mhurhangee/patent-ind-claim-en huggingface dataset:
A dose indicator comprising, a chassis comprising a chassis frame , an indexable first display unit mounted on the chassis frame and indexable about a first display axis (X), an indexable second display unit mounted on the chassis frame and indexable about a second display axis, the second display axis being transverse to the first display axis (X), characterized in that the chassis further comprises a displacement portion comprising a drive means to engage the first display unit , and the chassis further comprises at least one hinge means directly or indirectly connecting the displacement portion and chassis frame so as to permit relative movement therebetween.
A method (200; 300; 400; 500; 600; 700) for model registration comprising: receiving (202; 402) a 3D model of an anatomical portion of a patient; calculating (204; 404) one or more poses of at least one imaging device based on the 3D model, wherein the at least one imaging device is an ultrasound probe and a detector of the ultrasound probe and an emitter of the ultrasound probe are each held a distance from and opposite each other by separate robotic arms ; receiving (206; 406) an image from the at least one imaging device at each of the one or more poses to yield an image set, each image depicting at least one anatomical feature of the patient; aligning , based at least in part on the one or more poses, the at least one anatomical feature in each image with a corresponding anatomical feature in the 3D model; registering an image space to a patient space based on the alignment; and determining a time of flight of an ultrasound signal based on the distance and a duration between emission of the signal by the emitter and detection of the signal by the detector. receiving (202; 402) a 3D model of an anatomical portion of a patient; calculating (204; 404) one or more poses of at least one imaging device based on the 3D model, wherein the at least one imaging device is an ultrasound probe and a detector of the ultrasound probe and an emitter of the ultrasound probe are each held a distance from and opposite each other by separate robotic arms ; receiving (206; 406) an image from the at least one imaging device at each of the one or more poses to yield an image set, each image depicting at least one anatomical feature of the patient; aligning , based at least in part on the one or more poses, the at least one anatomical feature in each image with a corresponding anatomical feature in the 3D model; registering an image space to a patient space based on the alignment; and determining a time of flight of an ultrasound signal based on the distance and a duration between emission of the signal by the emitter and detection of the signal by the detector.
A method for configuring a program guide graphical user interface (GUI) on a portable device , comprising: at the portable device , determining a current geographical location of the portable device ; receiving by the portable device from a set-top box data indicative of an identity of the set-top box ; using the data indicative of the identity of the set-top box to identify a Multi-System Operator (MSO) provider; using the determined current geographical location of the portable device to select from a MSO map associated with the identified MSO provider a channel lineup wherein the selected channel lineup is appropriate for the identified MSO provider and the current geographical location of the portable device; and configuring the program guide GUI on the portable device whereby the selected channel lineup is displayable to a user of the portable device for use in commanding tuning operations of the set-top box via interactions with the program guide GUI. at the portable device , determining a current geographical location of the portable device ; receiving by the portable device from a set-top box data indicative of an identity of the set-top box ; using the data indicative of the identity of the set-top box to identify a Multi-System Operator (MSO) provider; using the determined current geographical location of the portable device to select from a MSO map associated with the identified MSO provider a channel lineup wherein the selected channel lineup is appropriate for the identified MSO provider and the current geographical location of the portable device; and configuring the program guide GUI on the portable device whereby the selected channel lineup is displayable to a user of the portable device for use in commanding tuning operations of the set-top box via interactions with the program guide GUI.
A terminal device comprising: a generator configured to generate a transmission signal; an adjuster configured to adjust timing of transmission of the transmission signal generated by the generator according to information on transmission timing; a transmitter configured to transmit the transmission signal at the timing of transmission adjusted by the adjuster ; and a timer configured to measure elapsed time after the timing of transmission adjusted by the adjuster is set at given synchronization timing, wherein when the elapsed time measured by the timer is equal to or larger than a first threshold, the generator is configured to generate a shortened signal, said shortened signal being a transmission signal in which transmission data is not mapped onto at least one symbol in a front part or a rear part of a subframe, and the transmitter is configured to transmit the shortened signal. a generator configured to generate a transmission signal; an adjuster configured to adjust timing of transmission of the transmission signal generated by the generator according to information on transmission timing; a transmitter configured to transmit the transmission signal at the timing of transmission adjusted by the adjuster ; and a timer configured to measure elapsed time after the timing of transmission adjusted by the adjuster is set at given synchronization timing, wherein when the elapsed time measured by the timer is equal to or larger than a first threshold, the generator is configured to generate a shortened signal, said shortened signal being a transmission signal in which transmission data is not mapped onto at least one symbol in a front part or a rear part of a subframe, and the transmitter is configured to transmit the shortened signal.
An outdoor image irradiation apparatus , comprising: an image light emission device (A), a polarizer for image light, and a light attenuation member configured to attenuate sunlight by absorbing at least one of ultraviolet light and infrared light, and to permit transmission of visible light, wherein the light attenuation member , the polarizer and the image light emission device (A) are sequentially located on an optical path for the sunlight, characterized in that the light attenuation member comprises sapphire, and the sapphire comprises a plurality of terrace structure layers located on any plane of the sapphire, each terrace structure layer of the plurality of terrace structure layers comprising a terrace surface and a side surface that is in contact with an edge line of the terrace surface . an image light emission device (A), a polarizer for image light, and a light attenuation member configured to attenuate sunlight by absorbing at least one of ultraviolet light and infrared light, and to permit transmission of visible light, wherein the light attenuation member , the polarizer and the image light emission device (A) are sequentially located on an optical path for the sunlight, characterized in that the light attenuation member comprises sapphire, and the sapphire comprises a plurality of terrace structure layers located on any plane of the sapphire, each terrace structure layer of the plurality of terrace structure layers comprising a terrace surface and a side surface that is in contact with an edge line of the terrace surface .
A reflector comprising: an outer wall ; and an inner wall configured to reflect xenon lamp light from a xenon lamp toward an object to be light sintered and include inner side walls and an inner top wall which are spaced apart from the outer wall by a predetermined distance so as to allow cooling water for cooling heat generated by the xenon lamp light to flow, wherein at least a part of the inner side walls has a thickness same as at least a part of the inner top wall , further comprising: at least one cooling water inlet formed in the outer wall facing a top side of the inner top wall to introduce the cooling water; and a spray plate extending in a lengthwise direction of the xenon lamp , wherein the spray plate includes a plurality of spray ports , and the spray ports have openings gradually larger in size as the openings are away from the cooling water inlet . an outer wall ; and an inner wall configured to reflect xenon lamp light from a xenon lamp toward an object to be light sintered and include inner side walls and an inner top wall which are spaced apart from the outer wall by a predetermined distance so as to allow cooling water for cooling heat generated by the xenon lamp light to flow, wherein at least a part of the inner side walls has a thickness same as at least a part of the inner top wall , further comprising: at least one cooling water inlet formed in the outer wall facing a top side of the inner top wall to introduce the cooling water; and a spray plate extending in a lengthwise direction of the xenon lamp , wherein the spray plate includes a plurality of spray ports , and the spray ports have openings gradually larger in size as the openings are away from the cooling water inlet . at least one cooling water inlet formed in the outer wall facing a top side of the inner top wall to introduce the cooling water; and a spray plate extending in a lengthwise direction of the xenon lamp , wherein the spray plate includes a plurality of spray ports , and the spray ports have openings gradually larger in size as the openings are away from the cooling water inlet .
An airfoil for a gas turbine engine , the airfoil comprising: an inner and outer endwall section (62; 64); an airfoil section defining, at least in part, an airfoil profile (AP), and extending radially between the inner and outer endwall sections ; wherein the airfoil section comprises an internal passage , and a rib subdividing said internal passage ; wherein at least one of the inner and outer endwall section has a first slot ; wherein the airfoil section includes a second slot said second slot being formed in said rib ; and wherein the first slot and the second slot together form a seal cavity ; the airfoil further comprising a seal disposed in said seal cavity . an inner and outer endwall section (62; 64); an airfoil section defining, at least in part, an airfoil profile (AP), and extending radially between the inner and outer endwall sections ; wherein the airfoil section comprises an internal passage , and a rib subdividing said internal passage ; wherein at least one of the inner and outer endwall section has a first slot ; wherein the airfoil section includes a second slot said second slot being formed in said rib ; and wherein the first slot and the second slot together form a seal cavity ; the airfoil further comprising a seal disposed in said seal cavity .
A radio frequency, RF, receiver circuit, comprising: a variable gain amplifier , configured to receive an input RF signal, and to generate an amplified RF signal based on the input RF signal, wherein a gain of the variable gain amplifier is variable; and an RF level indicator circuit , configured to sample the amplified RF signal at non-periodic sampling intervals to generate a plurality of sampled RF signals, and to compare the sampled RF signals with one or more thresholds to generate a plurality of comparison result signals, wherein the gain of the variable gain amplifier is determined based at least in part on the comparison result signals; the receiver circuit further comprising: a sample clock generator , configured to generate a sample clock based on a periodic reference clock, wherein the RF level indicator circuit is configured to generate the sampled RF signals in response to each of a series of pulses of the sample clock; wherein a magnitude of a difference between a maximum duration from a first sampling time to a first next successive sampling time and a minimum duration from a second sampling time to a second next successive sampling time is less than 1/2 of a period of the periodic reference clock. a variable gain amplifier , configured to receive an input RF signal, and to generate an amplified RF signal based on the input RF signal, wherein a gain of the variable gain amplifier is variable; and an RF level indicator circuit , configured to sample the amplified RF signal at non-periodic sampling intervals to generate a plurality of sampled RF signals, and to compare the sampled RF signals with one or more thresholds to generate a plurality of comparison result signals, wherein the gain of the variable gain amplifier is determined based at least in part on the comparison result signals; the receiver circuit further comprising: a sample clock generator , configured to generate a sample clock based on a periodic reference clock, wherein the RF level indicator circuit is configured to generate the sampled RF signals in response to each of a series of pulses of the sample clock; wherein a magnitude of a difference between a maximum duration from a first sampling time to a first next successive sampling time and a minimum duration from a second sampling time to a second next successive sampling time is less than 1/2 of a period of the periodic reference clock. a sample clock generator , configured to generate a sample clock based on a periodic reference clock, wherein the RF level indicator circuit is configured to generate the sampled RF signals in response to each of a series of pulses of the sample clock; wherein a magnitude of a difference between a maximum duration from a first sampling time to a first next successive sampling time and a minimum duration from a second sampling time to a second next successive sampling time is less than 1/2 of a period of the periodic reference clock.
A method of magnifying spatial coherent light through an optical diffuser comprises: providing a coherent light beam through a transmission hole of a mirror , the mirror having a mirror surface at its rear; the coherent light beam impacting the optical diffuser , a first side of the optical diffuser being in contact with the mirror surface , wherein magnified light is outputted from a second side of the optical diffuser which opposes the first side of the optical diffuser , characterised in that the outputted magnified light is magnified spatial coherent light . providing a coherent light beam through a transmission hole of a mirror , the mirror having a mirror surface at its rear; the coherent light beam impacting the optical diffuser , a first side of the optical diffuser being in contact with the mirror surface , wherein magnified light is outputted from a second side of the optical diffuser which opposes the first side of the optical diffuser , characterised in that the outputted magnified light is magnified spatial coherent light .
A process for producing acetic acid by carbonylation of methanol in a liquid phase reactor, the process comprising: separating, in a flash vessel, a reaction medium formed in the reactor to form a liquid recycle and a vapor product stream; distilling the vapor product stream in a first column to obtain a side stream and a first low-boiling overhead vapor stream, wherein the side stream comprises water in an amount from 1 to 3 wt.%; condensing the first low-boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; distilling the side stream in a second column to obtain a purified acetic acid product and a second low-boiling overhead vapor stream; condensing the second low-boiling overhead vapor stream to obtain an aqueous recycle stream; comprising a) water in an amount from 50 to 90 wt.% or b) greater than or equal to 90% of the water in the side stream; and recycling the second low-boiling overhead vapor stream to the reactor, wherein the recycle ratio of the mass flow of the light liquid phase recycled to the reactor to the mass flow of the aqueous recycle stream recycled to the reactor is less than or equal to 2 and higher than or equal to 0.2. separating, in a flash vessel, a reaction medium formed in the reactor to form a liquid recycle and a vapor product stream; distilling the vapor product stream in a first column to obtain a side stream and a first low-boiling overhead vapor stream, wherein the side stream comprises water in an amount from 1 to 3 wt.%; condensing the first low-boiling overhead vapor stream and biphasically separating the condensed stream to form a heavy liquid phase and a light liquid phase; distilling the side stream in a second column to obtain a purified acetic acid product and a second low-boiling overhead vapor stream; condensing the second low-boiling overhead vapor stream to obtain an aqueous recycle stream; comprising a) water in an amount from 50 to 90 wt.% or b) greater than or equal to 90% of the water in the side stream; and recycling the second low-boiling overhead vapor stream to the reactor, wherein the recycle ratio of the mass flow of the light liquid phase recycled to the reactor to the mass flow of the aqueous recycle stream recycled to the reactor is less than or equal to 2 and higher than or equal to 0.2.
An identity validity verification method, the method being carried out by an electronic terminal in communication with an access control system, wherein the method comprises: acquiring biometric feature data; generating an electronic private key based on the biometric feature data; and sending the electronic private key to the access control system to make the access control system carry out identity validity verification based on the electronic private key; wherein the generating an electronic private key based on the biometric feature data comprises: establishing a function mapping relationship between the biometric feature data of a user and a first array including a plurality of character strings such that a user uniquely corresponds to a first array, wherein the first array one-to-one corresponds to the biometric feature data; sorting the plurality of character strings and reading the plurality of character strings by using a time pointer, wherein the character strings in the first array one-to-one correspond to time segments; and using the read character strings as the electronic private key, or transforming the read character strings and using the transformed character strings as the electronic private key. acquiring biometric feature data; generating an electronic private key based on the biometric feature data; and sending the electronic private key to the access control system to make the access control system carry out identity validity verification based on the electronic private key; wherein the generating an electronic private key based on the biometric feature data comprises: establishing a function mapping relationship between the biometric feature data of a user and a first array including a plurality of character strings such that a user uniquely corresponds to a first array, wherein the first array one-to-one corresponds to the biometric feature data; sorting the plurality of character strings and reading the plurality of character strings by using a time pointer, wherein the character strings in the first array one-to-one correspond to time segments; and using the read character strings as the electronic private key, or transforming the read character strings and using the transformed character strings as the electronic private key. establishing a function mapping relationship between the biometric feature data of a user and a first array including a plurality of character strings such that a user uniquely corresponds to a first array, wherein the first array one-to-one corresponds to the biometric feature data; sorting the plurality of character strings and reading the plurality of character strings by using a time pointer, wherein the character strings in the first array one-to-one correspond to time segments; and using the read character strings as the electronic private key, or transforming the read character strings and using the transformed character strings as the electronic private key.
An air conditioner comprising: a main body ; a fan configured to cause air to flow through the main body; a water reservoir detachably disposed on an upper portion of the main body; a humidifying fabric member disposed inside the main body and configured to receive water from the water reservoir; a water collecting tank configured to collect water that flows from the humidifying fabric member; and a pump configured to pump the water in the water collecting tank to the water reservoir through a suction hole , wherein a bottom of the water collecting tank is formed to be downwardly inclined toward one portion of the bottom and the suction hole of the pump is disposed adjacent to the one portion, and characterized in that : a collecting groove that is lower than the bottom of the water collecting tank is formed at the one portion of the bottom of the water collecting tank, and the suction hole of the pump is disposed adjacent to the collecting groove. a main body ; a fan configured to cause air to flow through the main body; a water reservoir detachably disposed on an upper portion of the main body; a humidifying fabric member disposed inside the main body and configured to receive water from the water reservoir; a water collecting tank configured to collect water that flows from the humidifying fabric member; and a pump configured to pump the water in the water collecting tank to the water reservoir through a suction hole , wherein a bottom of the water collecting tank is formed to be downwardly inclined toward one portion of the bottom and the suction hole of the pump is disposed adjacent to the one portion, and characterized in that : a collecting groove that is lower than the bottom of the water collecting tank is formed at the one portion of the bottom of the water collecting tank, and the suction hole of the pump is disposed adjacent to the collecting groove. a collecting groove that is lower than the bottom of the water collecting tank is formed at the one portion of the bottom of the water collecting tank, and the suction hole of the pump is disposed adjacent to the collecting groove.