mhurhangee/patent-ind-claim-en huggingface dataset:
A method for encoding a source color illustration, comprising steps consisting in: inscribing said source illustration in the form of an illustration inscribed in grayscale or in color, encoding a message in the form of a two-dimensional barcode comprising a set of blocks, each block coding a fragment of said message and comprising a set of (M) rows and (N) columns, and each block comprising a set of coding subblocks, each subblock comprising a set of bits; characterized in that the encoding step comprises preliminary steps consisting in: defining or identifying a set of distinctive points in the source illustration, calculating a set of attributes according to at least some of the distinctive points of said set, selecting, from among the set of calculated attributes, a set of at least one attribute making it possible to define a digital fingerprint, optionally compressing said digital fingerprint, optionally signing said digital fingerprint by means of a cryptographic signature, recording in the message one among: - a set of at least one attribute, - the digital fingerprint, - the compressed digital fingerprint, - the uncompressed signed digital fingerprint, and - the compressed and signed digital fingerprint; the method furthermore comprising a step consisting in: - encoding at least certain items of color information of the source illustration in said two-dimensional barcode. inscribing said source illustration in the form of an illustration inscribed in grayscale or in color, encoding a message in the form of a two-dimensional barcode comprising a set of blocks, each block coding a fragment of said message and comprising a set of (M) rows and (N) columns, and each block comprising a set of coding subblocks, each subblock comprising a set of bits; defining or identifying a set of distinctive points in the source illustration, calculating a set of attributes according to at least some of the distinctive points of said set, selecting, from among the set of calculated attributes, a set of at least one attribute making it possible to define a digital fingerprint, optionally compressing said digital fingerprint, optionally signing said digital fingerprint by means of a cryptographic signature, recording in the message one among: - a set of at least one attribute, - the digital fingerprint, - the compressed digital fingerprint, - the uncompressed signed digital fingerprint, and - the compressed and signed digital fingerprint; the method furthermore comprising a step consisting in: - encoding at least certain items of color information of the source illustration in said two-dimensional barcode. - a set of at least one attribute, - the digital fingerprint, - the compressed digital fingerprint, - the uncompressed signed digital fingerprint, and - the compressed and signed digital fingerprint; the method furthermore comprising a step consisting in: - encoding at least certain items of color information of the source illustration in said two-dimensional barcode. - encoding at least certain items of color information of the source illustration in said two-dimensional barcode.
A cassette comprising: a printing tape roll into which a printing tape as a medium to be printed is wound; a feed spool being rotatable and around which an ink ribbon to be used for printing on the printing tape is wound; and a take-up spool being rotatable to take up the ink ribbon fed from the feed spool, wherein: the feed spool and the take-up spool are located on one side in a first direction with respect to the printing tape roll, the first direction being a width direction of the ink ribbon wound around the feed spool; and at least a portion of the feed spool and at least a portion of the take-up spool overlap the printing tape roll in the first direction. a printing tape roll into which a printing tape as a medium to be printed is wound; a feed spool being rotatable and around which an ink ribbon to be used for printing on the printing tape is wound; and a take-up spool being rotatable to take up the ink ribbon fed from the feed spool, wherein: the feed spool and the take-up spool are located on one side in a first direction with respect to the printing tape roll, the first direction being a width direction of the ink ribbon wound around the feed spool; and at least a portion of the feed spool and at least a portion of the take-up spool overlap the printing tape roll in the first direction.
Linearly movable sled device, comprising a base plate , a platform linearly slidably mounted with respect to the base plate and provided with connection members to connect a processing apparatus, translation means carried by the base plate for moving the platform , which include a rotary motor connected to the base plate and adapted to cause rotation of a threaded shaft that extends along the sliding direction of the platform and engages a nut screw fixed to the platform , and fixing means comprising at least one operating braking securing unit connected to the base plate , for securing the platform in a predetermined position with respect to the base plate , characterized in that said securing unit is arranged to interact with at least one first securing member of the platform facing the base plate , and includes a second securing member the shape of which corresponds to said first securing member and that is susceptible of assuming a position facing said first securing member , the second securing member being movable with respect to the base plate between a first inactive position closer to the base plate , and a second active position more spaced from the base plate in which the second securing member can engage the first securing member by positive form locking when these securing members face each other.
An apparatus of a high efficiency, HE, wireless device , the HE wireless device configured to operate in a wireless local area network, WLAN, the apparatus comprising: media access control, MAC, circuitry ; and physical circuitry coupled to the MAC circuitry , the physical circuitry configured to: generate a preamble for an HE Physical Layer Convergence Protocol, PLCP, Protocol Data Unit ,PPDU, the preamble including a legacy portion and a HE portion. the legacy portion including a legacy signal field , L-SIG, comprising a length field of 12 bits, wherein a mod 3 of a value of the length field equal to 0 indicates a legacy Institute of Electrical and Electronic Engineers, IEEE, communications standard, and wherein the mod 3 of the value of the length field equal to 1 indicates an IEEE 802.1 lax communications standard and that the preamble comprises a first HE portion format , and the mod 3 of the value of the length field equal to 2 indicates the IEEE 802.1 lax communications standard and that the preamble comprises a second HE portion format ; and configure the HE PPDU, comprising the preamble , for transmission by the HE wireless device . media access control, MAC, circuitry ; and physical circuitry coupled to the MAC circuitry , the physical circuitry configured to: generate a preamble for an HE Physical Layer Convergence Protocol, PLCP, Protocol Data Unit ,PPDU, the preamble including a legacy portion and a HE portion. the legacy portion including a legacy signal field , L-SIG, comprising a length field of 12 bits, wherein a mod 3 of a value of the length field equal to 0 indicates a legacy Institute of Electrical and Electronic Engineers, IEEE, communications standard, and wherein the mod 3 of the value of the length field equal to 1 indicates an IEEE 802.1 lax communications standard and that the preamble comprises a first HE portion format , and the mod 3 of the value of the length field equal to 2 indicates the IEEE 802.1 lax communications standard and that the preamble comprises a second HE portion format ; and configure the HE PPDU, comprising the preamble , for transmission by the HE wireless device .
A gas turbine with an apparatus for replacing a bearing coupled to a tie rod of a gas turbine comprising a compressor rotor having a plurality of compressor rotor disks installed therein and a turbine rotor having a plurality of turbine rotor disks installed therein, the tie rod extending through central axes of the plurality of compressor rotor disks and through central axes of the plurality of turbine rotor disks , the apparatus comprising: an insertion part configured to be coupled to an end of the tie rod extending toward the turbine rotor and cover the end of the tie rod ; and a support part configured to be installed below the insertion part , the support part having a moving part to move the tie rod upward and downward while supporting the insertion part , characterised in that the support part further includes a support plate to be temporarily attached to a mounting member installed in a drain groove of an internal casing covering the outside of the tie rod through which lubricant oil supplied for smooth rotation of the tie rod drains. an insertion part configured to be coupled to an end of the tie rod extending toward the turbine rotor and cover the end of the tie rod ; and a support part configured to be installed below the insertion part , the support part having a moving part to move the tie rod upward and downward while supporting the insertion part ,
A method, by a device management entity , for transmitting application data to an Internet of Things, loT, device which is accessible via two different radio networks having different transmission bandwidths, the method comprising: - determining that the application data is available for the loT device , - transmitting one or more parameter requests to the loT device in which the loT device is requested to inform the device management entity about a plurality of operating parameters of the loT device, - receiving a parameter response to the one or more parameter requests, the parameter response comprising response parameters including at least one of the requested plurality of operating parameters, - selecting one of the radio networks for the transmission of the application data in dependence on the received response parameters, - transmitting the application data to the loT device over the selected radio network; wherein the lot device is connected to the device management entity over the radio network having a lower transmission bandwidth than the other radio network, wherein selecting one of the radio networks comprises selecting the other radio network having the higher transmission bandwidth, the method comprising: - transmitting a switch command to the loT device instructing the loT device to switch the radio network to the other radio network. - determining that the application data is available for the loT device , - transmitting one or more parameter requests to the loT device in which the loT device is requested to inform the device management entity about a plurality of operating parameters of the loT device, - receiving a parameter response to the one or more parameter requests, the parameter response comprising response parameters including at least one of the requested plurality of operating parameters, - selecting one of the radio networks for the transmission of the application data in dependence on the received response parameters, - transmitting the application data to the loT device over the selected radio network; - transmitting a switch command to the loT device instructing the loT device to switch the radio network to the other radio network.
An apparatus comprising: a body portion having a surface ; at least one feedback electrode configured to provide to a digit of a user a time varying touch stimulus when the digit of the user contacts the surface and is traced across the feedback electrode; a touch sensor arrangement for discriminating different user contacts on the surface; and a controller configured to apply a time varying potential difference to the feedback electrode to control the time varying touch stimulus by modulating a frictional force applied to the digit of the user when the digit, contacting the surface, is traced across the surface, wherein the touch sensor arrangement comprises as an electrode the at least one feedback electrode, and wherein the touch sensor arrangement is configured to operate as a proximity detector and/or is configured to operate as a contact impedance detector. a body portion having a surface ; at least one feedback electrode configured to provide to a digit of a user a time varying touch stimulus when the digit of the user contacts the surface and is traced across the feedback electrode; a touch sensor arrangement for discriminating different user contacts on the surface; and a controller configured to apply a time varying potential difference to the feedback electrode to control the time varying touch stimulus by modulating a frictional force applied to the digit of the user when the digit, contacting the surface, is traced across the surface, wherein the touch sensor arrangement comprises as an electrode the at least one feedback electrode, and wherein the touch sensor arrangement is configured to operate as a proximity detector and/or is configured to operate as a contact impedance detector.
A vibration control system , comprising: a vibration data generation portion (20, S51) configured to generate vibration data that is data of a set of values respectively indicating a frequency and an amplitude of a vibration waveform corresponding to the vibration data; and a vibration control portion (20, S55, S57) configured to make a first device vibrate based on the vibration data that is generated by the vibration data generation portion (20, S51), and a second device vibrate while correcting the vibration waveform corresponding to the vibration data according to a characteristic of the second device different from a characteristic of the first device ; wherein the vibration control portion (20, S55, S57) is further configured to correct the amplitude of the vibration waveform for each frequency band by multiplying, for each frequency band, the amplitude of each set by a coefficient. a vibration data generation portion (20, S51) configured to generate vibration data that is data of a set of values respectively indicating a frequency and an amplitude of a vibration waveform corresponding to the vibration data; and a vibration control portion (20, S55, S57) configured to make a first device vibrate based on the vibration data that is generated by the vibration data generation portion (20, S51), and a second device vibrate while correcting the vibration waveform corresponding to the vibration data according to a characteristic of the second device different from a characteristic of the first device ; wherein the vibration control portion (20, S55, S57) is further configured to correct the amplitude of the vibration waveform for each frequency band by multiplying, for each frequency band, the amplitude of each set by a coefficient.
A plasma annealing device comprising a vacuum chamber and a plasma generator , the plasma generator comprising: a gas chamber ; a gas intake member configured to introduce a gas into the gas chamber ; a cathode and an anode that are configured to apply an electric field to the gas introduced into the gas chamber to ionize the gas into plasma; a cooling water circulation member configured to control a temperature of the plasma generator ; and a plasma beam outlet disposed on a top face of the gas chamber ; wherein the plasma generator is disposed in the vacuum chamber , characterized by the plasma annealing device further comprising a first electrode plate and a second electrode plate that are disposed on the vacuum chamber and configured to apply an accelerating electric field to the plasma. a gas chamber ; a gas intake member configured to introduce a gas into the gas chamber ; a cathode and an anode that are configured to apply an electric field to the gas introduced into the gas chamber to ionize the gas into plasma; a cooling water circulation member configured to control a temperature of the plasma generator ; and a plasma beam outlet disposed on a top face of the gas chamber ; wherein the plasma generator is disposed in the vacuum chamber , characterized by the plasma annealing device further comprising a first electrode plate and a second electrode plate that are disposed on the vacuum chamber and configured to apply an accelerating electric field to the plasma.
A computing platform comprising: computing hardware comprising a computer readable, non transitory storage medium coupled to a processor and a memory, the processor configured to communicate with an opsensor and an engine control system , the opsensor configured to sense knocking within a cylinder of an engine during a combustion cycle (k), the engine control system configured to operate the engine, the storage medium having embodied thereon instructions executable by the processor to perform a method stored in the memory, the method comprising: selecting a bandset(k) associated with the combustion cycle (k), the bandset(k) comprising two or more bands of knock intensity, each band comprising a categorical and/or numerical identifier that describes an intensity, magnitude, and/or other aspect of knocking within the cylinder, the bandset (k) comprising a set of bands that characterize a range of possible knock intensities; receiving opsensor data from the opsensor for combustion cycle (k); calculating one or more knock indicators y(i,k) from the received opsensor data; calculating a bandchoice(k) identifying a choice of the band in the bandset(k) that is likely to have resulted in the one or more knock indicators y(i,k) calculated from the received opsensor data; and storing the bandchoice(k) and optionally y(i,k). selecting a bandset(k) associated with the combustion cycle (k), the bandset(k) comprising two or more bands of knock intensity, each band comprising a categorical and/or numerical identifier that describes an intensity, magnitude, and/or other aspect of knocking within the cylinder, the bandset (k) comprising a set of bands that characterize a range of possible knock intensities; receiving opsensor data from the opsensor for combustion cycle (k); calculating one or more knock indicators y(i,k) from the received opsensor data; calculating a bandchoice(k) identifying a choice of the band in the bandset(k) that is likely to have resulted in the one or more knock indicators y(i,k) calculated from the received opsensor data; and storing the bandchoice(k) and optionally y(i,k).
Barrier adhesive compound, comprising - at least one elastomer and - at least one reactive resin, characterized in that the barrier adhesive compound comprises at least one polymer G, containing at least two functional groups suitable for building a polymer and at least two hydrolyzable silyl groups. - at least one elastomer and - at least one reactive resin,
A method for evaluating a working condition of a detector in an imaging device, the detector including a plurality of photodetectors , the method comprising: receiving radiation by the detector in response to which a plurality of single events occur; generating, by a photodetector , an electronic signal relating to single events that are detected by the photodetector ; determining a single event counting rate of the photodetector based on the electronic signal, the single event counting rate representing a ratio of a count of the single events that are detected by the photodetector to a total count of single events detected by some or all photodetectors of the detector; and evaluating the working condition of the photodetector based on the single event counting rate of the photodetector and a threshold. receiving radiation by the detector in response to which a plurality of single events occur; generating, by a photodetector , an electronic signal relating to single events that are detected by the photodetector ; determining a single event counting rate of the photodetector based on the electronic signal, the single event counting rate representing a ratio of a count of the single events that are detected by the photodetector to a total count of single events detected by some or all photodetectors of the detector; and evaluating the working condition of the photodetector based on the single event counting rate of the photodetector and a threshold.
An article comprising a textile body , a conductive region that forms an electrode arranged to measure or apply signals to a further object, and an embossing material , wherein the embossing material causes the conductive region to adopt and retain a raised, embossed, profile that projects outwardly from a surface of the textile body , characterised in that the embossing material comprises a heat and/or pressure-activated adhesive material.
An absorbent article comprising: a) a first nonwoven material ; b) a second nonwoven material ; c) at least one bond area between the first nonwoven material and the second nonwoven material; and d) a polymeric filler composition disposed within the bond area, wherein the polymeric filler composition comprises: - one or more polymer(s) selected from the group consisting of polypropylene homopolymers, propylene-ethylene copolymers, and mixtures thereof; and - from 0 % to less than 5 % of a tackifier, by weight of the polymeric filler composition; and wherein the polymer filler composition has a Toughness of at least 25 MJ.m -3 , wherein Toughness is measured according to the Extensional Test Method described herein a) a first nonwoven material ; b) a second nonwoven material ; c) at least one bond area between the first nonwoven material and the second nonwoven material; and d) a polymeric filler composition disposed within the bond area, wherein the polymeric filler composition comprises: - one or more polymer(s) selected from the group consisting of polypropylene homopolymers, propylene-ethylene copolymers, and mixtures thereof; and - from 0 % to less than 5 % of a tackifier, by weight of the polymeric filler composition; and wherein the polymer filler composition has a Toughness of at least 25 MJ.m -3 , wherein Toughness is measured according to the Extensional Test Method described herein - one or more polymer(s) selected from the group consisting of polypropylene homopolymers, propylene-ethylene copolymers, and mixtures thereof; and - from 0 % to less than 5 % of a tackifier, by weight of the polymeric filler composition; and wherein the polymer filler composition has a Toughness of at least 25 MJ.m -3 , wherein Toughness is measured according to the Extensional Test Method described herein