mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic flowmeter comprising: a fluid flow path through which a measurement target fluid flows; a pair of ultrasonic transducers disposed upstream and downstream of an upper portion of the fluid flow path and configured to transmit and receive an ultrasonic signal; and a flow rate calculator configured to calculate a flow velocity or flow rate of the measurement target fluid based on a propagation time from when the ultrasonic signal transmitted from one of the pair of ultrasonic transducers propagates through the measurement target fluid to when the ultrasonic signal is received by the other of the pair of ultrasonic transducers, wherein the fluid flow path includes: a main flow path including a plurality of divided flow paths obtained by dividing a flow path having a rectangular cross-section by a same width; and sub flow paths including an added flow path having a rectangular cross-section having the same width as the width of the divided flow path and a height lower than the height of the divided flow path, and the flow rate calculator calculates a flow rate of the measurement target fluid flowing through the fluid flow path from the flow velocity or flow rate of the measurement target fluid obtained based on the propagation time, wherein the sub flow paths are disposed within a smallest circle (F) including a flow path cross-section of the main flow path a fluid flow path through which a measurement target fluid flows; a pair of ultrasonic transducers disposed upstream and downstream of an upper portion of the fluid flow path and configured to transmit and receive an ultrasonic signal; and a flow rate calculator configured to calculate a flow velocity or flow rate of the measurement target fluid based on a propagation time from when the ultrasonic signal transmitted from one of the pair of ultrasonic transducers propagates through the measurement target fluid to when the ultrasonic signal is received by the other of the pair of ultrasonic transducers, wherein the fluid flow path includes: a main flow path including a plurality of divided flow paths obtained by dividing a flow path having a rectangular cross-section by a same width; and sub flow paths including an added flow path having a rectangular cross-section having the same width as the width of the divided flow path and a height lower than the height of the divided flow path, and a main flow path including a plurality of divided flow paths obtained by dividing a flow path having a rectangular cross-section by a same width; and sub flow paths including an added flow path having a rectangular cross-section having the same width as the width of the divided flow path and a height lower than the height of the divided flow path, and the flow rate calculator calculates a flow rate of the measurement target fluid flowing through the fluid flow path from the flow velocity or flow rate of the measurement target fluid obtained based on the propagation time, wherein the sub flow paths are disposed within a smallest circle (F) including a flow path cross-section of the main flow path
A method of compressing multi-channel audio data comprising: performing a spatial analysis based on a plurality of spherical harmonic coefficients that describe a three-dimensional sound field to identify a spatial masking threshold; rendering the multi-channel audio data from the plurality of spherical harmonic coefficients using a transform matrix, wherein the multi-channel audio data is rendered for a dense speaker geometry such that the multi-channel audio data has a number of channels greater than a number of channels for most decoder-local speaker geometries; and compressing the multi-channel audio data based on the identified spatial masking threshold to generate a bitstream. performing a spatial analysis based on a plurality of spherical harmonic coefficients that describe a three-dimensional sound field to identify a spatial masking threshold; rendering the multi-channel audio data from the plurality of spherical harmonic coefficients using a transform matrix, wherein the multi-channel audio data is rendered for a dense speaker geometry such that the multi-channel audio data has a number of channels greater than a number of channels for most decoder-local speaker geometries; and compressing the multi-channel audio data based on the identified spatial masking threshold to generate a bitstream.
A material for an organic electroluminescent (EL) device comprising a compound represented by Formula 7: wherein: X 2 is O or S; Ar 5 and Ar 6 are each independently a substituted or unsubstituted aryl group having 6 to 30 ring forming carbon atoms for forming a ring, a silyl group, a halogen atom, a deuterium atom, a hydrogen atom, or a substituted or unsubstituted dibenzoheterole group having 10 to 30 ring forming carbon atoms and including an oxygen atom or a sulfur atom; wherein the substituents of the aryl or dibenzoheterole group, if present, are selected from a phenyl group, a naphthyl group, an anthracenyl group, a phenanthryl group, a biphenyl group, a terphenyl group, a quaterphenyl group, a fluorenyl group, a triphenylene group, a biphenylene group, a pyrenyl group, a benzofluoranthenyl group, a chrysenyl group, a phenylnaphthyl group, a naphthylphenyl group, a trimethylsilyl group, a triphenylsilyl group, a dibenzofuranyl group and a dibenzothiophenyl group; L 6 is a direct linkage or a divalent group selected from a substituted or unsubstituted aryl group having 6 to 24 ring forming carbon atoms for forming a ring, a silyl group, and a substituted or unsubstituted silylarylene group having 6 to 24 ring forming carbon atoms X 2 is O or S; Ar 5 and Ar 6 are each independently a substituted or unsubstituted aryl group having 6 to 30 ring forming carbon atoms for forming a ring, a silyl group, a halogen atom, a deuterium atom, a hydrogen atom, or a substituted or unsubstituted dibenzoheterole group having 10 to 30 ring forming carbon atoms and including an oxygen atom or a sulfur atom; wherein the substituents of the aryl or dibenzoheterole group, if present, are selected from a phenyl group, a naphthyl group, an anthracenyl group, a phenanthryl group, a biphenyl group, a terphenyl group, a quaterphenyl group, a fluorenyl group, a triphenylene group, a biphenylene group, a pyrenyl group, a benzofluoranthenyl group, a chrysenyl group, a phenylnaphthyl group, a naphthylphenyl group, a trimethylsilyl group, a triphenylsilyl group, a dibenzofuranyl group and a dibenzothiophenyl group; L 6 is a direct linkage or a divalent group selected from a substituted or unsubstituted aryl group having 6 to 24 ring forming carbon atoms for forming a ring, a silyl group, and a substituted or unsubstituted silylarylene group having 6 to 24 ring forming carbon atoms
A signal having decoding parameters, the signal formatted to comprise: information in a first parameter set contained in a first network abstraction layer, NAL , unit, the first parameter set being a syntax structure which contains syntax elements that apply to zero or more entire coded video sequences, and the information describing a parameter at least for use in decoding at least a first layer of multiple layers of the video sequences; supplemental information from a second NAL unit having a specific NAL unit type code, the second NAL unit corresponding to a second layer of said multiple layers, and the supplemental information from the second NAL unit indicating (i) an identifier of the first parameter set to indicate that the second NAL unit is used to supplement the first NAL unit, (ii) a video usability information ("VUI") parameter having layer-dependent information for use in decoding said second layer of said multiple layers; and data representing said second layer of said multiple layers. information in a first parameter set contained in a first network abstraction layer, NAL , unit, the first parameter set being a syntax structure which contains syntax elements that apply to zero or more entire coded video sequences, and the information describing a parameter at least for use in decoding at least a first layer of multiple layers of the video sequences; supplemental information from a second NAL unit having a specific NAL unit type code, the second NAL unit corresponding to a second layer of said multiple layers, and the supplemental information from the second NAL unit indicating (i) an identifier of the first parameter set to indicate that the second NAL unit is used to supplement the first NAL unit, (ii) a video usability information ("VUI") parameter having layer-dependent information for use in decoding said second layer of said multiple layers; and data representing said second layer of said multiple layers.
A mirror for a heads-up display, HUD, system, comprising: a glass-based substrate comprising a glass sheet having a first major surface, a second major surface opposite to the first major surface, and a minor surface connecting the first and second major surfaces; a first chamfer at an edge of the first major surface, the first chamfer having a first end at an intersection of the first chamfer and the first major surface and having a second end at an intersection of the first chamfer and the minor surface; and a second chamfer at an edge of the second major surface, the second chamfer having a first end at an intersection of the second chamfer and the second major surface and having a second end at an intersection of the second chamfer and the minor surface, wherein the first chamfer has a different size or shape from the second chamfer; and wherein the first major surface has an aspheric shape. a glass-based substrate comprising a glass sheet having a first major surface, a second major surface opposite to the first major surface, and a minor surface connecting the first and second major surfaces; a first chamfer at an edge of the first major surface, the first chamfer having a first end at an intersection of the first chamfer and the first major surface and having a second end at an intersection of the first chamfer and the minor surface; and a second chamfer at an edge of the second major surface, the second chamfer having a first end at an intersection of the second chamfer and the second major surface and having a second end at an intersection of the second chamfer and the minor surface, wherein the first chamfer has a different size or shape from the second chamfer; and wherein the first major surface has an aspheric shape.
A method for circumventing an object, characterized by comprising: in response to detecting an object to be circumvented in a walking process of a self-walking device, moving (S101), by the self-walking device and according to information of the object to be circumvented, to an observation position in a direction away from the object; wherein an included angle between a connection line direction and an original walking direction of the self-walking device before movement does not exceed 90 degrees, the connection line direction extends from a center point of the object to the observation position, and the observation position is a position where the self-walking device is capable of observing circumstance information around the object; and determining (S102), by the self-walking device, a navigation route according to observation information obtained at the observation position, and performing, by the self-walking device, navigation according to the navigation route. in response to detecting an object to be circumvented in a walking process of a self-walking device, moving (S101), by the self-walking device and according to information of the object to be circumvented, to an observation position in a direction away from the object; wherein an included angle between a connection line direction and an original walking direction of the self-walking device before movement does not exceed 90 degrees, the connection line direction extends from a center point of the object to the observation position, and the observation position is a position where the self-walking device is capable of observing circumstance information around the object; and determining (S102), by the self-walking device, a navigation route according to observation information obtained at the observation position, and performing, by the self-walking device, navigation according to the navigation route.
A method for wireless communication, comprising: receiving, from a user equipment, UE, , timing information determined by the UE based on a timing offset between a reference cell and a serving cell of the UE , wherein the timing offset between the reference cell and the serving cell is determined based on a first timing offset between an intermediate cell and the serving cell and a second timing offset between the reference cell and the intermediate cell ; determining a measurement gap pattern for the UE based on the timing information ; and sending the measurement gap pattern to the UE , wherein the measurement gap pattern indicates sequences of gaps during which the UE is not scheduled for data transmission by the serving cell . receiving, from a user equipment, UE, , timing information determined by the UE based on a timing offset between a reference cell and a serving cell of the UE , wherein the timing offset between the reference cell and the serving cell is determined based on a first timing offset between an intermediate cell and the serving cell and a second timing offset between the reference cell and the intermediate cell ; determining a measurement gap pattern for the UE based on the timing information ; and sending the measurement gap pattern to the UE , wherein the measurement gap pattern indicates sequences of gaps during which the UE is not scheduled for data transmission by the serving cell .
A finger support system comprising an incorporated finger brace, the finger brace configured for disposition about and along a lengthwise portion of a human finger including a finger outer side , a finger inner side , finger lateral sides, a PIP joint and a fingertip bearing a finger nail , the finger brace comprising: a brace proximal end configured for situating at least partially about the finger at a location behind the PIP joint and on the finger outer side; a brace distal end including an elongated shank configured for coextension along a lengthwise portion of the finger outer side between the PIP joint and the finger nail; and a PIP-joint support extending between and connecting the support proximal and distal ends, and configured to at least partially encircle and support the PIP joint while allowing the PIP joint to bend; and the finger support system comprising a glove including a glove finger configured for insertion of the finger and the finger brace installed about the finger, the glove finger having glove-finger interior and exterior surfaces and defined therethrough a transverse slot through which the shank of the finger brace protrudes for disposition to the glove-finger exterior along the finger outer side forward of the PIP joint with a portion of the glove finger situated between the shank and the finger outer side, thereby facilitating a user's adjustment of the finger brace about the finger by means of the shank without requiring removal of the glove. a brace proximal end configured for situating at least partially about the finger at a location behind the PIP joint and on the finger outer side; a brace distal end including an elongated shank configured for coextension along a lengthwise portion of the finger outer side between the PIP joint and the finger nail; and a PIP-joint support extending between and connecting the support proximal and distal ends, and configured to at least partially encircle and support the PIP joint while allowing the PIP joint to bend; and
A laundry treatment apparatus comprising a drainage apparatus, which comprises: a first inlet pipe fluid flows in; a second inlet pipe fluid flows in; an outlet pipe in communication with the first inlet pipe and the second inlet pipe ; a third inlet hole provided in the outlet pipe and for inflow of fluid; a first outlet where the first inlet pipe is in contact with the outlet pipe ; and a second outlet where the second inlet pipe is in contact with the outlet pipe ; wherein the third inlet hole is provided higher than the first outlet and the second outlet ; characterized in that the first outlet comprises a first open surface which is open to allow the flow of water and a first cross section for partially closing the first outlet so that water flows towards the first open surface ; and the second outlet comprises a second open surface which is open to allow the flow of water and a second cross section for partially closing the second outlet so that water flows towards the second open surface ; wherein the first open surface and the second open surface are opened in different directions to prevent from facing each other. a first inlet pipe fluid flows in; a second inlet pipe fluid flows in; an outlet pipe in communication with the first inlet pipe and the second inlet pipe ; a third inlet hole provided in the outlet pipe and for inflow of fluid; a first outlet where the first inlet pipe is in contact with the outlet pipe ; and a second outlet where the second inlet pipe is in contact with the outlet pipe ; wherein the third inlet hole is provided higher than the first outlet and the second outlet ; characterized in that the first outlet comprises a first open surface which is open to allow the flow of water and a first cross section for partially closing the first outlet so that water flows towards the first open surface ; and the second outlet comprises a second open surface which is open to allow the flow of water and a second cross section for partially closing the second outlet so that water flows towards the second open surface ; wherein the first open surface and the second open surface are opened in different directions to prevent from facing each other.
A method comprising: providing an apparatus having exclusive access to each of one or more central processing units (CPUs) of a computing system and exclusive access to host resources of the computing system ; controlling, by the apparatus , execution of a virtual machine in the computing system based on the apparatus selectively denying access to any one of the CPUs according to prescribed policies for the virtual machine , the prescribed policies maintained exclusively by the apparatus . providing an apparatus having exclusive access to each of one or more central processing units (CPUs) of a computing system and exclusive access to host resources of the computing system ; controlling, by the apparatus , execution of a virtual machine in the computing system based on the apparatus selectively denying access to any one of the CPUs according to prescribed policies for the virtual machine , the prescribed policies maintained exclusively by the apparatus .
A liquid discharge head , comprising: a flow channel member that includes a first surface and a second surface that is positioned on an opposite side of the first surface ; a pressurization part that is positioned on the first surface ; a plurality of discharge holes that are positioned on the second surface ; a flexible substrate , the flexible substrate including a one-end part that is positioned on and electrically connected to the pressurization part ; a cover member that covers the one-end part ; a first heater that is positioned on the cover member ; a supply member that is linked to the flow channel member , the supply member including a housing part that houses the pressurization part , the one-end part , the cover member , and the heater between the supply member and the first surface and a slit that is communicated with the housing part ; and a first heater wiring that is electrically connected to the first heater , wherein the flexible substrate and the heater wiring are led from the slit to an outside of the supply member . a flow channel member that includes a first surface and a second surface that is positioned on an opposite side of the first surface ; a pressurization part that is positioned on the first surface ; a plurality of discharge holes that are positioned on the second surface ; a flexible substrate , the flexible substrate including a one-end part that is positioned on and electrically connected to the pressurization part ; a cover member that covers the one-end part ; a first heater that is positioned on the cover member ; a supply member that is linked to the flow channel member , the supply member including a housing part that houses the pressurization part , the one-end part , the cover member , and the heater between the supply member and the first surface and a slit that is communicated with the housing part ; and a first heater wiring that is electrically connected to the first heater , wherein the flexible substrate and the heater wiring are led from the slit to an outside of the supply member .
Apparatus for producing a three-dimensional object by spray deposition, having: a spray nozzle ; a first line (A) arranged to channel a first flow of spray material entrained in a carrier gas to the spray nozzle; and a second line (B) arranged to channel a second flow of gas to the spray nozzle; and wherein the first and second flows merge to cause the spray material to be propelled from the spray nozzle to a substrate to create the three-dimensional object; and wherein the apparatus comprises pressure and temperature sensors for gas in the first line, the sensors configured to communicate readings to an electronic controller configured to, in response to the readings, cause adjustments to the pressure and temperature of the gas in the first line such that pressure and temperature parameters of only the first flow are controlled in real time to provide the spray material with desired spray characteristics as it leaves the spray nozzle. a spray nozzle ; a first line (A) arranged to channel a first flow of spray material entrained in a carrier gas to the spray nozzle; and a second line (B) arranged to channel a second flow of gas to the spray nozzle; and
A method for regulating the pressure of the combustion gas and/or exhaust gas of a work machine , in particular of an internal combustion engine, the combustion gas being supplied to the work machine via a supply line and being discharged via an exhaust gas line , the supply line and/or the exhaust gas line having a regulating device , the regulating device delimiting a pressure-regulated section of the supply line and/or of the exhaust gas line , characterised in that in each pressure-regulated section the pressure is measured at more than one point in order to reduce the effects of resonances, fluctuations and pressure waves on the pressure measurement, the pressure in each pressure-regulated section being adjusted on the basis of a weighted arithmetic mean value of the pressures measured at a plurality of points in the pressure-regulated section by regulation of the regulating device .