mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless network with coordinated sectors to mitigate interference, the network comprising: a plurality of antennas each having a directional gain pattern, at least one antenna located at a first access point and at least one antenna located at a second access point spaced apart from the first access point , at least one antenna at the first access point oriented with maximum gain in a first direction that defines a first sector and at least one antenna at the second access point oriented with maximum gain in a second direction that defines a second sector , wherein the first sector projects from the first access point in a direction opposite the second sector and the second sector projects from the second access point in a direction opposite the first sector ; at least one transceiver coupled to the antennas to sequence any antennas oriented in the first sector separately from any antennas oriented in the second sector ; and a controller in communication with one or more of the transceivers to control sequencing of the antennas by causing the transceivers to activate antennas in one sector at different times than antennas in another sector . a plurality of antennas each having a directional gain pattern, at least one antenna located at a first access point and at least one antenna located at a second access point spaced apart from the first access point , at least one antenna at the first access point oriented with maximum gain in a first direction that defines a first sector and at least one antenna at the second access point oriented with maximum gain in a second direction that defines a second sector , wherein the first sector projects from the first access point in a direction opposite the second sector and the second sector projects from the second access point in a direction opposite the first sector ; at least one transceiver coupled to the antennas to sequence any antennas oriented in the first sector separately from any antennas oriented in the second sector ; and a controller in communication with one or more of the transceivers to control sequencing of the antennas by causing the transceivers to activate antennas in one sector at different times than antennas in another sector .
A lens drive apparatus (10; 10A) for use in a small camera module, the lens drive apparatus comprising: an assembly (24, 28, 30; 24A, 28A, 30A) that is formed by assembling a lens holder (24; 24A) together with a magnet holder (30; 30A) that holds a plurality of magnets (28;28A); a first drive section that displaces the lens holder (24; 24A) in a direction (Z) of an optical axis (O) in collaboration with each of the plurality of magnets (28; 28A) and a corresponding first coil (26; 26A-1,26A-2), disposed around the lens holder (24; 24A), that corresponds to each of the plurality of magnets (28; 28A); and a second drive section that displaces the assembly (24, 28, 30; 24A, 28A, 30A) in first and second directions (X, Y) orthogonal to the optical axis (O) and to each other in collaboration with each of the plurality of magnets (28; 28A) and corresponding second coils (18; 18A), disposed inside of a housing (14, 2; 14A, 42A) that houses the assembly (24, 28, 30; 24A, 28A, 30A), that corresponds to each of the plurality of magnets (28; 28A), wherein: the magnet holder (30; 30A) comprises a plurality of hollow parts that each accommodate one of the plurality of magnets (28; 28A) at a position where a first surface of each of the plurality of magnets (28; 28A) faces the corresponding first coil (26; 26A-1, 26A-2) and a second surface of the plurality of magnets (28; 28A) that is opposed to the first surface faces the corresponding second coil (18; 18A). an assembly (24, 28, 30; 24A, 28A, 30A) that is formed by assembling a lens holder (24; 24A) together with a magnet holder (30; 30A) that holds a plurality of magnets (28;28A); a first drive section that displaces the lens holder (24; 24A) in a direction (Z) of an optical axis (O) in collaboration with each of the plurality of magnets (28; 28A) and a corresponding first coil (26; 26A-1,26A-2), disposed around the lens holder (24; 24A), that corresponds to each of the plurality of magnets (28; 28A); and a second drive section that displaces the assembly (24, 28, 30; 24A, 28A, 30A) in first and second directions (X, Y) orthogonal to the optical axis (O) and to each other in collaboration with each of the plurality of magnets (28; 28A) and corresponding second coils (18; 18A), disposed inside of a housing (14, 2; 14A, 42A) that houses the assembly (24, 28, 30; 24A, 28A, 30A), that corresponds to each of the plurality of magnets (28; 28A), wherein: the magnet holder (30; 30A) comprises a plurality of hollow parts that each accommodate one of the plurality of magnets (28; 28A) at a position where a first surface of each of the plurality of magnets (28; 28A) faces the corresponding first coil (26; 26A-1, 26A-2) and a second surface of the plurality of magnets (28; 28A) that is opposed to the first surface faces the corresponding second coil (18; 18A).
A method for wireless communications, the method being performed by a user equipment, UE , the method comprising: determining a first content size indicating an amount of uncompressed data packets currently stored in a first buffer of the UE ; determining a second content size indicating an amount of compressed data packets currently stored in a second buffer of the UE ; and generating a buffer status report, BSR, based on the first content size and the second content size, the method being characterized in that the BSR does not account for an uncompressed copy of a compressed data packet in the first buffer . determining a first content size indicating an amount of uncompressed data packets currently stored in a first buffer of the UE ; determining a second content size indicating an amount of compressed data packets currently stored in a second buffer of the UE ; and generating a buffer status report, BSR, based on the first content size and the second content size, the method being characterized in that the BSR does not account for an uncompressed copy of a compressed data packet in the first buffer .
A two-tier vapor chamber apparatus comprising: a sealed first cavity defined at least partially by a first metal wall and a second metal wall, and a sealed second cavity defined at least partially by a flat third metal wall and the second metal wall, wherein the second cavity comprises a liquid disposed therein and wick material coupled to an interior surface of the third wall, the apparatus being characterized in that an internal pressure of the sealed first cavity is lower than an ambient pressure outside the sealed first cavity, and in that the internal pressure of the sealed first cavity is configured to be below 0.1 Torr. a sealed first cavity defined at least partially by a first metal wall and a second metal wall, and a sealed second cavity defined at least partially by a flat third metal wall and the second metal wall, wherein the second cavity comprises a liquid disposed therein and wick material coupled to an interior surface of the third wall, the apparatus being characterized in that an internal pressure of the sealed first cavity is lower than an ambient pressure outside the sealed first cavity, and in that the internal pressure of the sealed first cavity is configured to be below 0.1 Torr.
Method of doping a semiconductor sample in a uniform and carbon-free way, wherein said sample has a surface, comprising the following steps: A. removing oxides from at least part of the said surface; B. dip coating said at least part of the surface of the sample in a dopant based carbon-free solution of at least one dopant based carbon free substance diluted in water, wherein said at least one dopant based carbon free substance has a molecule comprising at least one dopant atom, wherein the dip coating is achieved by heating said dopant based carbon-free solution at a dip coating temperature ranging from 65% to 100% of the boiling temperature of said dopant based carbon-free solution, thereby the dip coating is configured to form a self-assembled mono-layer including dopant atoms; C. annealing said sample, wherein the annealing is configured to cause said dopant atoms included in said self-assembled mono-layer to be diffused into the sample. A. removing oxides from at least part of the said surface; B. dip coating said at least part of the surface of the sample in a dopant based carbon-free solution of at least one dopant based carbon free substance diluted in water, wherein said at least one dopant based carbon free substance has a molecule comprising at least one dopant atom, wherein the dip coating is achieved by heating said dopant based carbon-free solution at a dip coating temperature ranging from 65% to 100% of the boiling temperature of said dopant based carbon-free solution, thereby the dip coating is configured to form a self-assembled mono-layer including dopant atoms; C. annealing said sample, wherein the annealing is configured to cause said dopant atoms included in said self-assembled mono-layer to be diffused into the sample.
A hydrogen sensor having a sensitive film on a surface for receiving surface stress of a membrane-type surface stress sensor, characterized by that the sensitive film is an amorphous palladium-copper-silicon alloy thin film having a thickness of greater than 0 nm and less than 100 nm, and wherein the membrane-type surface stress sensor comprises: a thin plate-shaped member with four peripheral portions thereof supported from outside to provide four support portions, wherein the thin plate-shaped member and the four peripheral portions are made from silicon, the thin plate-shaped member has a disc shape or a shape having symmetry of rotation by an integer multiple of 90 degrees about its center, and the four support portions are provided at positions of rotational symmetry at 90 degrees from the center of the thin plate-shaped member, and four stress detecting parts provided at the four support portions by forming piezo-resistive elements, wherein four resistances of the four stress detecting parts are connected in a full Wheatstone bridge configuration. a thin plate-shaped member with four peripheral portions thereof supported from outside to provide four support portions, wherein the thin plate-shaped member and the four peripheral portions are made from silicon, the thin plate-shaped member has a disc shape or a shape having symmetry of rotation by an integer multiple of 90 degrees about its center, and the four support portions are provided at positions of rotational symmetry at 90 degrees from the center of the thin plate-shaped member, and four stress detecting parts provided at the four support portions by forming piezo-resistive elements, wherein four resistances of the four stress detecting parts are connected in a full Wheatstone bridge configuration.
A system comprising a lamp module designed to be installed in a front region of a vehicle (A, B) of a multi-membered track-guided vehicle combination and a device for data and/or signal transmission between two adjacent units of the multi-membered, track-guided vehicle combination, wherein the device comprises at least one emitter for emitting electromagnetic radiation as needed, wherein the at least one emitter is integrated into the lamp module .
A method for color palette extraction for videos, the method comprising: identifying , using a server that includes a hardware processor, a frame of a video content item; clustering a plurality of pixels of the identified frame of the video content item based on a color of each of the pixels in the plurality of pixels into a group of clusters; for each of a plurality of clusters in the group of clusters, determining an average color for the cluster; selecting a cluster of the plurality of clusters based on a similarity of the average color of the cluster to a main or dominant color of a previously analyzed frame of the video content item; determining a color palette for the identified frame of the video content item for one or more user interface elements in which the video content item is to be presented based on the average color of the selected cluster; and transmitting information indicating the color palette to a user device in response to a request to present the video content item. identifying , using a server that includes a hardware processor, a frame of a video content item; clustering a plurality of pixels of the identified frame of the video content item based on a color of each of the pixels in the plurality of pixels into a group of clusters; for each of a plurality of clusters in the group of clusters, determining an average color for the cluster; selecting a cluster of the plurality of clusters based on a similarity of the average color of the cluster to a main or dominant color of a previously analyzed frame of the video content item; determining a color palette for the identified frame of the video content item for one or more user interface elements in which the video content item is to be presented based on the average color of the selected cluster; and transmitting information indicating the color palette to a user device in response to a request to present the video content item.
A lens barrel comprising: an imaging optical system including a focus adjustment lens ; a drive unit configured to drive the focus adjustment lens; a transceiver configured to perform transmission and reception of a signal with a camera body ; a memory that stores a plurality of image plane transfer coefficients; and a control unit configured to control the transceiver so that the transceiver transmits, to the camera body, a first value and a second value, the first value being an image plane transfer coefficient indicating a relationship between a movement amount of the focus adjustment lens and a movement amount of the image plane, the first value being determined corresponding to a position of the focus adjustment lens, and the second value being an image plane transfer coefficient which is smaller than a minimum value of the stored image plane transfer coefficients within a movable range of the focus adjustment lens, wherein the image plane transfer coefficient is a coefficient corresponding to TL/TI, the TL being the movement amount of the focus adjustment lens, TI being the movement amount of the image plane. an imaging optical system including a focus adjustment lens ; a drive unit configured to drive the focus adjustment lens; a transceiver configured to perform transmission and reception of a signal with a camera body ; a memory that stores a plurality of image plane transfer coefficients; and a control unit configured to control the transceiver so that the transceiver transmits, to the camera body, a first value and a second value, the first value being an image plane transfer coefficient indicating a relationship between a movement amount of the focus adjustment lens and a movement amount of the image plane, the first value being determined corresponding to a position of the focus adjustment lens, and the second value being an image plane transfer coefficient which is smaller than a minimum value of the stored image plane transfer coefficients within a movable range of the focus adjustment lens, the first value being an image plane transfer coefficient indicating a relationship between a movement amount of the focus adjustment lens and a movement amount of the image plane, the first value being determined corresponding to a position of the focus adjustment lens, and the second value being an image plane transfer coefficient which is smaller than a minimum value of the stored image plane transfer coefficients within a movable range of the focus adjustment lens, wherein the image plane transfer coefficient is a coefficient corresponding to TL/TI, the TL being the movement amount of the focus adjustment lens, TI being the movement amount of the image plane.
A robotic positioning apparatus configured for moving an element from an initial position to a target position, the apparatus comprising: a moveable member suspended from a support structure , wherein the moveable member is attachable to the element to be moved; at least three substantially parallel tensile support members operable to support the moveable member , wherein each tensile support member is suspended from the support structure in a substantially parallel arrangement and each tensile support member is connectable to the moveable member in a substantially parallel arrangement such that upon moving the moveable member parallel disposition of the tensile support members is maintained; and at least one tensile positioning member operable to reposition the moveable member , and to maintain each tensile support member in tension; wherein the at least three substantially parallel tensile support members are configured to control an inclination of at least a portion of the moveable member during repositioning. a moveable member suspended from a support structure , wherein the moveable member is attachable to the element to be moved; at least three substantially parallel tensile support members operable to support the moveable member , wherein each tensile support member is suspended from the support structure in a substantially parallel arrangement and each tensile support member is connectable to the moveable member in a substantially parallel arrangement such that upon moving the moveable member parallel disposition of the tensile support members is maintained; and at least one tensile positioning member operable to reposition the moveable member , and to maintain each tensile support member in tension; wherein the at least three substantially parallel tensile support members are configured to control an inclination of at least a portion of the moveable member during repositioning.
A method for providing over-pressure protection for an underground salt cavern , the method comprising the steps of removing a pressurized gas comprising hydrogen from the underground salt cavern ; opening a pressure control device when it is desired to use the pressurized gas from the underground salt cavern , a pressure relief valve being installed downstream said pressure control device , allowing the pressurized gas to expand across the pressure control device , thus reducing the pressure of the pressurized gas to form a lower pressure gas; monitoring the pressure of the lower pressure gas; the method comprising the steps of: introducing the lower pressure gas to a pipeline if the pressure of the lower pressure gas is below a first threshold value; and closing an isolation valve upstream of the pressure relief valve if the pressure of the lower pressure gas is at or exceeds the first threshold value such that the flow of the lower pressure gas to the pipeline is stopped. removing a pressurized gas comprising hydrogen from the underground salt cavern ; opening a pressure control device when it is desired to use the pressurized gas from the underground salt cavern , a pressure relief valve being installed downstream said pressure control device , allowing the pressurized gas to expand across the pressure control device , thus reducing the pressure of the pressurized gas to form a lower pressure gas; monitoring the pressure of the lower pressure gas; the method comprising the steps of: introducing the lower pressure gas to a pipeline if the pressure of the lower pressure gas is below a first threshold value; and closing an isolation valve upstream of the pressure relief valve if the pressure of the lower pressure gas is at or exceeds the first threshold value such that the flow of the lower pressure gas to the pipeline is stopped. introducing the lower pressure gas to a pipeline if the pressure of the lower pressure gas is below a first threshold value; and closing an isolation valve upstream of the pressure relief valve if the pressure of the lower pressure gas is at or exceeds the first threshold value such that the flow of the lower pressure gas to the pipeline is stopped.
A method performed by a user equipment, UE, for reducing timing drift in a narrowband Internet-of-Things, NB-IoT, system, comprising: tracking a timing error using a Narrowband Secondary Synchronization Signal, NSSS; computing a NSSS based time error estimate; estimating a timing drift based on the NSSS based time error estimate; characterized by : mapping the estimated timing drift to a raster value based on a minimum distance criterion and a carrier frequency, the raster value corresponding to a drift value; determining a corrected timing drift, based on the estimated timing drift and the drift value; and compensating for the corrected timing drift. tracking a timing error using a Narrowband Secondary Synchronization Signal, NSSS; computing a NSSS based time error estimate; estimating a timing drift based on the NSSS based time error estimate; characterized by : mapping the estimated timing drift to a raster value based on a minimum distance criterion and a carrier frequency, the raster value corresponding to a drift value; determining a corrected timing drift, based on the estimated timing drift and the drift value; and compensating for the corrected timing drift. mapping the estimated timing drift to a raster value based on a minimum distance criterion and a carrier frequency, the raster value corresponding to a drift value; determining a corrected timing drift, based on the estimated timing drift and the drift value; and compensating for the corrected timing drift.
A tool for disassembling a pitch bearing from a hub of a wind turbine, the tool comprising: a socket wrench ; a first frame arm having a first end and a second end ; a second frame arm having a first end and a second end ; the first end of the first frame arm and the first end of the second frame arm being pivotally connected; wherein the tool is configured to engage a portion of a wind turbine blade and to rotate the socket wrench around a portion of a wind turbine blade; and the socket wrench is configured to tighten and loosen a nut of a bolted connection between a blade assembly and a hub; and the second end of the first frame arm and the second end of the second frame arm are configured to be releasably connected for opening and closing the tool around the portion of the wind turbine blade; and the tool comprises a rotating system for rotating the tool around a portion of the wind turbine blade. a socket wrench ; a first frame arm having a first end and a second end ; a second frame arm having a first end and a second end ; the first end of the first frame arm and the first end of the second frame arm being pivotally connected; wherein the tool is configured to engage a portion of a wind turbine blade and to rotate the socket wrench around a portion of a wind turbine blade; and the socket wrench is configured to tighten and loosen a nut of a bolted connection between a blade assembly and a hub; and the second end of the first frame arm and the second end of the second frame arm are configured to be releasably connected for opening and closing the tool around the portion of the wind turbine blade; and the tool comprises a rotating system for rotating the tool around a portion of the wind turbine blade.