mhurhangee/ep-ind-claims huggingface dataset:
A control method of an engine which has a homogeneous-charge-compression-ignition combustion mode in which a premixed air-fuel mixture is compressed in a combustion chamber so that a self-ignition of the mixture is performed without requiring spark from a spark plug, and a minus valve overlap period during which an intake valve and an exhaust valve are both closed at a transitional time from an exhaust stroke to an intake stroke, the method comprising: determining a high-engine load range where an engine load is higher than a specified load in the homogeneous-charge-compression-ignition combustion mode; executing a first fuel injection ( F2s) from a fuel injector in said high-engine load range after the top dead center of the exhaust stroke during the minus valve overlap period; determining a low-engine load range where the engine load is lower than said specified load in the homogeneous-charge-compression-ignition combustion mode; executing a first fuel injection ( F1s) from the fuel injector in said low-engine load range at a point before the top dead center of the exhaust stroke during the minus valve overlap period; and executing a second fuel injection ( F1m) from the fuel injector in said low-engine load range at a point after an execution timing of said first fuel injection ( F1s); characterized by executing a second fuel injection ( F2m) from the fuel injector in said high-engine load range at a point after an execution timing of said first fuel injection ( F2s); and wherein said first fuel injection ( F2s) in said high-engine load range is executed substantially at a point when an internal pressure of the combustion chamber drops below a specified pressure. determining a high-engine load range where an engine load is higher than a specified load in the homogeneous-charge-compression-ignition combustion mode; executing a first fuel injection ( F2s) from a fuel injector in said high-engine load range after the top dead center of the exhaust stroke during the minus valve overlap period; determining a low-engine load range where the engine load is lower than said specified load in the homogeneous-charge-compression-ignition combustion mode; executing a first fuel injection ( F1s) from the fuel injector in said low-engine load range at a point before the top dead center of the exhaust stroke during the minus valve overlap period; and executing a second fuel injection ( F1m) from the fuel injector in said low-engine load range at a point after an execution timing of said first fuel injection ( F1s); characterized by executing a second fuel injection ( F2m) from the fuel injector in said high-engine load range at a point after an execution timing of said first fuel injection ( F2s); and wherein said first fuel injection ( F2s) in said high-engine load range is executed substantially at a point when an internal pressure of the combustion chamber drops below a specified pressure.
A method for automatically controlling a hybrid renewable energy facility having a plurality of power sources (70, 102, 104), the method comprising: operating, via a farm-level controller, the hybrid renewable energy facility at a first farm-level power set point; modifying, via the farm-level controller, the first power set point to a second farm-level power set point; in response to modifying the first power set point to the second farm-level power set point, generating one or more power change requests for individual controllers of the plurality of power sources (70, 102, 104); and, generating a power output via the plurality of power sources (70, 102, 104) so as to transfer power generation from one of the plurality of power sources (70, 102, 104) to another to reach and maintain the second farm-level power set point, characterised in that generating the power output via the plurality of power sources (70, 102, 104) further comprises: generating the power output via a first energy source of the plurality of energy sources (70, 102, 104), the first energy source having a first response rate; and, after the power output reaches the second farm-level power set point, generating at least a portion of the power output via a second energy source of the plurality of energy sources, the second energy source having a second response rate that is less than the first response rate. operating, via a farm-level controller, the hybrid renewable energy facility at a first farm-level power set point; modifying, via the farm-level controller, the first power set point to a second farm-level power set point; in response to modifying the first power set point to the second farm-level power set point, generating one or more power change requests for individual controllers of the plurality of power sources (70, 102, 104); and, generating a power output via the plurality of power sources (70, 102, 104) so as to transfer power generation from one of the plurality of power sources (70, 102, 104) to another to reach and maintain the second farm-level power set point, characterised in that generating the power output via the plurality of power sources (70, 102, 104) further comprises: generating the power output via a first energy source of the plurality of energy sources (70, 102, 104), the first energy source having a first response rate; and, after the power output reaches the second farm-level power set point, generating at least a portion of the power output via a second energy source of the plurality of energy sources, the second energy source having a second response rate that is less than the first response rate. generating the power output via a first energy source of the plurality of energy sources (70, 102, 104), the first energy source having a first response rate; and, after the power output reaches the second farm-level power set point, generating at least a portion of the power output via a second energy source of the plurality of energy sources, the second energy source having a second response rate that is less than the first response rate.
A hybrid sacrificial core for forming an impingement space and an internal cooling passageway network in a blade outer air seal, the internal cooling passageway network being separate from the impingement space of a part, the core comprising: a ceramic core having a first surface portion for forming the impingement space; and a refractory metal core that forms a plurality of passages of the internal cooling passageway network; wherein the refractory metal core is comprised of four distinct parts, and wherein the refractory metal core is comprised of a leading edge core, a trailing edge core, and two side cores (78a, 78b). a ceramic core having a first surface portion for forming the impingement space; and a refractory metal core that forms a plurality of passages of the internal cooling passageway network; wherein the refractory metal core is comprised of four distinct parts, and wherein the refractory metal core is comprised of a leading edge core, a trailing edge core, and two side cores (78a, 78b).
A method of selecting a user plane gateway, comprising: receiving, by a control plane, CP, function, a first data packet sent by a user equipment, UE,; selecting, by the CP function, based on the first data packet, a first target user plane gateway, UP-GW, for the UE; wherein prior to the receiving, by the CP function, the first data packet sent by the UE, the method further comprises: receiving, by the CP function, an attaching request sent by the UE; acquiring, by the CP function, based on the attaching request, subscription information of the UE; and determining, by the CP function, based on the subscription information of the UE, whether the UE is an Internet of Things, IoT, user; in the case that the UE is an IoT user, selecting, by the CP function, no UP-GW for the UE, and sending, by the CP function, an attaching acception message to the UE. receiving, by a control plane, CP, function, a first data packet sent by a user equipment, UE,; selecting, by the CP function, based on the first data packet, a first target user plane gateway, UP-GW, for the UE; wherein prior to the receiving, by the CP function, the first data packet sent by the UE, the method further comprises: receiving, by the CP function, an attaching request sent by the UE; acquiring, by the CP function, based on the attaching request, subscription information of the UE; and determining, by the CP function, based on the subscription information of the UE, whether the UE is an Internet of Things, IoT, user; in the case that the UE is an IoT user, selecting, by the CP function, no UP-GW for the UE, and sending, by the CP function, an attaching acception message to the UE. receiving, by the CP function, an attaching request sent by the UE; acquiring, by the CP function, based on the attaching request, subscription information of the UE; and determining, by the CP function, based on the subscription information of the UE, whether the UE is an Internet of Things, IoT, user; in the case that the UE is an IoT user, selecting, by the CP function, no UP-GW for the UE, and sending, by the CP function, an attaching acception message to the UE.
Air and fuel injection system for an annular turbine engine combustion chamber dome comprising: - at least two fuel injection devices including a central injector and peripheral annular injector arranged around said central injector, and - an inner annular air inlet channel into which the central injector opens up to enable a mix between fuel originating from the central injector and air inlet into the inner annular channel, and at least one outer annular air inlet channel (30; 30a, 30b) to enable enrichment of this mix with air and stabilisation of the pilot combustion zone, the inner annular channel and said at least one outer annular channel (30; 30a, 30b) being separated by an intermediate annular wall extending around the central injector and having a convergent inner profile, the inner annular channel not having a swirler to generate a swirl movement. - at least two fuel injection devices including a central injector and peripheral annular injector arranged around said central injector, and - an inner annular air inlet channel into which the central injector opens up to enable a mix between fuel originating from the central injector and air inlet into the inner annular channel, and at least one outer annular air inlet channel (30; 30a, 30b) to enable enrichment of this mix with air and stabilisation of the pilot combustion zone,
Radar sensor having a waveguide structure and a high-frequency component, which are arranged on opposite sides of a printed circuit board, and having a coupling device (18; 18'; 18a-c) for transmitting microwave signals between the high-frequency component and the waveguide structure, the coupling device (18; 18'; 18a-c) having a dielectric waveguide (28; 28') which is produced separately from the printed circuit board.
An extraction organic phase for separating lithium isotopes, wherein said extraction organic phase comprises: a diluent, and the compound of formula used as an extractant: wherein, Z is oxygen atom, sulfur atom, or nitrogen atom substituted by R 9, wherein R 9 is hydrogen, C 1-6 alkyl-sulfonyl, C 1-6 haloalkyl-sulfonyl, benzenesulfonyl or C 1-6 alkyl-benzenesulfonyl; R 1, R 2, R 3, R 4, R 5, R 6, R 7 and R 8 are independently hydrogen, C 1-6 alkyl, C 1-6 haloalkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, C 3-6 cycloalkyl, halogen or phenyl, characterised in that the extraction organic phase further comprises a synergic extractant selected from the following group: tributyl phosphate, trioctyl-phosphine oxide (TOPO), dibutyl butanephosphonate (DBBP), butyl dibutylphosphate (BDBP), methylene tetrabutyldiphosphate, trioctyl ammonium oxide, 1,10-phenanthroline, dimethyl bis (N-octadecyl) ammonium chloride and quaternary ammonium salt compounds. Z is oxygen atom, sulfur atom, or nitrogen atom substituted by R 9, wherein R 9 is hydrogen, C 1-6 alkyl-sulfonyl, C 1-6 haloalkyl-sulfonyl, benzenesulfonyl or C 1-6 alkyl-benzenesulfonyl; R 1, R 2, R 3, R 4, R 5, R 6, R 7 and R 8 are independently hydrogen, C 1-6 alkyl, C 1-6 haloalkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, C 3-6 cycloalkyl, halogen or phenyl, characterised in that the extraction organic phase further comprises a synergic extractant selected from the following group: tributyl phosphate, trioctyl-phosphine oxide (TOPO), dibutyl butanephosphonate (DBBP), butyl dibutylphosphate (BDBP), methylene tetrabutyldiphosphate, trioctyl ammonium oxide, 1,10-phenanthroline, dimethyl bis (N-octadecyl) ammonium chloride and quaternary ammonium salt compounds.
Imitation cheese, containing a mixture of a liquefied but not stabilized pulse crop starch and at least one modified starch of different origin, wherein, in the mixture, the liquefied but not stabilized pulse crop and the modified starch of different origin are present in a mixture ratio of 99:1 to 1:99 percent by weight (on the basis of the total mixture).
Lightning protection spark gap comprising: a first electrode, which has a first outer face (Aa) and a first inner face (Ia), and a second electrode, which has a second outer face (Ab) and a second inner face (Ib), the first electrode and the second electrode (3a, 3b) diverging from one another; the first and the second electrode (3a, 3b) being formed from a conductive base material having a first electrical conductivity; an ignition region and an adjacent arcing region for an arc being formed between the first inner face (Ia) of the first electrode and the second inner face (Ib) of the second electrode; a conductive layer (6a, 6b) of a conductive material having a second electrical conductivity being applied to the base material at least in regions at least in the arcing region of one of the first and the second electrode (3a, 3b); and the second electrical conductivity being higher than the first electrical conductivity; characterised in that the conductive layer (6a, 6b) of the conductive material is applied to the base material at least in regions on the associated outer face (Aa, Ab) of the other of the first and the second electrode (3a, 3b). a first electrode, which has a first outer face (Aa) and a first inner face (Ia), and a second electrode, which has a second outer face (Ab) and a second inner face (Ib), the first electrode and the second electrode (3a, 3b) diverging from one another; the first and the second electrode (3a, 3b) being formed from a conductive base material having a first electrical conductivity; an ignition region and an adjacent arcing region for an arc being formed between the first inner face (Ia) of the first electrode and the second inner face (Ib) of the second electrode; a conductive layer (6a, 6b) of a conductive material having a second electrical conductivity being applied to the base material at least in regions at least in the arcing region of one of the first and the second electrode (3a, 3b); and the second electrical conductivity being higher than the first electrical conductivity; characterised in that the conductive layer (6a, 6b) of the conductive material is applied to the base material at least in regions on the associated outer face (Aa, Ab) of the other of the first and the second electrode (3a, 3b).
A movable contact included in a variable resistor, wherein the variable resistor includes: a resistor; an electrode; and the movable contact, the resistor and the electrode being disposed apart from each other and extending in a predetermined direction which is identical, the movable contact moving in the predetermined direction while being in contact with the resistor and the electrode, the movable contact comprising: a first wire rod group including a plurality of first wire rods made of a precious metal, the plurality of first wire rods being arranged so as to be along the resistor and being arranged in an orthogonal direction that is an direction of orthogonal to the predetermined direction; a second wire rod group including a plurality of second wire rods made of a metal other than the precious metal, the plurality of second wire rods being arranged so as to be along the electrode and being arranged in the orthogonal direction, the second wire rod group being disposed adjacent to the first wire rod group in the orthogonal direction, an axial diameter of the plurality of second wire rod being larger than an axial diameter of the plurality of first wire rods; and one shaft-shaped member which is disposed so as to cross in a straight line the first wire rod group and the second wire rod group and is welded to the first wire rod group and the second wire rod group. a first wire rod group including a plurality of first wire rods made of a precious metal, the plurality of first wire rods being arranged so as to be along the resistor and being arranged in an orthogonal direction that is an direction of orthogonal to the predetermined direction; a second wire rod group including a plurality of second wire rods made of a metal other than the precious metal, the plurality of second wire rods being arranged so as to be along the electrode and being arranged in the orthogonal direction, the second wire rod group being disposed adjacent to the first wire rod group in the orthogonal direction, an axial diameter of the plurality of second wire rod being larger than an axial diameter of the plurality of first wire rods; and one shaft-shaped member which is disposed so as to cross in a straight line the first wire rod group and the second wire rod group and is welded to the first wire rod group and the second wire rod group.
A drip filter coffee maker comprising: a base; an upright housing that interconnects the base with a head assembly; the head assembly further comprising a filter cone; a reservoir including a water tank having a level detection sensor (82 - 84); a boiler; a controller coupled to the level detection sensor (82 - 84) and configured to determine volume of water in the water tank; a flexible hose with a water outlet is connected to the reservoir, the water outlet being located above the filter cone for discharging water into the filter cone; a plate burr grinder that is adapted to discharge ground coffee into a coffee chute; the coffee chute extending from an exit of the plate burr grinder to a chute door located above the filter cone for discharging ground coffee into the filter cone; characterised in that the controller has: a means for receiving data indicative of water volume in the water tank, which, at or just before inception of a brew cycle, is indicative of brew volume; a means for adjusting the quantity of coffee beans that are ground and discharged by the plate burr grinder; a means for calculating an "on" time for the plate burr grinder that is based on the water volume in the water tank; a means for on and off cycling of the boiler thereby slowing down the effective rate at which water is delivered from the tank to the filter cone, thereby adjusting a brew time which is based on the indication of brew volume. a base; an upright housing that interconnects the base with a head assembly; the head assembly further comprising a filter cone; a reservoir including a water tank having a level detection sensor (82 - 84); a boiler; a controller coupled to the level detection sensor (82 - 84) and configured to determine volume of water in the water tank; a flexible hose with a water outlet is connected to the reservoir, the water outlet being located above the filter cone for discharging water into the filter cone; a plate burr grinder that is adapted to discharge ground coffee into a coffee chute; the coffee chute extending from an exit of the plate burr grinder to a chute door located above the filter cone for discharging ground coffee into the filter cone; a means for receiving data indicative of water volume in the water tank, which, at or just before inception of a brew cycle, is indicative of brew volume; a means for adjusting the quantity of coffee beans that are ground and discharged by the plate burr grinder; a means for calculating an "on" time for the plate burr grinder that is based on the water volume in the water tank; a means for on and off cycling of the boiler thereby slowing down the effective rate at which water is delivered from the tank to the filter cone, thereby adjusting a brew time which is based on the indication of brew volume.
A vehicle sunroof system, which comprises: an air inlet sunroof disposed at a car roof; and an air outlet sunroof disposed in series at a rear side of the air inlet sunroof along the car roof, wherein the air inlet sunroof has an air inlet open position towards a windward side opening and an air inlet closed position that is closed relative to the car roof, and the air inlet sunroof is movable between the air inlet open position and the air inlet closed position; while the air outlet sunroof has an air outlet open position towards a leeward side opening and an air outlet closed position which is closed relative to the car roof, and the air outlet sunroof is movable between the air outlet open position and the air outlet closed position, the air inlet sunroof is linked with the air outlet sunroof; wherein during the process when the air inlet sunroof moves from the air inlet closed position to the air inlet open position, the air outlet sunroof moves from the air outlet closed position to the air outlet open position, characterized in that the air outlet sunroof and the air inlet sunroof are adjacent to each other. an air inlet sunroof disposed at a car roof; and an air outlet sunroof disposed in series at a rear side of the air inlet sunroof along the car roof, wherein the air inlet sunroof has an air inlet open position towards a windward side opening and an air inlet closed position that is closed relative to the car roof, and the air inlet sunroof is movable between the air inlet open position and the air inlet closed position; while the air outlet sunroof has an air outlet open position towards a leeward side opening and an air outlet closed position which is closed relative to the car roof, and the air outlet sunroof is movable between the air outlet open position and the air outlet closed position, the air inlet sunroof is linked with the air outlet sunroof; wherein during the process when the air inlet sunroof moves from the air inlet closed position to the air inlet open position, the air outlet sunroof moves from the air outlet closed position to the air outlet open position, characterized in that the air outlet sunroof and the air inlet sunroof are adjacent to each other.
A vehicle drive control apparatus comprising an engine stop control unit which stops an engine when an automatic stop condition for automatically stopping the engine is satisfied during operation of the engine, and a behavior determination unit which determines whether a behavior of a vehicle is in a stable state or an unstable state based on a yaw rate and lateral acceleration, characterized in that the engine stop control unit avoids stopping the engine as the automatic stop condition is not satisfied when the behavior of the vehicle is determined to be in an unstable state during operation of the engine, even when the vehicle is decelerated to or lower than a specified vehicle speed at which the engine is to be automatically stopped.
A solid dosage form comprising from 10 wt% to 35 wt% of palbociclib, from 5 wt% to 25 wt% of succinic acid, and a pharmaceutically acceptable carrier.
A complexing system for extracting a radionuclide from a waste solution comprising calix[n]arene groups covalently bonded on the surface of a porous conducting material, which is not a carbon powder or carbon nanotubes.