mhurhangee/ep-ind-claims huggingface dataset:
A flexible door panel movable between an open position and a closed position relative to a doorway, the door panel comprising: a first sheet, a second sheet that is generally parallel to the first sheet when the door panel is in the closed position, and a plurality of baffles (26, 126, 226, 326, 426) extending between the first sheet and the second sheet to define a plurality of air chambers within the flexible door panel, characterized in that the one or more of the plurality of baffles (26, 126, 226, 326, 426) includes a central portion (56, 70, 74, 80) that lies at an angle (58, 158, 258, 358) relative to the first sheet and the second sheet, the angle (58, 158, 258, 358) is other than 90-degrees when the flexible door panel is in the closed position. a first sheet, a second sheet that is generally parallel to the first sheet when the door panel is in the closed position, and a plurality of baffles (26, 126, 226, 326, 426) extending between the first sheet and the second sheet to define a plurality of air chambers within the flexible door panel, characterized in that the one or more of the plurality of baffles (26, 126, 226, 326, 426) includes a central portion (56, 70, 74, 80) that lies at an angle (58, 158, 258, 358) relative to the first sheet and the second sheet, the angle (58, 158, 258, 358) is other than 90-degrees when the flexible door panel is in the closed position.
An alumina supporter material comprising a main body alumina and a rod-shaped alumina; wherein the main body alumina is provided with micron-sized pore channels, at least part of the rod-shaped alumina is distributed on the exterior surface of the main body alumina and in the micron-sized pore channels with a pore diameter D within a range of 3-10 μm; the rod-shaped alumina has a length of 1-12 μm and a diameter of 80-300 nm, and wherein the pore structure is characterized by adopting a scanning electron microscope. the main body alumina is provided with micron-sized pore channels, at least part of the rod-shaped alumina is distributed on the exterior surface of the main body alumina and in the micron-sized pore channels with a pore diameter D within a range of 3-10 μm; the rod-shaped alumina has a length of 1-12 μm and a diameter of 80-300 nm, and wherein the pore structure is characterized by adopting a scanning electron microscope.
A method for forming a pavement with a paving machine that includes an auger for distributing a paving mix on a paving surface and a screed, said screed being provided with a main screed and separate screed extensions, for compacting the mix on the paving surface to form the pavement, including the steps of using one or more sensors to monitor the stiffness and/or density of the pavement as it is compacted by the screed and to provide output signals corresponding to the density; using the output signals to adjust the force exerted by the screed on the pavement as it is formed in order to achieve a desired pavement density, monitoring the pavement by the sensors (201, 211) under the main screed and under each separate screed extension, and using additional sensors to continuously monitor pavement surface and pavement core temperature, this data being stored with the stiffness and/or density data for documentation of the paving process.
A dentifrice comprising scutellaria root, rehmannia root and platycodon root, wherein a content ratio of the scutellaria root in the dentifrice is 0.0001 mass% or more and 2 mass% or less, a content ratio of the platycodon root in the dentifrice is 0.0001 mass% or more and 2 mass% or less, and a content ratio of the rehmannia root in the dentifrice is 0.001 mass% or more and 2 mass% or less.
A polyphenylene sulfide/polyamide composition which comprises A) polyphenylene sulfide, B) polyamide and C) a compatibilizer comprising or consisting of a hydrogenated styrene-diene block copolymer having the following structural formula S 1 p -D-S 2 q wherein S 1 and S 2, independently from each other, are polymeric blocks derived from a styrenic monomer; D is a copolymeric block derived from copolymerizing a styrenic monomer and a conjugated diene monomer and hydrogenating ethylenic double bonds, which is an optionally maleic anhydride-grafted block; p and q, independently from each other, are 0 or 1, provided that at least one of p and q is 1; the styrenic monomers for deriving S 1, S 2 and D are same or different; and all monomer units derived from the styrenic monomers account for 40 to 80 % by weight of the hydrogenated styrene-diene block copolymer. wherein S 1 and S 2, independently from each other, are polymeric blocks derived from a styrenic monomer; D is a copolymeric block derived from copolymerizing a styrenic monomer and a conjugated diene monomer and hydrogenating ethylenic double bonds, which is an optionally maleic anhydride-grafted block; p and q, independently from each other, are 0 or 1, provided that at least one of p and q is 1; the styrenic monomers for deriving S 1, S 2 and D are same or different; and all monomer units derived from the styrenic monomers account for 40 to 80 % by weight of the hydrogenated styrene-diene block copolymer.
A method for configuring coordinated multipoint transmission, CoMP, in a LTE system, the method comprising the steps of: at a base station, eNB, notifying a user terminal, UE, of a transmission mode to support CoMP by radio resource control, RRC, signaling, characterized in that the transmission mode to support CoMP is Transmission Mode 10 and a downlink control information, DCI, format corresponding to the Transmission Mode 10 comprises DCI format 2D. at a base station, eNB, notifying a user terminal, UE, of a transmission mode to support CoMP by radio resource control, RRC, signaling, characterized in that the transmission mode to support CoMP is Transmission Mode 10 and a downlink control information, DCI, format corresponding to the Transmission Mode 10 comprises DCI format 2D.
An ice storage apparatus comprising: a housing having a heat insulation characteristic, the housing having a storage space therein; an ice maker received within the housing, the ice maker comprising an ice tray for making ices; an ice bin disposed under the ice maker to store the ices made in the ice maker; a transfer member disposed within the ice bin to discharge the ices to the outside of the ice bin; a refrigerating cycle (51, 52, 53, 54) extending into the housing, the refrigerating cycle (51, 52, 53, 54) comprising an evaporation unit attached to an outer surface of the ice tray to cool the ice tray; and a control unit for controlling operations of the refrigerating cycle (51, 52, 53, 54) and the transfer member, wherein air within the storage space is directly cooled by contacting the evaporation unit and/or the ice tray, and wherein the control unit is configured to operate the refrigerating cycle (51, 52, 53, 54) to cool the storage space when the ice tray has a temperature greater than a set temperature (Ta), wherein the control unit is configured to delay the operation of the refrigerating cycle (51, 52, 53, 54) until the ice tray has the temperature greater than the set temperature (Ta) even though the cooling of the storage space is required because the temperature of the storage space is greater than the set temperature (Ta). a housing having a heat insulation characteristic, the housing having a storage space therein; an ice maker received within the housing, the ice maker comprising an ice tray for making ices; an ice bin disposed under the ice maker to store the ices made in the ice maker; a transfer member disposed within the ice bin to discharge the ices to the outside of the ice bin; a refrigerating cycle (51, 52, 53, 54) extending into the housing, the refrigerating cycle (51, 52, 53, 54) comprising an evaporation unit attached to an outer surface of the ice tray to cool the ice tray; and a control unit for controlling operations of the refrigerating cycle (51, 52, 53, 54) and the transfer member, wherein air within the storage space is directly cooled by contacting the evaporation unit and/or the ice tray, and wherein the control unit is configured to operate the refrigerating cycle (51, 52, 53, 54) to cool the storage space when the ice tray has a temperature greater than a set temperature (Ta), wherein the control unit is configured to delay the operation of the refrigerating cycle (51, 52, 53, 54) until the ice tray has the temperature greater than the set temperature (Ta) even though the cooling of the storage space is required because the temperature of the storage space is greater than the set temperature (Ta).
A bearing structure element of a floor for a metal framework installation, in particular for the parking of vehicles, comprising a metal post, a base fastened on a lower end of the post, a head for the support of the floor fastened on an upper end of the post, and a holding part fastened on the head and provided with means for fastening an upper bearing structure element, characterized in that the holding part includes a body fastened on the head and extended by a plate, and the fastening means comprise either orifices formed on the plate for the passage of screws, or screws secured to the plate, and in that the bearing structure element further includes a removable reservation part covering at least partially said holding part, where said reservation part is in the form of a removable cover which caps the plate of the holding part.
A ground sliding type flexible framing system, comprising a vehicle body transport system, welding systems, framing fixtures, a splicing system for driving the framing fixtures to clamp a vehicle body, a fixture storage system and a fixture switching system for realizing switching of the framing fixtures between the splicing system and the fixture storage system; the fixture storage system comprises a plurality of bidirectional sliding rails arranged in parallel, storage positions for storing framing fixtures are formed on the bidirectional sliding rails, and the fixture switching system comprises a left sliding table transport rail and a right sliding table transport rail which are led to two sides of the splicing system from two ends of the bidirectional sliding rails, fixture transport rails led to the left sliding table transport rail and the right sliding table transport rail from two sides of the splicing system, respectively, sliding tables capable of running on the left sliding table transport rail and the right sliding table transport rail and a transport mechanism capable of pulling the framing fixtures positioned on the bidirectional sliding rails and the fixture transport rails; the transport mechanism comprises transport trolleys arranged at one side of the fixture transport rails and each bidirectional sliding rail, respectively, the transport trolleys comprise trolley transport guide rails parallel with the corresponding fixture transport rails or bidirectional sliding rails and trolley brackets capable of running along the trolley transport guide rails, and the trolley brackets are provided with driving pulling swing arms capable of pulling the framing fixtures; characterised in that the ground sliding type flexible framing system also comprises guide rail mounting frames, the trolley transport guide rails comprise upper guide rails and lower guide rails mounted on the guide rail mounting frame, first racks are arranged between the upper guide rails and the lower guide rails, the trolley brackets are provided with first guide devices, driving motors and first gears arranged on output shafts of the driving motors and meshed with the first racks, the trolley brackets are arranged on the upper guide rails and the lower guide rails by the first guide devices and run on the trolley transport guide rails in a meshing transmission manner between the first gears and the first racks, and the driving pulling swing arms are arranged at both front and rear ends of the trolley brackets.
Electromechanical brake booster, having an electric motor and a gear mechanism (11, 13, 14, 15) which is driven by the electric motor and which has a rotational/translational conversion gear mechanism (14, 15) which converts a rotational drive movement of the electric motor into a translational output movement in order to activate a hydraulic master brake cylinder, wherein the gear mechanism (11, 13, 14, 15) has a distributor gear mechanism (11, 13) which distributes a gear mechanism input between at least two identical gear mechanism paths, and a combination gear mechanism (14, 15) which combines the gear mechanism paths into one gear mechanism output.
A wireless apparatus for transmitting an uplink signal in a wireless communication system, the wireless apparatus comprising: a processor; and a Radio Frequency, RF, unit controllable by the processor and configured to support Evolved Universal Terrestrial Radio Access, E-UTRA, band and transmit an uplink signal, characterized in that, if the RF unit is configured to use a predetermined channel bandwidth and use an operating band 8 defined in a long term evolution, LTE, standard and if it is required to meet a predetermined permitted maximum level of a spurious emission to protect another frequency range, the uplink signal is transmitted by using a specific number of resource blocks, RBs, a maximum of which being calculated by subtracting a predetermined number of RBs from a total number of RBs corresponding to the predetermined channel bandwidth, wherein if the predetermined channel bandwidth is 5 MHz, the predetermined number of RBs is 5, and wherein if the predetermined channel bandwidth is 10 MHz, the predetermined number of RBs is 18. a processor; and a Radio Frequency, RF, unit controllable by the processor and configured to support Evolved Universal Terrestrial Radio Access, E-UTRA, band and transmit an uplink signal, characterized in that, if the RF unit is configured to use a predetermined channel bandwidth and use an operating band 8 defined in a long term evolution, LTE, standard and if it is required to meet a predetermined permitted maximum level of a spurious emission to protect another frequency range, the uplink signal is transmitted by using a specific number of resource blocks, RBs, a maximum of which being calculated by subtracting a predetermined number of RBs from a total number of RBs corresponding to the predetermined channel bandwidth, wherein if the predetermined channel bandwidth is 5 MHz, the predetermined number of RBs is 5, and wherein if the predetermined channel bandwidth is 10 MHz, the predetermined number of RBs is 18.
An airfoil for a gas turbine engine, comprising: a leading edge; a sheath on the leading edge; and a grounding element connected to the sheath, having a radially extending tab, and configured for connection to a component of the gas turbine engine to form a ground path from the sheath to the component; characterised by further comprising: a first side and an opposite second side extending radially outward from a platform to a tip; and a root extending radially inward from the platform, the grounding element being disposed on the platform and extending radially inward from the platform to the root, the tab projecting radially outward relative to the platform. a leading edge; a sheath on the leading edge; and a first side and an opposite second side extending radially outward from a platform to a tip; and a root extending radially inward from the platform, the grounding element being disposed on the platform and extending radially inward from the platform to the root, the tab projecting radially outward relative to the platform.
A method for defining and configuring a hardware setup of a fluid processing system, the method comprising: - processing user input at a client module, wherein the user input comprises a set of requirement data for the fluid processing system, - receiving the set of requirement data at a server module from the client module, wherein the server module is connected to the client module via a network, - defining the hardware setup of the fluid processing system by a setup module based on the set of requirement data and stored catalogue data, - generating a configuration file by a configuration module based on the hardware setup and the set of requirement data, - approving the hardware setup by the client module, and - transferring the configuration file to a generic control module being part of the hardware setup for configuring the fluid processing system. - processing user input at a client module, wherein the user input comprises a set of requirement data for the fluid processing system, - receiving the set of requirement data at a server module from the client module, wherein the server module is connected to the client module via a network, - defining the hardware setup of the fluid processing system by a setup module based on the set of requirement data and stored catalogue data, - generating a configuration file by a configuration module based on the hardware setup and the set of requirement data, - approving the hardware setup by the client module, and - transferring the configuration file to a generic control module being part of the hardware setup for configuring the fluid processing system.
A handling device for cases and boxes contained in the cases, the cases being of cylindrical form, said device comprising a housing of longitudinal axis intended to receive a case, said housing being closed at a first longitudinal end and open at a second longitudinal end, a holding device mounted at the level of the second end of the housing, said holding device comprising two clamping jaws (18.1, 18.2) capable of being moved about an axis (Z1, Z2) orthogonal to the longitudinal axis of the housing, said clamping jaws (18.1, 18.2) being configured to apply a clamping force to the case so as to hold the case longitudinally in the housing, at least one actuator for opening and closing said clamping jaws (18.1, 18.2), two stop jaws (36, 38), each of said stop jaws (36, 38) being supported by a clamping jaw (18.1, 18.2) and being articulated in a free manner about the axis of rotation (Z1, Z2) of the clamping jaw (18.1, 18.2), said stop jaws (36, 38) being moved towards each other in a stop position by resilient means, such that the opening of the clamping jaws (18.1, 18.2) causes opening of the stop jaws (36, 38) and such that the stop jaws (36, 38) can be opened independently of the clamping jaws (18.1, 18.2).
A device for cleaning a gas in a gas flow, comprising a burner to be positioned in said gas flow, said device comprising: - at least one first element that extends in a first direction and that comprises burner nozzles that are positioned at mutual distances; - at least one second element that extends in a second direction that is different from said first direction and that comprises burner nozzles that are positioned at mutual distances, - said first and second element (2; 3) are positioned in substantially the same plane, substantially perpendicular with respect to said gas flow, wherein - said device comprises no obstructions for at least 5 cm at a downstream side of the device, and - said device being embodied for igniting in said gas flow a gas to be fed through said burner nozzles in order to generate flames,; characterized in that: said first and second elements (2; 3) being positioned in a same plane and are embodied as a grid shape, wherein the elements extend over a substantially complete flow surface of said gas flow, and said burner nozzles being positioned at an angle of 0° to 80° with respect to the gas flow, the value of 0° meaning that the flames are directed perpendicular with respect to the gas flow, whereas a value of 80° means a difference of 10° with respect to the flow direction of the gas flow. - at least one first element that extends in a first direction and that comprises burner nozzles that are positioned at mutual distances; - at least one second element that extends in a second direction that is different from said first direction and that comprises burner nozzles that are positioned at mutual distances, - said first and second element (2; 3) are positioned in substantially the same plane, substantially perpendicular with respect to said gas flow, wherein - said device comprises no obstructions for at least 5 cm at a downstream side of the device, and - said device being embodied for igniting in said gas flow a gas to be fed through said burner nozzles in order to generate flames,; said first and second elements (2; 3) being positioned in a same plane and are embodied as a grid shape, wherein the elements extend over a substantially complete flow surface of said gas flow, and said burner nozzles being positioned at an angle of 0° to 80° with respect to the gas flow, the value of 0° meaning that the flames are directed perpendicular with respect to the gas flow, whereas a value of 80° means a difference of 10° with respect to the flow direction of the gas flow.
A method for detecting neutrophilic granulocytes (nGRC) in a biological sample derived from a mammal, comprising epigenetically detecting blood cells in a biological sample, and quantifying said blood cells as detected using a normalization standard, wherein said normalization standard is a nucleic acid molecule comprising at least one marker-region being specific for the nGRC to be detected, and at least one control-region being cell-unspecific, wherein said regions are present in the same number of copies on said molecule and/or a natural blood cell sample of known composition, and wherein said epigenetically detecting comprises determining a bisulfite conversion of at least one CpG position within a sequence according to any one of SEQ ID No 518, or 686, wherein a bisulfite conversion of at least one CpG position in said gene region is indicative for an nGRC, when compared to a non-nGRC.
A washing machine comprising a drum for receiving clothes to be washed, an electric motor for rotating the drum, a pump for draining wash water, a user-interface for receiving a user-input, a controller for controlling the electric motor, the pump and the user-interface, wherein the controller has a mode for washing clothes, the washing machine further comprising a door assembly for accessing the drum which comprises a glass element and an electrically conductive element which is formed on a predetermined section of the glass element, wherein the electrically conductive element is conductively connected to the controller, and wherein the controller is programmed to monitor a voltage across the electrically conductive element and/or an electric current flowing through the electrically conductive element, characterized in that the controller is further programmed to terminate the washing mode when a monitoring result is indicative of a breakage of the electrically conductive element.
An inhaler article for use in an inhaler system for providing a dry powder to the lungs of a user, the inhaler article comprising: a body extending along a longitudinal axis from a mouthpiece end to a distal end; a capsule cavity defined within the body and bounded downstream by a filter element and bounded upstream and distally by a deformable element, the deformable element deforms by folding back onto itself to define an open aperture and to form an open distal end and allow the inhaler article to receive swirling or rotational inhalation airflow during consumption through the open distal end; and a capsule disposed within the capsule cavity and containing dry powder. a body extending along a longitudinal axis from a mouthpiece end to a distal end; a capsule cavity defined within the body and bounded downstream by a filter element and bounded upstream and distally by a deformable element, the deformable element deforms by folding back onto itself to define an open aperture and to form an open distal end and allow the inhaler article to receive swirling or rotational inhalation airflow during consumption through the open distal end; and a capsule disposed within the capsule cavity and containing dry powder.