mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling power output of a wind turbine generator in response to an anticipated change in wind speed, comprising: sensing wind speed at a desired distance from the wind turbine generator in a direction of the wind; determining a blade pitch command signal based upon a difference between a reference generator speed and actual generator speed; determining a feed-forward signal based upon wind turbine tower dynamics, in response to the change in the sensed upwind wind speed, and coupling the feed-forward signal to the blade pitch command signal to obtain a collective blade pitch command signal; and controlling pitch of a blade (14, 16, 18) of the wind turbine generator based upon sensed transient wind speed in advance of a change in wind speed at the wind turbine generator. sensing wind speed at a desired distance from the wind turbine generator in a direction of the wind; determining a blade pitch command signal based upon a difference between a reference generator speed and actual generator speed; determining a feed-forward signal based upon wind turbine tower dynamics, in response to the change in the sensed upwind wind speed, and coupling the feed-forward signal to the blade pitch command signal to obtain a collective blade pitch command signal; and controlling pitch of a blade (14, 16, 18) of the wind turbine generator based upon sensed transient wind speed in advance of a change in wind speed at the wind turbine generator.
Use of a 3D cell culture substrate comprising polymer brushes, wherein the polymer brushes comprise poly(N-isopropylacrylamide) polymers for the culture of 3D cell spheroids, wherein the polymer brushes comprise or consist of binary polystyrene-poly(N-isopropylacrylamide) brushes with a ratio of PNIPAAm of at least 80%, and wherein the grafting density of the polymer brushes is between 0.01 and 0.2 nm -2.
A lighting device (70, 80, 90, 100, 170, 200) comprising: a solid-state light source (62, 176, 240, 242); a diffuser structure (63, 182, 250, 630, 640, 650, 660) configured for color mixing of the light from the solid-state light source (62, 176, 240, 242) and spatially separated therefrom; the diffuser (63, 182, 250, 630, 640, 650, 660) comprising at least one phosphor (65, 175, 252) in combination with a reflective material; characterized in that the at least one phosphor (65, 175, 252) is present in an amount between about 30 weight percent to less than about 65 weight percent; and the reflective material is present in an amount of about 5 weight percent of the phosphor (65, 175, 252) to about 60 weight percent of the phosphor (65, 175, 252). a solid-state light source (62, 176, 240, 242); a diffuser structure (63, 182, 250, 630, 640, 650, 660) configured for color mixing of the light from the solid-state light source (62, 176, 240, 242) and spatially separated therefrom; the diffuser (63, 182, 250, 630, 640, 650, 660) comprising at least one phosphor (65, 175, 252) in combination with a reflective material; characterized in that the at least one phosphor (65, 175, 252) is present in an amount between about 30 weight percent to less than about 65 weight percent; and the reflective material is present in an amount of about 5 weight percent of the phosphor (65, 175, 252) to about 60 weight percent of the phosphor (65, 175, 252).
A system comprising: a cloud-based service (180, 235, 330) configured to: detect one or more conditions indicative of an impending failure of a replication event of a dataset from a first storage subsystem to a second storage subsystem; in response to detecting one or more conditions indicative of an impending failure of a replication event, select a third storage subsystem to take over for one of the first storage subsystem and the second storage subsystem; identify which mediums of the dataset are missing from the third storage subsystem; determine one or more other storage subsystems which store the identified mediums; retrieve the identified mediums from the one or more other storage subsystems; and send the identified mediums to the third storage subsystem. detect one or more conditions indicative of an impending failure of a replication event of a dataset from a first storage subsystem to a second storage subsystem; in response to detecting one or more conditions indicative of an impending failure of a replication event, select a third storage subsystem to take over for one of the first storage subsystem and the second storage subsystem; identify which mediums of the dataset are missing from the third storage subsystem; determine one or more other storage subsystems which store the identified mediums; retrieve the identified mediums from the one or more other storage subsystems; and send the identified mediums to the third storage subsystem.
A rubber composition comprising: 100 parts by mass of a sulfur-modified chloroprene rubber; 25 to 55 parts by mass of carbon black having an average particle diameter of 70 nm or less; and more than 0 parts by mass and 15 parts by mass or less of a diene-based rubber other than a chloroprene rubber, wherein the sulfur-modified chloroprene rubber comprises a functional group A represented by General Formula below and positioned at a molecular terminal, and in the sulfur-modified chloroprene rubber, a mass ratio B/A of a content of a functional group B represented by General Formula below and positioned at a molecular terminal with respect to a content of the functional group A is 12.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 1.00% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b1 and R b2 each independently represent an alkyl group which may have a substituent or an aryl group which may have a substituent.) the sulfur-modified chloroprene rubber comprises a functional group A represented by General Formula below and positioned at a molecular terminal, and in the sulfur-modified chloroprene rubber, a mass ratio B/A of a content of a functional group B represented by General Formula below and positioned at a molecular terminal with respect to a content of the functional group A is 12.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 1.00% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b1 and R b2 each independently represent an alkyl group which may have a substituent or an aryl group which may have a substituent.)
A method of forming a transparent member comprising: inserting a first transparent substrate and a second transparent substrate into a first cavity of a lower mold having a first depth and a second cavity of a lower mold connected to the first cavity and having a second depth, respectively; positioning an upper mold on to the lower mold, wherein the upper mold corresponds to the lower mold and includes a pressing portion having at least one pressing surface; preheating at least one of the lower mold or the upper mold to a predetermined temperature, thereby resulting in preheated transparent substrates; and pressing the upper mold onto the lower mold, thereby thermoforming the preheated transparent substrates. inserting a first transparent substrate and a second transparent substrate into a first cavity of a lower mold having a first depth and a second cavity of a lower mold connected to the first cavity and having a second depth, respectively; positioning an upper mold on to the lower mold, wherein the upper mold corresponds to the lower mold and includes a pressing portion having at least one pressing surface; preheating at least one of the lower mold or the upper mold to a predetermined temperature, thereby resulting in preheated transparent substrates; and pressing the upper mold onto the lower mold, thereby thermoforming the preheated transparent substrates.
An electrically heated aerosol-generating device, comprising: an outer housing having a cavity for receiving aerosol-generating substrate; an electrical heater comprising at least one heating element for heating the aerosol-generating substrate in the cavity to generate an aerosol; at least one air inlet; at least one air outlet; an airflow pathway extending from the at least one air inlet, through the cavity, to the at least one air outlet; means for determining the resistance-to-draw of the airflow pathway; and means for automatically adjusting the resistance-to-draw of the airflow pathway in dependence on the determined resistance-to-draw. an outer housing having a cavity for receiving aerosol-generating substrate; an electrical heater comprising at least one heating element for heating the aerosol-generating substrate in the cavity to generate an aerosol; at least one air inlet; at least one air outlet; an airflow pathway extending from the at least one air inlet, through the cavity, to the at least one air outlet; means for determining the resistance-to-draw of the airflow pathway; and means for automatically adjusting the resistance-to-draw of the airflow pathway in dependence on the determined resistance-to-draw.
An adaptive resonance power transmitter comprising: a source resonator (115, 450) configured to transmit resonance power to a resonance power receiver, the source resonator (115, 450) having a predetermined reference impedance; a power amplifier configured to amplify a source power to a power level used by the resonance power receiver, the power amplifier comprising a matching network configured to match an impedance of the power amplifier to the reference impedance; and an offset line connected to the matching network and the source resonator (115,450), characterized in that: the offset line comprises at least one inductor and at least one capacitor so that the offset line has a linear impedance value in a preset range corresponding to an impedance characteristic of the reference impedance, and an impedance value of the offset line is predetermined within the preset range so that the matching network is allowed to match the impedance of the power amplifier to a second impedance, when an impedance of the source resonator (115, 450) is changed to the second impedance, the second impedance being different from the reference impedance and within the preset range. a source resonator (115, 450) configured to transmit resonance power to a resonance power receiver, the source resonator (115, 450) having a predetermined reference impedance; a power amplifier configured to amplify a source power to a power level used by the resonance power receiver, the power amplifier comprising a matching network configured to match an impedance of the power amplifier to the reference impedance; and an offset line connected to the matching network and the source resonator (115,450), characterized in that: the offset line comprises at least one inductor and at least one capacitor so that the offset line has a linear impedance value in a preset range corresponding to an impedance characteristic of the reference impedance, and an impedance value of the offset line is predetermined within the preset range so that the matching network is allowed to match the impedance of the power amplifier to a second impedance, when an impedance of the source resonator (115, 450) is changed to the second impedance, the second impedance being different from the reference impedance and within the preset range. the offset line comprises at least one inductor and at least one capacitor so that the offset line has a linear impedance value in a preset range corresponding to an impedance characteristic of the reference impedance, and an impedance value of the offset line is predetermined within the preset range so that the matching network is allowed to match the impedance of the power amplifier to a second impedance, when an impedance of the source resonator (115, 450) is changed to the second impedance, the second impedance being different from the reference impedance and within the preset range.
An electron beam curable paint, comprising: a dispersion solution of an inorganic nanomaterial 5∼50 parts by weight; a dispersion solution of an inorganic ultraviolet nano-absorbent 1∼10 parts by weight; a polyfunctional monomer 2∼30 parts by weight; an acrylate prepolymer 10∼80 parts by weight; wherein the dispersion solution of the inorganic nanomaterial is prepared by the following steps: A) mixing a solution of the inorganic nanomaterial with an organic solvent to obtain a mixed solution, adjusting the pH of the mixed solution; B) reacting the solution obtained in step A), an acrylate monomer with a silane coupling agent to obtain the dispersion solution of the inorganic nanomaterial; and the dispersion solution of an inorganic ultraviolet absorbent is prepared by the following steps: A) mixing a solution of the inorganic ultraviolet nano-absorbent with an organic solvent to obtain a mixed solution, adjusting the pH of the mixed solution; B) reacting the solution obtained in step A), an acrylate monomer with a silane coupling agent to obtain the dispersion solution of an inorganic ultraviolet nano-absorbent; the inorganic nanomaterial is one or two of silicon dioxide and aluminum oxide; and the inorganic ultraviolet nano-absorbent is titanium dioxide or zinc oxide. A) mixing a solution of the inorganic nanomaterial with an organic solvent to obtain a mixed solution, adjusting the pH of the mixed solution; B) reacting the solution obtained in step A), an acrylate monomer with a silane coupling agent to obtain the dispersion solution of the inorganic nanomaterial; and the dispersion solution of an inorganic ultraviolet absorbent is prepared by the following steps: A) mixing a solution of the inorganic ultraviolet nano-absorbent with an organic solvent to obtain a mixed solution, adjusting the pH of the mixed solution; B) reacting the solution obtained in step A), an acrylate monomer with a silane coupling agent to obtain the dispersion solution of an inorganic ultraviolet nano-absorbent; A) mixing a solution of the inorganic ultraviolet nano-absorbent with an organic solvent to obtain a mixed solution, adjusting the pH of the mixed solution; B) reacting the solution obtained in step A), an acrylate monomer with a silane coupling agent to obtain the dispersion solution of an inorganic ultraviolet nano-absorbent; the inorganic nanomaterial is one or two of silicon dioxide and aluminum oxide; and the inorganic ultraviolet nano-absorbent is titanium dioxide or zinc oxide.
An electronic device comprising: a housing having a key hole formed therein and comprising a switch disposed therein, the key hole being formed such that a length extending in a first direction is longer than a length extending in a second direction perpendicular to the first direction; and a key assembly coupled to the housing, at least part of the key assembly being disposed inside the key hole, wherein the key assembly comprises: a cover member, at least part of which is exposed outside the housing through the key hole, and a pressing member coupled to the cover member and configured to press the switch, wherein the pressing member comprises first protrusions (231, 232, 232', 233, 234, 235) protruding from opposite longitudinal end portions of the pressing member in the first direction, wherein the first protrusions are brought into contact with an inner wall of the key hole and have elasticity such that at least parts of the first protrusions are capable of elastic deformation, and characterised in that: the first protrusions each comprise a contact surface facing the inner wall of the key hole, and at least a partial area of the contact surface is in contact with the inner wall of the key hole in a state in which the key assembly is coupled to the housing. a housing having a key hole formed therein and comprising a switch disposed therein, the key hole being formed such that a length extending in a first direction is longer than a length extending in a second direction perpendicular to the first direction; and a key assembly coupled to the housing, at least part of the key assembly being disposed inside the key hole, wherein the key assembly comprises: a cover member, at least part of which is exposed outside the housing through the key hole, and a pressing member coupled to the cover member and configured to press the switch, wherein the pressing member comprises first protrusions (231, 232, 232', 233, 234, 235) protruding from opposite longitudinal end portions of the pressing member in the first direction, a cover member, at least part of which is exposed outside the housing through the key hole, and a pressing member coupled to the cover member and configured to press the switch, wherein the pressing member comprises first protrusions (231, 232, 232', 233, 234, 235) protruding from opposite longitudinal end portions of the pressing member in the first direction, wherein the first protrusions are brought into contact with an inner wall of the key hole and have elasticity such that at least parts of the first protrusions are capable of elastic deformation, and characterised in that: the first protrusions each comprise a contact surface facing the inner wall of the key hole, and at least a partial area of the contact surface is in contact with the inner wall of the key hole in a state in which the key assembly is coupled to the housing.
A battery pack comprising: a rechargeable battery; a rewritable nonvolatile memory including storage areas, the storage areas including a write-inhibit area, each of the storage areas being assigned a respective unique individual address; a write request receiver configured to receive a write request and data from a charger electrically coupled to the battery pack, the write request including a first address assigned to a first storage area of the storage areas, the data including a first data element; and a write controller configured to execute a write process for the received data, the write process including: determining whether the first storage area is the write-inhibit area based on the first address included in the received write request; writing the first data element included in the received data to the first storage area in response to determining that the first storage area is not the write-inhibit area; and avoiding writing the first data element to the first storage area in response to determining that the first storage area is the write-inhibit area. a rechargeable battery; a rewritable nonvolatile memory including storage areas, the storage areas including a write-inhibit area, each of the storage areas being assigned a respective unique individual address; a write request receiver configured to receive a write request and data from a charger electrically coupled to the battery pack, the write request including a first address assigned to a first storage area of the storage areas, the data including a first data element; and a write controller configured to execute a write process for the received data, the write process including: determining whether the first storage area is the write-inhibit area based on the first address included in the received write request; writing the first data element included in the received data to the first storage area in response to determining that the first storage area is not the write-inhibit area; and avoiding writing the first data element to the first storage area in response to determining that the first storage area is the write-inhibit area. determining whether the first storage area is the write-inhibit area based on the first address included in the received write request; writing the first data element included in the received data to the first storage area in response to determining that the first storage area is not the write-inhibit area; and avoiding writing the first data element to the first storage area in response to determining that the first storage area is the write-inhibit area.
A lock cylinder for use with a flat key having an abutment section on a key shaft, comprising: a cylinder body having a central longitudinal axis; a rotor having a keyway for receiving the key, rotatable within the cylinder body; a set of housings aligned in a vertical axis relative to the central longitudinal axis; and each housing containing a pin spring, a body pin, and a rotor pin partly project into the keyway; the pins being urged by the spring towards the keyway and ensuring, in the absence of the flat key, blocking of the rotor with respect to the cylinder body, wherein the lock cylinder further comprises: a spring-biased movable counter-abutment guided in a hollowed portion formed on the rotor wherein the counter-abutment is movable between a release position in which a corresponding body pin can pass and continue its rotation via the counter-abutment and a lock position in which the corresponding body pin reaches the hollowed portion where the further rotation of the rotor is blocked, and wherein the movable counter-abutment is arranged and configured such that, when the suitable flat key is not inserted, the counter-abutment stays in the lock position under the spring force, while on an introduction of the flat key into the keyway, the abutment section pushes the movable counter-abutment to the release position to correspond to the body pin for allowing the rotation of the rotor. a cylinder body having a central longitudinal axis; a rotor having a keyway for receiving the key, rotatable within the cylinder body; a set of housings aligned in a vertical axis relative to the central longitudinal axis; and each housing containing a pin spring, a body pin, and a rotor pin partly project into the keyway; the pins being urged by the spring towards the keyway and ensuring, in the absence of the flat key, blocking of the rotor with respect to the cylinder body, wherein the lock cylinder further comprises: a spring-biased movable counter-abutment guided in a hollowed portion formed on the rotor wherein the counter-abutment is movable between a release position in which a corresponding body pin can pass and continue its rotation via the counter-abutment and a lock position in which the corresponding body pin reaches the hollowed portion where the further rotation of the rotor is blocked, and wherein the movable counter-abutment is arranged and configured such that, when the suitable flat key is not inserted, the counter-abutment stays in the lock position under the spring force, while on an introduction of the flat key into the keyway, the abutment section pushes the movable counter-abutment to the release position to correspond to the body pin for allowing the rotation of the rotor.