mhurhangee/patent-ind-claim-en huggingface dataset:
A method for dyeing keratinous material, in particular human hair, comprising the following steps: - applying an agent (a) to the keratinous material, wherein the agent (a) contains: (a1) at least one organic silicon compound from the group consisting of silanes having one, two, or three silicon atoms, and (a2) at least one ester of glycerol having an aliphatic C 2 -C 6 carboxylic acid, and - applying an agent (b) to the keratinous material, wherein the agent (b) contains: (b1) at least one sealing reagent, wherein at least one of the agents (a) and (b) further contains at least one chromophoric compound from the group consisting of pigments and/or direct dyes. - applying an agent (a) to the keratinous material, wherein the agent (a) contains: (a1) at least one organic silicon compound from the group consisting of silanes having one, two, or three silicon atoms, and (a2) at least one ester of glycerol having an aliphatic C 2 -C 6 carboxylic acid, and (a1) at least one organic silicon compound from the group consisting of silanes having one, two, or three silicon atoms, and (a2) at least one ester of glycerol having an aliphatic C 2 -C 6 carboxylic acid, and - applying an agent (b) to the keratinous material, wherein the agent (b) contains: (b1) at least one sealing reagent, wherein at least one of the agents (a) and (b) further contains at least one chromophoric compound from the group consisting of pigments and/or direct dyes.
Apparatus for feeding and dosing powder , comprising: a powder storage container for storing and providing powder , an oscillating feeder comprising feeding means with an adjustable feeding rate for dispensing the powder to a powder outlet with the adjustable feeding rate, a conduit arrangement for feeding the powder dispensed by the oscillating feeder in a feeding gas as a powder-gas mixture and for supplying the powder-gas mixture to a powder processing means , wherein a decoupling means is provided in the conduit arrangement for extracting a defined proportion of the powder from the powder-gas mixture , a powder quantity measuring arrangement for detecting the decoupled powder quantity (PM2) per unit time and for providing a powder quantity information signal (S1), wherein the decoupled powder quantity (PM2) per unit time has a predetermined ratio to the fed powder quantity (PM1) of the oscillating feeder within a tolerance range, and control means configured to adjust the adjustable feeding rate of the oscillating feeder to a predetermined set value based on the powder quantity information signal (S1) provided by the powder quantity measuring arrangement . a powder storage container for storing and providing powder , an oscillating feeder comprising feeding means with an adjustable feeding rate for dispensing the powder to a powder outlet with the adjustable feeding rate, a conduit arrangement for feeding the powder dispensed by the oscillating feeder in a feeding gas as a powder-gas mixture and for supplying the powder-gas mixture to a powder processing means , wherein a decoupling means is provided in the conduit arrangement for extracting a defined proportion of the powder from the powder-gas mixture , a powder quantity measuring arrangement for detecting the decoupled powder quantity (PM2) per unit time and for providing a powder quantity information signal (S1), wherein the decoupled powder quantity (PM2) per unit time has a predetermined ratio to the fed powder quantity (PM1) of the oscillating feeder within a tolerance range, and control means configured to adjust the adjustable feeding rate of the oscillating feeder to a predetermined set value based on the powder quantity information signal (S1) provided by the powder quantity measuring arrangement .
A combined pressurized water tank and water filter , said combined pressurized water tank and water filter comprising: a first water filter section , and a second water filter section , said first water filter section and said second water filter section , in installed position, being located in an interior of said combined pressurized water tank and water filter , wherein said first water filter section comprises a granular material (51;53;55) resting on an interior surface of said combined pressurized water tank and water filter , wherein said second water filter section comprises a filter cartridge housing at least partly being embedded in said granular material (51;53;55) and, in operation, is configured to at least partly enclose at least one replaceable filter cartridge (72;74) containing at least one filter medium (720;740), and wherein said combined pressurized water tank and water filter is configured to allow water for filtering to flow through, in sequence, said first water filter section and said second water filter section . a first water filter section , and a second water filter section , said first water filter section and said second water filter section , in installed position, being located in an interior of said combined pressurized water tank and water filter , wherein said first water filter section comprises a granular material (51;53;55) resting on an interior surface of said combined pressurized water tank and water filter , wherein said second water filter section comprises a filter cartridge housing at least partly being embedded in said granular material (51;53;55) and, in operation, is configured to at least partly enclose at least one replaceable filter cartridge (72;74) containing at least one filter medium (720;740), and wherein said combined pressurized water tank and water filter is configured to allow water for filtering to flow through, in sequence, said first water filter section and said second water filter section .
- Intelligent cutlery for guiding the user in its feeding speed made by the assembly of a cutlery head of a cutlery handle mechanically assembled with a protective housing of an electronic card , the electronic card comprises two power supply terminals (B +, B-) and a Minus contact pad which is directly connected to the Minus power supply terminal (B-) of the circuit, a Plus contact pad connected through the core circuit to the terminal (B +), contact springs respectively make contact between the cutlery head and the Plus contact pad and between the cutlery handle and the Minus contact pad characterized in that the protective housing is sealed by a tamper-evident closure, the power supply is housed in the protective housing and is a rechargeable super capacity , the cutlery is rechargeable in a case by positioning by means of a timing circuit in contact the cutlery head with the Plus terminal of an external power supply and the cutlery handle with the Minus terminal of this external power supply .
Positioning device for a test sensor of a tyre testing machine , with - a guiding device ; and - a sensor carrier , to which the test sensor can be fastened, wherein the sensor carrier is fixed on the guiding device ; characterized by two carriage units , which are guided by the guiding device and can be displaced linearly along the guiding device , wherein the carriage units each have a suspension structure , by means of which the positioning device can be suspended on movable mountings (104a-104d) of the tyre testing machine . - a guiding device ; and - a sensor carrier , to which the test sensor can be fastened, wherein the sensor carrier is fixed on the guiding device ;
An operating method for a portable electronic device , the portable electronic device comprising a processor , a body , the body comprising a rear cover on one side of the body, a touch display screen disposed on the opposite side of the body, and edge sensors disposed adjacent to edges, on a first side (S3) and a second side (S4), of the body, the first side being opposite to the second side, the operating method comprising: disabling a touch function of a region of the touch display screen or the whole touch display screen in response to an event being generated according to a first action sensed by the edge sensors, wherein the event is a long squeezing event or a short squeezing event and the first action is a squeezing action, and wherein the first action is determined when a signal level output from the edge sensors exceeds a force threshold, the operating method further comprising: performing a first predefined function according to a long squeezing event; and performing a second predefined function according to a short squeezing event; wherein the long squeezing event and the short squeezing event are determined according to a time period of the squeezing action sensed by the edge sensors, and wherein the first predefined function and the second predefined function are different, and the long squeeze event is determined by the processor of the portable electronic device in response to the time period of the squeezing action sensed by the edge sensors being larger than a time threshold. performing a first predefined function according to a long squeezing event; and performing a second predefined function according to a short squeezing event; wherein the long squeezing event and the short squeezing event are determined according to a time period of the squeezing action sensed by the edge sensors, and wherein the first predefined function and the second predefined function are different, and the long squeeze event is determined by the processor of the portable electronic device in response to the time period of the squeezing action sensed by the edge sensors being larger than a time threshold.
A sunken wheel-side motor drive axle, comprising an axle beam assembly , and further comprising two drive motor assemblies , two reducer assemblies and two hub assemblies respectively disposed at left and right ends of the axle beam assembly ; the drive motor assemblies transmit power to the reducer assemblies, and the reducer assemblies drive the hub assemblies to rotate, the reducer assembly comprises two first-stage reducer assemblies , two second-stage reducer assemblies and two third-stage reducer assemblies , and the first-stage reducer assemblies , the second-stage reducer assemblies and the third-stage reducer assemblies are arranged symmetrically on the left and right, characterized in that , the drive motor assemblies are symmetrically disposed at a bottom of the left and right ends of the axle beam assembly respectively, an output shaft of the drive motor assembly is connected with a driving gear of the first-stage reducer assembly through splines, and a driven gear output shaft of the first-stage reducer assembly is connected with a driving gear of the second-stage reducer assembly , a driven gear of the second-stage reducer assembly transmits power to an input end of the third-stage reducer assembly ; the second-stage reducer assembly comprises a driving gear, an intermediate shaft and a driven gear, and the intermediate shaft is meshed with the driving gear and the driven gear respectively. the drive motor assemblies transmit power to the reducer assemblies, and the reducer assemblies drive the hub assemblies to rotate, the reducer assembly comprises two first-stage reducer assemblies , two second-stage reducer assemblies and two third-stage reducer assemblies , and the first-stage reducer assemblies , the second-stage reducer assemblies and the third-stage reducer assemblies are arranged symmetrically on the left and right, characterized in that , the drive motor assemblies are symmetrically disposed at a bottom of the left and right ends of the axle beam assembly respectively, an output shaft of the drive motor assembly is connected with a driving gear of the first-stage reducer assembly through splines, and a driven gear output shaft of the first-stage reducer assembly is connected with a driving gear of the second-stage reducer assembly , a driven gear of the second-stage reducer assembly transmits power to an input end of the third-stage reducer assembly ; the second-stage reducer assembly comprises a driving gear, an intermediate shaft and a driven gear, and the intermediate shaft is meshed with the driving gear and the driven gear respectively.
A system for network topology, comprising: a first edge router node ; a plurality of first sensors connected to the first edge router node; a second edge router node connected to the first edge router node and to the plurality of first sensors; and a plurality of second sensors connected to the second edge router node and to the first edge router node, wherein the first and second edge router nodes are each connected to a cloud server through a respective cloud connection, so that in the event of one of the cloud connections becoming unavailable the plurality of first and second sensors in the system can remain connected to the cloud server through the remaining cloud connection, wherein the first edge router node is a main edge router node to the first plurality of sensors and the second edge router node is an alternate edge router node to the first plurality of sensors, wherein the alternate edge router node is used when connection between the first plurality of sensors and the main edge router is lost, and wherein the network topology having each sensor connected to more than one edge router node and having a plurality of edge router nodes connected to at least one other edge router node allows for sensor combined coverage. a first edge router node ; a plurality of first sensors connected to the first edge router node; a second edge router node connected to the first edge router node and to the plurality of first sensors; and a plurality of second sensors connected to the second edge router node and to the first edge router node, wherein the first and second edge router nodes are each connected to a cloud server through a respective cloud connection, so that in the event of one of the cloud connections becoming unavailable the plurality of first and second sensors in the system can remain connected to the cloud server through the remaining cloud connection, wherein the first edge router node is a main edge router node to the first plurality of sensors and the second edge router node is an alternate edge router node to the first plurality of sensors, wherein the alternate edge router node is used when connection between the first plurality of sensors and the main edge router is lost, and wherein the network topology having each sensor connected to more than one edge router node and having a plurality of edge router nodes connected to at least one other edge router node allows for sensor combined coverage.
A TiAl alloy member for hot forging, comprising: a substrate made of a TiAl alloy; and an Al layer formed on a surface of the substrate , the Al layer containing 70 at% or more of Al as a main constituent and containing Ti, and an alumina film provided on a surface of the Al layer and made of alumina, wherein a thickness of the Al layer is 10 μm or more and 100 μm or less, and wherein the TiAl alloy contains 41 at% or more and 44 at% or less of Al, 4 at% or more and 6 at% or less of Nb, 4 at% or more and 6 at% or less of V, and 0.1 at% or more and 1 at% or less of B with the balance being Ti and unavoidable impurities. a substrate made of a TiAl alloy; and an Al layer formed on a surface of the substrate , the Al layer containing 70 at% or more of Al as a main constituent and containing Ti, and an alumina film provided on a surface of the Al layer and made of alumina, wherein a thickness of the Al layer is 10 μm or more and 100 μm or less, and wherein the TiAl alloy contains 41 at% or more and 44 at% or less of Al, 4 at% or more and 6 at% or less of Nb, 4 at% or more and 6 at% or less of V, and 0.1 at% or more and 1 at% or less of B with the balance being Ti and unavoidable impurities.
At least one non-transitory machine readable storage device comprising a set of instructions, which when executed by at least one processor of a device, cause the at least one processor to perform operations to: cause the device to send an identification request to a target device ; obtain an identification response to the identification request from the target device , the identification response including an identifier for the target device; cause the device to send a resource discovery request to the target device ; obtain a resource response to the resource discovery request from the target device, the resource response including data corresponding to the resource of the target device; cause the device to send a command to the target device to perform an operation on the target device, wherein the command corresponds to the resource; and process a response from the target device, the response including one or more target device information items, wherein the one or more target device information items comprise a technical specification. cause the device to send an identification request to a target device ; obtain an identification response to the identification request from the target device , the identification response including an identifier for the target device; cause the device to send a resource discovery request to the target device ; obtain a resource response to the resource discovery request from the target device, the resource response including data corresponding to the resource of the target device; cause the device to send a command to the target device to perform an operation on the target device, wherein the command corresponds to the resource; and process a response from the target device, the response including one or more target device information items, wherein the one or more target device information items comprise a technical specification.
A method for realizing a heterogeneous-system same-frequency networking, wherein the heterogeneous-system refers to two different systems, comprising: compressing a frequency bandwidth used actually by a first system in same-frequency neighbor cells to make the frequency bandwidth smaller than a preset bandwidth demand value; and staggering frequency bands used by the first system and a second system of the same-frequency neighbor cells; characterized in that the staggering frequency bands used by the first system and the second system of the same-frequency neighbor cells comprises: adjusting a central frequency of a second system cell in the same-frequency neighbor cells to make a spectrum of the second system cell abut against an edge of a non-overlapping spectrum between the same-frequency neighbor cells. compressing a frequency bandwidth used actually by a first system in same-frequency neighbor cells to make the frequency bandwidth smaller than a preset bandwidth demand value; and staggering frequency bands used by the first system and a second system of the same-frequency neighbor cells; characterized in that the staggering frequency bands used by the first system and the second system of the same-frequency neighbor cells comprises: adjusting a central frequency of a second system cell in the same-frequency neighbor cells to make a spectrum of the second system cell abut against an edge of a non-overlapping spectrum between the same-frequency neighbor cells.
A method for facilitating network identification, comprising, at an access node of a first network: - detecting (S210), by the access node, a physical-layer-related identity of each of one or more neighboring access nodes; - decoding (S220), by the access node, for each of the one or more neighboring access nodes, a network identity of the neighboring access node based on the detected physical-layer-related identity of the neighboring access node; - for each of the one or more neighboring access nodes: - determining (S230), by the access node, whether the neighboring access node belongs to the first network or a different network based on the decoded network identity of the neighboring access node; and - determining (S230), by the access node, an identity group in which the detected physical-layer-related identity of the neighboring access node is included, based on a knowledge of a repartition of physical-layer-related identities into groups that is known to all access nodes and UEs; and - selecting (S240), by the access node, as a physical-layer-related identity of the access node, a physical-layer-related identity from an identity group other than any identity group in which a physical-layer-related identity of a neighboring access node belonging to a different network is included. - detecting (S210), by the access node, a physical-layer-related identity of each of one or more neighboring access nodes; - decoding (S220), by the access node, for each of the one or more neighboring access nodes, a network identity of the neighboring access node based on the detected physical-layer-related identity of the neighboring access node; - for each of the one or more neighboring access nodes: - determining (S230), by the access node, whether the neighboring access node belongs to the first network or a different network based on the decoded network identity of the neighboring access node; and - determining (S230), by the access node, an identity group in which the detected physical-layer-related identity of the neighboring access node is included, based on a knowledge of a repartition of physical-layer-related identities into groups that is known to all access nodes and UEs; and - determining (S230), by the access node, whether the neighboring access node belongs to the first network or a different network based on the decoded network identity of the neighboring access node; and - determining (S230), by the access node, an identity group in which the detected physical-layer-related identity of the neighboring access node is included, based on a knowledge of a repartition of physical-layer-related identities into groups that is known to all access nodes and UEs; and - selecting (S240), by the access node, as a physical-layer-related identity of the access node, a physical-layer-related identity from an identity group other than any identity group in which a physical-layer-related identity of a neighboring access node belonging to a different network is included.
A near-field communication circuit comprising an oscillating circuit having a controllable capacitor (PTIC) controlled by circuit elements when the circuit is at standby, said elements being then powered by a battery.
Method for determining an arrangement of at least two sensors in relation to one another, in which a moving object is detected by means of the at least two sensors and at least one movement variable of the moving object is established by means of in each case one of the sensors, wherein at least these movement variables or variables respectively derived therefrom are used together for determining a relative arrangement of the sensors in relation to one another, characterized in that the at least one movement variable established by means of in each case one of the sensors comprises at least the velocity of the moving object, at least relative to the sensor, and/or an angle between movement directions, established by means of in each case one of the sensors relative to said sensor, is determined and used for determining the arrangement and/or the at least one movement variable established by means of in each case one of the sensors comprises at least the velocity of the object along the direction of a path connecting the sensor and the object in each case.
Method for regulating a bank of alternators comprising at least two alternators that deliver their output in parallel to a load (C), said alternators each being provided with a regulator that is configured to deliver an output signal representative of the reactive power level of the corresponding alternator divided by its nominal reactive power, and a control law allowing the reactive power level of the alternator to be modified depending on an input signal, a step wherein a weighted signal sent as the input signal of these regulators is generated from the output signals representative of the reactive power level of each of the alternators, i.e. the signals delivered by the corresponding regulators, so as to make each of the alternators converge to a predefined reactive power level (T rp ) .