mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic electronic cigarette atomizer, comprising an ultrasonic atomization sheet , an atomization cotton , a liquid chamber , an air inlet tube , an air outlet channel , and a suction nozzle , wherein the atomization cotton is communicated with the liquid chamber and is in contact with an atomization surface of the ultrasonic atomization sheet , an inlet of the air inlet tube is communicated with the outside, and the air inlet tube , an atomization region of the ultrasonic atomization sheet , the air outlet channel , and the suction nozzle are communicated in sequence, characterized in that an outlet of the air inlet tube is opposite to the atomization region of the ultrasonic atomization sheet , wherein the air inlet tube is a tapered tube and the inner diameter of an air inlet end of the air inlet tube is greater than that of an air outlet end of the air inlet tube .
A method performed by an Access Point, AP, (100; 200; 300; 400) in a Wireless Local Area Network, WLAN, comprising a plurality of APs the method comprises the step of providing a wireless communication device (1000; 2000; 3000; 4000) served by said AP (100; 200; 300; 400) with deployment information comprising the minimum grade of service for which the WLAN has been designed and deployed to enable said wireless communication device (1000; 2000; 3000; 4000) to decide, based at least on the deployment information, whether to initiate a scan for a different AP in the WLAN to connect to, when the wireless device experiences a grade of service being lower than indicated in the deployment information.
A method comprising: generating, by an audio circuit configured to generate analog audio signals for playback to a listener of a transducer device coupled to an electrical terminal for coupling the transducer device to the audio circuit, a test analog audio signal substantially inaudible to the listener of the transducer device, wherein the audio circuit further comprises a power amplifier (A1) having an audio input for receiving an audio input signal, an audio output for providing the analog audio signal, and a variable compensation capacitor; coupling a test impedance (R 1 , R 2 , R 3 ) to the electrical terminal, such that when the transducer device is coupled to the electrical terminal, the load impedance (R L ) is coupled to the test impedance (R 1 , R 2 , R 3 ); measuring a voltage or a current associated with the test impedance (R 1 , R 2 , R 3 ) in response to the test analog audio signal; determining a value of the load impedance (R L ) based on the voltage or the current; and setting a capacitance of the variable compensation capacitor based on the load impedance (R L ) to stabilize the power amplifier (A1) in feedback for a range of load impedances. generating, by an audio circuit configured to generate analog audio signals for playback to a listener of a transducer device coupled to an electrical terminal for coupling the transducer device to the audio circuit, a test analog audio signal substantially inaudible to the listener of the transducer device, wherein the audio circuit further comprises a power amplifier (A1) having an audio input for receiving an audio input signal, an audio output for providing the analog audio signal, and a variable compensation capacitor; coupling a test impedance (R 1 , R 2 , R 3 ) to the electrical terminal, such that when the transducer device is coupled to the electrical terminal, the load impedance (R L ) is coupled to the test impedance (R 1 , R 2 , R 3 ); measuring a voltage or a current associated with the test impedance (R 1 , R 2 , R 3 ) in response to the test analog audio signal; determining a value of the load impedance (R L ) based on the voltage or the current; and setting a capacitance of the variable compensation capacitor based on the load impedance (R L ) to stabilize the power amplifier (A1) in feedback for a range of load impedances.
A light amount adjusting device comprising: a case comprising an aperture through which light passes; a link rotatable on the case ; a driving unit connected to the link and generating driving force for rotating the link ; a first linear movement wing and a second linear movement wing respectively connected to a side of a rotation center of the link and other side of the rotation center of the link , each of the first and second linear movement wings being placed on the case and linearly movable between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; a first rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; and a second rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened, characterized in that rotation centers of the first and second rotation wings are on a straight line (L1) passing through a center of the aperture of the case and the rotation center of the link . a case comprising an aperture through which light passes; a link rotatable on the case ; a driving unit connected to the link and generating driving force for rotating the link ; a first linear movement wing and a second linear movement wing respectively connected to a side of a rotation center of the link and other side of the rotation center of the link , each of the first and second linear movement wings being placed on the case and linearly movable between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; a first rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened; and a second rotation wing connected to the link and rotatably coupled to the case so as to be rotated in directions crossing linear movement directions of the first and second linear movement wings between a position at which at least a portion of the aperture of the case is closed and a position at which the aperture of the case is opened, characterized in that rotation centers of the first and second rotation wings are on a straight line (L1) passing through a center of the aperture of the case and the rotation center of the link .
A system comprising a head of a component mounting device , a set of nozzles of multiple types and a nozzle holding mechanism capable of holding multiple types of nozzles , the nozzle holding mechanism comprising: a magnet provided in a holding section of the head ; and a magnetic material , being attracted to the magnet , and provided in a held section of the nozzle on a side held by the holding section of the head , at a position facing the magnet ; wherein the magnetic material is provided so as to have a gap (ΔL) between the magnetic material and the magnet while the nozzle is held by the head , and the gap (ΔL) is adjusted to be larger or smaller in accordance with the type of the nozzle held by the head , characterized in that the gap (ΔL) is adjusted so as to be larger as weight of the nozzle decreases. a magnet provided in a holding section of the head ; and a magnetic material , being attracted to the magnet , and provided in a held section of the nozzle on a side held by the holding section of the head , at a position facing the magnet ; wherein the magnetic material is provided so as to have a gap (ΔL) between the magnetic material and the magnet while the nozzle is held by the head , and the gap (ΔL) is adjusted to be larger or smaller in accordance with the type of the nozzle held by the head , characterized in that the gap (ΔL) is adjusted so as to be larger as weight of the nozzle decreases.
Coriolis mass flow meter comprising at least two curved measurement tubes , at least one actuator arrangement, at least one sensor arrangement and comprising at least one housing structure , wherein the measurement tubes are combined by collectors or flanges on the inlet side and the outlet side with at least a first oscillation node plate and a second oscillation node plate , wherein the oscillation node plates are to be basically differentiated from the collectors or flanges since the collectors or flanges are not primarily provided for changing the oscillation character of the measurement tube , wherein at least one of the oscillation node plates is connected on the inlet side and the outlet side to the housing structure o the Coriolis mass flow meter , wherein the oscillation node plate connected to the housing structure has a base face , and wherein the base face of the oscillation node plate is passed through by the measurement tubes characterized in an extension is formed on the base face of the oscillation node plate , and that the oscillation node plate is fastened on the housing structure by means of the extension and that the extension extends in a plane orthogonal to the base face of the oscillation node plate .
Method (M) of encrypted data exchange (Cph) between a terminal (UE) and a machine (DEV), the method comprising the steps of: - retrieving by the terminal (UE) of a first image encryption code (QRC1) comprising said encrypted data (Cph) using a public key (Kpu), said first image encryption code having been generated by said machine (DEV); - decoding said first image encryption code (QRC1) in said terminal (UE) in order to obtain said encrypted data (Cph); - decrypting said encrypted data (Cph) by means of a private key (Kpv) recorded in said terminal (UE), said private key (Kpv) having been obtained from a second image encryption code (QRC2) generated by said machine (DEV) and the method comprising the initial steps of: - retrieving by the terminal (UE) of the second image encryption code (QRC2) comprising said private key (Kpv); - decoding said second image encryption code (QRC2) in said terminal (UE); - recording said private key (Kpv) in said terminal (UE). - retrieving by the terminal (UE) of a first image encryption code (QRC1) comprising said encrypted data (Cph) using a public key (Kpu), said first image encryption code having been generated by said machine (DEV); - decoding said first image encryption code (QRC1) in said terminal (UE) in order to obtain said encrypted data (Cph); - decrypting said encrypted data (Cph) by means of a private key (Kpv) recorded in said terminal (UE), said private key (Kpv) having been obtained from a second image encryption code (QRC2) generated by said machine (DEV) - retrieving by the terminal (UE) of the second image encryption code (QRC2) comprising said private key (Kpv); - decoding said second image encryption code (QRC2) in said terminal (UE); - recording said private key (Kpv) in said terminal (UE).
A system for imaging of vibrations in a scene, the system comprising: at least one coherent light source configured to illuminate the scene comprising multiple scene elements, an optical unit configured to focus light scattered from the multiple scene elements onto a pixelated detector comprising multiple pixels such that light scattered from each scene element of the multiple scene elements is focused on a corresponding pixel of the multiple pixels on the pixelated detector, wherein the detector is configured to provide, for each pixel of the multiple pixels, a pixel intensity signal of the pixel thereof, to thereby yield corresponding multiple pixel intensity signals, wherein the optical unit further comprises a spatially patterned mask configured to enhance a modulation of the pixel intensity signals and to increase a ratio between the modulation of the pixel intensity signals and a DC thereof, and a processing unit configured to analyze each pixel intensity signal of the multiple pixel intensity signals and to derive, for each pixel of the multiple pixels and based on the respective pixel intensity signal, a vibration spectrum of the scene element in the scene that correspond to the pixel thereof, to thereby yield corresponding multiple vibration spectrums, wherein the processing unit is configured to optimize the spatial pattern of the mask according to specified criteria. at least one coherent light source configured to illuminate the scene comprising multiple scene elements, an optical unit configured to focus light scattered from the multiple scene elements onto a pixelated detector comprising multiple pixels such that light scattered from each scene element of the multiple scene elements is focused on a corresponding pixel of the multiple pixels on the pixelated detector, wherein the detector is configured to provide, for each pixel of the multiple pixels, a pixel intensity signal of the pixel thereof, to thereby yield corresponding multiple pixel intensity signals, wherein the optical unit further comprises a spatially patterned mask configured to enhance a modulation of the pixel intensity signals and to increase a ratio between the modulation of the pixel intensity signals and a DC thereof, and a processing unit configured to analyze each pixel intensity signal of the multiple pixel intensity signals and to derive, for each pixel of the multiple pixels and based on the respective pixel intensity signal, a vibration spectrum of the scene element in the scene that correspond to the pixel thereof, to thereby yield corresponding multiple vibration spectrums, wherein the processing unit is configured to optimize the spatial pattern of the mask according to specified criteria.
A civil engineering machine for removing soil, which is formed with a plurality of machine modules , comprising - a removal device , which is constructed from at least two machine modules , and - a carrier structure for suspending and moving the removal device in a vertical direction in an advancing direction in order to form a hole in the ground, - wherein the carrier structure additionally has a guide device for conveying or transporting the separate machine modules transversely to the advancing direction, and - wherein a personnel passage is formed in and / or on the at least two machine modules , which allows a person to pass horizontally along the at least two machine modules in the carrier structure . - a removal device , which is constructed from at least two machine modules , and - a carrier structure for suspending and moving the removal device in a vertical direction in an advancing direction in order to form a hole in the ground, - wherein the carrier structure additionally has a guide device for conveying or transporting the separate machine modules transversely to the advancing direction, and - wherein a personnel passage is formed in and / or on the at least two machine modules , which allows a person to pass horizontally along the at least two machine modules in the carrier structure .
Timepiece display mechanism of variable geometry, comprising at least one resilient hand , which includes a first drive pipe integral with a first end of a flexible strip and a second drive pipe integral with another end of said flexible strip , and comprising a display index which, in an unconstrained free state of said resilient hand in which both said first pipe and said second pipe are not subject to any stress and are distant from one another, is distant from said first pipe and said second pipe , the operating position of said resilient hand being a constrained position wherein said first pipe and said second pipe are coaxial to one another about an output axis (D), said display mechanism comprising first means for driving said first pipe about said output axis (D) and second means for driving said second pipe about said output axis (D), said first drive means and second drive means being arranged to deform said flexible strip , by varying the angular position of said second pipe with respect to the angular position of said first pipe about said output axis (D), and to vary the radial position of said display index with respect to said output axis (D), characterized in that said display mechanism comprises a first differential on the drive train of said first pipe having one input which is formed by a first cam , and a second differential on the drive train of said second pipe having one input which is formed by a second cam , and in that said first differential and said second differential are planet carriers (82; 84) each comprising an off-centre feeler (83; 85) arranged to follow its respective cam (92; 94).
An adeno-associated virus (AAV) serotype 4 (AAV4) capsid protein selected from the group consisting of: i) an AAV4 capsid protein of SEQ ID NO:1 which is modified, wherein the modifications consist of : K492E, and K503E and modifications selected from one of the following groups (a) through (e): (a) N585S, T590V, D592R, R593G, and T595R; (b) N585S, T590V, D592N, and T595S; (c) N585S, T590P, D592M, R593G, and T595G; (d) N585R; S586V, N587D, and L588R; and (e) N585R; S586A, N587L, and L588R; wherein the numbering of the residues is based on the amino acid sequence of SEQ ID NO:1; and ii) an AAV4 capsid protein of SEQ ID NO:2 which is modified, wherein the modifications consist of : K493E, and K504E and modifications selected from one of the following groups (a) through (e): (a) N586S, T591V, D593R, R594G, and T596R; (b) N586S, T591V, D593N, and T596S; (c) N586S, T591P, D593M, R594G, and T596G; (d) N586R; S587V, N588D, and L589R; and (e) N586R; S587A, N588L, and L589R; wherein the numbering of the residues is based on the amino acid sequence of SEQ ID NO:2. i) an AAV4 capsid protein of SEQ ID NO:1 which is modified, wherein the modifications consist of : K492E, and K503E and modifications selected from one of the following groups (a) through (e): (a) N585S, T590V, D592R, R593G, and T595R; (b) N585S, T590V, D592N, and T595S; (c) N585S, T590P, D592M, R593G, and T595G; (d) N585R; S586V, N587D, and L588R; and (e) N585R; S586A, N587L, and L588R; wherein the numbering of the residues is based on the amino acid sequence of SEQ ID NO:1; and (a) N585S, T590V, D592R, R593G, and T595R; (b) N585S, T590V, D592N, and T595S; (c) N585S, T590P, D592M, R593G, and T595G; (d) N585R; S586V, N587D, and L588R; and (e) N585R; S586A, N587L, and L588R; ii) an AAV4 capsid protein of SEQ ID NO:2 which is modified, wherein the modifications consist of : K493E, and K504E and modifications selected from one of the following groups (a) through (e): (a) N586S, T591V, D593R, R594G, and T596R; (b) N586S, T591V, D593N, and T596S; (c) N586S, T591P, D593M, R594G, and T596G; (d) N586R; S587V, N588D, and L589R; and (e) N586R; S587A, N588L, and L589R; wherein the numbering of the residues is based on the amino acid sequence of SEQ ID NO:2. (a) N586S, T591V, D593R, R594G, and T596R; (b) N586S, T591V, D593N, and T596S; (c) N586S, T591P, D593M, R594G, and T596G; (d) N586R; S587V, N588D, and L589R; and (e) N586R; S587A, N588L, and L589R;
A method of producing a positive electrode active material, the method comprising: contacting first particles that contain a lithium transition metal composite oxide with a solution containing sodium ions to obtain second particles containing the lithium transition metal composite oxide and sodium element, wherein the lithium transition metal composite oxide has a layered structure and a composition ratio of a number of moles of nickel to a total number of moles of metals other than lithium in a range of from 0.7 to less than 1; mixing the second particles and a boron compound to obtain a mixture; and heat-treating the mixture at a temperature in a range of from 100 °C to 450 °C. contacting first particles that contain a lithium transition metal composite oxide with a solution containing sodium ions to obtain second particles containing the lithium transition metal composite oxide and sodium element, wherein the lithium transition metal composite oxide has a layered structure and a composition ratio of a number of moles of nickel to a total number of moles of metals other than lithium in a range of from 0.7 to less than 1; mixing the second particles and a boron compound to obtain a mixture; and heat-treating the mixture at a temperature in a range of from 100 °C to 450 °C.
A nanocomposite material comprising a nanocellulose scaffold wherein the scaffold has bound thereon at least one of a virus particle, or virus-like particle wherein the virus particle, or virus-like particle displays functional peptides or whole proteins or enzymes on the surface of the particle.
A method for transmitting channel state information, CSI, by a user equipment, UE, in a mobile communication system, the method comprising: receiving a CSI-reference signal, CSI-RS, used for measuring a downlink channel and configuration information related to CSI feedback from a base station, BS; determining a channel quality indication, CQI, for each of at least two transmission points and control information related to a CQI for joint transmission of the at least two transmission points, based on the CSI-RS and the configuration information related to CSI feedback; and transmitting the determined CQIs and the determined control information to the BS, characterised in that the control information comprises a relative value indicating a difference between a CQI value denoting a data rate receivable by the UE when the at least two transmission points simultaneously transmit and a greatest CQI among the determined CQIs. receiving a CSI-reference signal, CSI-RS, used for measuring a downlink channel and configuration information related to CSI feedback from a base station, BS; determining a channel quality indication, CQI, for each of at least two transmission points and control information related to a CQI for joint transmission of the at least two transmission points, based on the CSI-RS and the configuration information related to CSI feedback; and transmitting the determined CQIs and the determined control information to the BS, characterised in that the control information comprises a relative value indicating a difference between a CQI value denoting a data rate receivable by the UE when the at least two transmission points simultaneously transmit and a greatest CQI among the determined CQIs.