mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a hydric solvent to enhance fragrance on skin upon initial application of a rinse-off cleansing composition, wherein the composition comprises: a) from 35% to 85%, by weight of the composition, of surfactant, wherein the surfactant comprises a first surfactant and a cosurfactant; b) from 4% to 30%, by weight of the composition, of a perfume, wherein the weight percent of perfume is from 8% to 90%, by weight of the surfactant; c) from 6% to 20%, by weight of the composition, of a hydric solvent, wherein the hydric solvent comprises dipropylene glycol, diethylene glycol, dibutylene glycol, hexylene glycol, butylene glycol, pentanediol, heptanediol, propylene glycol, a polyethylene glycol having an average molecular weight below 500, or a combination thereof, and wherein the weight percent of the hydric solvent is from 16% to 24%, by weight of the surfactant; and d) from 2% to 57%, by weight of the composition, of water; wherein the rinse-off cleansing composition is not a ringing gel, and wherein the composition is a microemulsion or contains a microemulsion phase.
Pre-coated, cold-rolled and annealed sheet for the fabrication of press-hardened parts, composed of a steel substrate for heat treatment with a carbon content C 0 between 0.07% and 0.5%, said content being expressed by weight, and a metal pre-coating at least on the two principal faces of said steel substrate, said metal pre-coating being aluminium or an aluminium alloy or zinc or a zinc alloy or is composed of a layer of aluminium or of an aluminium alloy surmounted by a layer of zinc or of a zinc alloy, the composition of said steel substrate comprising, the contents being expressed by weight: 0.07 % ≤ C ≤ 0.5 % 0.5 % ≤ Mn ≤ 3 % 0.02 % ≤ Si ≤ 0.5 % 0.01 % ≤ Cr ≤ 1 % Ti ≤ 0.2 % Al ≤ 0.25 % S ≤ 0.05 % P ≤ 0.1 % 0.0005 % ≤ B ≤ 0.010 % , optionally 0,0005 % ≤ Ca ≤ 0,005 % , the remainder of the composition being composed of iron and unavoidable impurities resulting from processing, characterised in that said substrate comprises a decarburised area on the surface of each of said two principal faces, the depth p 50% of the decarburised area being between 6 and 30 micrometres, p 50% being the depth at which the carbon content is equal to 50% of said content C 0 , the depth p 50% being measured by Glow Discharge Spectrometry, and in that said sheet does not contain a layer of iron oxide between said substrate and said metal pre-coating,. the remainder of the composition being composed of iron and unavoidable impurities resulting from processing, characterised in that said substrate comprises a decarburised area on the surface of each of said two principal faces, the depth p 50% of the decarburised area being between 6 and 30 micrometres, p 50% being the depth at which the carbon content is equal to 50% of said content C 0 , the depth p 50% being measured by Glow Discharge Spectrometry, and in that said sheet does not contain a layer of iron oxide between said substrate and said metal pre-coating,.
A data link layer-based communication method, wherein the communication method is applied to an autonomic network and comprises: generating, by a network device, an adjacency discovery, AD, message, wherein the AD message comprises a device identifier of the network device; encapsulating, by the network device based on a frame at a data link layer, the AD message, wherein the frame at the data link layer comprises a source data link layer address and a destination data link layer address, and the source data link layer address is a data link layer address of the network device, and wherein the frame at the data link layer is a frame that conforms to a definition in the Ethernet protocol, and a type value of a type field of the frame at the data link layer indicates that a data load field of the frame at the data link layer carries a data link layer-based autonomic control plane, L2 ACP, packet, and wherein the L2 ACP packet carries the AD message; sending, by the network device based on the destination data link layer address, the AD message encapsulated based on the frame at the data link layer to a registrar device, wherein the registrar device is a device that is in the autonomic network and that supports allocation of a domain certificate; receiving, by the network device, a domain certificate sent by the registrar device, wherein the domain certificate is allocated by the registrar device to the network device according to the device identifier of the network device in the AD message; and establishing, by the network device, an autonomic control plane, ACP, with the registrar device according to the domain certificate. generating, by a network device, an adjacency discovery, AD, message, wherein the AD message comprises a device identifier of the network device; encapsulating, by the network device based on a frame at a data link layer, the AD message, wherein the frame at the data link layer comprises a source data link layer address and a destination data link layer address, and the source data link layer address is a data link layer address of the network device, and wherein the frame at the data link layer is a frame that conforms to a definition in the Ethernet protocol, and a type value of a type field of the frame at the data link layer indicates that a data load field of the frame at the data link layer carries a data link layer-based autonomic control plane, L2 ACP, packet, and wherein the L2 ACP packet carries the AD message; sending, by the network device based on the destination data link layer address, the AD message encapsulated based on the frame at the data link layer to a registrar device, wherein the registrar device is a device that is in the autonomic network and that supports allocation of a domain certificate; receiving, by the network device, a domain certificate sent by the registrar device, wherein the domain certificate is allocated by the registrar device to the network device according to the device identifier of the network device in the AD message; and establishing, by the network device, an autonomic control plane, ACP, with the registrar device according to the domain certificate.
A two-dimensional code (130; 800) having a rectangular region delineated from a background by a single border consisting of a plurality of border lines, comprising: code blocks each composed of a plurality of cells (C) which are aggregated; a first specific pattern configured to specify the positions of the cells, the first specific pattern being located at a designated corner of the rectangular region and arranged in the rectangular region; and a second specific pattern (133, 134; 803, 804) configured to distinguish the code blocks from the background of the code, the second specific pattern being arranged in the rectangular region and being located along one or more of first border lines along which the first specific pattern is also located, the first border lines being part of the border lines of the rectangular region, characterized in that the code blocks include compressed data code blocks in which compressed data are stored and error correction code blocks for correcting errors of the compressed data code blocks, the error-correction code blocks being arranged along second border lines of the border lines, the second border lines being other than the first border lines of the border lines; and the respective cells of the compressed data code blocks are colored and the respective cells of the error-correction code blocks are colored, a combination of the colors of the cells of the compressed data code blocks being different from a combination of the colors of the cells of the error-correction code blocks. code blocks each composed of a plurality of cells (C) which are aggregated; a first specific pattern configured to specify the positions of the cells, the first specific pattern being located at a designated corner of the rectangular region and arranged in the rectangular region; and a second specific pattern (133, 134; 803, 804) configured to distinguish the code blocks from the background of the code, the second specific pattern being arranged in the rectangular region and being located along one or more of first border lines along which the first specific pattern is also located, the first border lines being part of the border lines of the rectangular region, characterized in that the code blocks include compressed data code blocks in which compressed data are stored and error correction code blocks for correcting errors of the compressed data code blocks, the error-correction code blocks being arranged along second border lines of the border lines, the second border lines being other than the first border lines of the border lines; and the respective cells of the compressed data code blocks are colored and the respective cells of the error-correction code blocks are colored, a combination of the colors of the cells of the compressed data code blocks being different from a combination of the colors of the cells of the error-correction code blocks.
An optical sensor for detecting objects in a monitoring area, having a housing and a transmitting/receiving unit arranged inside the housing , light beams emitted by a transmitter of the transmitting/receiving unit being guided inside the monitoring area and passing through a disc , wherein light beams reflected back from an object are guided through the disc to a receiver of the transmitter/receiver unit and received signals of the receiver are evaluated in an evaluation unit to generate an object detection signal, and wherein a test unit for checking the permeability of the disc is provided, which has at least one test transmitter emitting test light beams and a test detector (14 or 14'), wherein the test light beams are aligned with the disc , wherein a reference element with defined transmission and/or reflection properties is provided, wherein an error check of the test unit is carried out with the reference element introduced in the beam path of the test light beams , wherein reference measurement values for the measurements for checking the permeability of the disc are obtained from reference measurements carried out with the reference element , characterised in that correction factors for the measurements which are carried out with the test unit for checking the permeability of the disc are derived from the reference measurement values, the transmission power of the test transmitter or the amplification of received signals of the test detector being corrected by means of the correction factors.
A crowdsource server , comprising: a memory; and at least one processor communicatively coupled to the memory and configured to: receive, from a media device , a request to identify a bit-rate variant of a secondary content among a plurality of bit-rate variants of the secondary content ; access records of prior downloads of the secondary content by a plurality of media devices , wherein the records were provided to the crowdsource server by the plurality of media devices in a crowdsourced manner; identify a subset of the records of the prior downloads of the secondary content by the plurality of media devices that are relevant to the media device based on the request from the media device ; generate a recommendation for a bit-rate variant of the secondary content among the plurality of bit-rate variants of the secondary content at a server among a plurality of servers to download by the media device based on the subset of the records; and provide the recommendation to the media device . a memory; and at least one processor communicatively coupled to the memory and configured to: receive, from a media device , a request to identify a bit-rate variant of a secondary content among a plurality of bit-rate variants of the secondary content ; access records of prior downloads of the secondary content by a plurality of media devices , wherein the records were provided to the crowdsource server by the plurality of media devices in a crowdsourced manner; identify a subset of the records of the prior downloads of the secondary content by the plurality of media devices that are relevant to the media device based on the request from the media device ; generate a recommendation for a bit-rate variant of the secondary content among the plurality of bit-rate variants of the secondary content at a server among a plurality of servers to download by the media device based on the subset of the records; and provide the recommendation to the media device . receive, from a media device , a request to identify a bit-rate variant of a secondary content among a plurality of bit-rate variants of the secondary content ; access records of prior downloads of the secondary content by a plurality of media devices , wherein the records were provided to the crowdsource server by the plurality of media devices in a crowdsourced manner; identify a subset of the records of the prior downloads of the secondary content by the plurality of media devices that are relevant to the media device based on the request from the media device ; generate a recommendation for a bit-rate variant of the secondary content among the plurality of bit-rate variants of the secondary content at a server among a plurality of servers to download by the media device based on the subset of the records; and provide the recommendation to the media device .
A micro electro-hydraulic linear actuator , comprising an actuator base , a spherical pump unit and a reciprocating piston mechanism; characterized by , the actuator base being provided with a hydraulic cylinder and a cylinder liner ; each of the hydraulic cylinder and the cylinder liner having a cylindrical chambers with an opening at one end, the reciprocating piston mechanism being provided in the hydraulic cylinder , and an opening end of the hydraulic cylinder being provided with an end cover of the hydraulic cylinder ; a piston rod hinge hole being provided at an end of a piston rod of the reciprocating piston mechanism extending out from a bottom of the hydraulic cylinder , and an actuator hinge hole being provided on an end cover of the hydraulic cylinder ; an open end of the cylinder liner being provided with an end cover of the motor ; the spherical pump unit comprising a spherical pump and a motor, and the spherical pump and the motor being integrated in the cylinder liner ; a first inlet-outlet hole and a second inlet-outlet hole of the spherical pump being respectively communicated with two working chambers in the hydraulic cylinder of the reciprocating piston mechanism; and the micro electro-hydraulic linear actuator being encapsulated in a closed elastic leather bag , and the end of the piston rod extending out from the elastic leather bag .
A chassis dynamometer apparatus comprising, - a load motor connectable with a load wheel connecting portion (A) of a vehicle; and - a pedestal on which the load motor is mounted, wherein a longitudinal direction of the vehicle is a x-axis direction and a width direction of the vehicle is a y-axis direction, the pedestal contains: - a mounting frame on which the load motor is mounted and a base arranged under the mounting frame ; - a first movable mount(s) slidable in one direction of the x-axis or y-axis direction; - a second movable mount slidable in the other direction of the x-axis or y-axis direction; and - a spherical joint tiltable and rotatable in an arbitrary direction, wherein the first movable mount(s) , the second movable mount , and the spherical joint are connected in series between the mounting frame and the base . - a load motor connectable with a load wheel connecting portion (A) of a vehicle; and - a pedestal on which the load motor is mounted, wherein a longitudinal direction of the vehicle is a x-axis direction and a width direction of the vehicle is a y-axis direction, the pedestal contains: - a mounting frame on which the load motor is mounted and a base arranged under the mounting frame ; - a first movable mount(s) slidable in one direction of the x-axis or y-axis direction; - a second movable mount slidable in the other direction of the x-axis or y-axis direction; and - a spherical joint tiltable and rotatable in an arbitrary direction, - a mounting frame on which the load motor is mounted and a base arranged under the mounting frame ; - a first movable mount(s) slidable in one direction of the x-axis or y-axis direction; - a second movable mount slidable in the other direction of the x-axis or y-axis direction; and - a spherical joint tiltable and rotatable in an arbitrary direction, wherein the first movable mount(s) , the second movable mount , and the spherical joint are connected in series between the mounting frame and the base .
A system for controlling a wind turbine , comprising: a sensor configured to provide a signal indicative of one or more parameters of the wind turbine ; a turbine controller configured to control operations of the wind turbine ; a secondary controller inserted between the sensor and the turbine controller , the secondary controller separated from the turbine controller by a distance, the secondary controller configured to receive the signal from the sensor over a communication interface ; wherein the secondary controller is configured to adjust the signal based at least in part on a signal bias to an adjusted signal and to provide the adjusted signal to the turbine controller , characterized in that the signal bias is programmed into the secondary controller using an auto tuning process, the auto-tuning process comprising: for each of a plurality of input conditions, incrementally adjusting the signal bias among a plurality of incremental signal bias values; monitoring power production of the wind turbine at each of the plurality of incremental signal bias values; and selecting the signal bias for the input condition from the plurality of incremental signal bias values based at least in part on the power production associated with each of the plurality of incremental signal bias values. a sensor configured to provide a signal indicative of one or more parameters of the wind turbine ; a turbine controller configured to control operations of the wind turbine ; a secondary controller inserted between the sensor and the turbine controller , the secondary controller separated from the turbine controller by a distance, the secondary controller configured to receive the signal from the sensor over a communication interface ; wherein the secondary controller is configured to adjust the signal based at least in part on a signal bias to an adjusted signal and to provide the adjusted signal to the turbine controller , characterized in that the signal bias is programmed into the secondary controller using an auto tuning process, the auto-tuning process comprising: for each of a plurality of input conditions, incrementally adjusting the signal bias among a plurality of incremental signal bias values; monitoring power production of the wind turbine at each of the plurality of incremental signal bias values; and selecting the signal bias for the input condition from the plurality of incremental signal bias values based at least in part on the power production associated with each of the plurality of incremental signal bias values. for each of a plurality of input conditions, incrementally adjusting the signal bias among a plurality of incremental signal bias values; monitoring power production of the wind turbine at each of the plurality of incremental signal bias values; and selecting the signal bias for the input condition from the plurality of incremental signal bias values based at least in part on the power production associated with each of the plurality of incremental signal bias values.
A surgical system , comprising: a 3D tracking sensor ; a trackable element fixable to an object ; the 3D tracking sensor being configured to track the trackable element ; a surgical controller configured to determine a pose of the trackable element relative to the 3D tracking sensor based at least in part on information provided by the 3D tracking sensor ; characterised in that the 3D tracking sensor is coupled to a registration probe and in that the surgical controller is further configured to: generate a point cloud representing a plurality of contact points between the registration probe and the object ; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object ; wherein generating the point cloud comprises using the determination of the pose of the trackable element relative to the 3D tracking sensor to determine the location of the tip of the registration probe relative to the trackable element while the tip of the registration probe contacts the object at the plurality of contact points. a 3D tracking sensor ; a trackable element fixable to an object ; the 3D tracking sensor being configured to track the trackable element ; a surgical controller configured to determine a pose of the trackable element relative to the 3D tracking sensor based at least in part on information provided by the 3D tracking sensor ; characterised in that the 3D tracking sensor is coupled to a registration probe and in that the surgical controller is further configured to: generate a point cloud representing a plurality of contact points between the registration probe and the object ; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object ; determine a pose of the trackable element relative to the 3D tracking sensor based at least in part on information provided by the 3D tracking sensor ; characterised in that the 3D tracking sensor is coupled to a registration probe and in that the surgical controller is further configured to: generate a point cloud representing a plurality of contact points between the registration probe and the object ; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object ; generate a point cloud representing a plurality of contact points between the registration probe and the object ; and align the point cloud with a three-dimensional representation of the object to register the object to the three-dimensional representation of the object ; wherein generating the point cloud comprises using the determination of the pose of the trackable element relative to the 3D tracking sensor to determine the location of the tip of the registration probe relative to the trackable element while the tip of the registration probe contacts the object at the plurality of contact points.
An item of furniture having a furniture body and at least one drawer element held so it is movable on at least two pullout guides , wherein the pullout guides are fixed using a guide rail on the furniture body and a slide rail on the drawer element , wherein one or more pullout-extending middle rails are optionally also arranged between the guide rail and the slide rail , and an ejection device is provided on each pullout guide , to eject the drawer element via a force accumulator in the opening direction upon unlocking of the ejection devices , wherein synchronization means are provided between the two ejection devices , which also unlock the other ejection device upon unlocking of one ejection device , characterized in that the two ejection devices are arranged offset in relation to one another in the movement direction of the drawer element .