mhurhangee/patent-ind-claim-en huggingface dataset:
Loudspeaker comprising - a housing having a front for facing a listening person and at least a side , in particular being perpendicular to the front , - a first driver arrangement having at least one electroacoustic driver , - a first mounting device with a translational mechanism for mounting the first driver arrangement to the housing , wherein the translational mechanism is configured such that the first driver arrangement is translationally mounted to the housing , - a second driver arrangement having at least one electroacoustic driver , and - a second mounting device having a rotational mechanism being configured such that the second driver arrangement is rotationally mounted to the housing , - wherein the mounting devices are configured such that at least one of the driver arrangements can be arranged with respect to the housing at least in a first position and in a second position, and in particular in an intermediate position, and - wherein the second mounting device is embodied such and mechanically connected to the second driver arrangement and the housing such that exclusively a rotational movement is executed by the second driver arrangement with respect to the housing in order to arrange the second driver arrangement to the housing in the first position and in the second position. - a housing having a front for facing a listening person and at least a side , in particular being perpendicular to the front , - a first driver arrangement having at least one electroacoustic driver , - a first mounting device with a translational mechanism for mounting the first driver arrangement to the housing , wherein the translational mechanism is configured such that the first driver arrangement is translationally mounted to the housing , - a second driver arrangement having at least one electroacoustic driver , and - a second mounting device having a rotational mechanism being configured such that the second driver arrangement is rotationally mounted to the housing , - wherein the mounting devices are configured such that at least one of the driver arrangements can be arranged with respect to the housing at least in a first position and in a second position, and in particular in an intermediate position, and - wherein the second mounting device is embodied such and mechanically connected to the second driver arrangement and the housing such that exclusively a rotational movement is executed by the second driver arrangement with respect to the housing in order to arrange the second driver arrangement to the housing in the first position and in the second position.
A base station for a mobile telecommunications system comprising circuitry configured to communicate with at least one user equipment , wherein the circuitry is further configured to: transmit, to the at least one user equipment , a multi-level pre-emption indicator for indicating, as first level information, first information about resources used for at least one Ultra Reliable and Low Latency Communications transmission within a transmission region which may contain at least one Enhanced Mobile Broadband transmission of the at least one user equipment , and, as second level information, second information about the resources used for the Ultra Reliable and Low Latency Communications transmission , wherein the second information more accurately indicates the resources used than the first information to reduce wrongly indicated pre-emption with respect to the first level information.
A set of furniture components formed as rectangular or square panels comprising a first and a second panel, a panel edge of the second panel being insertable into a core groove of the first panel to obtain a mechanical connection between the first and the second panel, the panel edge being insertable into the core groove by an essentially linear relative displacement of the first and second panel when the first and second panel are arranged essentially perpendicularly to each other, said panel edge comprising a separate and flexible tongue and said core groove comprising a tongue groove , the tongue groove comprising two parallel side walls and a rounded bottom wall connecting the two side walls , wherein the separate and flexible tongue is insertable into the tongue groove for connecting said panels to each other in a first direction, which is perpendicular to a main plane (MP-1) of the first panel, which coincides with an upper side of the first panel , wherein the panel edge of the second panel is configured to be inserted into the core groove of the first panel for connecting said panels to each other in a second direction, which is perpendicular to a main plane (MP-2) of the second panel, which coincides with a lower side of the second panel , wherein a longitudinal direction of the separate and flexible tongue extends parallel with said panel edge and/or core groove, and wherein the separate and flexible tongue is arranged in an insertion groove , said separate and flexible tongue being displaceable inwardly towards a bottom of the insertion groove and outwardly into the tongue groove during a locking of the first and second panel, wherein an engagement portion of the core groove is arranged to engage with said separate and flexible tongue during locking of the first and second panel for displacing the separate and flexible tongue inwardly towards the bottom of the insertion groove , wherein said engagement portion is bevelled, and wherein the second panel comprises an overlapping portion , which engages with the engagement portion in a locked position of the first and second panel.
A method comprising: receiving an audio signal; partitioning a frequency domain representation of the audio signal into a plurality of sub-band vectors, each sub-band vector comprising a plurality of original discrete Fourier transform (DFT) coefficients; inputting each sub-band vector into a corresponding deep neural network; calculating , using the corresponding deep neural networks, a plurality of output vectors for each sub-band, each output vector comprising a set of clean DFT coefficients generated by the corresponding deep neural networks; concatenating the plurality of output vectors to generate a clean audio feature matrix; and converting the clean audio feature matrix into a time-domain audio signal. receiving an audio signal; partitioning a frequency domain representation of the audio signal into a plurality of sub-band vectors, each sub-band vector comprising a plurality of original discrete Fourier transform (DFT) coefficients; inputting each sub-band vector into a corresponding deep neural network; calculating , using the corresponding deep neural networks, a plurality of output vectors for each sub-band, each output vector comprising a set of clean DFT coefficients generated by the corresponding deep neural networks; concatenating the plurality of output vectors to generate a clean audio feature matrix; and converting the clean audio feature matrix into a time-domain audio signal.
Door unlocking and/or door opening mechanism having an actuating device which comprises - at least one actuating element (3.1), - a housing (3.2) and - at least one detection unit (3.3) having a sensor (3.3.1), a trigger element (3.3.2) and an evaluation unit (3.3.3), wherein the detection unit (3.3) is arranged in the housing (3.2), wherein the actuating element (3.1) is arranged outside the housing (3.2) and in a region which is accessible from outside for an actuation, wherein the trigger element (3.3.2) is arranged spaced apart from the sensor (3.3.1) in a locked state of the door unlocking and/or door opening mechanism , wherein, when the actuating element (3.1) is actuated in the direction of the housing (3.2) and of the sensor (3.3.1) arranged therein, the actuating element (3.1) deforms the trigger element (3.3.2), and wherein the sensor (3.3.1) detects a change in a distance (a) between the trigger element (3.3.2) and the sensor (3.3.1), and wherein the evaluation unit (3.3.3) transmits an opening signal (s1) to the door unlocking and/or door opening mechanism when said evaluation unit identifies a reduction in the distance between the trigger element (3.3.2) and the sensor (3.3.1) on the basis of the change in distance detected by the sensor (3.3.1), characterized in that at least one resetting element (3.1.3) for resetting the actuating element (3.1) is arranged between the actuating element (3.1) and the housing (3.2). - at least one actuating element (3.1), - a housing (3.2) and - at least one detection unit (3.3) having a sensor (3.3.1), a trigger element (3.3.2) and an evaluation unit (3.3.3), wherein the detection unit (3.3) is arranged in the housing (3.2),
An electronic device comprising: a housing; a display, at least part of which is included in the housing; a sliding part including an opening exposed to an outside area and configured to slide relative to the housing; a camera module disposed in the opening and configured to rotate relative to the sliding part ; a rack gear disposed parallel to a rear surface of the display and arranged to move in response to a movement of the sliding part ; and a cleek disposed on an inner surface of the housing, wherein the camera module includes one or more lenses, a pinion gear corresponding to the rack gear , wherein the one or more lenses face a first direction, when the sliding part is at a first position inside the housing, wherein the one or more lenses face a second direction opposite to the first direction, when the sliding part is in a second position so that the sliding part further protrudes beyond an upper portion of the housing, wherein when the sliding part slides from the first position to the second position, the camera module rotates in the opening of the sliding part by rotation of the pinion gear on the rack gear, and wherein the camera module starts rotating, after the rack gear is fixed by the cleek . a housing; a display, at least part of which is included in the housing; a sliding part including an opening exposed to an outside area and configured to slide relative to the housing; a camera module disposed in the opening and configured to rotate relative to the sliding part ; a rack gear disposed parallel to a rear surface of the display and arranged to move in response to a movement of the sliding part ; and a cleek disposed on an inner surface of the housing, wherein the camera module includes one or more lenses, a pinion gear corresponding to the rack gear , wherein the one or more lenses face a first direction, when the sliding part is at a first position inside the housing, wherein the one or more lenses face a second direction opposite to the first direction, when the sliding part is in a second position so that the sliding part further protrudes beyond an upper portion of the housing, wherein when the sliding part slides from the first position to the second position, the camera module rotates in the opening of the sliding part by rotation of the pinion gear on the rack gear, and wherein the camera module starts rotating, after the rack gear is fixed by the cleek .
An electronic device comprising: a housing constituting an external appearance of the electronic device; a support member (311; 410) including a first bridge ; a printed circuit board (340; 520) coupled to one surface of the support member; a first antenna constituting a first part of the housing and connected to the support member through the first bridge; a second antenna constituting a second part of the housing; a cut-off portion separating the first antenna and the second antenna; and characterized by : a first connection member and a second connection member coupled to the first bridge, wherein the first connection member is connected to a ground of the printed circuit board through a first capacitor and is disposed closer to the cut-off portion than the second connection member connected to the ground of the printed circuit board through a second capacitor. a housing constituting an external appearance of the electronic device; a support member (311; 410) including a first bridge ; a printed circuit board (340; 520) coupled to one surface of the support member; a first antenna constituting a first part of the housing and connected to the support member through the first bridge; a second antenna constituting a second part of the housing; a cut-off portion separating the first antenna and the second antenna; and characterized by : a first connection member and a second connection member coupled to the first bridge, wherein the first connection member is connected to a ground of the printed circuit board through a first capacitor and is disposed closer to the cut-off portion than the second connection member connected to the ground of the printed circuit board through a second capacitor. a first connection member and a second connection member coupled to the first bridge, wherein the first connection member is connected to a ground of the printed circuit board through a first capacitor and is disposed closer to the cut-off portion than the second connection member connected to the ground of the printed circuit board through a second capacitor.
A method of detecting a single-stranded target RNA in a biological sample comprising a plurality of RNAs, the method comprising: a) contacting the biological sample with: i) a labeled detector RNA; and ii) a C2c2 protein that cleaves the labeled detector RNA; and iii) a guide RNA (gRNA) that hybridizes with the single-stranded target RNA, wherein the gRNA binds the C2c2 protein; and b) measuring a detectable signal produced by the cleavage of the labeled detector RNA. a) contacting the biological sample with: i) a labeled detector RNA; and ii) a C2c2 protein that cleaves the labeled detector RNA; and iii) a guide RNA (gRNA) that hybridizes with the single-stranded target RNA, wherein the gRNA binds the C2c2 protein; and i) a labeled detector RNA; and ii) a C2c2 protein that cleaves the labeled detector RNA; and iii) a guide RNA (gRNA) that hybridizes with the single-stranded target RNA, wherein the gRNA binds the C2c2 protein; and b) measuring a detectable signal produced by the cleavage of the labeled detector RNA.
Flange connection on a building structure in the form of an offshore or onshore structure, comprising a first, lower connection profile and a second, upper connection profile , which is connected to the first, lower connection profile , wherein the first, lower connection profile with a cylindrical, continuous profile cross section and with at least one end-side, encircling flange, wherein the flange has a flange body with a supporting surface for supporting a mating surface of a complementary connection profile , and the supporting surface has through-passage openings for fastening means, said openings being spaced apart from one another on an arc of a circle, passing through it, and the flange body extends essentially at right angles to the longitudinal axis of the continuous profile cross section, wherein the flange body is formed on either side of the wall of the continuous profile cross section, wherein an inwardly protruding part of the flange body is designed to protrude further than an outwardly protruding part of the flange body, and wherein the inwardly oriented part of the flange body has through-passage openings , which are arranged in a common circle pattern of holes, passing through it, characterized in that the second, upper connection profile is designed in the form of a connection profile with an internally encircling annular flange , which is configured in the form of a normal annular flange with an L-shaped profile.
Method of producing ethanol from a saccharide-containing solution/suspension by fermentation, i.e. by use of fermenting agents, wherein the saccharide-containing solution/suspension that is subjected to fermentation is constituted by a mixture formed by mixing material flows from at least two saccharide recovery processes, each process being based on separate raw materials selected from the group consisting of lignocellulosic material A, starch-rich material B and sugar-rich material C, and said saccharide material A derived from lignocellulosic material always being part of the mixture, characterised in that the amount of solution/suspension containing the saccharide material A that is added to be comprised in the mixture is controlled to stress the fermenting agent, resulting in an ethanol yield increase to the extent that a stress factor in the range of 1.05 to 1.20 is obtained, wherein the stress factor is defined as the ratio between the fermentability (measured according to a standard method) of the saccharide material mixture and the fermentability (measured according to a standard method) of the saccharide material according to B and/or C, and wherein the solution/suspension containing the saccharide material A that is added to be comprised in the mixture comprises acetic acid, furfural and hydroxymethyl furfural. characterised in that the amount of solution/suspension containing the saccharide material A that is added to be comprised in the mixture is controlled to stress the fermenting agent, resulting in an ethanol yield increase to the extent that a stress factor in the range of 1.05 to 1.20 is obtained, wherein the stress factor is defined as the ratio between the fermentability (measured according to a standard method) of the saccharide material mixture and the fermentability (measured according to a standard method) of the saccharide material according to B and/or C, and wherein the solution/suspension containing the saccharide material A that is added to be comprised in the mixture comprises acetic acid, furfural and hydroxymethyl furfural.
Converter module for a voltage source converter having - a power semiconductor circuit having at least two power semiconductor switches - an energy store in a parallel circuit with the power semiconductor circuit , and - a protective device comprising a controllable protective semiconductor , which is arranged in a parallel circuit with the energy store , the protective device also comprises a current limiter for limiting surge currents and which is arranged in series with the energy store , characterized in that the current limiter comprises - a primary winding , which is arranged in series with the energy store , and - a secondary winding , wherein the secondary winding and the primary winding are magnetically coupled and the secondary winding is shortcircuited in a resistive manner, wherein the protective semiconductor , the primary winding and the secondary winding are fixed in a mechanically clamped stack . - a power semiconductor circuit having at least two power semiconductor switches - an energy store in a parallel circuit with the power semiconductor circuit , and - a protective device comprising a controllable protective semiconductor , which is arranged in a parallel circuit with the energy store , the protective device also comprises a current limiter for limiting surge currents and which is arranged in series with the energy store , characterized in that the current limiter comprises - a primary winding , which is arranged in series with the energy store , and - a secondary winding , wherein
An electrical system for an aircraft having a first turbine engine , the first turbine engine having a first high pressure (HP) spool and a first low pressure (LP) spool , the electrical system comprising: a first generator coupled to the first HP spool driven by the first turbine engine and providing a first electrical output; a second generator coupled to the first LP spool driven by the first turbine engine and providing a second electrical output; the first generator and the second generator coupled to an electrical power distribution bus that provides electrical power to a first load , a second load , and a third load ; a propulsion system controller coupled to the electrical power distribution bus ; a first aircraft systems bus , a second aircraft systems bus , and a third aircraft systems bus coupled to the electrical power distribution bus ; a first load , a second load , and a third load coupled to the first aircraft systems bus , the second aircraft systems bus , and the third aircraft systems bus respectively; and a control system configured to allocate power from the first generator and the second generator via the propulsion system controller to at least one of the first load via the first aircraft systems bus , the second load via the second aircraft systems bus , and the third load via the third aircraft systems bus . a first generator coupled to the first HP spool driven by the first turbine engine and providing a first electrical output; a second generator coupled to the first LP spool driven by the first turbine engine and providing a second electrical output; the first generator and the second generator coupled to an electrical power distribution bus that provides electrical power to a first load , a second load , and a third load ; a propulsion system controller coupled to the electrical power distribution bus ; a first aircraft systems bus , a second aircraft systems bus , and a third aircraft systems bus coupled to the electrical power distribution bus ; a first load , a second load , and a third load coupled to the first aircraft systems bus , the second aircraft systems bus , and the third aircraft systems bus respectively; and a control system configured to allocate power from the first generator and the second generator via the propulsion system controller to at least one of the first load via the first aircraft systems bus , the second load via the second aircraft systems bus , and the third load via the third aircraft systems bus .