mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method , the method comprising: executing, by a map-service provider associated with a blockchain, a first smart contract on the blockchain with a data collector , said first smart contract allowing the data collector to receive a reward once it collects and submits relevant data to the map-service provider, wherein the map-service provider and the data collector are computing devices participating in the blockchain, and then receiving , at the map-service provider, map data from the data collector; executing, by the map-service provider, a second smart contract on the blockchain with a data-service provider , wherein the data-service provider is a computing device participating in the blockchain, and then transmitting the map data to the data-service provider for processing; executing, by the map-service provider, a third smart contract on the blockchain with a data provider , wherein the data provider is a computing device participating in the blockchain, and then receiving , at the map-service provider, non-crowdsourced data from the data provider; transmitting the non-crowdsourced data to the data-service provider for processing with the map data; receiving a request for processed map data from a service user; retrieving , from the data-service provider, the processed map data that is generated from the map data and the non-crowdsourced data; executing, by the map-service provider, a fourth smart contract on the blockchain with the service user, and then transmitting the processed map data to the service user in response to the request. executing, by a map-service provider associated with a blockchain, a first smart contract on the blockchain with a data collector , said first smart contract allowing the data collector to receive a reward once it collects and submits relevant data to the map-service provider, wherein the map-service provider and the data collector are computing devices participating in the blockchain, and then receiving , at the map-service provider, map data from the data collector; executing, by the map-service provider, a second smart contract on the blockchain with a data-service provider , wherein the data-service provider is a computing device participating in the blockchain, and then transmitting the map data to the data-service provider for processing; executing, by the map-service provider, a third smart contract on the blockchain with a data provider , wherein the data provider is a computing device participating in the blockchain, and then receiving , at the map-service provider, non-crowdsourced data from the data provider; transmitting the non-crowdsourced data to the data-service provider for processing with the map data; receiving a request for processed map data from a service user; retrieving , from the data-service provider, the processed map data that is generated from the map data and the non-crowdsourced data; executing, by the map-service provider, a fourth smart contract on the blockchain with the service user, and then transmitting the processed map data to the service user in response to the request.
A method for manufacturing a layered body comprising the successive steps of: (i) arranging a base substrate in a pre-determined position of a device for growing a layer of a second group III-nitride single crystal wherein the base substrate comprises a layer of a first group III-nitride single crystal at least on a surface of the base substrate , and wherein a root mean square roughness of a surface of the layer of the first group III-nitride single crystal on which the layer of the second group III-nitride single crystal is to be grown has been adjusted to no more than 5 nm, and wherein the base substrate is arranged in the device such that the first group III-nitride single crystal layer is exposed; (ii) performing pretreatment of the base substrate ; (iii) growing the layer of the second group III nitride single crystal directly on the layer of the first group III nitride single crystal of the base substrate; and (iv) taking the layered body out of the device, the step (ii) comprising the step of: (a) heating the base substrate at a temperature range of 1000 to 1250°C for no less than 5 minutes under a first mixed gas atmosphere, before the layer of the second group III nitride single crystal is grown, wherein the first mixed gas consists of hydrogen gas and nitrogen gas and comprises 30 to 95 volume % of hydrogen gas and 5 to 70 volume % of nitrogen gas; the first group III nitride single crystal is represented by a composition formula of: Al A Ga B In C N wherein A, B, and C satisfy A + B + C = 1.0, 0.5 ≤ A ≤ 1.0, 0 ≤ B ≤ 0.5, and 0 ≤ C ≤ 0.5; and the second group III nitride single crystal is a group III nitride single crystal represented by a composition formula of: Al X Ga Y In Z N wherein X, Y, and Z satisfy X + Y + Z = 1.0, 0.5 ≤ X ≤ 1.0, 0 ≤ Y ≤ 0.5, and 0 ≤ Z ≤ 0.5. (i) arranging a base substrate in a pre-determined position of a device for growing a layer of a second group III-nitride single crystal wherein the base substrate comprises a layer of a first group III-nitride single crystal at least on a surface of the base substrate , and wherein a root mean square roughness of a surface of the layer of the first group III-nitride single crystal on which the layer of the second group III-nitride single crystal is to be grown has been adjusted to no more than 5 nm, and wherein the base substrate is arranged in the device such that the first group III-nitride single crystal layer is exposed; (ii) performing pretreatment of the base substrate ; (iii) growing the layer of the second group III nitride single crystal directly on the layer of the first group III nitride single crystal of the base substrate; and (iv) taking the layered body out of the device, (a) heating the base substrate at a temperature range of 1000 to 1250°C for no less than 5 minutes under a first mixed gas atmosphere, before the layer of the second group III nitride single crystal is grown,
A peelable polyolefin multi-layer film made of a transparent base layer and a first cover layer I and a second sealable cover layer II, characterized in that (I) the first cover layer I contains a mixture of (a) at least one propylene copolymer composed of propylene and ethylene or butylene units and/or propylene terpolymers I composed of propylene, ethylene and butylene units and (b) at least one ethylene-butylene copolymer and the surface of this cover layer I has a roughness Rz of 0.1 to < 2 μm with a cut-off of 0.25 mm, measured according to ISO4287, and (II) the second sealable cover layer II contains of a mixture of (a) a propylene homopolymer and (b) a propylene copolymer II having a seal initiation temperature of 105 to 135°C and the film has seal seam strengths in a range from 0.4 to 1.5 N / 15 mm when the cover layer I is sealed against the cover layer II at a sealing pressure of 1.5 and a sealing time of 0.5 s in a temperature range from 120 to 150°C. (I) the first cover layer I contains a mixture of (a) at least one propylene copolymer composed of propylene and ethylene or butylene units and/or propylene terpolymers I composed of propylene, ethylene and butylene units and (b) at least one ethylene-butylene copolymer and the surface of this cover layer I has a roughness Rz of 0.1 to < 2 μm with a cut-off of 0.25 mm, measured according to ISO4287, and (a) at least one propylene copolymer composed of propylene and ethylene or butylene units and/or propylene terpolymers I composed of propylene, ethylene and butylene units and (b) at least one ethylene-butylene copolymer and the surface of this cover layer I has a roughness Rz of 0.1 to < 2 μm with a cut-off of 0.25 mm, measured according to ISO4287, and (II) the second sealable cover layer II contains of a mixture of (a) a propylene homopolymer and (b) a propylene copolymer II having a seal initiation temperature of 105 to 135°C and the film has seal seam strengths in a range from 0.4 to 1.5 N / 15 mm when the cover layer I is sealed against the cover layer II at a sealing pressure of 1.5 and a sealing time of 0.5 s in a temperature range from 120 to 150°C. (a) a propylene homopolymer and (b) a propylene copolymer II having a seal initiation temperature of 105 to 135°C
A computer-implemented method for processing activity records, the method comprising: obtaining an activity record; generating an anonymization dictionary, wherein generating the anonymization dictionary comprises: detecting, in the activity record, a plurality of target entities to be anonymized; determining a resource is associated with a set of target entities of the plurality of target entities; after said determining: assigning an anonymized identity to the set of target entities; generating an anonymized identifier for each target entity in the set of target entities to obtain a plurality of anonymized identifiers, each anonymized identifier of the plurality of anonymized identifiers comprising the anonymized identity; processing the activity record by replacing the plurality of target entities with their anonymized identifiers from the anonymization dictionary to obtain an anonymized activity record; and storing the anonymized activity record. obtaining an activity record; generating an anonymization dictionary, wherein generating the anonymization dictionary comprises: detecting, in the activity record, a plurality of target entities to be anonymized; determining a resource is associated with a set of target entities of the plurality of target entities; after said determining: assigning an anonymized identity to the set of target entities; generating an anonymized identifier for each target entity in the set of target entities to obtain a plurality of anonymized identifiers, each anonymized identifier of the plurality of anonymized identifiers comprising the anonymized identity; detecting, in the activity record, a plurality of target entities to be anonymized; determining a resource is associated with a set of target entities of the plurality of target entities; after said determining: assigning an anonymized identity to the set of target entities; generating an anonymized identifier for each target entity in the set of target entities to obtain a plurality of anonymized identifiers, each anonymized identifier of the plurality of anonymized identifiers comprising the anonymized identity; assigning an anonymized identity to the set of target entities; generating an anonymized identifier for each target entity in the set of target entities to obtain a plurality of anonymized identifiers, each anonymized identifier of the plurality of anonymized identifiers comprising the anonymized identity; processing the activity record by replacing the plurality of target entities with their anonymized identifiers from the anonymization dictionary to obtain an anonymized activity record; and storing the anonymized activity record.
Apparatus for heat treatment, in particular for quenching metals with a gaseous fluid flow (F), comprising a device for producing and transporting a fluid flow (F), and comprising a conditioning device, wherein the conditioning device is of at least two-stage design, as a result of which the temperature of the fluid flow (F) can be changed in at least two stages, wherein a first stage is formed by a heat exchanger , and wherein a second stage is formed by an admixing device which is designed to admix/feed a liquid medium (M) to the fluid flow (F). comprising a device for producing and transporting a fluid flow (F), and comprising a conditioning device, wherein the conditioning device is of at least two-stage design, as a result of which the temperature of the fluid flow (F) can be changed in at least two stages, wherein a first stage is formed by a heat exchanger , and wherein a second stage is formed by an admixing device which is designed to admix/feed a liquid medium (M) to the fluid flow (F).
A device for coating a cylinder comprising: a coating head capable of being inserted into the cylinder, a plurality of coating guns which are provided on the coating head and are configured to discharge a coating material in a direction intersecting a longitudinal direction of the coating head , coating material supply devices which supply coating material to the coating head , and a rotating cover which, when the coating material is discharged from one of a first coating gun and a second coating gun among the plurality of coating guns , is configured to cover the other of the first coating gun and the second coating gun , wherein the plurality of coating guns are connected to coating material supply devices of different systems, respectively, wherein the first coating gun and the second coating gun are provided at different positions from each other in the longitudinal direction of the coating head , characterized in that : the rotating cover includes a first opening and a second opening formed at different positions from each other in the longitudinal direction of the coating head , the first opening being provided at a position, in the longitudinal direction of the coating head , at which the first opening is capable of facing the first coating gun , and the second opening being provided at a position, in the longitudinal direction of the coating head , at which the second opening is capable of facing the second coating gun . a coating head capable of being inserted into the cylinder, a plurality of coating guns which are provided on the coating head and are configured to discharge a coating material in a direction intersecting a longitudinal direction of the coating head , coating material supply devices which supply coating material to the coating head , and a rotating cover which, when the coating material is discharged from one of a first coating gun and a second coating gun among the plurality of coating guns , is configured to cover the other of the first coating gun and the second coating gun , wherein the plurality of coating guns are connected to coating material supply devices of different systems, respectively, wherein the first coating gun and the second coating gun are provided at different positions from each other in the longitudinal direction of the coating head , characterized in that : the rotating cover includes a first opening and a second opening formed at different positions from each other in the longitudinal direction of the coating head , the first opening being provided at a position, in the longitudinal direction of the coating head , at which the first opening is capable of facing the first coating gun , and the second opening being provided at a position, in the longitudinal direction of the coating head , at which the second opening is capable of facing the second coating gun .
Seat length adjustment apparatus , comprising - a track , extending along a longitudinal axis (X), - a carriage , having an electric drive mechanism , by means of which the carriage is rendered moveable along the longitudinal axis (X) of the track , and - a first control unit and a second control unit , - wherein the first control unit is moveably arranged relative to the track and the second control unit is arranged on the carriage , - wherein the first control unit and the second control unit are connected by means of an electrical conductor which can be provided with electricity by a voltage source having a supply voltage, - wherein the second control unit can control the drive mechanism , and - wherein the first control unit and the second control unit communicate by means of a communication signal (S2) which can be modulated onto the supply voltage. - a track , extending along a longitudinal axis (X), - a carriage , having an electric drive mechanism , by means of which the carriage is rendered moveable along the longitudinal axis (X) of the track , and - a first control unit and a second control unit , - wherein the first control unit is moveably arranged relative to the track and the second control unit is arranged on the carriage , - wherein the first control unit and the second control unit are connected by means of an electrical conductor which can be provided with electricity by a voltage source having a supply voltage, - wherein the second control unit can control the drive mechanism , and - wherein the first control unit and the second control unit communicate by means of a communication signal (S2) which can be modulated onto the supply voltage.
A system for alkaline water electrolysis, the system comprising: - one or more electrolysis cells (101-104) each comprising an anode, a cathode, and a porous diaphragm dividing the electrolysis cell into a cathode compartment containing the cathode and an anode compartment containing the anode, - a hydrogen separator tank and a first piping from the cathode compartments of the electrolysis cells to an upper portion of the hydrogen separator tank, - an oxygen separator tank and a second piping from the anode compartments of the electrolysis cells to an upper portion of the oxygen separator tank, and - a third piping for conducting liquid electrolyte from a lower portion of the hydrogen separator tank and from a lower portion of the oxygen separator tank to the electrolysis cells, characterized in that the system comprises an ultrasound source attached to the first piping and for applying ultrasound on the liquid electrolyte contained by the first piping to separate dissolved hydrogen gas from the liquid electrolyte contained by the first piping. - one or more electrolysis cells (101-104) each comprising an anode, a cathode, and a porous diaphragm dividing the electrolysis cell into a cathode compartment containing the cathode and an anode compartment containing the anode, - a hydrogen separator tank and a first piping from the cathode compartments of the electrolysis cells to an upper portion of the hydrogen separator tank, - an oxygen separator tank and a second piping from the anode compartments of the electrolysis cells to an upper portion of the oxygen separator tank, and - a third piping for conducting liquid electrolyte from a lower portion of the hydrogen separator tank and from a lower portion of the oxygen separator tank to the electrolysis cells,
A titanium alloy consisting of: 7.0 to 9.0 percent by weight vanadium; 3.0 to 4.5 percent by weight aluminum; 0.8 to 1.5 percent by weight iron; 0.14 to 0.22 percent by weight oxygen; optionally 0.8 to 2.4 percent by weight chromium; optionally 1.2 to 2.0 percent by weight cobalt; and balance titanium; and optionally one or more of the following impurities: Impurity Maximum (wt%) Carbon 0.10 Nitrogen 0.05 Chlorine 0.05 Hydrogen 0.015 Silicon 0.05 Yttrium 0.005 Sodium 0.01 Magnesium 0.10 Other Elements, Each 0.10 Other Elements, Total 0.30 7.0 to 9.0 percent by weight vanadium; 3.0 to 4.5 percent by weight aluminum; 0.8 to 1.5 percent by weight iron; 0.14 to 0.22 percent by weight oxygen; optionally 0.8 to 2.4 percent by weight chromium; optionally 1.2 to 2.0 percent by weight cobalt; and balance titanium; and
A power control apparatus comprising: a power supply to provide either AC power or DC power; an alternating current (AC) power switch connected to the power supply and arranged to provide power to a fusing heater of an image forming apparatus; and a direct current (DC) cutoff circuit connected to the power supply ; wherein when AC power is provided by the power supply , the AC power switch is configured to provide AC power discontinuously to the fusing heater ; and when DC power is provided by the power supply , the DC cutoff circuit is configured to block the DC power from flowing through the AC power switch to prevent the DC power from flowing to the fusing heater via the AC power switch . a power supply to provide either AC power or DC power; an alternating current (AC) power switch connected to the power supply and arranged to provide power to a fusing heater of an image forming apparatus; and a direct current (DC) cutoff circuit connected to the power supply ; wherein when AC power is provided by the power supply , the AC power switch is configured to provide AC power discontinuously to the fusing heater ; and when DC power is provided by the power supply , the DC cutoff circuit is configured to block the DC power from flowing through the AC power switch to prevent the DC power from flowing to the fusing heater via the AC power switch .
A method of controlling a robotic mower to move according to a selected path map, the mower comprising a path planning module , said method comprising: moving (S120) the robotic mower along the selected path map; obtaining (S130) current position information of the robotic mower ; determining (S150) a deviation between the current position and a predetermined position of the selected path map; determining (S160) that a missing mowing area occurs when the deviation is greater than a preset threshold value; moving (S170) the robotic mower to cut the missing mowing area , characterized in that the path map is randomly selected (S110) from a pre-stored path map set stored in the path planning module . moving (S120) the robotic mower along the selected path map; obtaining (S130) current position information of the robotic mower ; determining (S150) a deviation between the current position and a predetermined position of the selected path map; determining (S160) that a missing mowing area occurs when the deviation is greater than a preset threshold value; moving (S170) the robotic mower to cut the missing mowing area , characterized in that the path map is randomly selected (S110) from a pre-stored path map set stored in the path planning module .