mhurhangee/patent-ind-claim-en huggingface dataset:
A resource allocation method, comprising: transmitting, a request message to a base station, wherein the request message is used to request a resource used by a user equipment to perform device to device communication; receiving , a response message from the base station, wherein the response message is used to provide a device to device communication resource of a first cell to the user equipment, wherein the response message comprises a physical cell identifier PCI of the first cell and a frequency of the first cell, and the first cell is a secondary cell or a non-serving cell of the user equipment; and performing , device to device communication in the first cell; reporting, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform device to device communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality of the first cell that is measured by the user equipment; wherein the base station is a base station of a second cell and the first cell, and the second cell is a serving cell or a primary cell of the user equipment; or the base station is a base station of a second cell, and the second cell is a serving cell or a primary cell of the user equipment; the first cell and the second cell belong to different PLMNs or belong to a same PLMN transmitting, a request message to a base station, wherein the request message is used to request a resource used by a user equipment to perform device to device communication; receiving , a response message from the base station, wherein the response message is used to provide a device to device communication resource of a first cell to the user equipment, wherein the response message comprises a physical cell identifier PCI of the first cell and a frequency of the first cell, and the first cell is a secondary cell or a non-serving cell of the user equipment; and performing , device to device communication in the first cell; reporting, a neighbor cell measurement report to the base station, so that the base station determines, according to the neighbor cell measurement report, that the user equipment can perform device to device communication in the first cell, wherein the neighbor cell measurement report comprises the signal quality of the first cell that is measured by the user equipment; wherein the base station is a base station of a second cell and the first cell, and the second cell is a serving cell or a primary cell of the user equipment; or the base station is a base station of a second cell, and the second cell is a serving cell or a primary cell of the user equipment; the first cell and the second cell belong to different PLMNs or belong to a same PLMN
A method of automatic detection of synchronous rubbing in a turbine, wherein at least two rotor vibration sensors arranged on a turbine stator perpendicularly each other within a single measurement plane perpendicular to the turbine rotor axis of rotation are used, wherein each sensor continuously measures the relative distance of the rotating rotor and the turbine stator in the place of the sensor, wherein a trajectory of eccentric rotor motion in the measurement plane is reconstructed from the measured distances filtered at the rotation frequency by combination in an orthogonal coordinate system, and dividing the rotor axis motion trajectory into individual orbits is made, where each orbit includes data for single rotor revolution, wherein the data includes information about the orbit origin coordinates in an orthogonal coordinate system at the beginning of the rotor revolution, and an initial amplitude defined by the distance of the orbit origin from the origin of the orthogonal coordinate system is specified for each orbit, and an initial angle is defined for each orbit by an angle between a straight line defined by the origin of the orthogonal coordinate system and orbit origin and any axis having a known position in the orthogonal coordinate system, and the development of change to coordinates of the orbit origin over time is monitored, characterized in that the development of the orbit origin coordinates change over time is monitored by monitoring the change of the initial amplitude value and change of the initial angle between the consecutive orbits, wherein the synchronous rubbing is detected by the development of change of the initial angle counter the rotor rotation direction and by exceeding of threshold values of the initial amplitude, initial angle, and the area under curve defined by the coordinates of the origins of consecutive orbits, in a determined unit of time. and an initial amplitude defined by the distance of the orbit origin from the origin of the orthogonal coordinate system is specified for each orbit, and an initial angle is defined for each orbit by an angle between a straight line defined by the origin of the orthogonal coordinate system and orbit origin and any axis having a known position in the orthogonal coordinate system, and the development of change to coordinates of the orbit origin over time is monitored, characterized in that the development of the orbit origin coordinates change over time is monitored by monitoring the change of the initial amplitude value and change of the initial angle between the consecutive orbits, wherein the synchronous rubbing is detected by the development of change of the initial angle counter the rotor rotation direction and by exceeding of threshold values of the initial amplitude, initial angle, and the area under curve defined by the coordinates of the origins of consecutive orbits, in a determined unit of time.
A touch control module, comprising: a plurality of touch control electrodes; wherein at least one of the plurality of touch control electrodes has a wire grating structure , the wire grating structure is configured to enable light from a display panel to pass through a corresponding one of the at least one of the plurality of touch control electrodes, and the wire grating structure comprises a plurality of electrode wires arranged in parallel and slits each between two adjacent electrode wires ; a sum of widths of an electrode wire and a slit adjacent to the electrode wire is a period of the wire grating structure ; characterized in that the period of the wire grating structure is in a range of about 380 nm to about 780 nm. a plurality of touch control electrodes; wherein at least one of the plurality of touch control electrodes has a wire grating structure , the wire grating structure is configured to enable light from a display panel to pass through a corresponding one of the at least one of the plurality of touch control electrodes, and the wire grating structure comprises a plurality of electrode wires arranged in parallel and slits each between two adjacent electrode wires ; a sum of widths of an electrode wire and a slit adjacent to the electrode wire is a period of the wire grating structure ; characterized in that the period of the wire grating structure is in a range of about 380 nm to about 780 nm.
A powder-liquid type denture base lining material, comprising: a powder material including: (A) non-crosslinked resin particles, (B) an organic peroxide, (C) a pyrimidinetrione derivative, and (D) an organometallic compound; and a liquid material including: (E) a radical polymerizable monomer, and (F) an aromatic amine compound, wherein the (C) pyrimidinetrione derivative is included in an amount of 0.0002 to 1.0 part by mass with respect to 100 parts by mass of the (E) radical polymerizable monomer. a powder material including: (A) non-crosslinked resin particles, (B) an organic peroxide, (C) a pyrimidinetrione derivative, and (D) an organometallic compound; and (A) non-crosslinked resin particles, (B) an organic peroxide, (C) a pyrimidinetrione derivative, and (D) an organometallic compound; and a liquid material including: (E) a radical polymerizable monomer, and (F) an aromatic amine compound, (E) a radical polymerizable monomer, and (F) an aromatic amine compound, wherein the (C) pyrimidinetrione derivative is included in an amount of 0.0002 to 1.0 part by mass with respect to 100 parts by mass of the (E) radical polymerizable monomer.
A method for determining linearity of an assay response, said method comprising: dissolving one or more solid water-soluble beads in three or more aliquots of an aqueous liquid matrix to prepare three or more liquid solutions each having a different analyte level, wherein the water-soluble beads comprise at least one analyte, a bulking agent, a salt, and a buffer, and said aqueous liquid matrix comprising a salt and a buffer at a pH of from about 4.0 to about 9.0, performing the assay with the three or more liquid solutions to generate an assay response for the analyte in each of the three or more liquid solutions; and determining whether assay responses are linear within a range of analyte concentrations spanned by three or more liquid solutions, thereby determining linearity of an assay response. dissolving one or more solid water-soluble beads in three or more aliquots of an aqueous liquid matrix to prepare three or more liquid solutions each having a different analyte level, wherein the water-soluble beads comprise at least one analyte, a bulking agent, a salt, and a buffer, and said aqueous liquid matrix comprising a salt and a buffer at a pH of from about 4.0 to about 9.0, performing the assay with the three or more liquid solutions to generate an assay response for the analyte in each of the three or more liquid solutions; and determining whether assay responses are linear within a range of analyte concentrations spanned by three or more liquid solutions, thereby determining linearity of an assay response.
A method for releasing a fluid from a pressure vessel assembly , the method including the steps of providing:- a pressure vessel ; a piezo electric device ; the piezo electric device having a ceramic core ; an electric field generator ; arranging the piezo electric device in a sealed relationship with a part of the pressure vessel , thereby providing the pressure vessel assembly , providing a fluid contained within the pressure vessel assembly under pressure, and using the electric field generator to apply an electric field to the ceramic core , such that the ceramic core fails, thereby releasing the fluid from the pressure vessel assembly . a pressure vessel ; a piezo electric device ; the piezo electric device having a ceramic core ; an electric field generator ;
A composition comprising component (A): a compound represented by the formula wherein R 1 and R 2 are each independently an alkyl group having 5 - 21 carbon atoms or an alkenyl group having 5 - 21 carbon atoms, R 3 and R 4 are each independently a hydrogen atom, an alkyl group having 1 - 22 carbon atoms or an alkenyl group having 2 - 22 carbon atoms, z is 7 or 8, x and y are each independently an integer of 2 - 4, or a salt thereof, and component (B): an anionic water-soluble polymer. R 1 and R 2 are each independently an alkyl group having 5 - 21 carbon atoms or an alkenyl group having 5 - 21 carbon atoms, R 3 and R 4 are each independently a hydrogen atom, an alkyl group having 1 - 22 carbon atoms or an alkenyl group having 2 - 22 carbon atoms, z is 7 or 8, x and y are each independently an integer of 2 - 4, or a salt thereof, and component (B): an anionic water-soluble polymer.
An angle of attack sensor comprising: a housing having an open end and a closed end; a faceplate positioned on the open end of the housing, the faceplate having an opening; a vane assembly extending through the opening of the faceplate; a vane shaft connected to the vane assembly and extending within the housing, the vane shaft having a bore extending through the vane shaft; and a bearing surrounding the vane shaft; and characterized by an annular vane shaft seal positioned around and surrounding the vane shaft adjacent the bearing, and including an annular sealing element with an annular lip , the annular lip being configured to contact the vane shaft and seal against the vane shaft and configured to move away from the vane shaft due to airflow within the angle of attack sensor; and a first vent hole extending from an interior surface of the vane shaft to an exterior surface of the vane shaft between the bearing and the lip of the sealing element of the vane shaft seal, the first vent hole being in fluid communication with the bore of the vane shaft. a housing having an open end and a closed end; a faceplate positioned on the open end of the housing, the faceplate having an opening; a vane assembly extending through the opening of the faceplate; a vane shaft connected to the vane assembly and extending within the housing, the vane shaft having a bore extending through the vane shaft; and a bearing surrounding the vane shaft; and characterized by an annular vane shaft seal positioned around and surrounding the vane shaft adjacent the bearing, and including an annular sealing element with an annular lip , the annular lip being configured to contact the vane shaft and seal against the vane shaft and configured to move away from the vane shaft due to airflow within the angle of attack sensor; and a first vent hole extending from an interior surface of the vane shaft to an exterior surface of the vane shaft between the bearing and the lip of the sealing element of the vane shaft seal, the first vent hole being in fluid communication with the bore of the vane shaft.
An agricultural machine for discharging liquid, having a boom , a frame , to which the boom is fixed so that it can be rotated about an axis of rotation pointing in the direction of travel, an actuating cylinder for rotating the boom about the axis of rotation, and a measurement and control system for operation of the actuating cylinder , wherein the actuating cylinder is mechanically connected on the one hand to the frame , and the actuating cylinder is mechanically connected on the other hand to the boom for the direct introduction of force, wherein the actuating cylinder is embodied as a double-acting actuating cylinder having a piston , to which pressure can be applied from both sides in order to move the boom in opposite directions of rotation; wherein the actuating cylinder is connected to a hydraulic circuit , in particular an open hydraulic circuit , which comprises a hydraulic pump and at least one control element , wherein a first line is connected to a first pressure side and a second line to a second pressure side of the actuating cylinder , characterized in that the control element comprises two pressure control valves, which can each be connected to a pressure side of the actuating cylinder on the one hand and each alternatively connected to the hydraulic pump and a reservoir on the other.
A computer-implemented method comprising: commanding a computer numerically controlled machine comprising a movable head capable of delivering electromagnetic energy to a part of a working area defined by limits within which the movable head can cause delivery of the electromagnetic energy, the working area being inside an interior space of the computer numerically controlled machine , the interior space being defined by a housing comprising an openable barrier that attenuates transmission of electromagnetic energy between the interior space and an exterior of the computer numerically controlled machine when the openable barrier is in a closed position, the computer numerically controlled machine comprising an interlock that prevents emission of the electromagnetic energy when detecting that the openable barrier is not in the closed position, the commanding resulting in the computer numerically controlled machine executing operations of a motion plan for causing movement of the movable head to deliver the electromagnetic energy to effect a change in a material at least partially contained within the interior space; and generating an image including at least half of the working area with at least one camera , the generating occurring when the interlock is not preventing the emission of the electromagnetic energy. commanding a computer numerically controlled machine comprising a movable head capable of delivering electromagnetic energy to a part of a working area defined by limits within which the movable head can cause delivery of the electromagnetic energy, the working area being inside an interior space of the computer numerically controlled machine , the interior space being defined by a housing comprising an openable barrier that attenuates transmission of electromagnetic energy between the interior space and an exterior of the computer numerically controlled machine when the openable barrier is in a closed position, the computer numerically controlled machine comprising an interlock that prevents emission of the electromagnetic energy when detecting that the openable barrier is not in the closed position, the commanding resulting in the computer numerically controlled machine executing operations of a motion plan for causing movement of the movable head to deliver the electromagnetic energy to effect a change in a material at least partially contained within the interior space; and generating an image including at least half of the working area with at least one camera , the generating occurring when the interlock is not preventing the emission of the electromagnetic energy.
A cutting tool system comprising: a tool holder comprising a plurality of common insert pockets positioned in a helical orientation about a longitudinal axis of the tool holder ; and a plurality of common cutting inserts removably attachable to the plurality of common insert pockets in the tool holder to form at least one cutting flute (141-145) on the tool holder , the at least one cutting flute (141-145) comprising a helical grouping of common cutting inserts positioned in the insert pockets ; wherein the common cutting inserts each comprise at least one sinusoidal and helical cutting edge ; wherein the at least one cutting flute (141-145) comprises a sinusoidal and helical cutting edge positioned about the longitudinal axis of the tool holder and formed by alignment of the individual sinusoidal and helical cutting edges of the common cutting inserts that comprise the at least one cutting flute (141-145); characterised in that at least one sinusoidal and helical cutting edge of each of the common cutting inserts has a geometric shape comprising a sinusoidal curve component and a helical curve component; wherein the at least one sinusoidal and helical cutting edge of each of the common cutting inserts comprises a shape of a one-wavelength sinusoidal curve defined about a mean line and extends solely for one wavelength. a tool holder comprising a plurality of common insert pockets positioned in a helical orientation about a longitudinal axis of the tool holder ; and a plurality of common cutting inserts removably attachable to the plurality of common insert pockets in the tool holder to form at least one cutting flute (141-145) on the tool holder , the at least one cutting flute (141-145) comprising a helical grouping of common cutting inserts positioned in the insert pockets ; wherein the common cutting inserts each comprise at least one sinusoidal and helical cutting edge ; wherein the at least one cutting flute (141-145) comprises a sinusoidal and helical cutting edge positioned about the longitudinal axis of the tool holder and formed by alignment of the individual sinusoidal and helical cutting edges of the common cutting inserts that comprise the at least one cutting flute (141-145); characterised in that at least one sinusoidal and helical cutting edge of each of the common cutting inserts has a geometric shape comprising a sinusoidal curve component and a helical curve component; wherein the at least one sinusoidal and helical cutting edge of each of the common cutting inserts comprises a shape of a one-wavelength sinusoidal curve defined about a mean line and extends solely for one wavelength.
An optical module comprising: a mirror unit having a movable mirror part including a coil ; a magnet part having upper and bottom surfaces and a side surface extending from the upper surface to the bottom surface and configured to generate a magnetic field acting on the movable mirror part ; and a holding member configured to hold the magnet part , wherein the magnet part has a Halbach structure including a first magnet applied with a force in a first direction (D1) toward the bottom surface from the upper surface and a second magnet applied with a force in a second direction (D2) toward the upper surface from the bottom surface , wherein the holding member integrally holds the magnet part against a force acting on the first magnet in the first direction (D1) and a force acting on the second magnet in the second direction (D2), wherein the holding member has a restriction part supporting the upper surface of the magnet part , a bottom wall part supporting the bottom surface of the magnet part , and a side wall part supporting the side surface of the magnet part , wherein the mirror unit is supported on the upper surface by the holding member , and wherein a relaxation layer for relaxing stress from the magnet part is provided between the upper surface and the mirror unit , characterised in that the relaxation layer comes into contact with the upper surface of the magnet part , wherein the mirror unit is placed on the relaxation layer . a mirror unit having a movable mirror part including a coil ; a magnet part having upper and bottom surfaces and a side surface extending from the upper surface to the bottom surface and configured to generate a magnetic field acting on the movable mirror part ; and a holding member configured to hold the magnet part , wherein the magnet part has a Halbach structure including a first magnet applied with a force in a first direction (D1) toward the bottom surface from the upper surface and a second magnet applied with a force in a second direction (D2) toward the upper surface from the bottom surface , wherein the holding member integrally holds the magnet part against a force acting on the first magnet in the first direction (D1) and a force acting on the second magnet in the second direction (D2), wherein the holding member has a restriction part supporting the upper surface of the magnet part , a bottom wall part supporting the bottom surface of the magnet part , and a side wall part supporting the side surface of the magnet part , wherein the mirror unit is supported on the upper surface by the holding member , and wherein a relaxation layer for relaxing stress from the magnet part is provided between the upper surface and the mirror unit , characterised in that the relaxation layer comes into contact with the upper surface of the magnet part , wherein the mirror unit is placed on the relaxation layer .