mhurhangee/patent-ind-claim-en huggingface dataset:
A triazine precondensate according to the general formula (Ia) wherein - R 1 means Q 1 or a moiety of the formula R 3 -N-R 4 connected with the nitrogen atom to the triazine ring of the structure of formula (I), - R 9 means Q 1 or a moiety of the formula R 7 -N-R 8 connected with the nitrogen atom to the triazine ring of the structure of formula (I), - R 2 , R 3 , R 4 and R 6 mean independently from each other H, or - R 7 and R 8 mean independently from each other H, or wherein at least one of R 2 , R 3 , R 4 , R 6 , R 7 and R 8 are a C 1 -C 6 alkyl comprising in one or more cases at least one OH substituent; - R 10 and R 11 mean independently from each other R 7 or R 8 ; - R 5 means linear or branched C 2 -C 20 -alkyl that can be interrupted by one or more oxygen atoms, sulphur atoms, substituted and non-substituted nitrogen atoms - R x , R y mean independently from each other H, OH, Q 1 , -[C 1 -C 18 ]-OH or wherein - Q 1 means linear or branched C 1 -C 12 -alkyl, linear or branched C 2 -C 12 -alkenyl, C 3 -C 7 -cycloalkyl, C 6 -C 12 aryl; and wherein - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5; or mixtures thereof. - R 1 means Q 1 or a moiety of the formula R 3 -N-R 4 connected with the nitrogen atom to the triazine ring of the structure of formula (I), - R 9 means Q 1 or a moiety of the formula R 7 -N-R 8 connected with the nitrogen atom to the triazine ring of the structure of formula (I), - R 2 , R 3 , R 4 and R 6 mean independently from each other H, or - R 7 and R 8 mean independently from each other H, or wherein at least one of R 2 , R 3 , R 4 , R 6 , R 7 and R 8 are a C 1 -C 6 alkyl comprising in one or more cases at least one OH substituent; - R 10 and R 11 mean independently from each other R 7 or R 8 ; - R 5 means linear or branched C 2 -C 20 -alkyl that can be interrupted by one or more oxygen atoms, sulphur atoms, substituted and non-substituted nitrogen atoms - R x , R y mean independently from each other H, OH, Q 1 , -[C 1 -C 18 ]-OH or wherein - Q 1 means linear or branched C 1 -C 12 -alkyl, linear or branched C 2 -C 12 -alkenyl, C 3 -C 7 -cycloalkyl, C 6 -C 12 aryl; and wherein - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5; - Q 1 means linear or branched C 1 -C 12 -alkyl, linear or branched C 2 -C 12 -alkenyl, C 3 -C 7 -cycloalkyl, C 6 -C 12 aryl; and wherein - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5; - n = 0-10, preferably 1-8, most preferably 1 - 5; - m = 0-8, preferably 1-7, most preferably 1 - 5;
A catheter , comprising: a core wire at least partially disposed within a lumen of an elongate body including a proximal terminus and a distal terminus of the core wire; a sonic connector at the proximal terminus of the core wire configured to couple to an ultrasound-producing mechanism ; and a tip member (168, 268A-F) at the distal terminus of the core wire , wherein: the tip member is welded to the core wire at one or more weld locations between the tip member and the core wire, and the tip member (168, 268A-F) flares from the core wire at one or more weld-free locations between the tip member (168, 268A-F) and the core wire , and wherein the manner in which the tip member (168, 268A-F) flares from the core wire at the one or more weld-free locations is characteristic of ultrasonic activation of the tip member (168, 268A-F). a core wire at least partially disposed within a lumen of an elongate body including a proximal terminus and a distal terminus of the core wire; a sonic connector at the proximal terminus of the core wire configured to couple to an ultrasound-producing mechanism ; and a tip member (168, 268A-F) at the distal terminus of the core wire , wherein: the tip member is welded to the core wire at one or more weld locations between the tip member and the core wire, and the tip member (168, 268A-F) flares from the core wire at one or more weld-free locations between the tip member (168, 268A-F) and the core wire , and the tip member is welded to the core wire at one or more weld locations between the tip member and the core wire, and the tip member (168, 268A-F) flares from the core wire at one or more weld-free locations between the tip member (168, 268A-F) and the core wire , and wherein the manner in which the tip member (168, 268A-F) flares from the core wire at the one or more weld-free locations is characteristic of ultrasonic activation of the tip member (168, 268A-F).
An electric power tool comprising: a brushless motor ; a control unit configured to control power supply to the brushless motor ; a rotary tool configured to be rotated by the brushless motor ; a rotation speed detecting unit configured to detect a rotation speed of the brushless motor ; and a main switch configured to transmit, to the control unit , an ON/OFF signal for switching between driving and stopping of the brushless motor , wherein in a state where constant-speed control is performed on the brushless motor with a duty ratio smaller than 100%, when a load equal to or larger than a first predetermined value is detected, the control unit is configured to perform switching from the constant-speed control to predetermined duty ratio control which is independent from the rotation speed of the brushless motor , wherein detection of the load equal to or larger than the first predetermined value is performed based on predetermined one or combination of a current, a voltage, and a duty ratio, and wherein the predetermined duty ratio control is control for gradually increasing the duty ratio to a predetermined duty ratio, wherein this predetermined duty ratio control increases the rotation speed of the brushless motor, and then driving the brushless motor with the predetermined duty ratio. a brushless motor ; a control unit configured to control power supply to the brushless motor ; a rotary tool configured to be rotated by the brushless motor ; a rotation speed detecting unit configured to detect a rotation speed of the brushless motor ; and a main switch configured to transmit, to the control unit , an ON/OFF signal for switching between driving and stopping of the brushless motor , wherein in a state where constant-speed control is performed on the brushless motor with a duty ratio smaller than 100%, when a load equal to or larger than a first predetermined value is detected, the control unit is configured to perform switching from the constant-speed control to predetermined duty ratio control which is independent from the rotation speed of the brushless motor , wherein detection of the load equal to or larger than the first predetermined value is performed based on predetermined one or combination of a current, a voltage, and a duty ratio, and wherein the predetermined duty ratio control is control for gradually increasing the duty ratio to a predetermined duty ratio, wherein this predetermined duty ratio control increases the rotation speed of the brushless motor, and then driving the brushless motor with the predetermined duty ratio.
A method for providing real-time tire pressure information, the method comprising: collecting input values from one or more sensors , the values corresponding to each of a contained tire air temperature , a contained tire inflation pressure , and an ambient temperature associated with a tire mounted on a vehicle ; determining an effective tire inflation pressure based on the generated signals and further at least on a calculated moving average of the ambient temperature ; and generating real-time notifications associated with the determined effective tire inflation pressure to a specified user interface via a communications network , characterized by providing, for at least one of the one or more sensors, a tire inflation pressure sensor configured to generate event-based signals corresponding to detected changes per unit pressure . collecting input values from one or more sensors , the values corresponding to each of a contained tire air temperature , a contained tire inflation pressure , and an ambient temperature associated with a tire mounted on a vehicle ; determining an effective tire inflation pressure based on the generated signals and further at least on a calculated moving average of the ambient temperature ; and generating real-time notifications associated with the determined effective tire inflation pressure to a specified user interface via a communications network , characterized by providing, for at least one of the one or more sensors, a tire inflation pressure sensor configured to generate event-based signals corresponding to detected changes per unit pressure .
A method for reading an array of detectors, the detectors being either kinetic inductance detectors (KIDs) or transition edge sensors (TESs), each detector having a particular characteristic readout RF/MW frequency, comprising generating an RF/MW excitation signal; switching the frequency of the excitation signal in time between the characteristic frequencies of the detectors of the detector array; supplying the excitation signal to the detector array, wherein the number of detectors corresponds to the number of frequencies of the excitation signal; demodulating the signal at the output of the detector array and obtaining time-multiplexed base band signal; performing analogue to digital conversion to the time-multiplexed base band signal; and demultiplexing the base band signal to obtain a set of detector signals. generating an RF/MW excitation signal; switching the frequency of the excitation signal in time between the characteristic frequencies of the detectors of the detector array; supplying the excitation signal to the detector array, wherein the number of detectors corresponds to the number of frequencies of the excitation signal; demodulating the signal at the output of the detector array and obtaining time-multiplexed base band signal; performing analogue to digital conversion to the time-multiplexed base band signal; and demultiplexing the base band signal to obtain a set of detector signals.
A fluid shut-off device , comprising a testing device for leak testing, which comprises a movable and pressurisable, electrically insulating shut-off element and a connecting device on each of the two sides of the shut-off element, - wherein the testing device comprises a first testing electrode , a second testing electrode , and a measuring device in electrically conductive connection with the first testing electrode and with the second testing electrode , - wherein the measuring device is configured to measure the electrical resistance or the current flow between the first test electrode and the second test electrode , - wherein a first connecting element and a second connecting element are provided, wherein the first connecting element and the second connecting element are configured for connecting to the fluid shut-off device , in particular to the connecting devices of the fluid shut-off device , - wherein the first testing electrode is arranged at the first connecting element , - wherein the second test electrode is arranged on the second connecting element , and - wherein the first connecting element and/or the second connecting element have a fluid opening , characterised in that the first connecting element and/or the second connecting element additionally comprises an auxiliary electrode assembly , wherein the auxiliary electrode assembly comprises a first auxiliary electrode , a second auxiliary electrode and a test fluid chamber , wherein an electrical resistance between the first auxiliary electrode and the second auxiliary electrode is measurable, and wherein the first auxiliary electrode and the second auxiliary electrode are not separated from each other by a shut-off element . - wherein the testing device comprises a first testing electrode , a second testing electrode , and a measuring device in electrically conductive connection with the first testing electrode and with the second testing electrode , - wherein the measuring device is configured to measure the electrical resistance or the current flow between the first test electrode and the second test electrode , - wherein a first connecting element and a second connecting element are provided, wherein the first connecting element and the second connecting element are configured for connecting to the fluid shut-off device , in particular to the connecting devices of the fluid shut-off device , - wherein the first testing electrode is arranged at the first connecting element , - wherein the second test electrode is arranged on the second connecting element , and - wherein the first connecting element and/or the second connecting element have a fluid opening ,
An information processing method for use in a communication device, comprising: obtaining (S110) a side-link control information, SCI, wherein the SCI comprises a first bit sequence; distinguishing, in the first bit sequence, based on an information format of the SCI, a reserved field and an information field other than the reserved field, which are predefined, wherein the reserved field carries control information, setting (S120) a bit in the reserved field of the first bit sequence to be a preset value to generate a second bit sequence; and obtaining (S130) a check sequence based on the second bit sequence. obtaining (S110) a side-link control information, SCI, wherein the SCI comprises a first bit sequence; distinguishing, in the first bit sequence, based on an information format of the SCI, a reserved field and an information field other than the reserved field, which are predefined, wherein the reserved field carries control information, setting (S120) a bit in the reserved field of the first bit sequence to be a preset value to generate a second bit sequence; and obtaining (S130) a check sequence based on the second bit sequence.
Computer-implemented method to train a neural network , wherein the network is being trained for later processing a multi-variate measurement time-series with measurement data that represent instances of particular process parameters of an industrial machine and thereby to provide a parameter indicator (Z') of a further process parameter (173, z) for the industrial machine , the method comprising: receiving a first multi-variate measurement time-series with historical measurement data from a first reference machine and a second multi-variate measurement time-series with historical measurement data from a physically different second reference machine ; obtaining a set of transformation rules (251/252) by processing the first and second multi-variate measurement time-series, such that the transformation rules (251/252) enable a transformer module (311/321) to transform the first and second multi-variate measurement time-series into first and second multi-variate feature time-series , respectively, with the multi-variate feature time-series being invariant to domain differences of the first and second reference machines ; transforming the first multi-variate measurement time-series to a first multi-variate feature time-series by the transformer module that applies the transformation rules (251/252); receiving a uni-variate measurement time-series with measurement data (Z) of the further process parameter (173, z), from the first reference machine ; and training the neural network with the first multi-variate feature time-series at the input, and with the uni-variate measurement time-series at the output. receiving a first multi-variate measurement time-series with historical measurement data from a first reference machine and a second multi-variate measurement time-series with historical measurement data from a physically different second reference machine ; obtaining a set of transformation rules (251/252) by processing the first and second multi-variate measurement time-series, such that the transformation rules (251/252) enable a transformer module (311/321) to transform the first and second multi-variate measurement time-series into first and second multi-variate feature time-series , respectively, with the multi-variate feature time-series being invariant to domain differences of the first and second reference machines ; transforming the first multi-variate measurement time-series to a first multi-variate feature time-series by the transformer module that applies the transformation rules (251/252); receiving a uni-variate measurement time-series with measurement data (Z) of the further process parameter (173, z), from the first reference machine ; and training the neural network with the first multi-variate feature time-series at the input, and with the uni-variate measurement time-series at the output.
A substrate wherein at least a portion of the substrate is coated with a continuous layer of a coating composition, wherein the coating composition comprises A) water insoluble α-(1,3→glucan) polymer having 90% or greater α-1,3-glycosidic linkages, less than 10% linkages that are not α-1,3-glycosidic linkages, less than 1 % by weight of alpha-1,3,6 glycosidic branch points, and a number average degree of polymerization in the range of from 55 to 10,000 and optionally B) dextran comprising: (i) 87-93% α-1,6 glycosidic linkages; (ii) 0.1-1.2% α-1,3-glycosidic linkages; (iii) 0.1-0.7% α-1,4-glycosidic linkages; (iv) 7.7-8.6% α-1,3,6-glycosidic linkages; and (v) 0.4-1.7% α-1,2,6-glycosidic or α-1,4,6-glycosidic linkages; wherein the weight-average molecular weight (Mw) of the dextran is about 50-200 million Daltons, the z-average radius of gyration of the dextran is about 200-280 nm. (i) 87-93% α-1,6 glycosidic linkages; (ii) 0.1-1.2% α-1,3-glycosidic linkages; (iii) 0.1-0.7% α-1,4-glycosidic linkages; (iv) 7.7-8.6% α-1,3,6-glycosidic linkages; and (v) 0.4-1.7% α-1,2,6-glycosidic or α-1,4,6-glycosidic linkages;
A method of driving an inkjet head having a nozzle that discharges ink and a pressure generator that, in response to application of drive signals (A, B), provides pressure changes for ink in a pressure chamber that communicates with the nozzle to cause the ink to be discharged from the nozzle , a plurality of droplets of the ink discharged from the nozzle in response to application of a series of the drive signals (A, B) being caused to hit a recording medium (M) to form a single pixel, the method comprising: applying the series of the drive signals (A, B) to the pressure generator , the series of the drive signals (A, B) including a first one (A) of the drive signals that has a first voltage amplitude and a second one (B) of the drive signals that has a second voltage amplitude larger than the first voltage amplitude, wherein a last drive signal in the series of the drive signals (A, B) is the second one (B) of the drive signals, characterized in that the first voltage amplitude and the second voltage amplitude are determined such that a ratio Va/Vb has a value corresponding to a specific gravity of the ink to be discharged from the nozzle , where Va indicates the first voltage amplitude, and Vb indicates the second voltage amplitude, and the first voltage amplitude and the second voltage amplitude are determined so as to satisfy 0.75 < Va/Vb < 0.86 in a case where the specific gravity of the ink to be discharged from the nozzle is more than or equal to 1.0 g/cm 3 and less than or equal to 1.9 g/cm 3 . applying the series of the drive signals (A, B) to the pressure generator , the series of the drive signals (A, B) including a first one (A) of the drive signals that has a first voltage amplitude and a second one (B) of the drive signals that has a second voltage amplitude larger than the first voltage amplitude, wherein a last drive signal in the series of the drive signals (A, B) is the second one (B) of the drive signals, characterized in that the first voltage amplitude and the second voltage amplitude are determined such that a ratio Va/Vb has a value corresponding to a specific gravity of the ink to be discharged from the nozzle , where Va indicates the first voltage amplitude, and Vb indicates the second voltage amplitude, and the first voltage amplitude and the second voltage amplitude are determined so as to satisfy 0.75 < Va/Vb < 0.86 in a case where the specific gravity of the ink to be discharged from the nozzle is more than or equal to 1.0 g/cm 3 and less than or equal to 1.9 g/cm 3 .
A fixing member for electrophotography, comprising: a substrate; and a release layer as a surface layer, wherein the release layer includes: a first fluororesin and a second fluororesin, the first fluororesin being perfluoropolyether (PFPE), the second fluororesin being at least one selected from a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer (PFA) and a tetrafluoroethylene-hexafluoropropylene copolymer (FEP), and a longitudinal relaxation time of PFPE in a form of a simple substance derived from a 19 F-NMR measured at a temperature of 200°C is defined as T1-1, and a longitudinal relaxation time of PFPE contained in the release layer derived from a 19 F-NMR of the release layer measured at a temperature of 200°C is defined as T1-2, T1-1, and T1-2 satisfy a relationship represented by Equation below: T 1 − 1 − T 1 − 2 / T 1 − 1 ≥ 0.1 . a substrate; and a release layer as a surface layer, wherein the release layer includes: a first fluororesin and a second fluororesin, the first fluororesin being perfluoropolyether (PFPE), the second fluororesin being at least one selected from a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer (PFA) and a tetrafluoroethylene-hexafluoropropylene copolymer (FEP), and a longitudinal relaxation time of PFPE in a form of a simple substance derived from a 19 F-NMR measured at a temperature of 200°C is defined as T1-1, and a longitudinal relaxation time of PFPE contained in the release layer derived from a 19 F-NMR of the release layer measured at a temperature of 200°C is defined as T1-2, a first fluororesin and a second fluororesin, the first fluororesin being perfluoropolyether (PFPE), the second fluororesin being at least one selected from a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer (PFA) and a tetrafluoroethylene-hexafluoropropylene copolymer (FEP), and a longitudinal relaxation time of PFPE in a form of a simple substance derived from a 19 F-NMR measured at a temperature of 200°C is defined as T1-1, and a longitudinal relaxation time of PFPE contained in the release layer derived from a 19 F-NMR of the release layer measured at a temperature of 200°C is defined as T1-2, T1-1, and T1-2 satisfy a relationship represented by Equation below: T 1 − 1 − T 1 − 2 / T 1 − 1 ≥ 0.1 .
A conjugate according to Formula I comprising (a) an amatoxin; (b) a BCMA-binding moiety comprising (i) the variable domains of the heavy chain according to SEQ ID NO: 1 and the light chain according to SEQ ID NO: 2 of antibody J22.9-ISY, and (ii) a heavy chain constant region comprising a D265C mutation; and (c) a protease-cleavable linker, wherein said BCMA-binding moiety is attached to said linker via the thiol group of the cysteine residue at position 265 in the antibody heavy chain; wherein said amatoxin is characterized by comprising (i) an amino acid 4 with a 6'-deoxy position; and (ii) an amino acid 8 with an S-deoxy position.