mhurhangee/ep-ind-claims huggingface dataset:
A method performed at a network node of transmitting control information to low complexity user equipment, said control information being transmitted in a first frequency range within a predetermined limited frequency bandwidth that said low complexity user equipment is configured to receive, said method comprising: transmitting in a second frequency range within said limited bandwidth, user specific control information during first predetermined time periods and non-user specific control information during second predetermined time periods, wherein said first and second time periods do not overlap; and transmitting within said limited bandwidth in response to a network connection request from said low complexity user equipment further control information, said further control information being transmitted during further predetermined time periods, said further predetermined time periods overlapping with at least one of said first and second time periods; wherein said further control information is transmitted in a third frequency range that is a different non-overlapping frequency range to said first and second frequency range. transmitting in a second frequency range within said limited bandwidth, user specific control information during first predetermined time periods and non-user specific control information during second predetermined time periods, wherein said first and second time periods do not overlap; and transmitting within said limited bandwidth in response to a network connection request from said low complexity user equipment further control information, said further control information being transmitted during further predetermined time periods, said further predetermined time periods overlapping with at least one of said first and second time periods; wherein said further control information is transmitted in a third frequency range that is a different non-overlapping frequency range to said first and second frequency range.
A compound of formula: wherein R 1 is H or a hydrocarbon group; R 4 each independently is -R 11 -R 12 -, R 11 is C 3-10 -arylene, C 3-10 -cycloalkylene or -CR 7 R 8 -, wherein R 7 and R 8 each independently are H or C 1-6 -alkyl, and R 12 is a single bond or a linker having 1-10 atoms of the main chain; R 5 is OH, SH, COOH, NH 2, NHR 9 (R 9 is C 1-6 -alkyl); and R 6 is H, C 1-6 -alkyl or R 5. R 1 is H or a hydrocarbon group; R 4 each independently is -R 11 -R 12 -, R 11 is C 3-10 -arylene, C 3-10 -cycloalkylene or -CR 7 R 8 -, wherein R 7 and R 8 each independently are H or C 1-6 -alkyl, and R 12 is a single bond or a linker having 1-10 atoms of the main chain; R 11 is C 3-10 -arylene, C 3-10 -cycloalkylene or -CR 7 R 8 -, wherein R 7 and R 8 each independently are H or C 1-6 -alkyl, and R 12 is a single bond or a linker having 1-10 atoms of the main chain; R 5 is OH, SH, COOH, NH 2, NHR 9 (R 9 is C 1-6 -alkyl); and R 6 is H, C 1-6 -alkyl or R 5.
A utilization of an access control system having at least one first closing device and a plurality of second closing devices as a system for the access control to a building having at least one exterior door and having interior doors, wherein the first closing device, respectively at least one of the first closing devices is mounted for locking and unlocking an exterior door, and the second closing devices are mounted for locking and unlocking interior doors, and wherein the at least one first closing device includes first means for receiving information from the user, and the second closing devices include second means for receiving information by means of the user, characterized in that the second means include a receiver of capacitive-resistive signals transferred by means of the body of the user, and in that the first means are different from the second means.
A recombinant phosphoglucose isomerase protein comprising the sequence of SEQ ID NO:17 with a protease recognition sequence located after amino acid 410, 524, 525, 526, 527, 528, 529, 530, 531, 532, or 545 of the sequence of SEQ ID NO:17.
A method for resetting life diagnosis alarm of a contact of a contactor, including the following steps: Step A: detecting a reset signal by a microcontrol unit; Step B: when the microcontrol unit has detected the reset signal, checking the state of the diagnosis alarm through the microcontrol unit; and when the diagnosis alarm is in an active state, the microcontrol unit: Step C: controlling the indicator to give a first indication signal for confirming a reset operation of the diagnosis alarm; Step D: resetting life diagnosis data; Step E: controlling the opening and closing of the contact of the contactor through an actuator. Step A: detecting a reset signal by a microcontrol unit; Step B: when the microcontrol unit has detected the reset signal, checking the state of the diagnosis alarm through the microcontrol unit; and when the diagnosis alarm is in an active state, the microcontrol unit: Step C: controlling the indicator to give a first indication signal for confirming a reset operation of the diagnosis alarm; Step D: resetting life diagnosis data; Step E: controlling the opening and closing of the contact of the contactor through an actuator. Step C: controlling the indicator to give a first indication signal for confirming a reset operation of the diagnosis alarm; Step D: resetting life diagnosis data; Step E: controlling the opening and closing of the contact of the contactor through an actuator.
Detector arrangement for angle-resolving detection of radiation with an evaluation device and with at least one detector element having a front face and a rear face, wherein: a) a space between the front face and the rear face of the detector element is filled by several regions of a first active detector material and by at least one region of a second material designed as an active detector material or as a passive material, and each region connects the front face to the rear face of the detector element; and b) wherein an energy deposition takes place in at least the regions of the first active detector material as a function of an irradiation angle (α) of the radiation onto the detector element; characterized in that c) the detector arrangement comprises at least one evaluation device which is configured to determine, from the energies deposited in those regions (5, 6) of the detector element containing active detector material and from the distribution of the energies deposited in those regions (5, 6) of the detector element containing active detector material, the irradiation angle (α) between the radiation onto the detector element and a preferential direction of the detector element. a) a space between the front face and the rear face of the detector element is filled by several regions of a first active detector material and by at least one region of a second material designed as an active detector material or as a passive material, and each region connects the front face to the rear face of the detector element; and b) wherein an energy deposition takes place in at least the regions of the first active detector material as a function of an irradiation angle (α) of the radiation onto the detector element; characterized in that c) the detector arrangement comprises at least one evaluation device which is configured to determine, from the energies deposited in those regions (5, 6) of the detector element containing active detector material and from the distribution of the energies deposited in those regions (5, 6) of the detector element containing active detector material, the irradiation angle (α) between the radiation onto the detector element and a preferential direction of the detector element.
Brine injection system with a plurality of needles, which are inserted into a product and through which brine is injected into the product, wherein brine which does not end up in the product is collected and recycled, wherein during recycling, the brine flows through a filter, wherein the filter comprises a filter element, along which the unfiltered brine flows in a flow-direction and through which the filtered brine passes and which holds back residues in the unfiltered brine, characterized in, that the filter element comprises a multitude of, slots each with a main extension direction which extends parallel to the flow direction of the brine.
A method of forming a stent scaffold, comprising: dissolving a raw polymeric resin in a solvent to form at least a first polymeric solution; forming at least a first layer of a biocompatible polymer tube having a first diameter with the first polymeric solution; characterised by curing the tube; processing the tube to form an expandable scaffold having the first diameter; reducing the first diameter of the scaffold to a second smaller diameter, wherein the scaffold retains at least 90% of the molecular weight of the resin and at least a portion a crystallinity of the resin such that the scaffold exhibits ductility upon application of a load; and deploying the scaffold in a saline environment at a temperature of at least 37°C and below T g of the polymeric resin, wherein the scaffold regains 30% to 60% of the radial strength of the scaffold prior to reducing the first diameter of the scaffold to a second smaller diameter. dissolving a raw polymeric resin in a solvent to form at least a first polymeric solution; forming at least a first layer of a biocompatible polymer tube having a first diameter with the first polymeric solution; characterised by curing the tube; processing the tube to form an expandable scaffold having the first diameter; reducing the first diameter of the scaffold to a second smaller diameter, wherein the scaffold retains at least 90% of the molecular weight of the resin and at least a portion a crystallinity of the resin such that the scaffold exhibits ductility upon application of a load; and deploying the scaffold in a saline environment at a temperature of at least 37°C and below T g of the polymeric resin, wherein the scaffold regains 30% to 60% of the radial strength of the scaffold prior to reducing the first diameter of the scaffold to a second smaller diameter.
An electric heating apparatus for deicing, comprising: a heat generating module, comprising a heat generating element and a bus bar for conducting electricity to the heat generating element, wherein the bus bar comprises a lead-out portion for connecting an external power source; a thermally conductive encapsulating layer, which is insulated and covering the heat generating module except the lead-out portion; and a first substrate and a second substrate, respectively arranged below and above the thermally conductive encapsulating layer, so that the heat generating module and the thermally conductive encapsulating layer are arranged between the first substrate and the second substrate; and characterized in that: the electric heating apparatus is provided on a surface of a blade of the wind turbine, the first substrate is closer to outside of the blade than the second substrate, a thermal conductivity of the first substrate is greater than a thermal conductivity of the second substrate, and an electrical conductivity of the first substrate is smaller than an electrical conductivity of the second substrate. a heat generating module, comprising a heat generating element and a bus bar for conducting electricity to the heat generating element, wherein the bus bar comprises a lead-out portion for connecting an external power source; a thermally conductive encapsulating layer, which is insulated and covering the heat generating module except the lead-out portion; and a first substrate and a second substrate, respectively arranged below and above the thermally conductive encapsulating layer, so that the heat generating module and the thermally conductive encapsulating layer are arranged between the first substrate and the second substrate; and characterized in that: the electric heating apparatus is provided on a surface of a blade of the wind turbine, the first substrate is closer to outside of the blade than the second substrate, a thermal conductivity of the first substrate is greater than a thermal conductivity of the second substrate, and an electrical conductivity of the first substrate is smaller than an electrical conductivity of the second substrate.
Cleaning device for removing cobwebs, having a plurality of tines arranged side by side on a cleaning head forming housing and a holding rod connected to the housing for holding and handling the cleaning device, wherein the tines are curved and/or inclined in working direction and held on or in the housing and retractable and extendable therein, wherein the housing and the tines are in active contact, characterized in that the housing is a flat hollow body in which housing breakthroughs are provided for each tine, via which the tines can be extended and retracted out of or into the housing.
An electronic device comprising: a support; a charge-transporting layer including a charge-transporting material, or a sensitizing-dye electrode layer including a sensitizing dye, where the charge-transporting layer or the sensitizing dye electrode layer is disposed on or above the support; and a metal oxide layer disposed on or above the charge-transporting layer or the sensitizing-dye electrode layer, wherein the metal oxide layer includes p-type semiconductor metal oxide and silica or metal oxide particles, and wherein an amount of the silica or metal oxide particles included in the metal oxide layer is 0.5% by mass or greater but 1.5% by mass or less relative to the metal oxide layer. a support; a charge-transporting layer including a charge-transporting material, or a sensitizing-dye electrode layer including a sensitizing dye, where the charge-transporting layer or the sensitizing dye electrode layer is disposed on or above the support; and a metal oxide layer disposed on or above the charge-transporting layer or the sensitizing-dye electrode layer, wherein the metal oxide layer includes p-type semiconductor metal oxide and silica or metal oxide particles, and wherein an amount of the silica or metal oxide particles included in the metal oxide layer is 0.5% by mass or greater but 1.5% by mass or less relative to the metal oxide layer.
A reinforcement beam article constructed for impact on a vehicle comprising: at least three separate elongated metal sheets, wherein at least one of the sheets includes preformed structure thereon, wherein the sheets are positioned and interconnected to define an elongated tubular beam, having a non-linear length and transverse cross sections, wherein the transverse cross sections are defining front and rear walls and at least two shear walls (103, 104, 105) connecting the front and rear walls, characterized in that at least two of the sheets having edges that abut side surfaces of adjacent others of the sheets to form non-radiused perpendicular welded corners; and wherein end portions of the tubular beam being configured to facilitate attachment to a vehicle. at least three separate elongated metal sheets, wherein at least one of the sheets includes preformed structure thereon, wherein the sheets are positioned and interconnected to define an elongated tubular beam, having a non-linear length and transverse cross sections, wherein the transverse cross sections are defining front and rear walls and at least two shear walls (103, 104, 105) connecting the front and rear walls, characterized in that at least two of the sheets having edges that abut side surfaces of adjacent others of the sheets to form non-radiused perpendicular welded corners; and wherein end portions of the tubular beam being configured to facilitate attachment to a vehicle.
A backsheet for a solar cell module, comprising a substrate sheet and a cured coating film formed from a coating material that contains a curable functional group-containing fluorinated polymer and an acrylic polymer, Wherein the acrylic polymer is at least one polymer selected from the group consisting of (i) polymers that contain an alkyl (meth)acrylate-based polymerization unit and that do not have a curable functional group in side chain position and/or main chain terminal position (acrylic polymer (i)) and (ii) co-polymers that contain an alkyl (meth)acrylate-based polymeriza-ton unit and that have a curable functional group in side chain position and/or main chain terminal position (acrylic polymer (ii)), wherein the acrylic polymer (ii) contains an alkyl (meth)acrylale-based polymerization unit and a polymerisation unit based on a monomer that is copolymerizable with the alkyl (meth)acrylate, wherein the copolymerizable monomer contains a curable functional group, and the content of the polymerization unit based on a curable functional group-containing monomer that is copolymerizable with alkyl (meth)acrylate is not more than 50 weight% in the acrylic polymer with reference to the total polymerization units.
An anti-reflective coating composition comprising 5 to 50 parts by weight of hollow particles; 1 to 30 parts by weight of an initiators having a molecular weight of less than 420; 1 to 20 parts by weight of an initiator having a molecular weight of 420 to 1000; and 100 to 500 parts by weight of a solvent, based on 100 parts by weight of a (meth)acrylate-based compound.
A system, comprising: a container cover, comprising: a liquid conduit configured to extend into a liquid container; at least one wall (152,154) surrounding a buffer chamber, wherein the at least one wall (152,154) is configured to separate an interior volume of the liquid container from an exterior environment; a first vent conduit (156;232) coupled to the at least one wall (152,154), wherein the first vent conduit (156; 232) is configured to fluidly couple the exterior environment with the buffer chamber; a second vent conduit (158;234) coupled to the at least one wall (152,154), wherein the second vent conduit (158;234) is configured to fluidly couple the interior volume with the buffer chamber; and characterised by at least one check valve completely within the first or second vent conduit (156,158;232,234). a container cover, comprising: a liquid conduit configured to extend into a liquid container; at least one wall (152,154) surrounding a buffer chamber, wherein the at least one wall (152,154) is configured to separate an interior volume of the liquid container from an exterior environment; a first vent conduit (156;232) coupled to the at least one wall (152,154), wherein the first vent conduit (156; 232) is configured to fluidly couple the exterior environment with the buffer chamber; a second vent conduit (158;234) coupled to the at least one wall (152,154), wherein the second vent conduit (158;234) is configured to fluidly couple the interior volume with the buffer chamber; and characterised by at least one check valve completely within the first or second vent conduit (156,158;232,234). a liquid conduit configured to extend into a liquid container; at least one wall (152,154) surrounding a buffer chamber, wherein the at least one wall (152,154) is configured to separate an interior volume of the liquid container from an exterior environment; a first vent conduit (156;232) coupled to the at least one wall (152,154), wherein the first vent conduit (156; 232) is configured to fluidly couple the exterior environment with the buffer chamber; a second vent conduit (158;234) coupled to the at least one wall (152,154), wherein the second vent conduit (158;234) is configured to fluidly couple the interior volume with the buffer chamber; and characterised by at least one check valve completely within the first or second vent conduit (156,158;232,234).
An inhibitor of the interaction between Helicobacter pylori HopQ and a member of the carcinoembryonic antigen-related cell adhesion molecule (CEACAM) family for use in a method of preventing or treating a disease or disorder selected from the group consisting of H. pylori infection and gastroduodenal disorders caused by H. pylori, wherein the inhibitor is selected from the group consisting of (a) (poly-)peptide ligands binding to an extracellular domain of H. pylori HopQ; (b) nucleic acid molecules encoding the (poly-)peptide ligands of (a); and (c) nucleic acid ligands binding to an extracellular domain of H. pylori HopQ, wherein the extracellular domain of H. pylori HopQ is the insertion domain, loop A, loop B, loop C or loop D of H. pylori HopQ, wherein loop A is located between helix H3 and strand S1 of H. pylori HopQ; loop B is located between strand S2 and helix H4 of H. pylori HopQ; loop C is located between helix H5 and helix H6 of H. pylori HopQ; and loop D is located between helix H7 and helix H8 of H. pylori HopQ. wherein the inhibitor is selected from the group consisting of (a) (poly-)peptide ligands binding to an extracellular domain of H. pylori HopQ; (b) nucleic acid molecules encoding the (poly-)peptide ligands of (a); and (c) nucleic acid ligands binding to an extracellular domain of H. pylori HopQ, (a) (poly-)peptide ligands binding to an extracellular domain of H. pylori HopQ; (b) nucleic acid molecules encoding the (poly-)peptide ligands of (a); and (c) nucleic acid ligands binding to an extracellular domain of H. pylori HopQ, wherein the extracellular domain of H. pylori HopQ is the insertion domain, loop A, loop B, loop C or loop D of H. pylori HopQ, wherein loop A is located between helix H3 and strand S1 of H. pylori HopQ; loop B is located between strand S2 and helix H4 of H. pylori HopQ; loop C is located between helix H5 and helix H6 of H. pylori HopQ; and loop D is located between helix H7 and helix H8 of H. pylori HopQ.
A method for inhibiting or reducing fungal growth at a location containing a fungus or susceptible to fungal growths, comprising placing a composition comprising one or more bacteria in the proximity of, but not in direct contact with the location, wherein the one or more bacteria are from the genus Rhodococcus, preferably selected from the group consisting of Rhodococcus rhodochrous DAP 96253, Rhodococcus rhodochrous DAP 96622, Rhodococcus erythropolis, and combinations thereof, wherein the bacteria are induced with an inducing agent selected from the group consisting of urea; urea and cobalt; urea, cobalt and asparagine; methacrylamide; acetamide; or methylcarbamate to produce one or more enzymes selected from group consisting of nitrile hydratases, amidases, asparaginases, ACC deaminases, cyanoalanine synthase-like enzymes, monooxygenases, dioxygenases, cyanidases, and combinations thereof; wherein the location does not comprise a plant or plant part, or a human or animal body, and wherein the one or more bacteria are provided in a quantity sufficient to inhibit or reduce fungal growth at the location.