mhurhangee/patent-ind-claim-en huggingface dataset:
A flame-retardant hybrid ink composition applicable using inkjet drop-on-demand (DoD) technology of the type that simultaneously provides a chromatic and flame-retardant effect on textiles, and comprising: a. At least one type of inorganic particle, with a melting temperature comprised between 550°C and 3500°C and with a particle size (D90) less than 500 nm, in a percentage by weight of the ink comprised between 5% and 15%. b. At least one organic pigment in a percentage by weight of the ink comprised between 4% and 15% and which is selected from the group comprising cyan, cobalt blue, turquoise blue, violet, magenta, red, yellow, orange, black, white, green, grey or a mixture thereof. c. At least one resin that is dispersible in water and heat-curable at a temperature below 170°C in a percentage by weight of the ink comprised between 5% and 20%. d. Water in a percentage by weight of the ink comprised between 20% and 35%. e. A water-soluble solvent from the glycol family in a percentage by weight of the ink comprised between 20% and 60%. f. At least one dispersant for inorganic particles in a percentage by weight of the ink comprised between 0.1% and 10%. g. At least one dispersant for organic pigments in a percentage by weight of the ink comprised between 0.16% and 12%. h. At least one wetting agent in a percentage by weight of the ink comprised between 0.05% and 1%. i. At least one anti-foaming agent in a percentage by weight of the ink comprised between 0.05% and 1%. a. At least one type of inorganic particle, with a melting temperature comprised between 550°C and 3500°C and with a particle size (D90) less than 500 nm, in a percentage by weight of the ink comprised between 5% and 15%. b. At least one organic pigment in a percentage by weight of the ink comprised between 4% and 15% and which is selected from the group comprising cyan, cobalt blue, turquoise blue, violet, magenta, red, yellow, orange, black, white, green, grey or a mixture thereof. c. At least one resin that is dispersible in water and heat-curable at a temperature below 170°C in a percentage by weight of the ink comprised between 5% and 20%. d. Water in a percentage by weight of the ink comprised between 20% and 35%. e. A water-soluble solvent from the glycol family in a percentage by weight of the ink comprised between 20% and 60%. f. At least one dispersant for inorganic particles in a percentage by weight of the ink comprised between 0.1% and 10%. g. At least one dispersant for organic pigments in a percentage by weight of the ink comprised between 0.16% and 12%. h. At least one wetting agent in a percentage by weight of the ink comprised between 0.05% and 1%. i. At least one anti-foaming agent in a percentage by weight of the ink comprised between 0.05% and 1%.
A method performed by a wireless communications system comprising a base station , a first User Equipment, UE, and a second UE, , wherein the first UE and the second UE are each arranged for a mode of communication whereby the first UE can communicate with the second UE directly by way of a direct link, the method comprising: reporting by the first UE , to the base station , parameters related to communication via the direct link for interaction by the base station with direct communication between the UEs ; reporting by the first UE , a value of reference signal received power, RSRP, for the direct link; receiving by the base station , from the first UE , the parameters; receiving by the base station , from the first UE the value of reference signal received power, RSRP, for the direct link; sending by the interaction of the base station , to the first UE a configuration message that includes configuration information for configuring the first UE to transmit information to the second UE for configuration of the direct link between the UEs , where the second UE is out of coverage of the base station , and transmitting by the first UE , when the first UE receives the configuration message, the information to the second UE . reporting by the first UE , to the base station , parameters related to communication via the direct link for interaction by the base station with direct communication between the UEs ; reporting by the first UE , a value of reference signal received power, RSRP, for the direct link; receiving by the base station , from the first UE , the parameters; receiving by the base station , from the first UE the value of reference signal received power, RSRP, for the direct link; sending by the interaction of the base station , to the first UE a configuration message that includes configuration information for configuring the first UE to transmit information to the second UE for configuration of the direct link between the UEs , where the second UE is out of coverage of the base station , and transmitting by the first UE , when the first UE receives the configuration message, the information to the second UE .
A method for determining a difference (ΔZ) between a sample position and an in-focus position relative to an optical system based on only one image, said method comprising capturing image data depicting said sample when being in said sample position, comprising: extracting , from said image data, a set of features comprising a plurality of contrast features, wherein said plurality of contrast features are determined for a plurality of color layers, and wherein said set of features comprises a set of directional features indicating whether the system is positively defocused or negatively defocused, the plurality of contrast features being generated using at least two of: a squared gradient function based upon said image data, a wavelet function based upon said image data, an auto-correlation function, such as Vollath's F 4 function or a combination of Vollath's F 4 function and Vollath's F 5 function, based upon said image data, a variance for the whole image data, and a Laplace-based focus measure, and classifying , by using a machine learning algorithm that has been trained to associate sets of features extracted from images with predetermined position difference values, said set of features into a corresponding position difference value, wherein said corresponding position difference value corresponds to said difference (ΔZ) between the sample position and the in-focus position. extracting , from said image data, a set of features comprising a plurality of contrast features, wherein said plurality of contrast features are determined for a plurality of color layers, and wherein said set of features comprises a set of directional features indicating whether the system is positively defocused or negatively defocused, the plurality of contrast features being generated using at least two of: a squared gradient function based upon said image data, a wavelet function based upon said image data, an auto-correlation function, such as Vollath's F 4 function or a combination of Vollath's F 4 function and Vollath's F 5 function, based upon said image data, a variance for the whole image data, and a squared gradient function based upon said image data, a wavelet function based upon said image data, an auto-correlation function, such as Vollath's F 4 function or a combination of Vollath's F 4 function and Vollath's F 5 function, based upon said image data, a variance for the whole image data, and a Laplace-based focus measure, and classifying , by using a machine learning algorithm that has been trained to associate sets of features extracted from images with predetermined position difference values, said set of features into a corresponding position difference value, wherein said corresponding position difference value corresponds to said difference (ΔZ) between the sample position and the in-focus position.
A mesenchymal stem cell culture medium comprising at least 3 kinds of components selected from the group consisting of a PTEN inhibitor, a p53 inhibitor, a p38 inhibitor, an Wnt signal activator and a ROCK inhibitor, with the proviso that the at least 3 kinds of components does not consist only of a PTEN inhibitor, a p53 inhibitor and a Wnt signal activator; and basal medium for culturing animal cells; wherein the PTEN inhibitor is selected from the group consisting of VO-OHPic, HOPic and pV, the p53 inhibitor is selected from the group consisting of sodium orthovanadate, pifithrin-α and MDM2 protein, the p38 inhibitor is selected from the group consisting of SB203580, SB202190, BIRB796, LY2228820, VX-702, PH-797804, TAK-715, VX-745 and Skepinone-L, the Wnt signal activator is a LiCl or a complement molecule C1q, and the ROCK inhibitor is selected from the group consisting of Y-27632, K-115 and Fasudil hydrochloride.
An apparatus comprising : an antenna configured to connect to a wireless network and a GPS satellite ; a processor configured to execute instructions; and a memory configured to store said instructions that, when executed, cause the apparatus to perform the steps of locating a first module of a first vehicle connected to said wireless network, wherein said locating is based on first vehicle position data provided by said first module, wherein said first module of the first vehicle is stationary, said first module of the first vehicle having a first identification code and a first correction value , wherein said first correction value improves the accuracy of position coordinates of said apparatus, wherein said position coordinates store position data retrieved by said apparatus from said GPS satellite, determining whether said first correction value passes a quality check, characterised in that the apparatus further performs the step of: determining whether at least a second module of a second vehicle is connected to the wireless network , wherein said second module of the second vehicle is stationary, wherein the second module of the second vehicle having a second identification code and second correction value, wherein said second correction value improves the accuracy of said position coordinates of said apparatus; when if there is said at least second module then: determining whether said second correction value passes said quality check, testing the first and second correction value and determining a most accurate estimation, and if said first and second correction value pass said quality check, using the correction value determined to be the most accurate estimation to compensate for local conditions that affect an accuracy of said position coordinates when connecting to said GPS satellite. an antenna configured to connect to a wireless network and a GPS satellite ; a processor configured to execute instructions; and determining whether said second correction value passes said quality check, testing the first and second correction value and determining a most accurate estimation, and if said first and second correction value pass said quality check, using the correction value determined to be the most accurate estimation to compensate for local conditions that affect an accuracy of said position coordinates when connecting to said GPS satellite.
A display device comprising a plurality of anode electrodes separated from each other; a plurality of cathode electrodes positioned on one side of the plurality of anode electrodes , respectively; and a plurality of light emitting device assemblies , wherein a light emitting device assembly among the plurality light emitting device assemblies is electrically connected to an anode electrode and a cathode electrode among the plurality of anode electrodes and the plurality of cathode electrodes to configure an individual sub-pixel, wherein the light emitting device assembly includes: a light emitting device ; a first electrode disposed on the light emitting device and electrically connected to the anode electrode by conductive balls ; a second electrode disposed on the light emitting device and electrically connected to the cathode electrode by conductive balls ; first adhesive layers disposed on the first electrode and the second electrode respectively to be spaced apart from each other; and a second adhesive layer positioned on the first adhesive layers , the second adhesive layer being non-conductive. a plurality of anode electrodes separated from each other; a plurality of cathode electrodes positioned on one side of the plurality of anode electrodes , respectively; and a plurality of light emitting device assemblies , wherein a light emitting device assembly among the plurality light emitting device assemblies is electrically connected to an anode electrode and a cathode electrode among the plurality of anode electrodes and the plurality of cathode electrodes to configure an individual sub-pixel, wherein the light emitting device assembly includes: a light emitting device ; a first electrode disposed on the light emitting device and electrically connected to the anode electrode by conductive balls ; a second electrode disposed on the light emitting device and electrically connected to the cathode electrode by conductive balls ; first adhesive layers disposed on the first electrode and the second electrode respectively to be spaced apart from each other; and a second adhesive layer positioned on the first adhesive layers , the second adhesive layer being non-conductive. a light emitting device ; a first electrode disposed on the light emitting device and electrically connected to the anode electrode by conductive balls ; a second electrode disposed on the light emitting device and electrically connected to the cathode electrode by conductive balls ; first adhesive layers disposed on the first electrode and the second electrode respectively to be spaced apart from each other; and a second adhesive layer positioned on the first adhesive layers , the second adhesive layer being non-conductive.
A method for wireless communication, comprising: generating a primary synchronization signal and a secondary synchronization signal, wherein the primary synchronization signal is based on a first synchronization signal sequence s ( n ), and the first synchronization signal sequence s ( n ) is based on a sequence c ( n ) wherein the sequence c ( n ) is a m-sequence, wherein the secondary synchronization signal is based on a second synchronization signal sequence, and the second synchronization signal sequence is based on a sequence f 1 ( n ) and a sequence f 2 ( n ), wherein the sequence f 1 (n) and the sequence f 2 ( n ) are m-sequences, and the sequence f 1 ( n ) has a same recursion formula as the sequence c ( n ); and transmitting the primary synchronization signal and the secondary synchronization signal. generating a primary synchronization signal and a secondary synchronization signal, wherein the primary synchronization signal is based on a first synchronization signal sequence s ( n ), and the first synchronization signal sequence s ( n ) is based on a sequence c ( n ) wherein the sequence c ( n ) is a m-sequence, wherein the secondary synchronization signal is based on a second synchronization signal sequence, and the second synchronization signal sequence is based on a sequence f 1 ( n ) and a sequence f 2 ( n ), wherein the sequence f 1 (n) and the sequence f 2 ( n ) are m-sequences, and the sequence f 1 ( n ) has a same recursion formula as the sequence c ( n ); and transmitting the primary synchronization signal and the secondary synchronization signal.
Track processing machine , in particular impact wrench machine, for track processing, comprising - at least one handle for manually guiding the track processing machine , - a first structural unit with a processing head which is drivable in rotation about an axis of rotation for track processing, - a second structural unit , and - a linking unit for mechanically connecting the first structural unit to the second structural unit and for reducing a longitudinal dimension (L 1 , L 2 ) of the track processing machine along the axis of rotation , characterized in that the linking unit has a linking joint for pivoting the first structural unit relative to the second structural unit , and that a drive torque (M) of at least 150 Nm is provided on the processing head about the axis of rotation . - at least one handle for manually guiding the track processing machine , - a first structural unit with a processing head which is drivable in rotation about an axis of rotation for track processing, - a second structural unit , and - a linking unit for mechanically connecting the first structural unit to the second structural unit and for reducing a longitudinal dimension (L 1 , L 2 ) of the track processing machine along the axis of rotation , that the linking unit has a linking joint for pivoting the first structural unit relative to the second structural unit , and that a drive torque (M) of at least 150 Nm is provided on the processing head about the axis of rotation .
A security module (SM) for a computer system (CS), comprising: an input interface (IN2) for capturing at least one characteristic of a file; a checking logic (PL) configured to check whether the file has a similarity to one or more reference files based on the at least one characteristic, wherein the one or more reference files are classified as trusted and wherein the file is different from the one or more reference files; wherein the checking logic (PL) is further configured to authorize execution of the file on a computer system (CS) only if the check determines that there is a similarity to the one or more reference files, characterized in that the checking of similarity is done by calculating a similarity measure, which quantifies a similarity of the at least one characteristic with corresponding one or more characteristics of at least one of the reference files. an input interface (IN2) for capturing at least one characteristic of a file; a checking logic (PL) configured to check whether the file has a similarity to one or more reference files based on the at least one characteristic, wherein the one or more reference files are classified as trusted and wherein the file is different from the one or more reference files; wherein the checking logic (PL) is further configured to authorize execution of the file on a computer system (CS) only if the check determines that there is a similarity to the one or more reference files, characterized in that the checking of similarity is done by calculating a similarity measure, which quantifies a similarity of the at least one characteristic with corresponding one or more characteristics of at least one of the reference files.
Agricultural utility vehicle for dispensing material, such as fertilizers, plant protectants or seed, comprising an open-loop and/or closed-loop control system , comprising a distributor boom for dispensing material, which comprises two lateral arms which each have at least one movable boom portion , the boom portions having at least two working positions, i.e. positions and/or folding positions, the boom portions of an arm each having angles relative to one another and/or the arms each having angles relative to one another, and nozzles being arranged on the boom portions , which nozzles are connected to controllable valves, and the system having a plurality of detection means and a data processing unit, the detection means being designed to detect the working position of the boom portions of the distributor boom , characterized in that the data processing unit is configured such that the signals from the detection means can be processed and control signals for the valves can be generated on the basis thereof, the output quantity of the nozzles being changeable by means of the control signals for the valves.
A device for creating an implantable neural graft assembly in a subject, comprising: a cutter mechanism for cutting and removing a tissue graft having a hollow central region from a source of tissue in the subject characterized in that the device further comprises a grasper mechanism capable of retaining a nerve end of the subject in a first position and releasing the nerve end in a second position; and an actuation mechanism configured to dispose the tissue graft over the nerve end, wherein the device creates the implantable neural graft assembly comprising the nerve end disposed within the tissue graft. a cutter mechanism for cutting and removing a tissue graft having a hollow central region from a source of tissue in the subject characterized in that the device further comprises a grasper mechanism capable of retaining a nerve end of the subject in a first position and releasing the nerve end in a second position; and an actuation mechanism configured to dispose the tissue graft over the nerve end, wherein the device creates the implantable neural graft assembly comprising the nerve end disposed within the tissue graft.
An animal collar system for monitoring an animal , the animal collar system comprising: a mobile device associated with a user ; a base station ; and an animal collar device comprising a circuit board , at least one sensing component carried by the circuit board and configured to collect data about the animal, a first elongate patch antenna carried by the circuit board and comprising a first longitudinal side and a second longitudinal side opposing the first longitudinal side, and a first end and a second end opposing the first end, the first and second ends being between the first and second longitudinal sides, the second longitudinal side comprising a plurality of slots (146a-146c), a second coil antenna carried by the circuit board, and a processor carried by the circuit board and coupled to the at least one sensing component, the first elongate patch antenna, and the second coil antenna, the processor configured to communicate the data about the animal to the base station and the mobile device. a mobile device associated with a user ; a base station ; and an animal collar device comprising a circuit board , at least one sensing component carried by the circuit board and configured to collect data about the animal, a first elongate patch antenna carried by the circuit board and comprising a first longitudinal side and a second longitudinal side opposing the first longitudinal side, and a first end and a second end opposing the first end, the first and second ends being between the first and second longitudinal sides, the second longitudinal side comprising a plurality of slots (146a-146c), a second coil antenna carried by the circuit board, and a processor carried by the circuit board and coupled to the at least one sensing component, the first elongate patch antenna, and the second coil antenna, the processor configured to communicate the data about the animal to the base station and the mobile device. a circuit board , at least one sensing component carried by the circuit board and configured to collect data about the animal, a first elongate patch antenna carried by the circuit board and comprising a first longitudinal side and a second longitudinal side opposing the first longitudinal side, and a first end and a second end opposing the first end, the first and second ends being between the first and second longitudinal sides, the second longitudinal side comprising a plurality of slots (146a-146c), a second coil antenna carried by the circuit board, and a first longitudinal side and a second longitudinal side opposing the first longitudinal side, and a first end and a second end opposing the first end, the first and second ends being between the first and second longitudinal sides, the second longitudinal side comprising a plurality of slots (146a-146c), a second coil antenna carried by the circuit board, and a processor carried by the circuit board and coupled to the at least one sensing component, the first elongate patch antenna, and the second coil antenna, the processor configured to communicate the data about the animal to the base station and the mobile device.