mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication terminal comprising: a wireless transceiver; a controller coupled to the wireless transceiver, the controller configuring the transceiver to receive a first control message on an anchor carrier, the first control message including a resource assignment for the anchor carrier, the controller configured to determine a Physical Downlink Shared Channel, PDSCH, resource assignment for the anchor carrier using a first Downlink Control Information, DCI, in the first control message, the controller configuring the transceiver to receive a second control message on the anchor carrier, the second control message associated with a set of component carriers, the set of component carriers are distinct from the anchor carrier, the controller configured to determine a PDSCH resource assignment on each component carrier in the set of component carriers using both the first DCI in the first control message and a second DCI in the second control message. a wireless transceiver; a controller coupled to the wireless transceiver, the controller configuring the transceiver to receive a first control message on an anchor carrier, the first control message including a resource assignment for the anchor carrier, the controller configured to determine a Physical Downlink Shared Channel, PDSCH, resource assignment for the anchor carrier using a first Downlink Control Information, DCI, in the first control message, the controller configuring the transceiver to receive a second control message on the anchor carrier, the second control message associated with a set of component carriers, the set of component carriers are distinct from the anchor carrier, the controller configured to determine a PDSCH resource assignment on each component carrier in the set of component carriers using both the first DCI in the first control message and a second DCI in the second control message.
A gas-fired heating appliance (1, 2) adapted for being connected to a common chimney via flue pipes to discharge fumes and introduce outside air, comprising: a housing (11, 21) defining a first port (181, 281) and a second port (19, 29) surrounding the first port, wherein one of said first and said second ports is provided to discharge fumes and the other of said first and said second ports is provided to introduce outside air; a burner disposed in the housing for combustion of a mixture of introduced outside air and fuel gas to generate fumes; a gas valve associated with the burner for regulating supply of fuel gas to the burner; a fan disposed in the housing for driving the introduced outside air supplied to the burner and urging the fumes to be discharge outside through the flue pipes and the common chimney; a controller electrically connected with the burner, the gas valve and the fan; characterized in further comprising: a harmful gas sensor disposed in the housing for detecting a concentration of the harmful gases including at least one of CO, NOx within air inside of the housing; and in that the controller being electrically connected with the burner, the gas valve, the fan, and the harmful gas sensor for controlling the fan and/or the burner and/or the gas valve based on the detection of the harmful gas sensor; wherein said controller is configured to start a standby operation when an excess of harmful gases is detected while the appliance is in a standby mode, and said standby operation includes activating the fan to run. a housing (11, 21) defining a first port (181, 281) and a second port (19, 29) surrounding the first port, wherein one of said first and said second ports is provided to discharge fumes and the other of said first and said second ports is provided to introduce outside air; a burner disposed in the housing for combustion of a mixture of introduced outside air and fuel gas to generate fumes; a gas valve associated with the burner for regulating supply of fuel gas to the burner; a fan disposed in the housing for driving the introduced outside air supplied to the burner and urging the fumes to be discharge outside through the flue pipes and the common chimney; a controller electrically connected with the burner, the gas valve and the fan; characterized in further comprising: a harmful gas sensor disposed in the housing for detecting a concentration of the harmful gases including at least one of CO, NOx within air inside of the housing; and in that the controller being electrically connected with the burner, the gas valve, the fan, and the harmful gas sensor for controlling the fan and/or the burner and/or the gas valve based on the detection of the harmful gas sensor; wherein said controller is configured to start a standby operation when an excess of harmful gases is detected while the appliance is in a standby mode, and said standby operation includes activating the fan to run.
A slurry for a lithium ion secondary battery positive electrode comprising a positive electrode active material, a binder, a conductive material, and an organic solvent, wherein said binder comprises a nitrile group containing acrylic polymer and a fluorine containing polymer, a ratio of a viscosity at 25°C measured by a coaxial cylinder type viscometer, (the viscosity at a shear speed of 2 sec -1) / (the viscosity at the shear speed of 20 sec -1), is 1.0 at 25°C to 2.5 wherein the slurry has a viscosity at 25°C at the shear speed of 2 sec -1 measured by a coaxial cylinder type viscometer being 1,000 to 20,000 mPa·s and a viscosity at 25°C at the shear speed of 20 sec -1 measured by a coaxial cylinder type viscometer being 1,000 to 8,000 mPa·s, wherein said fluorine containing polymer is polyvinylidene fluoride, wherein a weight average molecular weight of said nitrile group containing acrylic polymer is 100,000 to 2,000,000, wherein a content of said binder is 0.8 to 3 parts by weight with respect to 100 parts by weight of the positive electrode active material, wherein a content ratio of the nitrile group containing acrylic polymer in said binder is 5 to 50 wt%, wherein a content of said conductive material is 1 to 3 parts by weight with respect to 100 parts by weight of the positive electrode active material and wherein a number average particle diameter of said conductive material is 5 to 40 nm.
A pharmaceutical composition comprising a pharmaceutically acceptable solvent and a plurality of nanocarriers or microcarriers that contain methyl dihydrojasmonate, wherein the nanocarriers or microcarriers are formed of synthetic LDE nanoemulsion particles comprising a cholesteryl ester core surrounded by a phospholipid layer; the nanocarriers have a size ranging from 1 nanometer (nm) to 900 nm; or the microcarriers have a size ranging from 1 micrometer to 100 micrometer; and the pharmaceutical composition has a concentration of MDJ ranging from 1 nM to 1 M.
A porous rod comprising: a plurality of melt-blown bicomponent fibres each having a core polymer material surrounded by a sheath polymer material; and a plurality of melt-blown monocomponent fibres comprising a monocomponent fibre polymer material that is the same as the core material; wherein the monocomponent fibres and the bicomponent fibres are in the form of a homogeneous mixture, and wherein the bicomponent fibres and the monocomponent fibres each have an average diameter of less than 10 microns; wherein the melt-blown bicomponent fibres and the melt-blown monocomponent fibres were extruded from a single spinning device element to form a homogeneous web, and wherein the plurality of bicomponent fibres and the plurality of monocomponent fibres are formed into a homogeneous, self-sustaining structure in which the fibres are bonded to one another at spaced points of contact. a plurality of melt-blown bicomponent fibres each having a core polymer material surrounded by a sheath polymer material; and a plurality of melt-blown monocomponent fibres comprising a monocomponent fibre polymer material that is the same as the core material; wherein the monocomponent fibres and the bicomponent fibres are in the form of a homogeneous mixture, and wherein the bicomponent fibres and the monocomponent fibres each have an average diameter of less than 10 microns; wherein the melt-blown bicomponent fibres and the melt-blown monocomponent fibres were extruded from a single spinning device element to form a homogeneous web, and wherein the plurality of bicomponent fibres and the plurality of monocomponent fibres are formed into a homogeneous, self-sustaining structure in which the fibres are bonded to one another at spaced points of contact.
An in vitro method of producing a recombinant AAV virion in a mammalian host cell comprising a functional adenoviral E1A gene, said method comprising incubating the cell in a transfection medium comprising: (i) an accessory construct comprising a plasmid (pHelper) comprising adenoviral E2, E4Orf6, and VAI RNA genes operably linked to an origin of replication element and one or more other regulatory sequences; (ii) an AAV helper construct comprising a plasmid (pTrans) comprising AAV rep and AAV cap coding regions operably linked to one or more regulatory sequences; and (iii) a AAV vector comprising a plasmid (pCis), comprising AAV inverted terminal repeats flanking a heterologous gene of interest operably linked to one or more regulatory sequences, wherein the ratio of pHelper:pTrans:pCis is 1:5:0.31 (weight:weight:weight) and the transfection medium comprises a protein hydrolysate. (i) an accessory construct comprising a plasmid (pHelper) comprising adenoviral E2, E4Orf6, and VAI RNA genes operably linked to an origin of replication element and one or more other regulatory sequences; (ii) an AAV helper construct comprising a plasmid (pTrans) comprising AAV rep and AAV cap coding regions operably linked to one or more regulatory sequences; and (iii) a AAV vector comprising a plasmid (pCis), comprising AAV inverted terminal repeats flanking a heterologous gene of interest operably linked to one or more regulatory sequences,
An embossing folder, comprising; a first embossing plate having a first planar surface including a first plurality of positive embossing features disposed thereon in the shape of a first image and a second planar surface opposite the first planar surface including a first plurality of negative embossing features formed therein defining a second image, the first and second images being different from one another; a second embossing plate having a third planar surface including a second plurality of positive embossing features disposed thereon in the shape of the second image and configured to mate with the first plurality of negative embossing features and a fourth planar surface opposite the third planar surface including a second plurality of negative embossing features formed therein in the shape of the first image and configured to mate with the first plurality of positive embossing features; at least one living hinge interposed between and integrally formed with the first and second embossing plates, the at least one living hinge formed from at least one V-cut formed between the first and second embossing plates to form inwardly tapered sides.
A method for the preparation of hydrobromic acid from an aqueous bromide salt solution waste comprising organic contaminants, said process comprising the following steps: a. a step consisting in thermal purification by incineration of the waste in order to remove organic contaminants, followed by a step consisting in concentrating the waste by trapping it in a quench consisting of a concentric circular water curtain; b. a step consisting in electrodialysis with bipolar membranes, or treatment with an ion exchange resin, of the waste obtained on completion of step a. in order to convert the bromide salts into hydrobromic acid; c. a step consisting in purification by a first distillation of the hydrobromic acid obtained on completion of step b. in order to eliminate the excess water and hydrochloric acid; d. a step consisting in purification by a second azeotropic distillation of the hydrobromic acid obtained on completion of step c. in order to reduce the content of dry residues, heavy metals and/or dissolved salts; and e. a step consisting in recovering the hydrobromic acid obtained on completion of step d. a. a step consisting in thermal purification by incineration of the waste in order to remove organic contaminants, followed by a step consisting in concentrating the waste by trapping it in a quench consisting of a concentric circular water curtain; b. a step consisting in electrodialysis with bipolar membranes, or treatment with an ion exchange resin, of the waste obtained on completion of step a. in order to convert the bromide salts into hydrobromic acid; c. a step consisting in purification by a first distillation of the hydrobromic acid obtained on completion of step b. in order to eliminate the excess water and hydrochloric acid; d. a step consisting in purification by a second azeotropic distillation of the hydrobromic acid obtained on completion of step c. in order to reduce the content of dry residues, heavy metals and/or dissolved salts; and e. a step consisting in recovering the hydrobromic acid obtained on completion of step d.
A process for transitioning from a first continuous olefin polymerization reaction in a gas phase reactor conducted in the presence of a first catalyst to a second olefin polymerization reaction conducted in the presence of a second catalyst in the gas phase reactor wherein the first and second catalysts are incompatible, the process comprising: (a) discontinuing the introduction of the first catalyst into the gas phase reactor; (b) introducing an effective amount of cyclohexylamine into the reactor to at least partially deactivate the first catalyst; (c) introducing an organometallic compound into the reactor and reacting the organometallic compound with cyclohexylamine; (d) introducing a gas composition into the reactor for the second polymerization reaction and (e) introducing the second catalyst into the reactor; wherein the organometallic compound is one of a lithium alkyl, a magnesium or zinc alkyl, a magnesium alkyl halide, an aluminum alkyl, a silicon alkyl, a silicon alkoxide, and a silicon alkyl halide. (a) discontinuing the introduction of the first catalyst into the gas phase reactor; (b) introducing an effective amount of cyclohexylamine into the reactor to at least partially deactivate the first catalyst; (c) introducing an organometallic compound into the reactor and reacting the organometallic compound with cyclohexylamine; (d) introducing a gas composition into the reactor for the second polymerization reaction and (e) introducing the second catalyst into the reactor;
A home appliance control method, characterized in that the method is applied to a wearable device and comprises: receiving operation mode information from a home appliance, wherein the operation mode information indicates a current operation mode of the home appliance; and sending the operation mode information to another home appliance to cause said another home appliance to operate in the operation mode, wherein said another home appliance and said home appliance are a same kind of home appliance and operate in the operation mode. receiving operation mode information from a home appliance, wherein the operation mode information indicates a current operation mode of the home appliance; and sending the operation mode information to another home appliance to cause said another home appliance to operate in the operation mode, wherein said another home appliance and said home appliance are a same kind of home appliance and operate in the operation mode.
A flange for process field devices, the flange comprising: a first end; a second end; a first mounting area for mounting a first field device between the first end and the second end, the first mounting area comprising a first device port and a third device port positioned in the first mounting area to allow fluid communication with the first field device; a second mounting area for mounting a second field device between the first end and the second end, the second mounting area comprising a second device port and a fourth device port positioned in the second mounting area to allow fluid communication with the second field device; a first connection port that provides fluid to the flange, the first connection port located on the first end of the flange; a second connection port that provides fluid to the flange; a first internal chamber fluidly connecting the first connection port to the first device port and the second device port; and a second internal chamber fluidly connecting the second connection port to the third device port and the fourth device port, where the second internal chamber is not in fluid communication with the first internal chamber. a first end; a second end; a first mounting area for mounting a first field device between the first end and the second end, the first mounting area comprising a first device port and a third device port positioned in the first mounting area to allow fluid communication with the first field device; a second mounting area for mounting a second field device between the first end and the second end, the second mounting area comprising a second device port and a fourth device port positioned in the second mounting area to allow fluid communication with the second field device; a first connection port that provides fluid to the flange, the first connection port located on the first end of the flange; a second connection port that provides fluid to the flange; a first internal chamber fluidly connecting the first connection port to the first device port and the second device port; and a second internal chamber fluidly connecting the second connection port to the third device port and the fourth device port, where the second internal chamber is not in fluid communication with the first internal chamber.
A label for a bag filled with liquid, comprising a first film having an upper side which is coated with an adhesive at least in parts, and a lower side; and a second film having an upper side and a lower side; wherein the lower side of the first film is firmly connected to the upper side of the second film at least in parts in order to form a film compound; and wherein the film compound made up of the first film and the second film comprises a punched zone in the form of an open polyline having two end points (A, B), so that a strip-shaped tab (50, 51) is produced and the strip-shaped tab (50, 51) is connected to the remaining film compound along an imaginary line between the two end points (A, B), characterized in that the strip-shaped tab (50, 51) is configured to be guided through an opening provided in the bag in order to glue the strip-shaped tab (50, 51) to a folded part of the label, and in that a further first punched zone and a further second punched zone are provided in each case in the form of an open or a closed polyline by the first and the second film (10, 20) and are configured for hanging the label.
A process for production of high purity CO, comprising the steps of: providing a first CO 2 gas with a purity above 90% to a device comprising at least one solid oxide electrolysis cells, (SOEC) and comprising a gas separation unit, providing a current to at least one SOEC and producing a second gas comprising CO in said SOEC by means of CO 2 electrolysis, cooling said second gas and providing the cooled gas to an output gas separation unit, and operating said gas separation unit at temperatures between 0°C and 50°C, thereby producing a third output gas comprising CO with a purity above 90%. providing a first CO 2 gas with a purity above 90% to a device comprising at least one solid oxide electrolysis cells, (SOEC) and comprising a gas separation unit, providing a current to at least one SOEC and producing a second gas comprising CO in said SOEC by means of CO 2 electrolysis, cooling said second gas and providing the cooled gas to an output gas separation unit, and operating said gas separation unit at temperatures between 0°C and 50°C, thereby producing a third output gas comprising CO with a purity above 90%.
A method for preparing a graft copolymer, the method comprising: introducing a polymer coagulant latex including a polymer coagulant to a rubbery polymer latex including a rubbery polymer and coagulating the polymer coagulant latex to prepare an enlarged rubbery polymer latex containing an enlarged rubbery polymer; and introducing an aromatic vinyl-based monomer and a vinyl cyan-based monomerto the enlarged rubbery polymer latex prepared in Step above and performing graft polymerization to prepare a graft copolymer latex including a graft copolymer, wherein: the polymer coagulant includes an acid group-containing copolymer having a weight average molecular weight of 550,000 g/mol to 750,000 g/mol, as measured in the description,; and the content of the vinyl cyan-based monomer introduced in Step above is 15 wt% to 24 wt% based on the total content of the aromatic vinyl-based monomer and the vinyl cyan-based monomer. introducing a polymer coagulant latex including a polymer coagulant to a rubbery polymer latex including a rubbery polymer and coagulating the polymer coagulant latex to prepare an enlarged rubbery polymer latex containing an enlarged rubbery polymer; and introducing an aromatic vinyl-based monomer and a vinyl cyan-based monomerto the enlarged rubbery polymer latex prepared in Step above and performing graft polymerization to prepare a graft copolymer latex including a graft copolymer, wherein: the polymer coagulant includes an acid group-containing copolymer having a weight average molecular weight of 550,000 g/mol to 750,000 g/mol, as measured in the description,; and the content of the vinyl cyan-based monomer introduced in Step above is 15 wt% to 24 wt% based on the total content of the aromatic vinyl-based monomer and the vinyl cyan-based monomer. the polymer coagulant includes an acid group-containing copolymer having a weight average molecular weight of 550,000 g/mol to 750,000 g/mol, as measured in the description,; and the content of the vinyl cyan-based monomer introduced in Step above is 15 wt% to 24 wt% based on the total content of the aromatic vinyl-based monomer and the vinyl cyan-based monomer.
Hydraulic control device having a pressure control valve which is arranged in a control housing for rapidly filling a clutch cylinder (7, 8) and regulating a pressure build-up, in the case of which hydraulic control device the pressure control valve has a regulating piston and a modulation piston which are arranged in a concentric bore, and are pressed apart from one another by way of at least one spring (23, 24), the two pistons being pressed against stops (26, 27) in the control housing in a first starting position, and a retardation device (17, 33, 60, 61, 42, 45, 57, 23, 24, 22) being arranged between an end side of the regulating piston and a regulating return means of the clutch pressure, characterized in that a control geometry is machined into the modulation piston, as a result of which the said modulation piston is additionally active as a retardation piston, and in that the control geometry is produced by way of turning of at least one circumferential groove into the external diameter of the modulation piston in the form of control edges (42, 45, 57).
A polishing composition for polishing a material having a Vickers hardness of 1500 Hv or higher, wherein the polishing composition has an oxidation-reduction potential ORPx mV of equal or higher than 707 mV, the material to be polished is silicon carbide, and the polishing composition comprises a polishing aid, the polishing aid comprising a composite metal oxide and the polishing aid being free of hydrogen peroxide. the polishing composition has an oxidation-reduction potential ORPx mV of equal or higher than 707 mV, the material to be polished is silicon carbide, and the polishing composition comprises a polishing aid, the polishing aid comprising a composite metal oxide and the polishing aid being free of hydrogen peroxide.