mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic module comprising at least one circuit board, possibly fitted with components on both sides, of a first type (referred to as "circuit board A"), which is fitted with at least one circuit board of a second type (referred to as "circuit board B") in an overlapping manner, wherein the circuit board B is fitted with at least one electronic component with specific requirements and the interconnected circuit boards A and B form a tiered circuit board combination , wherein the tiered circuit board combination is delimited at least in some areas by end portions which are formed by sections of the at least one circuit board A, and the tiered circuit board combination is mounted on a heat sink , wherein a mounting side of the at least one circuit board B rests flat on a support surface of the heat sink , characterized in that the support surface of the heat sink is dimensioned and positioned in such a way that it at least partially extends laterally beyond the mounting side of the at least one circuit board B in the respective directions of the end portions formed by the sections of at least one circuit board A, and that support elements are designed on the support surface of the heat sink for mechanically supporting the end portions formed by the sections of the at least one circuit board A.
A method for the preparation and/or purification of a salt composition comprising at least two different borate anions, the method comprising the steps: (a) providing at least two different borate anions, optionally in a predetermined molar ratio, (b) dissolving or mixing and dissolving the anions in isopropanol; (c) drying the solution of step (b) to obtain a solid salt composition comprising the at least two different borate anions, optionally in the predetermined molar ratio, wherein the at least two different borate anions are selected from the group consisting of: (i) B n H n 2- , wherein n is an integer from 4 to 12, optionally 10 or 12; (ii) B n H n+3 - , wherein n is an integer from 1 to 11, optionally BH 4 - and B 11 H 14 - ; (iii) B n H n+5 - , wherein n is an integer from 3 to 10, optionally B 3 H 8 - ; (iv) B n H (n-y) X y 2- , wherein X is selected from F, CI, Br and I, n is an integer from 4 to 12, and y is an integer from 1 to n ; (v) CB n H n+1 - , wherein n is an integer from 3 to 11, optionally 9 or 11; and (vi) SnB n H n+1 - , wherein n is an integer from 3 to 11, optionally 9 or 11. (a) providing at least two different borate anions, optionally in a predetermined molar ratio, (b) dissolving or mixing and dissolving the anions in isopropanol; (c) drying the solution of step (b) to obtain a solid salt composition comprising the at least two different borate anions, optionally in the predetermined molar ratio, (i) B n H n 2- , wherein n is an integer from 4 to 12, optionally 10 or 12; (ii) B n H n+3 - , wherein n is an integer from 1 to 11, optionally BH 4 - and B 11 H 14 - ; (iii) B n H n+5 - , wherein n is an integer from 3 to 10, optionally B 3 H 8 - ; (iv) B n H (n-y) X y 2- , wherein X is selected from F, CI, Br and I, n is an integer from 4 to 12, and y is an integer from 1 to n ; (v) CB n H n+1 - , wherein n is an integer from 3 to 11, optionally 9 or 11; and (vi) SnB n H n+1 - , wherein n is an integer from 3 to 11, optionally 9 or 11.
An expression vector for mammalian cells comprising the following (a), (b) and (c): (a) a translation-impaired dihydrofolate reductase gene cassette (translation-impaired DHFR gene cassette) comprising a region with altered codons, wherein the altered codons comprise GCA for alanine, CGA for arginine, AAU for asparagine, GAU for aspartic acid, UGU for cysteine, CAA for glutamine, GAA for glutamic acid, GGU for glycine, CAU for histidine, UUA for leucine, AAA for lysine, CCA for proline, UUU for phenylalanine, UCA for serine, ACU for threonine, UAU for tyrosine, and/or GUA for valine, and wherein the region with altered codons accounts for 30% or more of the full length of the DHFR gene from the 5' end of the DHFR gene; (b) a gene cassette comprising a cloning site for integration of a foreign gene between a transcriptionally active promoter and a stable polyadenylation signal; and (c) ubiquitously acting chromatin opening elements (UCOEs) introduced in such positions that the gene cassette of (b) is sandwiched therebetween, wherein the UCOEs comprise the nucleotide sequence as shown in SEQ ID NO: 1. (a) a translation-impaired dihydrofolate reductase gene cassette (translation-impaired DHFR gene cassette) comprising a region with altered codons, wherein the altered codons comprise GCA for alanine, CGA for arginine, AAU for asparagine, GAU for aspartic acid, UGU for cysteine, CAA for glutamine, GAA for glutamic acid, GGU for glycine, CAU for histidine, UUA for leucine, AAA for lysine, CCA for proline, UUU for phenylalanine, UCA for serine, ACU for threonine, UAU for tyrosine, and/or GUA for valine, and wherein the region with altered codons accounts for 30% or more of the full length of the DHFR gene from the 5' end of the DHFR gene; (b) a gene cassette comprising a cloning site for integration of a foreign gene between a transcriptionally active promoter and a stable polyadenylation signal; and (c) ubiquitously acting chromatin opening elements (UCOEs) introduced in such positions that the gene cassette of (b) is sandwiched therebetween, wherein the UCOEs comprise the nucleotide sequence as shown in SEQ ID NO: 1.
A separation/detection column that has columnar or tubular first and second stationary phases having liquid permeability, with ends of the first and second stationary phases being connected to each other so that liquid permeates freely, and a moving phase can be permeated in the axis direction of the first and second stationary phases, wherein the first stationary phase has a separation ability to separate a component in a sample, and optical responsivity to an ultraviolet ray or a coloring reagent, which is the same as the optical responsivity of this component, and the second stationary phase has an optical responsivity which is different from that of the first stationary phase, and wherein the first stationary phase contains a separating agent for optical isomers, and the second stationary phase does not contain a separating agent for optical isomers, and wherein the separating agent for optical isomers is a polysaccharide derivative constituted by polysaccharide and one of an aromatic ester group, an aromatic carbamoyl group and an aromatic ether group, which is partially or totally replaced with a hydroxyl group or an amino group of the polysaccharide, characterized in that each of the first and second stationary phases is formed of a packed layer formed by a particulate filler in a column tube , or is formed as a columnar body having liquid permeability. the first stationary phase has a separation ability to separate a component in a sample, and optical responsivity to an ultraviolet ray or a coloring reagent, which is the same as the optical responsivity of this component, and the second stationary phase has an optical responsivity which is different from that of the first stationary phase, and wherein the first stationary phase contains a separating agent for optical isomers, and the second stationary phase does not contain a separating agent for optical isomers, and wherein the separating agent for optical isomers is a polysaccharide derivative constituted by polysaccharide and one of an aromatic ester group, an aromatic carbamoyl group and an aromatic ether group, which is partially or totally replaced with a hydroxyl group or an amino group of the polysaccharide, characterized in that each of the first and second stationary phases is formed of a packed layer formed by a particulate filler in a column tube , or is formed as a columnar body having liquid permeability.
A device for connecting a first bundle of conductors randomly connected to a second bundle of identified conductors, comprising a casing which is connected between the first and the second bundles , characterised in that it includes means for identifying the conductors of the first bundle from features of the signals which they convey and means for communicating the identified conductors with corresponding conductors of the second bundle, and wherein the means for identifying the conductors include means for memorising the signals and means for comparing the memorised signals with identification signals stored in memory and corresponding to predetermined functions.
Method for encoding audio signals with: receiving an input audio signal; dividing the input audio signal into at least a low frequency band and a high frequency band; dividing the high frequency band into at least two high frequency sub-band signals; determining a similarity measure between low frequency band signal sections and the high frequency sub-band signals by comparing low frequency signal samples with high frequency sub-bands of the received input audio signal; coding low frequency signal samples of the low frequency signal band ; generating parameters that refer at least to the low frequency band signal sections having the highest similarity measure with respect to the high-frequency sub-band signals, for transposing the low frequency band signal sections to a high frequency to reconstruct the high frequency sub-bands; dividing the input audio signal into temporally successive frames; detecting tonal sections within two successive frames within the input audio signal, and, if tonal sections are detected, adding sinusoids to the high frequency region; and creating a bitstream with the coded low frequency signal samples, the parameters and, if tonal sections are detected, positions and amplitudes of the sinusoids. receiving an input audio signal; dividing the input audio signal into at least a low frequency band and a high frequency band; dividing the high frequency band into at least two high frequency sub-band signals; determining a similarity measure between low frequency band signal sections and the high frequency sub-band signals by comparing low frequency signal samples with high frequency sub-bands of the received input audio signal; coding low frequency signal samples of the low frequency signal band ; generating parameters that refer at least to the low frequency band signal sections having the highest similarity measure with respect to the high-frequency sub-band signals, for transposing the low frequency band signal sections to a high frequency to reconstruct the high frequency sub-bands; dividing the input audio signal into temporally successive frames; detecting tonal sections within two successive frames within the input audio signal, and, if tonal sections are detected, adding sinusoids to the high frequency region; and creating a bitstream with the coded low frequency signal samples, the parameters and, if tonal sections are detected, positions and amplitudes of the sinusoids.
A predicting device configured to predict an activity of a target compound based on a structure of the target compound, the predicting device comprising: a generating unit configured to generate a plurality of images of a three-dimensional structural model of the target compound relatively from all directions; and a predicting unit configured to predict the activity of the target compound from the plurality of images generated by the generating unit from said directions, using a learning model , wherein the predicting unit is configured to use said learning model that performs at least machine learning and to receive the plurality of images from said directions as an input, wherein the learning model is configured to use deep learning, said deep learning using a convolutional neural network, and prediction information on the activity of the target compound being output by the learning model, and wherein a learning unit is configured to cause, using said deep learning, the learning model to learn correspondence between captured images of a reference compound and an activity of the reference compound input via an input unit . a generating unit configured to generate a plurality of images of a three-dimensional structural model of the target compound relatively from all directions; and a predicting unit configured to predict the activity of the target compound from the plurality of images generated by the generating unit from said directions, using a learning model , wherein the predicting unit is configured to use said learning model that performs at least machine learning and to receive the plurality of images from said directions as an input, wherein the learning model is configured to use deep learning, said deep learning using a convolutional neural network, and prediction information on the activity of the target compound being output by the learning model, and wherein a learning unit is configured to cause, using said deep learning, the learning model to learn correspondence between captured images of a reference compound and an activity of the reference compound input via an input unit .
A method performed by a User Equipment, UE, for handling a Radio Link Failure, RLF, on a first group of cells in a wireless communication network , which UE is engaged in an ongoing communication with the wireless communication network via a first group of cells and a second group of cells , wherein duplication of packets is applicable to the ongoing communication at either dual connectivity, DC, level or carrier aggregation, CA, level in New Radio, NR, the method comprising: detecting that an RLF is on one or more out of the first group of cells , upon detection of the RLF, sending a report to a network node in the wireless communication network via one or more out of the second group of cells while continuing the communication with the wireless communication network , via one or more out of the second group of cells , which report comprises radio link information about the RLF on one or more out of the first group of cells , wherein the first group of cells comprises one or more Primary cells, PCells, and the second group of cells comprises one or more Secondary cells, SCells, and wherein the report indicates to a second network node to handle the RLF on one or more out of the first group of cells while continuing the communication with the wireless communication network . detecting that an RLF is on one or more out of the first group of cells , upon detection of the RLF, sending a report to a network node in the wireless communication network via one or more out of the second group of cells while continuing the communication with the wireless communication network , via one or more out of the second group of cells , which report comprises radio link information about the RLF on one or more out of the first group of cells , wherein the first group of cells comprises one or more Primary cells, PCells, and the second group of cells comprises one or more Secondary cells, SCells, and wherein the report indicates to a second network node to handle the RLF on one or more out of the first group of cells while continuing the communication with the wireless communication network .
Use of a modified microorganism of the genus Saccharomyces for producing lactic acid, wherein the microorganism is modified to have inactivated activity of pyruvate decarboxylase (PDC) compared to its endogenous activity, to introduce the activity of ATP-citrate lyase (ACL), and to enhance pyruvate biosynthetic pathway compared to its endogenous biosynthetic pathway, wherein the enhancement of pyruvate biosynthetic pathway is achieved by enhancing the activity of phosphoenolpyruvate carboxykinase 1 (PCK1), pyruvate kinase 2 (PYK2), malate dehydrogenase 2 (MDH2), cytosolic malic enzyme 1 (cytosolic MAE1) or the combination thereof.
A method for a wireless OFDM transmitter configured for transmission of a first set of Orthogonal frequency-division multiplexing, OFDM, symbols using a first plurality of subcarriers having a first subcarrier frequency spacing defining a first symbol duration, the method comprising transmitting , using the first plurality of subcarriers, a first set of OFDM symbols , each of the first set of OFDM symbols including a first Cyclic Prefix, CP, and having a first symbol duration; transmitting a second set of OFDM symbols , each of the second set of OFDM symbols including a second CP and having a second symbol duration smaller than the first symbol duration; characterized in that the second set of OFDM symbols is transmitted using the first plurality of subcarriers during one first symbol duration ; the first set of OFDM symbols comprises data associated with a first OFDM communication protocol and the second set of OFDM symbols comprises control data associated with a second OFDM communication protocol different from the first OFDM communication protocol; the control data being indicative of one of a transmission length, transmission time, transmission type and a channel reservation time associated with at least one of the first and second set of OFDM symbols.
A wing tip device for an aircraft wing , comprising: an upper winglet configured to extend upwardly from the aircraft wing ; and a lower element extending downwardly from the upper winglet , and configured to form a closed loop below the aircraft wing , the closed loop having a hollow interior wherein the lower element comprises a lower loop mounted to a wing lower surface . an upper winglet configured to extend upwardly from the aircraft wing ; and a lower element extending downwardly from the upper winglet , and configured to form a closed loop below the aircraft wing , the closed loop having a hollow interior wherein the lower element comprises a lower loop mounted to a wing lower surface .
A system for identifying a capacitor error of an accelerometer , comprising: a first proof mass suspended to move along a sense axis in response to a linear acceleration along the sense axis; a second proof mass suspended to move along the sense axis in response to a linear acceleration along the sense axis; a first sense electrode (218a; 220a) located adjacent to the first proof mass , wherein the first sense electrode and the first proof mass comprise a first capacitor ; a second sense electrode (218b; 220b) located adjacent to the second proof mass , wherein the second sense electrode and the second proof mass comprise a second capacitor ; processing circuitry coupled to the first proof mass , the second proof mass , the first sense electrode, and the second sense electrode to apply a first sense drive signal having a sense drive frequency to the first capacitor and a second sense drive signal having the sense drive frequency to the second capacitor , to receive a capacitance signal from each of the first and second capacitors , to identify a common mode signal for the capacitance signals, and to identify the capacitor error based on the common mode signal, wherein the first sense drive signal and the second sense drive signal are differential signals. a first proof mass suspended to move along a sense axis in response to a linear acceleration along the sense axis; a second proof mass suspended to move along the sense axis in response to a linear acceleration along the sense axis; a first sense electrode (218a; 220a) located adjacent to the first proof mass , wherein the first sense electrode and the first proof mass comprise a first capacitor ; a second sense electrode (218b; 220b) located adjacent to the second proof mass , wherein the second sense electrode and the second proof mass comprise a second capacitor ; processing circuitry coupled to the first proof mass , the second proof mass , the first sense electrode, and the second sense electrode to apply a first sense drive signal having a sense drive frequency to the first capacitor and a second sense drive signal having the sense drive frequency to the second capacitor , to receive a capacitance signal from each of the first and second capacitors , to identify a common mode signal for the capacitance signals, and to identify the capacitor error based on the common mode signal, wherein the first sense drive signal and the second sense drive signal are differential signals.
Fluid supply and circulation system with a storage unit for storing and/or treating a fluid with an adjustable property, with at least one supply line to at least one extraction point and at least one circulation line , with a circulation pump for circulating the fluid, the at least one supply line and the at least one circulation line being connected in a fluid-conducting way, there being present a system pressure above atmospheric pressure in the system, characterized in that in the system the circulation pump is disposed in the circulation line and a mechanical circulation controller is disposed on a suction side of the circulation pump , which circulation controller comprises a feed region and a circulation region , which are connectible to one another in a fluid-conducting way by means of an overflow valve , in a supply mode the overflow valve being open, and the overflow valve then opening when, with at least one opened extraction point , the system pressure drops by a predetermined value, the overflow valve being adjustable with respect to the value.
Sheathed tube heater comprising a sheath tube and at least one electrical connection pin at both ends (1.1) of the sheath tube , wherein a heating conductor is arranged inside the sheath tube in electrical connection between the connection pins at the two ends (1.1) and the remaining space in the sheath tube is filled with a powdered or granular metal oxide, in particular magnesium oxide, the heating conductor comprising of at least 4 heating wire coils (5.1 - 5.5) connected in parallel, which are arranged concentrically, characterised in that the heating wire coils (5.1 - 5.5) all have the same winding diameter and neighbouring heating wires touch each other at least in one fastening region.
A method of controlling an electronic device , the method comprising: receiving an input signal including an electrical signal which corresponds to a physiological signal measured through a biometric sensor module of the electronic device; detecting an input operation of a user based on at least the input signal, wherein the input operation includes a contact operation indicating that a finger or other body part of the user to be examined contacts at least a part of a surface of the biometric sensor module and a separation operation indicating that the finger or other body part is separated from the surface of the biometric sensor module ; and acquiring an image through a camera module when the separation operation is detected. receiving an input signal including an electrical signal which corresponds to a physiological signal measured through a biometric sensor module of the electronic device; detecting an input operation of a user based on at least the input signal, wherein the input operation includes a contact operation indicating that a finger or other body part of the user to be examined contacts at least a part of a surface of the biometric sensor module and a separation operation indicating that the finger or other body part is separated from the surface of the biometric sensor module ; and acquiring an image through a camera module when the separation operation is detected.
A composition suitable for human consumption comprising decanoic acid and octanoic acid in a ratio of: 2:1 wt/wt, or at least 3:1 wt/wt, or at least 4:1 wt/wt, or at least 5:1 wt/wt, or at least 6:1 wt/wt, and optionally is substantially free from any other saturated fatty acid, wherein the composition is a liquid formula with an energy density of 8.4 to 12.6 kJ/ml. 2:1 wt/wt, or at least 3:1 wt/wt, or at least 4:1 wt/wt, or at least 5:1 wt/wt, or at least 6:1 wt/wt,