mhurhangee/patent-ind-claim-en huggingface dataset:
A combustor for a gas turbine engine , the combustor comprising: an axial fuel injection system in communication with a combustion chamber , said axial fuel injection system operable to supply between sixteen percent and thirty-five percent of a combustion airflow; a radial fuel injection system that communicates with said combustion chamber downstream of said axial fuel injection system , said radial fuel injection system operable to supply between thirty percent and sixty percent of said combustion airflow; and a multiple of dilution holes in communication with the combustion chamber and downstream of said radial fuel injection system , said multiple of dilution holes operable to supply between five percent and twenty percent of said combustion airflow, wherein said combustion chamber is defined between an inner liner and an outer liner , and wherein the combustor further comprises a forward assembly between said inner liner and said outer liner , wherein said forward assembly includes a bulkhead liner that defines a bulkhead height, and wherein said inner liner and said outer liner are radially spaced between one hundred percent and two hundred percent of said bulkhead height axially proximate to said radial fuel injection system . an axial fuel injection system in communication with a combustion chamber , said axial fuel injection system operable to supply between sixteen percent and thirty-five percent of a combustion airflow; a radial fuel injection system that communicates with said combustion chamber downstream of said axial fuel injection system , said radial fuel injection system operable to supply between thirty percent and sixty percent of said combustion airflow; and a multiple of dilution holes in communication with the combustion chamber and downstream of said radial fuel injection system , said multiple of dilution holes operable to supply between five percent and twenty percent of said combustion airflow, wherein said combustion chamber is defined between an inner liner and an outer liner , and wherein the combustor further comprises a forward assembly between said inner liner and said outer liner , wherein said forward assembly includes a bulkhead liner that defines a bulkhead height, and wherein said inner liner and said outer liner are radially spaced between one hundred percent and two hundred percent of said bulkhead height axially proximate to said radial fuel injection system .
A locomotive regenerative electric energy feedback system with an ice melting function, comprising two regenerative electric energy feedback devices , wherein a direct-current side positive electrode of each regenerative electric energy feedback device is connected to a respective positive electrode bus of a subway traction network, each positive electrode bus is connected to an uplink contact network and a downlink contact network respectively via a first switching switch and a second switching switch , characterized in that , a direct-current side negative electrode of each regenerative electric energy feedback device is connected to the downlink contact network or the uplink contact network via a third switching switch , and each direct-current side negative electrode is connected to a respective negative electrode bus of the subway traction network via a fourth switching switch .
A tracked system for a work vehicle comprising a suspension having a driving wheel , an undercarriage beam hinged to a frame of the vehicle, at least one idler wheel , at least a first, a second and a third roller wheels attached to the undercarriage beam and a rubber track wound about at least driving wheel , idler wheel , roller wheels , characterized by comprising a tilting linkage having a first and a second rocker to attach first and third roller wheels to the undercarriage beam and an intermediate rocker to attach the second roller to the first and third rollers so that first and second roller wheels are movable one with respect to the other at least in certain working conditions, and an elastic or visco-elastic connection to connect intermediate rocker to first and second rockers such that the intermediate rocker is longitudinally placed between the rockers and is connected to the beam via the rockers such that the intermediate rocker is floating with respect to the beam and such that a load applied to one roller wheel transfers to both other rollers through the connection to increase the pressure uniformity of the track on the ground.
A battery module comprising a front battery (M1), a rear battery (M2) and a heat sink , the front battery (M1) and the rear battery (M2) being placed in parallel on the side of the heat sink , wherein the area of the heat sink is divided into two halves parts, one of the two halves parts being a front part and the other part being a rear part, wherein the heat sink comprises: - a cooling channel through which a coolant suitable for cooling a secondary battery by an indirect cooling method can pass to cool a secondary battery comprising a cell assembly in which at least two unit cells are stacked, the cooling channel having: - a common inlet and a common outlet provided at the front part, and - one front separated channel for cooling the front battery (M1) and one rear separated channel for cooling the rear battery (M2) fluidly connecting the common inlet to the common outlet , wherein each of the two separated channels have a branch point inside to allow a coolant to flow in each of the two separated channels, characterized in that the front separated channel and the rear separated channel are vertically arranged so that the front separated channel is disposed between the rear separated channel and the front battery (M1). - a cooling channel through which a coolant suitable for cooling a secondary battery by an indirect cooling method can pass to cool a secondary battery comprising a cell assembly in which at least two unit cells are stacked, the cooling channel having: - a common inlet and a common outlet provided at the front part, and - one front separated channel for cooling the front battery (M1) and one rear separated channel for cooling the rear battery (M2) fluidly connecting the common inlet to the common outlet ,
Fiber opening apparatus usable for opening a compressed growing medium including fibers, the compressed growing medium comprising wood and/or bark fiber; the fiber opening apparatus comprising: at least one section having at least one set of adjacent rotating members with projections ; and a fiber opener section having opener rotating members , each of the opener rotating members having a surface including at least one wire wound around at least a portion of the surface characterized in that each of the opener rotating members has ridges on the surface, the at least one wire being secured within the ridges and in that the wire includes a plurality of projections shaped as pyramid projections ; each pyramid projection having a triangular cross-section, forming a wide base which gradually narrows at a top of the pyramid projection ; the pyramid projections being capable of engaging the growing medium, the opener rotating members being positioned relative to each other to provide at least one pinch point between adjacent opener rotating members , the opener rotating members being capable of separating fibers from the growing medium passing through the at least one pinch point so that the density of passing fiber is lowered by at least 85%, relative to the density of the input fiber of the compressed growing medium. at least one section having at least one set of adjacent rotating members with projections ; and a fiber opener section having opener rotating members , each of the opener rotating members having a surface including at least one wire wound around at least a portion of the surface characterized in that each of the opener rotating members has ridges on the surface, the at least one wire being secured within the ridges and in that the wire includes a plurality of projections shaped as pyramid projections ; each pyramid projection having a triangular cross-section, forming a wide base which gradually narrows at a top of the pyramid projection ; the pyramid projections being capable of engaging the growing medium, the opener rotating members being positioned relative to each other to provide at least one pinch point between adjacent opener rotating members , the opener rotating members being capable of separating fibers from the growing medium passing through the at least one pinch point so that the density of passing fiber is lowered by at least 85%, relative to the density of the input fiber of the compressed growing medium.
A method of providing a Packet Flow Descriptor, PFD, to a session management function, SMF, in a telecommunication network, wherein said telecommunication network comprises network slices, wherein said telecommunication network comprises a Packet Flow Description Function, PFDF, for hiding a topology of said telecommunication network from Application Service Providers, ASPs, and wherein said PFDF is shared among the network slices of said telecommunication network, said method comprises the steps of: - receiving , by said PFDF, from an ASP, a PFD; - storing , by said PFDF, said PFD in a Unified Data Repository, UDR, comprised by said telecommunication network, wherein said PFD is stored with identifications of corresponding network slices in said UDR; - receiving , by said PFDF, from a Session Management Function, SMF, a request for PFDs that apply to a particular network slice, wherein said received request comprises an identification of said particular network slice; - retrieving , by said PFDF, from said UDR said PFD that applies to said particular network slice; and - providing , by said PFDF, said retrieved PFD to said SMF. - receiving , by said PFDF, from an ASP, a PFD; - storing , by said PFDF, said PFD in a Unified Data Repository, UDR, comprised by said telecommunication network, wherein said PFD is stored with identifications of corresponding network slices in said UDR; - receiving , by said PFDF, from a Session Management Function, SMF, a request for PFDs that apply to a particular network slice, wherein said received request comprises an identification of said particular network slice; - retrieving , by said PFDF, from said UDR said PFD that applies to said particular network slice; and - providing , by said PFDF, said retrieved PFD to said SMF.
A dental adhesive composition comprising: an acid group-containing polymerizable monomer (A); a hydrophobic polymerizable monomer (B) having no acid group and having a solubility of less than 10 weight% in water at 25°C; and a photopolymerization initiator (C), wherein the photopolymerization initiator (C) comprises at least one selected from the group consisting of a compound (C-1) represented by the following general formula and a compound (C-2) represented by the following general formula : where R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are each independently a linear or branched alkyl group having 1 to 4 carbon atoms or a halogen atom, X is a linear or branched alkylene group having 1 to 4 carbon atoms, and R 7 represents -CH(CH 3 )COO(C 2 H 4 O) n CH 3 , where n represents an integer of 1 to 1000; and where R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , R 14 , and R 15 are each independently a hydrogen atom, a linear or branched alkyl group having 1 to 4 carbon atoms, a linear or branched alkoxy group having 1 to 4 carbon atoms, a halogen atom, -OH, or -COOY, and at least one of R 8 to R 15 is -COOY, where Y represents an alkali metal ion, alkaline-earth metal ion, magnesium ion, pyridinium ion having an optionally substituted pyridine ring or ammonium ion represented by HN + R 16 R 17 R 18 , where R 16 , R 17 , and R 18 are each independently an organic group or a hydrogen atom and wherein the dental adhesive composition contains less than 1 mass% of water and organic solvent, with respect to the composition. an acid group-containing polymerizable monomer (A); a hydrophobic polymerizable monomer (B) having no acid group and having a solubility of less than 10 weight% in water at 25°C; and a photopolymerization initiator (C), wherein the photopolymerization initiator (C) comprises at least one selected from the group consisting of a compound (C-1) represented by the following general formula and a compound (C-2) represented by the following general formula : where R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are each independently a linear or branched alkyl group having 1 to 4 carbon atoms or a halogen atom, X is a linear or branched alkylene group having 1 to 4 carbon atoms, and R 7 represents -CH(CH 3 )COO(C 2 H 4 O) n CH 3 , where n represents an integer of 1 to 1000; and where R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , R 14 , and R 15 are each independently a hydrogen atom, a linear or branched alkyl group having 1 to 4 carbon atoms, a linear or branched alkoxy group having 1 to 4 carbon atoms, a halogen atom, -OH, or -COOY, and at least one of R 8 to R 15 is -COOY, where Y represents an alkali metal ion, alkaline-earth metal ion, magnesium ion, pyridinium ion having an optionally substituted pyridine ring or ammonium ion represented by HN + R 16 R 17 R 18 , where R 16 , R 17 , and R 18 are each independently an organic group or a hydrogen atom and wherein the dental adhesive composition contains less than 1 mass% of water and organic solvent, with respect to the composition.
A method for recognizing a disguised device, wherein an application client for interacting with an application is installed on the device, and the method comprises: receiving environment information associated with the device and a device ID associated with the device in response to an interaction with the application through the application client installed on the device; determining whether the received device ID exists in a pre-stored association table of stored unique environment identifiers and stored device IDs; and if the received device ID does not exist in the association table, calculating a unique environment identifier associated with the device based on the environment information, searching the association table for a stored device ID associated with the calculated unique environment identifier by using the calculated unique environment identifier, and determining , based on a quantity of different identified stored device IDs associated with the calculated unique environment identifier, whether the device is disguised. receiving environment information associated with the device and a device ID associated with the device in response to an interaction with the application through the application client installed on the device; determining whether the received device ID exists in a pre-stored association table of stored unique environment identifiers and stored device IDs; and if the received device ID does not exist in the association table, calculating a unique environment identifier associated with the device based on the environment information, searching the association table for a stored device ID associated with the calculated unique environment identifier by using the calculated unique environment identifier, and determining , based on a quantity of different identified stored device IDs associated with the calculated unique environment identifier, whether the device is disguised. calculating a unique environment identifier associated with the device based on the environment information, searching the association table for a stored device ID associated with the calculated unique environment identifier by using the calculated unique environment identifier, and determining , based on a quantity of different identified stored device IDs associated with the calculated unique environment identifier, whether the device is disguised.
A power system comprising: an electrical machine including a stator with a stator winding connected to a power converter; and an assembly to reduce common mode currents between the electrical machine and the power converter, the assembly comprising a stator frame connected to ground potential and an electrical insulator located between the stator frame and the stator , wherein the electrical insulator comprises a plurality of stator mounts at circumferentially-spaced mounting locations around the stator , such that the stator is only physically connected to the stator frame through the one or more stator mounts , and the stator and the stator frame are physically separated by an airgap created by the interposing stator mounts , and further comprising an impedance connection between the stator frame and the stator that includes a filter (20A; 20B; 20C; 20D); characterised in that the filter (20A; 20B; 20C; 20D) includes a first resistor (R1) and a first capacitor (C1) connected in parallel. an electrical machine including a stator with a stator winding connected to a power converter; and an assembly to reduce common mode currents between the electrical machine and the power converter, the assembly comprising a stator frame connected to ground potential and an electrical insulator located between the stator frame and the stator , wherein the electrical insulator comprises a plurality of stator mounts at circumferentially-spaced mounting locations around the stator , such that the stator is only physically connected to the stator frame through the one or more stator mounts , and the stator and the stator frame are physically separated by an airgap created by the interposing stator mounts , and further comprising an impedance connection between the stator frame and the stator that includes a filter (20A; 20B; 20C; 20D); characterised in that the filter (20A; 20B; 20C; 20D) includes a first resistor (R1) and a first capacitor (C1) connected in parallel.
A method for continuously providing a processed cellulose-comprising starting material , in particular a processed cellulose-comprising starting material for manufacturing a cellulosic molded body , wherein the method comprises: adjusting a predefined composition of a cellulose-comprising starting material , wherein determining the composition is continuously performed at a flow of used textiles, wherein the determined composition is compared with a target value of the predefined composition, wherein the cellulose-comprising starting material completely or partially comprises remains from a clothing manufacture and/or used clothes, and wherein adjusting comprises selectively enriching at least one composition component and/or selectively depleting at least one composition component corresponding to a deviation from the target value; continuously supplying the cellulose-comprising starting material with the predefined composition to a reactor device ; continuously processing the cellulose-comprising starting material in the reactor device , to obtain the processed cellulose-comprising starting material ; and discharging the processed cellulose-comprising starting material from the reactor device . adjusting a predefined composition of a cellulose-comprising starting material , wherein determining the composition is continuously performed at a flow of used textiles, wherein the determined composition is compared with a target value of the predefined composition, wherein the cellulose-comprising starting material completely or partially comprises remains from a clothing manufacture and/or used clothes, and wherein adjusting comprises selectively enriching at least one composition component and/or selectively depleting at least one composition component corresponding to a deviation from the target value; continuously supplying the cellulose-comprising starting material with the predefined composition to a reactor device ; continuously processing the cellulose-comprising starting material in the reactor device , to obtain the processed cellulose-comprising starting material ; and discharging the processed cellulose-comprising starting material from the reactor device .
A tubular sapphire member which is a tubular body made of sapphire, comprising: an outer wall extending in an axial direction, wherein the axial direction is parallel to a c-axis of sapphire; characterized by a plurality of through holes extending in the axial direction; and one or more partition walls extending in the axial direction and dividing the plurality of through holes , wherein at least one of the partition walls extends from a central axis toward the outer wall and is connected with the outer wall in a front view seen in the axial direction, and an extending direction (D) of the partition wall is parallel to either an a-axis or an m-axis of sapphire. an outer wall extending in an axial direction, wherein the axial direction is parallel to a c-axis of sapphire; characterized by a plurality of through holes extending in the axial direction; and one or more partition walls extending in the axial direction and dividing the plurality of through holes , wherein at least one of the partition walls extends from a central axis toward the outer wall and is connected with the outer wall in a front view seen in the axial direction, and an extending direction (D) of the partition wall is parallel to either an a-axis or an m-axis of sapphire.
A method of forming activated carbon from microcrystalline cellulose comprising: carbonizing microcrystalline cellulose to form carbonized microcrystalline cellulose; activating the carbonized microcrystalline cellulose to form activated carbon; and overcoating the microcrystalline cellulose prior to carbonization, or after carbonization and before activation, or after activation, wherein the method further comprises forming the microcrystalline cellulose by a process comprising: mixing about 30-70 weight% microcrystalline cellulose powder and about 30-70 weight% water; forming cylindrical extrudates from the microcrystalline cellulose powder and water using an extruder; forming spherical beads from the cylindrical extrudates using a spheronizer; and drying the beads. carbonizing microcrystalline cellulose to form carbonized microcrystalline cellulose; activating the carbonized microcrystalline cellulose to form activated carbon; and overcoating the microcrystalline cellulose prior to carbonization, or after carbonization and before activation, or after activation, wherein the method further comprises forming the microcrystalline cellulose by a process comprising: mixing about 30-70 weight% microcrystalline cellulose powder and about 30-70 weight% water; forming cylindrical extrudates from the microcrystalline cellulose powder and water using an extruder; forming spherical beads from the cylindrical extrudates using a spheronizer; and drying the beads. mixing about 30-70 weight% microcrystalline cellulose powder and about 30-70 weight% water; forming cylindrical extrudates from the microcrystalline cellulose powder and water using an extruder; forming spherical beads from the cylindrical extrudates using a spheronizer; and drying the beads.