mhurhangee/patent-ind-claim-en huggingface dataset:
A method for decoding an encoded higher-order Ambisonics, HOA, representation of a 2- or 3-dimensional sound field, the decoding method comprising: - receiving a bit stream containing the encoded HOA representation, including 0 encoded spatial domain signals; - perceptual decoding each one of the encoded spatial domain signals into a corresponding decoded spatial domain signal, wherein the decoded spatial domain signals represent a regular distribution of reference points on a sphere; - transforming the decoded spatial domain signals for a frame into 0 HOA coefficients of the frame; and individually decoding discrete sound objects. - receiving a bit stream containing the encoded HOA representation, including 0 encoded spatial domain signals; - perceptual decoding each one of the encoded spatial domain signals into a corresponding decoded spatial domain signal, wherein the decoded spatial domain signals represent a regular distribution of reference points on a sphere; - transforming the decoded spatial domain signals for a frame into 0 HOA coefficients of the frame; and
An active closed-loop medical system comprising at least one implantable medical device, at least one non-implantable component and at least a controlling means for controlling the implantable medical device, wherein the implantable medical device, the non-implantable component and the controlling means are connected for data exchange, wherein the implantable medical device, the non-implantable component and the controlling means are forming in the active state a closed-loop system in such that the implantable medical device is controlled by the controlling means on the basis of the signals exchanged with the non-implantable component, wherein the active closed-loop medical system comprises brain and/or neural signal receiving means , by means of which brain and/or neural signals may be received, and wherein the brain and/or neural signal receiving means are connected to the controlling means such that the brain and/or neural signals are at least partially used for controlling the implantable medical device, charactreized in that the controlling means are configured to be at least partially arranged extracorporeal and at least partially arranged intracorporeal.
Hydraulic system for an automatic transmission, in particular dual-clutch transmission, of a motor vehicle, comprising a high-pressure circuit (H), in which a pressure accumulator , at least one clutch (K1, K2), and gear selectors (G1 to G4) are connected, and comprising a low-pressure circuit (N) for cooling the clutch (K1), wherein the high-pressure circuit (H) and the low-pressure circuit (N) have at least one hydraulic pump , which can be driven by an electric motor , and comprising a control unit , which activates the electric motor of the hydraulic pump when a pressure accumulator charging requirement is identified, wherein the high-pressure and low-pressure circuits (H, N) are connected via a bypass line with integrated accumulator charging valve , which in a non-charging position (K) fluidically connects the hydraulic pump to the low-pressure circuit (N) and in a charging position (L) fluidically connects the hydraulic pump to the high-pressure circuit (H), wherein the accumulator charging valve switches automatically from the charging position (L) to the non-charging position (K) at a first switchover time(t U1 ) if the accumulator pressure (p S ) in the high-pressure circuit (H) exceeds an upper pressure threshold value (p max ), and switches automatically from the non-charging position (K) to the charging position (L) at a second switchover time (t U2 ) if the accumulator pressure (p S ) drops below a lower pressure threshold value (p min ), characterised in that the control unit has a diagnostic module , with which a valve spread diagnosis occurs, in which an actual valve spread (Δp ist ) between the lower and upper pressure threshold values (p min , p max ) can be determined, and in that the diagnostic module has an analysis unit , which compares the actual valve spread (Δp ist ) with a target valve spread (Δp soll ) and, in the event of a significant deviation, diagnoses an error condition, which can be stored in a valve spread error memory .
Cartridge system for producing a beverage , wherein the cartridge system is insertable into a beverage preparation machine , wherein the cartridge system has a cartridge , which comprises a reservoir filled with a beverage substance , and a cartridge receptacle , which is connected to the cartridge , wherein the cartridge receptacle is insertable into the beverage preparation machine and is connected to the cartridge , wherein the cartridge receptacle has a mixing chamber , which is able to be brought into fluidic connection with the reservoir , and a fluid supply which opens out into the mixing chamber , wherein the cartridge receptacle has a cartridge unloading device which is provided for at least partially transferring the beverage substance from the reservoir into the mixing chamber , characterized in that the cartridge unloading device comprises a compressed air connection for connecting to the compressed air source and a compressed air line which extends from the compressed air connection to a compressed air outlet , and wherein the compressed air outlet projects in the direction of the reservoir of the cartridge so as to inject compressed air into the reservoir , wherein the cartridge unloading device is configured in such a manner that the beverage substance is pushed from the reservoir into the mixing chamber by the compressed air, wherein the cartridge has a cartridge opening which is fluidically connected to the reservoir , wherein the cartridge opening is closed with a sealing element , wherein the sealing element comprises a sealing film which is applied to the periphery of the cartridge opening , wherein the cartridge receptacle comprises a mandrel guide and a piercing mandrel which is mounted so as to be displaceable within the mandrel guide , wherein the piercing mandrel is displaceable between a retracted position in which the piercing mandrel is spaced apart from the sealing element , and a deployed position in which the piercing mandrel pierces the sealing element and protrudes into the reservoir , wherein the compressed air line is integrated in the piercing mandrel .
A recombinant host which is capable of producing a glycosylated diterpene, such as a steviol glycoside, comprising a recombinant nucleic acid sequence encoding a polypeptide having at least 90% identity to the amino acid sequence set forth in SEQ ID NO: 25, wherein the polypeptide has improved UGT2 activity compared to a polypeptide with the amino acid sequence as set forward in SEQ ID NO: 27 and wherein the improved UGT2 activity results in the production of a higher amount of steviol glycoside.
Induction-based cooking appliance comprising multiple heating power transferring elements and multiple heating power energy units for powering said heating power transferring elements , each heating power energy unit comprising one or more power transistors for providing electrical power to the heating power transferring elements , characterized in that - said power transistors included in said multiple heating power energy units are wide bandgap transistors comprising semiconductor materials with a bandgap greater than 2eV configured to be operated in a first frequency range (FR1) and in a second frequency range (FR2) different to the first frequency range (FR1); or - a first heating power transferring element is powered by a heating power energy unit comprising a first type (T1) of power transistor adapted to be operated in a first frequency range (FR1) and a second heating power transferring element is powered by a heating power energy unit comprising a second type (T2) of power transistor adapted to be operated in a second frequency range (FR2) different to the first frequency range (FR1). - said power transistors included in said multiple heating power energy units are wide bandgap transistors comprising semiconductor materials with a bandgap greater than 2eV configured to be operated in a first frequency range (FR1) and in a second frequency range (FR2) different to the first frequency range (FR1); or - a first heating power transferring element is powered by a heating power energy unit comprising a first type (T1) of power transistor adapted to be operated in a first frequency range (FR1) and a second heating power transferring element is powered by a heating power energy unit comprising a second type (T2) of power transistor adapted to be operated in a second frequency range (FR2) different to the first frequency range (FR1).
An automated method of monitoring a state of an analyzer including a mass spectrometer (MS) with an electrospray ionization (ESI) source coupled to a liquid chromatography (LC) stream, the method comprising: monitoring an electrospray ionization current of the ESI source ; and characterized by : identifying a condition of multiple conditions of the analyzer based on the monitored ionization current of the ESI source , wherein one of the conditions is a presence of a dead volume in a liquid chromatography stream of the analyzer downstream of an LC column (9a; 9b) of the LC stream. monitoring an electrospray ionization current of the ESI source ; and characterized by : identifying a condition of multiple conditions of the analyzer based on the monitored ionization current of the ESI source , wherein one of the conditions is a presence of a dead volume in a liquid chromatography stream of the analyzer downstream of an LC column (9a; 9b) of the LC stream. identifying a condition of multiple conditions of the analyzer based on the monitored ionization current of the ESI source , wherein one of the conditions is a presence of a dead volume in a liquid chromatography stream of the analyzer downstream of an LC column (9a; 9b) of the LC stream.
A parallel transmitter system for a magnetic resonance system, wherein the parallel transmitter system comprises a magnetic resonance coil system comprising a plurality of coil elements , a radio frequency signal source , a feeding circuit arrangement with a switching circuit which comprises switching elements , and a controller system with a controller configured to control the switching elements of the switching circuit , wherein the feeding circuit arrangement is adapted for supplying a radio frequency signal to the plurality of coil elements , wherein the feeding circuit arrangement comprises a main line connected to the radio frequency signal source ; a plurality of feeding lines , each feeding line connected to a corresponding coil element of the coil system ; a power divider arranged between the main line and the plurality of feeding lines configured to distribute the signal on the main line to each of the feeding lines , wherein at least one of the feeding lines comprises a controllable switching circuit with a switching element configured to connect/disconnect two resulting line sections of the feeding line , a first line section on the divider side and a second line section on the side connected to the coil element , and wherein the switching circuit further comprises at least one connectable termination element with a predefined termination resistance for line termination of the first line section and wherein the at least one termination element is connected in series with a further switching element configured to couple the first line section to a reference potential through the termination element . the feeding circuit arrangement is adapted for supplying a radio frequency signal to the plurality of coil elements , wherein the feeding circuit arrangement comprises a main line connected to the radio frequency signal source ; a plurality of feeding lines , each feeding line connected to a corresponding coil element of the coil system ; a power divider arranged between the main line and the plurality of feeding lines configured to distribute the signal on the main line to each of the feeding lines , wherein at least one of the feeding lines comprises a controllable switching circuit with a switching element configured to connect/disconnect two resulting line sections of the feeding line , a first line section on the divider side and a second line section on the side connected to the coil element , and wherein the switching circuit further comprises at least one connectable termination element with a predefined termination resistance for line termination of the first line section and wherein the at least one termination element is connected in series with a further switching element configured to couple the first line section to a reference potential through the termination element .
A powder comprising pillared particles for use as an active component of a metal ion battery, the pillared particles comprising a particle core and a plurality of pillars extending from the particle core, wherein the pillars comprise silicon or tin, wherein the pillar mass fraction PMF is greater than or equal to 5%, and wherein a BET/PMF ratio of the powder is less than 3, wherein: BET is in m 2 /g; and PMF = [ Total mass of pillars extending from the particle core / ( Total mass of pillared particle ) ] × 100 .
A computer-implemented method, comprising: accessing, by a computing system (110; 600), data that identifies a plurality of virus signatures, wherein at least some virus signatures among the plurality of virus signatures were submitted by different signature authorities; identifying, by the computing system, a signature score associated with a first virus signature among the plurality of virus signatures, wherein the signature score is determined based on a number of signature authorities that have submitted or endorsed the first virus signature; determining, by the computing system, whether to use the first virus signature in virus scans of files maintained by the computing system based on whether the signature score that indicates the number of signature authorities that have submitted or endorsed the first virus signature satisfies a threshold score, wherein the computing system is configured to not use the first virus signature in virus scans of files maintained by the computing system until the signature score that indicates the number of signature authorities that have submitted or endorsed the first virus signature is determined to satisfy the threshold score; and using, by the computing system, the first virus signature in virus scans of one or more files maintained by the computing system in response to determining that the first virus signature satisfies the threshold score. accessing, by a computing system (110; 600), data that identifies a plurality of virus signatures, wherein at least some virus signatures among the plurality of virus signatures were submitted by different signature authorities; identifying, by the computing system, a signature score associated with a first virus signature among the plurality of virus signatures, wherein the signature score is determined based on a number of signature authorities that have submitted or endorsed the first virus signature; determining, by the computing system, whether to use the first virus signature in virus scans of files maintained by the computing system based on whether the signature score that indicates the number of signature authorities that have submitted or endorsed the first virus signature satisfies a threshold score, wherein the computing system is configured to not use the first virus signature in virus scans of files maintained by the computing system until the signature score that indicates the number of signature authorities that have submitted or endorsed the first virus signature is determined to satisfy the threshold score; and using, by the computing system, the first virus signature in virus scans of one or more files maintained by the computing system in response to determining that the first virus signature satisfies the threshold score.
An LED chip , comprising: a semiconductor substrate ; first and second external terminals ; an LED structure connected between the first and second external terminals, the LED structure comprising a first semiconductor layer and a second semiconductor layer over the first semiconductor layer , each layer having a top surface and a bottom surface; a suspended beam electrostatic switch connected in series with the LED structure between the first and second external terminals, or in parallel with the LED structure; a third external terminal; and a control electrode connected to the third external terminal for controlling the suspended beam electrostatic switch , characterized in that , the first semiconductor layer comprises two sub-portions electrically isolated from one another by a dividing channel in the first semiconductor layer separating the two sub-portions and physically connected at their bottom surfaces by the semiconductor substrate , the second semiconductor layer partially covers the top surface of the first semiconductor layer, an internal terminal is connected to the anode or cathode of the LED structure and is disposed on the top surface of one sub-portion of the first semiconductor layer, and the second external terminal is disposed on the top surface of the other sub-portion of the first semiconductor layer, and the control electrode is disposed on a surface within the dividing channel . a semiconductor substrate ; first and second external terminals ; an LED structure connected between the first and second external terminals, the LED structure comprising a first semiconductor layer and a second semiconductor layer over the first semiconductor layer , each layer having a top surface and a bottom surface; a suspended beam electrostatic switch connected in series with the LED structure between the first and second external terminals, or in parallel with the LED structure; a third external terminal; and a control electrode connected to the third external terminal for controlling the suspended beam electrostatic switch , characterized in that , the first semiconductor layer comprises two sub-portions electrically isolated from one another by a dividing channel in the first semiconductor layer separating the two sub-portions and physically connected at their bottom surfaces by the semiconductor substrate , the second semiconductor layer partially covers the top surface of the first semiconductor layer, an internal terminal is connected to the anode or cathode of the LED structure and is disposed on the top surface of one sub-portion of the first semiconductor layer, and the second external terminal is disposed on the top surface of the other sub-portion of the first semiconductor layer, and the control electrode is disposed on a surface within the dividing channel .
A computer-implemented neural network training method comprising: a step (S101) of inputting at least one input training image into a neural network, wherein, the at least one input training image is generated by introducing at least one defect into at least one original training image, and the at least one defect is associated with at least one image feature of the at least one original training image; a step (S102) of, by utilizing the neural network, decomposing the at least one input training image, introducing noise into the at least one decomposition result, and synthesizing the at least one decomposition result and the noise to obtain at least one synthesis training image; and a step (S103) of performing defect inspection on the at least one synthesis training image by using the neural network, and adjusting, based on at least the at least one original training image and the defect inspection result, at least one parameter of the neural network, wherein the decomposing the at least one input training image includes utilizing the neural network to decompose the at least one input training image so as to acquire, as the at least one decomposition result, at least one restoration image component, at least one defect image component, and at least one correction factor. a step (S101) of inputting at least one input training image into a neural network, wherein, the at least one input training image is generated by introducing at least one defect into at least one original training image, and the at least one defect is associated with at least one image feature of the at least one original training image; a step (S102) of, by utilizing the neural network, decomposing the at least one input training image, introducing noise into the at least one decomposition result, and synthesizing the at least one decomposition result and the noise to obtain at least one synthesis training image; and a step (S103) of performing defect inspection on the at least one synthesis training image by using the neural network, and adjusting, based on at least the at least one original training image and the defect inspection result, at least one parameter of the neural network, wherein the decomposing the at least one input training image includes utilizing the neural network to decompose the at least one input training image so as to acquire, as the at least one decomposition result, at least one restoration image component, at least one defect image component, and at least one correction factor.
A method of manufacturing a construction panel comprising the steps of laying a plurality of rigid support members together, each rigid support member having two main planar surfaces with perimeter surfaces extending between these main planar surfaces , laying the plurality of rigid support members so that each rigid support member has at least one perimeter surface in an abutting relationship with the perimeter surface of an adjacent rigid support member , and bridging at least part of the length of abutting perimeter surfaces with at least one connector means for connecting the plurality of rigid support members together into a predetermined shape and size of modular rigid panel member , the method further comprising manufacturing a sandwich type construction panel by forming a second similar shape and size of modular rigid panel member using the same method and placing an insulation means in a gap between the modular rigid panel members characterised in that the connector means comprises means for mechanically fixing the connector means onto the planar surfaces of two adjacent rigid outer support members, the mechanical fixing means comprising spikes , the spikes protruding in a spaced apart configuration from the main plane of the mechanical fixing means, and wherein the method comprises mechanically fixing the connector means onto the planar surfaces of two adjacent rigid support members using the spikes .