mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal, comprising: a window ; a display disposed on the underside of the window to output visual information through the window and including an organic light emitting diode; a fingerprint sensor disposed on the underside of the display to sense a fingerprint of a user on the window; and the mobile terminal being characterised in comprising a piezoelectric actuator formed in an annular shape with a hollow portion to receive the fingerprint sensor in the hollow portion and configured to transfer vibration to the window or sense a force applied to the window. a window ; a display disposed on the underside of the window to output visual information through the window and including an organic light emitting diode; a fingerprint sensor disposed on the underside of the display to sense a fingerprint of a user on the window; and the mobile terminal being characterised in comprising a piezoelectric actuator formed in an annular shape with a hollow portion to receive the fingerprint sensor in the hollow portion and configured to transfer vibration to the window or sense a force applied to the window.
A detonator installation which includes control equipment comprising a controller a voltage source , an inductor and a switch which are connected in series with the voltage source, and output terminals and at least one detonator which includes a capacitor and at least one protective diode , connected in series to the output terminals, wherein the controller is operable repeatedly to close the switch thereby to direct current from the voltage source through the inductor which then establishes a magnetic field, and to open the switch so that the magnetic field collapses and generates a current which flows via the output terminals through the capacitor and the diode thereby to charge the capacitor.
A process for forming a plurality of hot melt adhesive pellets comprising the steps of: a) extruding the adhesive through an orifice of a die plate immersed in a cooling fluid, which has a temperature T1; b) cutting the adhesive into a plurality of pellets in the cooling fluid; c) solidifying the pellets in a recrystallization fluid at a temperature T2 for at least 30 minutes; d) separating the pellets from the recrystallization fluid and drying the pellets, wherein the T1 is less than 7.2°C (45°F) and the T2 is higher than T1 by at least 16.7°C (30°F; T2 = T1 + 30°F ≙ T1 + 16.7 °C), wherein the hot melt adhesive comprises an amorphous poly-alpha-olefin polymer, and wherein the obtained pellets have an average percent deformation less than 40%, whereby the percent deformation is (d 0 -d 1 )/d 0 x 100%; d 0 is an initial diameter and d 1 is a diameter measured after applying a weight of 70g for one minute. a) extruding the adhesive through an orifice of a die plate immersed in a cooling fluid, which has a temperature T1; b) cutting the adhesive into a plurality of pellets in the cooling fluid; c) solidifying the pellets in a recrystallization fluid at a temperature T2 for at least 30 minutes; d) separating the pellets from the recrystallization fluid and drying the pellets, wherein the T1 is less than 7.2°C (45°F) and the T2 is higher than T1 by at least 16.7°C (30°F; T2 = T1 + 30°F ≙ T1 + 16.7 °C), wherein the hot melt adhesive comprises an amorphous poly-alpha-olefin polymer, and wherein
A pressure sensor for sensing a pressure, comprising: a first substrate comprising a cavity and a deformable membrane that is configured to be deformed by a pressure acting on the membrane , wherein said membrane separates said cavity from a gap of the pressure sensor (P), wherein said gap communicates with a surrounding (S) of the pressure sensor (P) so that the pressure in said gap corresponds to the pressure in said surrounding (S), a first electrode comprised or formed by said membrane , wherein the first electrode is moveable with the membrane , and a stationary second electrode which faces said first electrode , wherein said gap is arranged between the second electrode and said membrane comprising the first electrode , so that a distance (D) between the first electrode and the second electrode depends on the pressure in said gap , characterized in that the pressure sensor (P) comprises several through holes via which said gap communicates with said surrounding (S) of the pressure sensor (P), wherein said through holes extend through the first substrate , wherein said through holes extend to separate a first portion of the first substrate from a surrounding second portion of the first substrate , and wherein said first portion is connected via suspension elements to the surrounding second portion of the first substrate . a first substrate comprising a cavity and a deformable membrane that is configured to be deformed by a pressure acting on the membrane , wherein said membrane separates said cavity from a gap of the pressure sensor (P), wherein said gap communicates with a surrounding (S) of the pressure sensor (P) so that the pressure in said gap corresponds to the pressure in said surrounding (S), a first electrode comprised or formed by said membrane , wherein the first electrode is moveable with the membrane , and a stationary second electrode which faces said first electrode , wherein said gap is arranged between the second electrode and said membrane comprising the first electrode , so that a distance (D) between the first electrode and the second electrode depends on the pressure in said gap , characterized in that the pressure sensor (P) comprises several through holes via which said gap communicates with said surrounding (S) of the pressure sensor (P), wherein said through holes extend through the first substrate , wherein said through holes extend to separate a first portion of the first substrate from a surrounding second portion of the first substrate , and wherein said first portion is connected via suspension elements to the surrounding second portion of the first substrate .
A winding component attachment structure for fixing a winding component to a case , the winding component being formed by winding a coil around and along an inner peripheral surface and an outer peripheral surface of a ring-shaped core a plurality of times, the attachment structure comprising: the case ; a placing member made of an insulating material and fixed to a fixing surface of the case ; a pressing member made of an insulating material and disposed to abut on an upper surface of the winding component ; a pressing force imparting portion (15, 42, 62, 72a, 73a, 74a, 80-82, 87, 96a, 100) that couples the placing member with the pressing member and imparts a pressing force toward the fixing surface , from the pressing member to the winding component , wherein in the pressing force imparting portion, a distance between the placing member and the pressing member is variable in accordance with a height change of the winding component ; and a cushioning material , provided such that in the state of fixation of the winding component to the case a part of the lower surface of the winding component is placed on the placing member and a residual part of the lower surface of the winding component is placed on the cushioning material , and the winding component is pressed and fixed to a side of the fixing surface , wherein the cushioning material that absorbs a vibration transmitted to the case is sandwiched between the residual part of the lower surface of the winding component and the fixing surface . the case ; a placing member made of an insulating material and fixed to a fixing surface of the case ; a pressing member made of an insulating material and disposed to abut on an upper surface of the winding component ; a pressing force imparting portion (15, 42, 62, 72a, 73a, 74a, 80-82, 87, 96a, 100) that couples the placing member with the pressing member and imparts a pressing force toward the fixing surface , from the pressing member to the winding component , wherein in the pressing force imparting portion, a distance between the placing member and the pressing member is variable in accordance with a height change of the winding component ; and a cushioning material , provided such that in the state of fixation of the winding component to the case a part of the lower surface of the winding component is placed on the placing member and a residual part of the lower surface of the winding component is placed on the cushioning material , and the winding component is pressed and fixed to a side of the fixing surface , wherein the cushioning material that absorbs a vibration transmitted to the case is sandwiched between the residual part of the lower surface of the winding component and the fixing surface .
An industrial automation system comprising: an annotator that is adapted to receive input data derived from raw data including sensed data and/or control data of a controlled machine and to annotate the input data to produce an annotated input data structure , wherein annotating the input data includes adding a context to the input data; and the industrial automation system characterized by : an analytics engine executed by a processor , instantiated upon request and adapted to act upon the annotated input data structure to classify variables of the annotated input data structure into clusters to produce an output data structure based upon the classification, wherein the analytics engine is adapted to automatically identify a subset of the annotated input data, and to apply automated modeling to extract features that capture causal relationships between process variables and to augment the raw data with the extracted features, wherein the extracted features provide additional information for classifying the variables. an annotator that is adapted to receive input data derived from raw data including sensed data and/or control data of a controlled machine and to annotate the input data to produce an annotated input data structure , wherein annotating the input data includes adding a context to the input data; and the industrial automation system characterized by : an analytics engine executed by a processor , instantiated upon request and adapted to act upon the annotated input data structure to classify variables of the annotated input data structure into clusters to produce an output data structure based upon the classification, wherein the analytics engine is adapted to automatically identify a subset of the annotated input data, and to apply automated modeling to extract features that capture causal relationships between process variables and to augment the raw data with the extracted features, wherein the extracted features provide additional information for classifying the variables.
An oligosaccharide from Dendrobium officinale , having a structure represented by formula (I):
Method for operating a magnetic resonance device having at least one component that has an operating limit in relation to a state parameter, for recording magnetic resonance data using a protocol that comprises at least one magnetic resonance sequence, wherein said protocol is described by protocol parameters and a protocol parameter set is provided or determined which, in relation to a protocol section , allows said protocol section to be repeated as often as desired without exceeding the operating limit, wherein the method has the following steps: - receiving a boost parameter from a user interface , said boost parameter being selected by a user and describing an increased utilisation of the power output of the magnetic resonance device while limiting the repeatability of the protocol section , - at least for the protocol section , determining adaptation parameters in a manner which is at least partially automatic, said adaptation parameters comprising at least some of the protocol parameters, on the basis of the boost parameter in such a way that the desired number of repetitions described by the boost parameter is established while complying with the operating limit, by means of a processor , and - recording magnetic resonance data with the protocol , using the determined adaptation parameters, by means of a controller , wherein the determination of the adaptation parameters is effected using a solution strategy that is selectable by a user, wherein the solution strategy describes an objective selected from the group comprising a reduction in the total time for performing the protocol , increasing the magnetic resonance data quality, and maximising or minimising at least one specific protocol parameter. - receiving a boost parameter from a user interface , said boost parameter being selected by a user and describing an increased utilisation of the power output of the magnetic resonance device while limiting the repeatability of the protocol section , - at least for the protocol section , determining adaptation parameters in a manner which is at least partially automatic, said adaptation parameters comprising at least some of the protocol parameters, on the basis of the boost parameter in such a way that the desired number of repetitions described by the boost parameter is established while complying with the operating limit, by means of a processor , and - recording magnetic resonance data with the protocol , using the determined adaptation parameters, by means of a controller , wherein the determination of the adaptation parameters is effected using a solution strategy that is selectable by a user, wherein the solution strategy describes an objective selected from the group comprising a reduction in the total time for performing the protocol , increasing the magnetic resonance data quality, and maximising or minimising at least one specific protocol parameter.
A monitoring device for detecting a disruption of a fluid connection between a first fluid containing system comprising a first pulse generator and a second fluid containing system comprising a second pulse generator (PH), said monitoring device comprising: an input for receiving at least one pressure signal (P) from a set of pressure sensors arranged in the first fluid containing system to detect first pulses originating from the first pulse generator and second pulses originating from the second pulse generator (PH); and a signal processor connected to the input , characterized in that the signal processor is configured to: populate a plurality of signal vectors ( x k ) of identical length such that each of the signal vectors ( x k ) corresponds to a respective signal segment of signal values in the at least one pressure signal ( P ); process the signal vectors ( x k ) by a source separation algorithm so as to compute one or more eigenvectors and/or one or more eigenvalues associated with the signal vectors ( x k ); and detect the disruption based on a monitoring parameter, which is computed as a function of the one or more eigenvectors and/or the one or more eigenvalues to be responsive to the second pulses in the at least one pressure signal ( P ). an input for receiving at least one pressure signal (P) from a set of pressure sensors arranged in the first fluid containing system to detect first pulses originating from the first pulse generator and second pulses originating from the second pulse generator (PH); and a signal processor connected to the input , characterized in that the signal processor is configured to: populate a plurality of signal vectors ( x k ) of identical length such that each of the signal vectors ( x k ) corresponds to a respective signal segment of signal values in the at least one pressure signal ( P ); process the signal vectors ( x k ) by a source separation algorithm so as to compute one or more eigenvectors and/or one or more eigenvalues associated with the signal vectors ( x k ); and detect the disruption based on a monitoring parameter, which is computed as a function of the one or more eigenvectors and/or the one or more eigenvalues to be responsive to the second pulses in the at least one pressure signal ( P ). populate a plurality of signal vectors ( x k ) of identical length such that each of the signal vectors ( x k ) corresponds to a respective signal segment of signal values in the at least one pressure signal ( P ); process the signal vectors ( x k ) by a source separation algorithm so as to compute one or more eigenvectors and/or one or more eigenvalues associated with the signal vectors ( x k ); and detect the disruption based on a monitoring parameter, which is computed as a function of the one or more eigenvectors and/or the one or more eigenvalues to be responsive to the second pulses in the at least one pressure signal ( P ).
A process for the preparation of glycols from a lignocellulosic solid biomass comprising cellulose, hemicellulose and lignin in a reactor system, said process comprising: a) contacting the lignocellulosic solid biomass with an organic solvent comprising a low boiling point alcohol, and a pre-treatment acid, at a temperature ranging from about 80 to about 220°C and a pressure ranging from 1 to 50 bar (absolute) for a time ranging from about 5 minutes to about 2 hours to obtain a first mixture; b) separating the first mixture obtained in step (a) into a pre-treated solid residue comprising cellulose and a liquid stream comprising dissolved lignin and hemicellulose; c) subjecting the pre-treated solid residue to a hydrogenolysis reaction and generating a glycols stream, a lights stream and a heavies stream; d) recycling at least a part of the lights stream to step (a), wherein the lights stream comprises a first portion of the organic solvent; e) separating at least of part of the liquid stream from step b) to produce a second portion of the organic solvent and a solid residue that comprises lignin and hemicellulose; and f) recycling at least a part of the second portion of the organic solvent to step (a); wherein the first mixture has greater than about 20 wt% water; wherein the pre-treatment acid comprises at least one selected from the group consisting of formic acid, acetic acid, propionic acid, butyric acid, glycolic acid, lactic acid, and combinations thereof which is/are at least partially generated in-situ in step (a); and wherein at least a part of the pre-treatment acid is recycled to step (a). a) contacting the lignocellulosic solid biomass with an organic solvent comprising a low boiling point alcohol, and a pre-treatment acid, at a temperature ranging from about 80 to about 220°C and a pressure ranging from 1 to 50 bar (absolute) for a time ranging from about 5 minutes to about 2 hours to obtain a first mixture; b) separating the first mixture obtained in step (a) into a pre-treated solid residue comprising cellulose and a liquid stream comprising dissolved lignin and hemicellulose; c) subjecting the pre-treated solid residue to a hydrogenolysis reaction and generating a glycols stream, a lights stream and a heavies stream; d) recycling at least a part of the lights stream to step (a), wherein the lights stream comprises a first portion of the organic solvent; e) separating at least of part of the liquid stream from step b) to produce a second portion of the organic solvent and a solid residue that comprises lignin and hemicellulose; and f) recycling at least a part of the second portion of the organic solvent to step (a); wherein the first mixture has greater than about 20 wt% water; wherein the pre-treatment acid comprises at least one selected from the group consisting of formic acid, acetic acid, propionic acid, butyric acid, glycolic acid, lactic acid, and combinations thereof which is/are at least partially generated in-situ in step (a); and wherein at least a part of the pre-treatment acid is recycled to step (a).
An aqueous pharmaceutical formulation comprising: - an anti-RANKL antibody at a concentration in a range of 100 to 140 mg/mL; and - 5 mM to 180 mM L-phenylalanine or L-tryptophan; wherein the aqueous pharmaceutical formulation has a pH in a range of 5.0 to 5.4; and wherein the anti-RANKL antibody comprises a heavy chain comprising SEQ ID NO: 14 and a light chain comprising SEQ ID NO: 13. - an anti-RANKL antibody at a concentration in a range of 100 to 140 mg/mL; and - 5 mM to 180 mM L-phenylalanine or L-tryptophan; wherein the aqueous pharmaceutical formulation has a pH in a range of 5.0 to 5.4; and wherein the anti-RANKL antibody comprises a heavy chain comprising SEQ ID NO: 14 and a light chain comprising SEQ ID NO: 13.
A pharmaceutical composition comprising a lyophilized saccharide-degrading enzyme having a titer of not less than 0.3 unit/ug as an active ingredient, and the pharmaceutical composition being a unit dose formulation in which an amount of the saccharide-degrading enzyme is not less than 2.5 μg and not more than 5 μg, wherein the saccharide-degrading enzyme is chondroitinase ABC. the pharmaceutical composition being a unit dose formulation in which an amount of the saccharide-degrading enzyme is not less than 2.5 μg and not more than 5 μg, wherein the saccharide-degrading enzyme is chondroitinase ABC.
A method for wireless communications by a user equipment, UE, comprising: obtaining quasi-colocation, QCL, information indicating QCL assumptions for one or more types of reference signals, RS, and channels associated with different cell identifications, IDs, including at least one non-serving cell ID, wherein the different cell IDs are associated with multiple cells operating in a same frequency bandwidth; measuring the one or more types of RS; and processing one or more of the channels, based on the RS measurements and the QCL information, wherein the QCL information is indicated via transmission configuration information, TCI, state. obtaining quasi-colocation, QCL, information indicating QCL assumptions for one or more types of reference signals, RS, and channels associated with different cell identifications, IDs, including at least one non-serving cell ID, wherein the different cell IDs are associated with multiple cells operating in a same frequency bandwidth; measuring the one or more types of RS; and processing one or more of the channels, based on the RS measurements and the QCL information, wherein the QCL information is indicated via transmission configuration information, TCI, state.