mhurhangee/patent-ind-claim-en huggingface dataset:
Belt drying system for drying bulk material , such as wood shavings, in which there are provided a first, upper drying level for pre-drying comparatively moist bulk material , a second, lower drying level for after-drying bulk material that has already been pre-dried in the upper drying level , and there is provided an air guide for warm air, with which air guide warm air is to be guided first through the lower drying level and then subsequently through the upper drying level , wherein the warm air is to be guided by means of the air guide so as to flow through each drying level from top to bottom, and there is provided beneath each drying level (20 and 26) a plurality of suction devices for drawing the warm air by suction from top to bottom as waste air, wherein the upper drying level is divided into a plurality of sections , wherein there is provided an upper air supply by means of which waste air from the lower drying level is to be guided as supply air to at least one section of the upper drying level , characterised in that , by means of the upper air supply, fresh air from the surroundings is further to be supplied to at least one other section of the upper drying level .
An airfoil for use in a gas turbine engine , the airfoil comprising: a pressure surface and a suction surface each extending axially from a leading edge to a trailing edge of the airfoil , at least one of the pressure surface , the suction surface , the leading edge and the trailing edge terminating at an edge (65; 80; 88; 96) of a tip section of the airfoil ; a plurality of internal cooling conduits located within the airfoil ; and at least one cooling hole (86; 92) in fluid communication with at least one of the plurality of internal cooling conduits , wherein the at least one cooling hole (86; 92) is aligned with an opening (90; 94) that extends directly from the at least one cooling hole (86; 92); and a tip shelf in the tip section , characterised in that the tip shelf provides a surface between the pressure surface and a top of the tip section , the opening (90; 94) is formed in and extends through an edge of the tip shelf of the tip section of the airfoil , and in that the edge of the tip shelf intersects the pressure surface . a pressure surface and a suction surface each extending axially from a leading edge to a trailing edge of the airfoil , at least one of the pressure surface , the suction surface , the leading edge and the trailing edge terminating at an edge (65; 80; 88; 96) of a tip section of the airfoil ; a plurality of internal cooling conduits located within the airfoil ; and at least one cooling hole (86; 92) in fluid communication with at least one of the plurality of internal cooling conduits , wherein the at least one cooling hole (86; 92) is aligned with an opening (90; 94) that extends directly from the at least one cooling hole (86; 92); and a tip shelf in the tip section , characterised in that the tip shelf provides a surface between the pressure surface and a top of the tip section , the opening (90; 94) is formed in and extends through an edge of the tip shelf of the tip section of the airfoil , and in that the edge of the tip shelf intersects the pressure surface .
Mounting device, for mounting an accessory on a sport gear or on a vehicle , comprising a first main part which is a base plate, intended to be assembled with the sport gear or with the vehicle , and a second main part , which is a support for the accessory, said second main part being connectable to said first main part by a relative sliding movement along a longitudinal direction (x), until said base plate and said support are in a locked configuration, each of said two main parts comprising a rigid structure, said rigid structure comprising a pair of lateral guiding surfaces arranged so as to slide against the lateral surfaces of the other , during said relative sliding movement, characterized in that the rigid structure of one of said two main parts comprises a locking tooth extending in a locking direction (z) which is essentially perpendicular to said longitudinal direction (x), in that the rigid structure of the other of said two main parts comprises a locking opening , adapted to receive said locking tooth in said locked configuration and, in that one of said two main parts , further comprises an elastic organ adapted to apply a force (Fe) on the rigid structure of the other of said two main parts essentially parallel to said locking direction (z), so as to keep the locking tooth engaged in the locking opening in said locked configuration. characterized in that the rigid structure of one of said two main parts comprises a locking tooth extending in a locking direction (z) which is essentially perpendicular to said longitudinal direction (x), in that the rigid structure of the other of said two main parts comprises a locking opening , adapted to receive said locking tooth in said locked configuration and, in that one of said two main parts , further comprises an elastic organ adapted to apply a force (Fe) on the rigid structure of the other of said two main parts essentially parallel to said locking direction (z), so as to keep the locking tooth engaged in the locking opening in said locked configuration.
A secondary battery comprising a negative electrode , a positive electrode , a first aqueous electrolyte , a second aqueous electrolyte , and a partition having a first surface and a second surface opposite to the first surface, wherein the negative electrode comprises a negative electrode active material comprising a titanium-containing oxide, the partition is positioned between the negative electrode and the positive electrode , the first aqueous electrolyte is in contact with the first surface of the partition and the negative electrode , the second aqueous electrolyte is in contact with the second surface of the partition and the positive electrode , the partition comprises a solid electrolyte having alkali metal ion conductivity, and the first aqueous electrolyte comprises a first organic compound. wherein the negative electrode comprises a negative electrode active material comprising a titanium-containing oxide, the partition is positioned between the negative electrode and the positive electrode , the first aqueous electrolyte is in contact with the first surface of the partition and the negative electrode , the second aqueous electrolyte is in contact with the second surface of the partition and the positive electrode , the partition comprises a solid electrolyte having alkali metal ion conductivity, and the first aqueous electrolyte comprises a first organic compound.
A gas isolation valve that in use is intended to facilitate the harvesting of a product from a reaction vessel and to removes reactive and/or volatile gases present in the reaction vessel during harvesting comprising: a chamber which provides a channel containing no physical barriers that either impede or inhibit the transfer of the product from the reaction vessel to atmosphere, wherein the chamber is composed of a plurality of sections which provides evacuation sections having chamber evacuation nozzles alternating with gas input sections having gas input nozzles, wherein each adjacent evacuation section and gas input section forms a discrete stackable unit of the plurality of sections assembled in modular form, wherein a gas tight seal is provided between the evacuation section and the gas input section and between each discrete stackable unit, whereby in use traces of the reactive and/or volatile gases from the reaction vessel are diminished progressively by each discrete stackable unit such that the reactive and/or volatile gases are isolated from the atmosphere at the base of the gas isolation valve. a chamber which provides a channel containing no physical barriers that either impede or inhibit the transfer of the product from the reaction vessel to atmosphere, wherein the chamber is composed of a plurality of sections which provides evacuation sections having chamber evacuation nozzles alternating with gas input sections having gas input nozzles, wherein each adjacent evacuation section and gas input section forms a discrete stackable unit of the plurality of sections assembled in modular form, wherein a gas tight seal is provided between the evacuation section and the gas input section and between each discrete stackable unit, whereby in use traces of the reactive and/or volatile gases from the reaction vessel are diminished progressively by each discrete stackable unit such that the reactive and/or volatile gases are isolated from the atmosphere at the base of the gas isolation valve.
A stop mechanism for a drive system having a motor, a drive shaft rotated by the motor , and an output element driven by rotation of the drive shaft , the output element arrangeable to drive a component of the drive system and the stop mechanism comprising: a first one-way clutch for coupling with the drive shaft for rotation with the drive shaft when the drive shaft is rotating in a first drive direction (F) but not when the drive shaft is rotating in a second drive direction (R) opposite the first drive direction (F); a first brake connected to the drive shaft by way of the first one-way clutch , the first brake being operable to stop rotation of the drive shaft in the first drive direction (F); a first stop feature carried by the output element for movement with the output element ; and a linkage for connecting the first stop feature to the first brake ; wherein the first stop feature actuates the linkage to operate the first brake to stop rotation of the drive shaft in the first drive direction (F) when the output element reaches a predetermined first limit position when moving in a first driven direction (F') corresponding to the first drive direction (F) of the drive shaft . a first one-way clutch for coupling with the drive shaft for rotation with the drive shaft when the drive shaft is rotating in a first drive direction (F) but not when the drive shaft is rotating in a second drive direction (R) opposite the first drive direction (F); a first brake connected to the drive shaft by way of the first one-way clutch , the first brake being operable to stop rotation of the drive shaft in the first drive direction (F); a first stop feature carried by the output element for movement with the output element ; and a linkage for connecting the first stop feature to the first brake ; wherein the first stop feature actuates the linkage to operate the first brake to stop rotation of the drive shaft in the first drive direction (F) when the output element reaches a predetermined first limit position when moving in a first driven direction (F') corresponding to the first drive direction (F) of the drive shaft .
Method for producing interconnection lines, comprising at least one step of etching a layer of porous dielectric material forming a trench , the porous dielectric material being a porous silicon oxide doped with carbon and hydrogen, SiOCH, the etching is performed in a plasma so as to grow, all along said etching, a protective layer at least on flanks of the layer of porous dielectric material , characterised in that the plasma is formed from a gas formed from a first component and a second component, or a gas formed from a first component, a second component and a third component, wherein: the first component is a hydrocarbon of the C X H Y type, where X is the proportion of carbon in the gas and Y the proportion of hydrogen, H, in the gas; the second component is taken from nitrogen, N 2 , dioxygen, O 2 , or a mixture of nitrogen and dioxygen; the third component is taken from argon, Ar, or helium, He; the plasma being free from any fluorinated compounds, the protective layer being based on hydrocarbon, the method comprising, after the etching of the layer of porous dielectric material in order to form the trench , a subsequent step of filling the trench with an electrically conductive material.
A lighting apparatus using an organic light-emitting diode, comprising: a substrate having a lighting area (EA), first and second peripheral areas (NA1, NA2), and first and second contact areas (CA1, CA2); a first electrode on the substrate ; a first passivation layer on the first electrode ; a trench (T) in the peripheral areas (NA1, NA2); an organic emissive layer , a second electrode , and a second passivation layer on the entire surface of the substrate including the first passivation layer , except for an area of the trench (T), at least a portion of the first contact area (C1) and at least a portion of the second contact area (C2); the trench (T) being all around the outer perimeter of the lighting area (EA) and separating the organic emissive layer in the lighting area (EA) from the organic emissive layer outside the lighting area (EA) ; an adhesive on the second passivation layer including an inside of the trench (T); and a metal film on the adhesive in the lighting area (EA) and the first and second peripheral areas (NA1, NA2) . a substrate having a lighting area (EA), first and second peripheral areas (NA1, NA2), and first and second contact areas (CA1, CA2); a first electrode on the substrate ; a first passivation layer on the first electrode ; a trench (T) in the peripheral areas (NA1, NA2); an organic emissive layer , a second electrode , and a second passivation layer on the entire surface of the substrate including the first passivation layer , except for an area of the trench (T), at least a portion of the first contact area (C1) and at least a portion of the second contact area (C2); the trench (T) being all around the outer perimeter of the lighting area (EA) and separating the organic emissive layer in the lighting area (EA) from the organic emissive layer outside the lighting area (EA) ; an adhesive on the second passivation layer including an inside of the trench (T); and a metal film on the adhesive in the lighting area (EA) and the first and second peripheral areas (NA1, NA2) .
A method for producing a microporous plastic film , the method comprising: kneading a diluent and a polyolefin resin with an extruder ; discharging the polyolefin resin kneaded with the diluent from a die lip in a sheet shape; cooling and solidifying the sheet discharged from the die lip on one or plurality of cooling drums ; reheating and drawing the solidified sheet with a plurality of rollers in a sheet conveying direction; cooling the sheet drawn in the sheet conveying direction; gripping both ends of the sheet with clips; introducing the sheet into a tenter; and washing the diluent out to prepare a uniaxially or biaxially oriented microporous plastic film, wherein the method further comprises: driving each of at least two of the rollers by a motor; bringing each surface of two rollers A and B among said at least two of the rollers each driven by the motor into contact with a surface of the sheet opposite to another surface contacting a first cooling drum defined as a cooling drum which first contacts the sheet discharged from the die lip among the cooling drums ; and controlling each rotation speed of the rollers A and B to draw the sheet substantively between the rollers A and B. discharging the polyolefin resin kneaded with the diluent from a die lip in a sheet shape; cooling and solidifying the sheet discharged from the die lip on one or plurality of cooling drums ; reheating and drawing the solidified sheet with a plurality of rollers in a sheet conveying direction; cooling the sheet drawn in the sheet conveying direction; gripping both ends of the sheet with clips; introducing the sheet into a tenter; and washing the diluent out to prepare a uniaxially or biaxially oriented microporous plastic film, wherein the method further comprises: driving each of at least two of the rollers by a motor; bringing each surface of two rollers A and B among said at least two of the rollers each driven by the motor into contact with a surface of the sheet opposite to another surface contacting a first cooling drum defined as a cooling drum which first contacts the sheet discharged from the die lip among the cooling drums ; and controlling each rotation speed of the rollers A and B to draw the sheet substantively between the rollers A and B. driving each of at least two of the rollers by a motor; bringing each surface of two rollers A and B among said at least two of the rollers each driven by the motor into contact with a surface of the sheet opposite to another surface contacting a first cooling drum defined as a cooling drum which first contacts the sheet discharged from the die lip among the cooling drums ; and controlling each rotation speed of the rollers A and B to draw the sheet substantively between the rollers A and B.
A closure comprising a) a cap having a b) a closure base having an opening , c) the cap having a depending plug , characterized in that the depending plug has at least one flap extending radially outwardly from the plug when the cap is in the open position, and in that the at least one flap being deformable such that upon closing of the cap the flap folds upwardly whereby the upwardly extending flap provides interference with the opening of the cap. a) a cap having a b) a closure base having an opening , c) the cap having a depending plug
The use of a compound having the following formula (I): wherein: - R 1 is H or a OR 7 group, R 7 being H, a (C 1 -C 10 )alkyl group or a (C 2 -C 6 )alkenyl group; - R 2 is a (C 1 -C 6 )alkoxy group; - R 3 is H or a radical of formula (II) k being an integer varying from 1 to 6; - R 4 is a (C 1 -C 6 )alkoxy group or a radical X chosen from the group consisting of: (C 2 -C 6 )alkenyl groups, (C 1 -C 10 )alkyl group, -COOH, -CH 2 OH, and -COOR a , R a being a (C 1 -C 6 )alkyl group or a (C 2 -C 12 )alkenyl group; and wherein: - when R 1 is H, then R 3 is a group of formula (II) and R 4 is a (C 1 -C 6 )alkoxy group, and - when R 1 is a OR 7 group, then R 3 is H and R 4 is X as defined above, for the preparation of a polymer. - R 1 is H or a OR 7 group, R 7 being H, a (C 1 -C 10 )alkyl group or a (C 2 -C 6 )alkenyl group; - R 2 is a (C 1 -C 6 )alkoxy group; - R 3 is H or a radical of formula (II) k being an integer varying from 1 to 6; - R 4 is a (C 1 -C 6 )alkoxy group or a radical X chosen from the group consisting of: (C 2 -C 6 )alkenyl groups, (C 1 -C 10 )alkyl group, -COOH, -CH 2 OH, and -COOR a , R a being a (C 1 -C 6 )alkyl group or a (C 2 -C 12 )alkenyl group; - when R 1 is H, then R 3 is a group of formula (II) and R 4 is a (C 1 -C 6 )alkoxy group, and - when R 1 is a OR 7 group, then R 3 is H and R 4 is X as defined above,
A wireless communication method, comprising: receiving , by a terminal device , configuration information that is used to perform mobility management on the terminal device and that is sent by a network device, wherein the configuration information comprises indication information, and the indication information is used to configure a packet data convergence protocol PDCP layer entity; and determining , by the terminal device according to the indication information, whether to re-establish the PDCP layer entity, characterized in that the method further comprises: determining, by the terminal device when the terminal device re-establishes the PDCP layer entity according to the indication information, that a compression algorithm needs to be reset, that a ciphering and deciphering algorithm needs to be reconfigured, and that a process variable needs to be reset. receiving , by a terminal device , configuration information that is used to perform mobility management on the terminal device and that is sent by a network device, wherein the configuration information comprises indication information, and the indication information is used to configure a packet data convergence protocol PDCP layer entity; and determining , by the terminal device according to the indication information, whether to re-establish the PDCP layer entity, characterized in that the method further comprises: determining, by the terminal device when the terminal device re-establishes the PDCP layer entity according to the indication information, that a compression algorithm needs to be reset, that a ciphering and deciphering algorithm needs to be reconfigured, and that a process variable needs to be reset.
A transport refrigeration system comprising: a transportation refrigeration unit ; an energy storage device configured to provide electrical power to the transportation refrigeration unit; an electric generation device operably connected to at least one of a wheel of the transport refrigeration system and a wheel axle of the transport refrigeration system, the electric generation device being configured to generate electrical power from at least one of the wheel and the wheel axle to charge the energy storage device when the electric generation device is activated; a rotational velocity sensor configured to detect a rotational velocity of the electric generation device; and a power management module in electrical communication with the energy storage device, the electric generation device, and the rotational velocity sensor, characterised in that the power management module is configured to detect wheel slippage when the rotational velocity of the electric generation device decelerates greater than a selected deceleration; wherein the power management module is configured to decrease a torque limit of the electric generation device when the rotational velocity of the electric generation device decelerates greater than a selected deceleration. a transportation refrigeration unit ; an energy storage device configured to provide electrical power to the transportation refrigeration unit; an electric generation device operably connected to at least one of a wheel of the transport refrigeration system and a wheel axle of the transport refrigeration system, the electric generation device being configured to generate electrical power from at least one of the wheel and the wheel axle to charge the energy storage device when the electric generation device is activated; a rotational velocity sensor configured to detect a rotational velocity of the electric generation device; and a power management module in electrical communication with the energy storage device, the electric generation device, and the rotational velocity sensor, characterised in that the power management module is configured to detect wheel slippage when the rotational velocity of the electric generation device decelerates greater than a selected deceleration; wherein the power management module is configured to decrease a torque limit of the electric generation device when the rotational velocity of the electric generation device decelerates greater than a selected deceleration.
A heat conductive sheet comprising a first carbon material having a graphene laminated structure, orientation-controlling particles, and a first resin, wherein at least a part of the first carbon material is oriented in a direction different from a surface direction of the heat conductive sheet due to the presence of the orientation-controlling particles, and a ratio of an average particle diameter of the first carbon material to an average particle diameter of the orientation-controlling particles (the first carbon material/the orientation-controlling particles), determined as explained in the description, is 0.09 or more and less than 4.0. at least a part of the first carbon material is oriented in a direction different from a surface direction of the heat conductive sheet due to the presence of the orientation-controlling particles, and a ratio of an average particle diameter of the first carbon material to an average particle diameter of the orientation-controlling particles (the first carbon material/the orientation-controlling particles), determined as explained in the description, is 0.09 or more and less than 4.0.