons over the entire width of the at least two caissons , and having a through-opening in a bottom side and being connectable to an upper end of a riser pipe , wherein the caissons have a width equal to the width of the sump tank divided by the at least two caissons connected thereto.
A method of analyzing a structure of a resin material using radiation, the method comprising: impregnating the resin material with a radiosensitizer, characterized in that the resin material contains thermoplastic resin selected from the group of polypropylene (PP) and polyethylene terephthalate (PET), and the radiosensitizer contains a solvent, selected from the group consisting of toluene, THF, hexane, and ethanol, and a radiosensitizing molecule that contains, as a heavy element, an element with an atomic number equal to or greater than that of fluorine, and wherein a relative energy difference (REDi) represented by R a1 /R 01 is 1.8 or less, where R 01 is an interaction radius of the thermoplastic resin in a Hansen space and R a1 is a distance between Hansen solubility parameters of the thermoplastic resin and the solvent. impregnating the resin material with a radiosensitizer, characterized in that the resin material contains thermoplastic resin selected from the group of polypropylene (PP) and polyethylene terephthalate (PET), and the radiosensitizer contains a solvent, selected from the group consisting of toluene, THF, hexane, and ethanol, and a radiosensitizing molecule that contains, as a heavy element, an element with an atomic number equal to or greater than that of fluorine, and wherein a relative energy difference (REDi) represented by R a1 /R 01 is 1.8 or less, where R 01 is an interaction radius of the thermoplastic resin in a Hansen space and R a1 is a distance between Hansen solubility parameters of the thermoplastic resin and the solvent.
An ink composition comprising: a metal salt amine complex; wherein the metal salt amine complex is formed from a metal salt and an amine; a compound selected from the group consisting of a stable free radical, a photoacid generator, and a thermal acid generator; and an optional solvent, wherein the stable free radical is selected from the group consisting of nitroxides, hydrazyls, trityl radicals, and combinations thereof. a metal salt amine complex; wherein the metal salt amine complex is formed from a metal salt and an amine; a compound selected from the group consisting of a stable free radical, a photoacid generator, and a thermal acid generator; and an optional solvent,
Aqueous composition comprising chitosan and fibroin nanoparticles and an acid agent wherein the aqueous composition has a pH equal or lower than 6, wherein the aqueous composition has a viscosity equal or lower than 3.5 kg × m -1 × s -1 measured at 25.0±0.1 °C according to the method in the description, wherein the fibroin nanoparticles have a diameter equal or lower than 140 nm, measured according to the method in the description.
An electronic display , comprising: a backlight display configured to be turned on and off, the backlight display including a display linear polarizer ; a bezel surrounding the backlight display ; a surface on which the backlight display projects polarized light from the display linear polarizer ; a first linear polarizer disposed on said surface, a transmission angle of the first linear polarizer being aligned with the polarisation direction of said projected polarized light such that said projected light is substantially transmitted by the first linear polarizer , wherein the first linear polarizer extends beyond a periphery of the backlight display to cover the bezel ; and an active polarizer (130; 910) coupled to an electronic circuit and extending over the first linear polarizer beyond the periphery of the backlight display in a plan view, the active polarizer (130; 910) having a polarizing off state and a non-polarizing on state, and the transmission axis in the off state being oriented to be orthogonal to the first linear polarizer transmission axis, whereby in the off state the active polarizer (130; 910) absorbs light transmitted by the first linear polarizer and in the on state the active polarizer (130; 910) passes light transmitted by the first linear polarizer , the electronic circuit being configured to turn on the active polarizer (130; 910) when the backlight display is on, and turn off the active polarizer (130; 910) when the backlight display is off. a backlight display configured to be turned on and off, the backlight display including a display linear polarizer ; a bezel surrounding the backlight display ; a surface on which the backlight display projects polarized light from the display linear polarizer ; a first linear polarizer disposed on said surface, a transmission angle of the first linear polarizer being aligned with the polarisation direction of said projected polarized light such that said projected light is substantially transmitted by the first linear polarizer , wherein the first linear polarizer extends beyond a periphery of the backlight display to cover the bezel ; and an active polarizer (130; 910) coupled to an electronic circuit and extending over the first linear polarizer beyond the periphery of the backlight display in a plan view, the active polarizer (130; 910) having a polarizing off state and a non-polarizing on state, and the transmission axis in the off state being oriented to be orthogonal to the first linear polarizer transmission axis, whereby in the off state the active polarizer (130; 910) absorbs light transmitted by the first linear polarizer and in the on state the active polarizer (130; 910) passes light transmitted by the first linear polarizer , the electronic circuit being configured to turn on the active polarizer (130; 910) when the backlight display is on, and turn off the active polarizer (130; 910) when the backlight display is off.
A system for installing, removing and operating phytoremediation plant filters for wastewater, suitable for use in a constructed wetland , which comprises: - a main support beam configured to be partially or completely immersed in the constructed wetland ; - a plurality of securing rods that are arranged as means for fixing the plant filters and connected to the main beam ; and characterized in that the system also comprises: - at least one swinging frame (5") connected with the main support beam and the securing rods and arranged thereabove, so as to separate above-ground biomass from the wetland , and where the swinging frame (5") and the main support beam are connected by means of turning clamps adapted such that the swinging frame (5") can swing with respect to the main support beam ; - one or more floating elements connected to the main support beam . - a main support beam configured to be partially or completely immersed in the constructed wetland ; - a plurality of securing rods that are arranged as means for fixing the plant filters and connected to the main beam ; and - at least one swinging frame (5") connected with the main support beam and the securing rods and arranged thereabove, so as to separate above-ground biomass from the wetland , and where the swinging frame (5") and the main support beam are connected by means of turning clamps adapted such that the swinging frame (5") can swing with respect to the main support beam ; - one or more floating elements connected to the main support beam .
Assembly for a tyre, comprising: a. a woven first fabric having a longitudinal edge extending in a first overall direction (G1), comprising first filamentary elements, referred to as warp elements, which are substantially parallel to one another and extend in a first direction (C1) referred to as the warp direction, substantially parallel to the first direction (G1), each first filamentary warp element comprising first and second filamentary members, the second filamentary member being based on a material that melts at a temperature of between 20 and 220°C; b. a woven second fabric, comprising a longitudinal edge extending in a second direction (G2), the first overall direction (G1) and the second direction (G2) being substantially parallel; c. a bearing structure comprising filamentary load-bearing elements connecting the woven first fabric to the woven second fabric, each filamentary load-bearing element comprising at least one filamentary load-bearing portion extending between the woven first and second fabrics; such that, for any elongation of the woven first fabric in the first overall direction (G1) that is less than or equal to 2 × π × H/L, the first filamentary member is not broken when 0 < H ≤ K × H0, where H0 is the mean straight-line distance, in m, between an internal face of the woven first fabric and an internal face of the woven second fabric when each filamentary bearing portion is at rest, and L is the at-rest length of the woven first fabric in the first overall direction (G1) and K=1.2. a. a woven first fabric having a longitudinal edge extending in a first overall direction (G1), comprising first filamentary elements, referred to as warp elements, which are substantially parallel to one another and extend in a first direction (C1) referred to as the warp direction, substantially parallel to the first direction (G1), each first filamentary warp element comprising first and second filamentary members, the second filamentary member being based on a material that melts at a temperature of between 20 and 220°C; b. a woven second fabric, comprising a longitudinal edge extending in a second direction (G2), the first overall direction (G1) and the second direction (G2) being substantially parallel; c. a bearing structure comprising filamentary load-bearing elements connecting the woven first fabric to the woven second fabric, each filamentary load-bearing element comprising at least one filamentary load-bearing portion extending between the woven first and second fabrics;
A genome-edited human hematopoietic stem cell lacking the expression of a lineage-specific cell-surface antigen, wherein: (i) the lineage-specific cell-surface antigen is CD33, and (ii) the whole or a portion of an endogenous gene encoding the lineage-specific cell-surface antigen is deleted using genome editing, wherein the cell is obtained or obtainable by a method for inhibiting CD33 in human hematopoietic stem cells comprising the use of a CRISPR/Cas system_comprising a guide RNA sequence and a Cas endonuclease, wherein the guide RNA sequence hybridizes to the nucleotide sequence encoding the CD33 antigen. (i) the lineage-specific cell-surface antigen is CD33, and (ii) the whole or a portion of an endogenous gene encoding the lineage-specific cell-surface antigen is deleted using genome editing,