mhurhangee/patent-ind-claim-en huggingface dataset:
An electrochemiluminescence method of detecting an analyte in a liquid sample, the method comprising: • providing a receptacle containing a fluid comprising protein coated magnetic microparticles to a stirring unit , • acquiring a signal being indicative of an amount of the fluid contained in the receptacle , • determining a rotational frequency for the stirring unit dependent on the amount of fluid in the receptacle , the rotational frequency being proportional to the amount of fluid, • stirring the fluid for a predefined period of time by applying the previously determined rotational frequency, • taking a portion of the fluid containing the protein coated magnetic microparticles from the receptacle , thereby reducing the amount of the fluid contained in the receptacle , • mixing a portion of the liquid sample with the portion of the fluid comprising the protein coated magnetic microparticles and with a marker, • incubating the mixture comprising the analyte , the protein coated magnetic microparticles , and the marker in an incubator , • transporting a portion of the mixture from the incubator to a measurement cell , • applying a magnetic field to the measurement cell for magnetic adhesion of the protein coated magnetic microparticles to a working electrode of the measurement cell , • applying an excitation energy for causing luminescence, • measuring of the luminescence for acquisition of a measurement signal , and • generating an output signal being indicative of the presence of the analyte in the liquid sample using the measurement signal . • providing a receptacle containing a fluid comprising protein coated magnetic microparticles to a stirring unit , • acquiring a signal being indicative of an amount of the fluid contained in the receptacle , • determining a rotational frequency for the stirring unit dependent on the amount of fluid in the receptacle , the rotational frequency being proportional to the amount of fluid, • stirring the fluid for a predefined period of time by applying the previously determined rotational frequency, • taking a portion of the fluid containing the protein coated magnetic microparticles from the receptacle , thereby reducing the amount of the fluid contained in the receptacle , • mixing a portion of the liquid sample with the portion of the fluid comprising the protein coated magnetic microparticles and with a marker, • incubating the mixture comprising the analyte , the protein coated magnetic microparticles , and the marker in an incubator , • transporting a portion of the mixture from the incubator to a measurement cell , • applying a magnetic field to the measurement cell for magnetic adhesion of the protein coated magnetic microparticles to a working electrode of the measurement cell , • applying an excitation energy for causing luminescence, • measuring of the luminescence for acquisition of a measurement signal , and • generating an output signal being indicative of the presence of the analyte in the liquid sample using the measurement signal .
A pressure sensor comprising: a diaphragm made of metal and configured to separate a pressure chamber into which a fluid with a pressure thereof to be detected is introduced from a liquid seal chamber filled with sealing oil; a housing made of metal and disposed around the liquid seal chamber ; a pressure detection element disposed in the liquid seal chamber in a liquid sealable manner to detect the pressure of the fluid via the diaphragm and the sealing oil; a potential adjustment member disposed between the pressure detection element and each of the diaphragm and the housing and being conductive, the potential adjustment member being connected to a zero potential terminal of the pressure detection element , wherein the potential adjustment member comprises a frame made of metal and connected to the zero potential of the pressure detection element , and a shield plate made of metal and disposed between the diaphragm and the pressure detection element , and a distance between the potential adjustment member and each of the diaphragm and the housing is larger than a predetermined insulating distance, characterised by the outer periphery of the shield plate being formed by half-punching-punching-out and including rounded portions formed between an outer peripheral surface of the shield plate and a lower surface of the shield plate, and between the outer peripheral surface of the shield plate and an upper surface of the shield plate. a diaphragm made of metal and configured to separate a pressure chamber into which a fluid with a pressure thereof to be detected is introduced from a liquid seal chamber filled with sealing oil; a housing made of metal and disposed around the liquid seal chamber ; a pressure detection element disposed in the liquid seal chamber in a liquid sealable manner to detect the pressure of the fluid via the diaphragm and the sealing oil; a potential adjustment member disposed between the pressure detection element and each of the diaphragm and the housing and being conductive, the potential adjustment member being connected to a zero potential terminal of the pressure detection element , wherein the potential adjustment member comprises a frame made of metal and connected to the zero potential of the pressure detection element , and a shield plate made of metal and disposed between the diaphragm and the pressure detection element , and a distance between the potential adjustment member and each of the diaphragm and the housing is larger than a predetermined insulating distance, characterised by the outer periphery of the shield plate being formed by half-punching-punching-out and including rounded portions formed between an outer peripheral surface of the shield plate and a lower surface of the shield plate, and between the outer peripheral surface of the shield plate and an upper surface of the shield plate.
A direct speech-to-speech translation (S2ST) model comprising: an encoder configured to: receive an input speech representation corresponding to an utterance spoken by a source speaker in a first language; and encode the input speech representation into a hidden feature representation ; an attention module configured to generate a context vector that attends to the hidden feature representation encoded by the encoder ; a decoder configured to: receive the context vector generated by the attention module ; and predict a phoneme representation corresponding to a translation of the utterance in a second different language; and a synthesizer configured to: receive the context vector and the phoneme representation ; and generate a translated synthesized speech representation corresponding to the translation of the utterance spoken in the different second language. an encoder configured to: receive an input speech representation corresponding to an utterance spoken by a source speaker in a first language; and encode the input speech representation into a hidden feature representation ; receive an input speech representation corresponding to an utterance spoken by a source speaker in a first language; and encode the input speech representation into a hidden feature representation ; an attention module configured to generate a context vector that attends to the hidden feature representation encoded by the encoder ; a decoder configured to: receive the context vector generated by the attention module ; and predict a phoneme representation corresponding to a translation of the utterance in a second different language; and receive the context vector generated by the attention module ; and predict a phoneme representation corresponding to a translation of the utterance in a second different language; and a synthesizer configured to: receive the context vector and the phoneme representation ; and generate a translated synthesized speech representation corresponding to the translation of the utterance spoken in the different second language. receive the context vector and the phoneme representation ; and generate a translated synthesized speech representation corresponding to the translation of the utterance spoken in the different second language.
A lid cover for a medicine container for preventing a medicine, which is air-tightly stored in the medicine container having a lid portion that can be pierced with a needle , from leaking to an outside space when the medicine is suctioned using a syringe having the needle , the lid cover comprising: a peripheral wall portion that can be mounted to the lid portion so as to surround a piercing face of the lid portion that can be pierced with the needle ; and a ceiling face portion that is continuous with an upper portion of the peripheral wall portion , and can be pierced with the needle , wherein the peripheral wall portion and the ceiling face portion are made of an elastic material, and are configured to, in a state where the peripheral wall portion is mounted to the lid portion , air-tightly store the piercing face such that the piercing face is not exposed to the outside space, while also forming a closed space between the piercing face and the ceiling face portion , the ceiling face portion has a central portion that opposes the piercing face, and can be pierced with the needle , and an outer periphery portion that is formed in a periphery of the central portion , and characterized in that the outer periphery portion is thinner than the central portion , and the entirety of the lid cover is integrally molded. a peripheral wall portion that can be mounted to the lid portion so as to surround a piercing face of the lid portion that can be pierced with the needle ; and a ceiling face portion that is continuous with an upper portion of the peripheral wall portion , and can be pierced with the needle , wherein the peripheral wall portion and the ceiling face portion are made of an elastic material, and are configured to, in a state where the peripheral wall portion is mounted to the lid portion , air-tightly store the piercing face such that the piercing face is not exposed to the outside space, while also forming a closed space between the piercing face and the ceiling face portion , the ceiling face portion has a central portion that opposes the piercing face, and can be pierced with the needle , and an outer periphery portion that is formed in a periphery of the central portion , and characterized in that the outer periphery portion is thinner than the central portion , and the entirety of the lid cover is integrally molded.
A camera module, wherein the camera module comprises: an optical protection window , an infrared cut-off filter , and an anti-refection coating, wherein the anti-reflection coating is on at least one surface, through which light passes, of the optical protection window , and wherein the light passes through a first surface of the optical protection window and a second surface opposite to the first surface , and the anti-reflection coating is on either the first surface or the second surface or both; characterized in that the anti-reflection coating comprises conical anti-reflection structures; a bottom diameter of each of the conical anti-reflection structures is 40 nm to 150 nm, a top diameter of each of the conical anti-reflection structures is 0% to 30% of the bottom diameter, a height of each of the conical anti-reflection structures is 150 nm to 300 nm, and a spacing between two adjacent conical anti-reflection structures is 1/5 to 1/3 of a wavelength in a visible light band; a material of the optical protection window is a sapphire material, and a refractive index of the material of the anti-reflection coating is from 1.68 to 1.76; and wherein the camera module further comprises another anti-reflection coating which is on at least one surface, through which light passes, of the infrared cut-off filter , wherein the light passes through a third surface of the infrared cut-off filter and a fourth surface opposite to the third surface , and the anti-reflection coating is on either the third surface or the fourth surface or both. an optical protection window , an infrared cut-off filter , and an anti-refection coating, wherein the anti-reflection coating is on at least one surface, through which light passes, of the optical protection window , and wherein the light passes through a first surface of the optical protection window and a second surface opposite to the first surface , and the anti-reflection coating is on either the first surface or the second surface or both; characterized in that the anti-reflection coating comprises conical anti-reflection structures; a bottom diameter of each of the conical anti-reflection structures is 40 nm to 150 nm, a top diameter of each of the conical anti-reflection structures is 0% to 30% of the bottom diameter, a height of each of the conical anti-reflection structures is 150 nm to 300 nm, and a spacing between two adjacent conical anti-reflection structures is 1/5 to 1/3 of a wavelength in a visible light band; a material of the optical protection window is a sapphire material, and a refractive index of the material of the anti-reflection coating is from 1.68 to 1.76; and wherein the camera module further comprises another anti-reflection coating which is on at least one surface, through which light passes, of the infrared cut-off filter , wherein the light passes through a third surface of the infrared cut-off filter and a fourth surface opposite to the third surface , and the anti-reflection coating is on either the third surface or the fourth surface or both.
A computer-implemented method for well log depth matching, comprising: receiving , on a computing device, a plurality of well logs; determining a depth shift between at least one well log of the plurality of well logs and at least one other well log based upon, at least in part, processing the plurality of well logs with a neural network, wherein determining the depth shift between the at least one well log and the at least one other well log includes randomly applying one or more data augmentation transformations to subsets of samples of data sequences of the at least one well log and the at least one other well log to generate training data used to train for the neural network, the one or more data augmentation transformations comprising up-down and/or right-left flipping of the subsets of the samples of the data sequences, or applying additive Gaussian, Cauchy and/or Poisson noise to the subsets of the samples of the data sequences; employing a stacking technique to the training data by performing one or more equality tests on the at least one well log of the plurality of well logs and at least one other well log of the plurality of well logs; and matching the plurality of well logs with one another based upon, at least in part, the depth shift between the at least one well log and the at least one other well log. receiving , on a computing device, a plurality of well logs; determining a depth shift between at least one well log of the plurality of well logs and at least one other well log based upon, at least in part, processing the plurality of well logs with a neural network, wherein determining the depth shift between the at least one well log and the at least one other well log includes randomly applying one or more data augmentation transformations to subsets of samples of data sequences of the at least one well log and the at least one other well log to generate training data used to train for the neural network, the one or more data augmentation transformations comprising up-down and/or right-left flipping of the subsets of the samples of the data sequences, or applying additive Gaussian, Cauchy and/or Poisson noise to the subsets of the samples of the data sequences; employing a stacking technique to the training data by performing one or more equality tests on the at least one well log of the plurality of well logs and at least one other well log of the plurality of well logs; and matching the plurality of well logs with one another based upon, at least in part, the depth shift between the at least one well log and the at least one other well log.
Use of an optical system comprising: a diffractive optical element disposed along a beam path and having an input surface , an output surface opposing the input surface , and a predetermined thickness (t) extending between the input surface and the output surface , a lens disposed along the beam path a predetermined distance from the output surface and operable to receive a laser beam exiting the output surface ; and a propagation path extending from the lens to a target position along the beam path, for reducing the variation of a laser beam intensity profile, wherein a laser beam intensity profile at the input surface is characterized by a first intensity profile across the beam having a variation greater than 10%; wherein a laser beam intensity profile at a surface of the lens is characterized by a second intensity profile across the beam; and wherein a laser beam intensity profile at the target position is characterized by a third intensity profile across the beam varying less than 5%, characterized in that the diffractive optical element includes a photo-thermo-refractive material, and in that the diffractive optical element has a continuous variation in the index of refraction. a diffractive optical element disposed along a beam path and having an input surface , an output surface opposing the input surface , and a predetermined thickness (t) extending between the input surface and the output surface , a lens disposed along the beam path a predetermined distance from the output surface and operable to receive a laser beam exiting the output surface ; and a propagation path extending from the lens to a target position along the beam path, for reducing the variation of a laser beam intensity profile, wherein a laser beam intensity profile at the input surface is characterized by a first intensity profile across the beam having a variation greater than 10%; wherein a laser beam intensity profile at a surface of the lens is characterized by a second intensity profile across the beam; and wherein a laser beam intensity profile at the target position is characterized by a third intensity profile across the beam varying less than 5%, characterized in that the diffractive optical element includes a photo-thermo-refractive material, and in that the diffractive optical element has a continuous variation in the index of refraction.
An airbag device comprising a bag member configured to be deployed from a location in front of an occupant toward the occupant when receiving gas suppled to the bag member , wherein the bag member includes a center deployable portion configured to be deployed obliquely rearward toward a center in a vehicle width direction of a vehicle when receiving the gas supplied, the center deployable portion has a head receiving surface which receives the head of the occupant at time of an oblique collision of the vehicle with an obstacle, and the head receiving surface has thereon a frictional force reducer which reduces a friction force between the bag member and the head, characterized in that : the frictional force reducer has both ends, in the vehicle width direction, coupled to the head receiving surface , while having a slack portion which is slack with respect to the vehicle width direction.
An optical sorting or classifying machine for sorting or classifying product, comprising a housing which includes an internal region , a chute which has a guide surface and is supported by the housing , the chute being pivotably coupled to the housing about a first pivot , an illumination unit (7a-d) for illuminating product as delivered on and/or from the chute , and at least one detector (9a, b) for detecting product as delivered on and/or from the chute ; characterized in that the chute is pivotably coupled to the housing about the first pivot between a first, operative configuration, in which the chute extends across the internal region and prevents access or entry into the internal region by an operator, and a second, stowed configuration, in which an operator can access or enter the internal region .
A method for in-flight cleaning of an installed gas turbine engine comprising an engine core and defining a primary gas path , the engine core including at least one airfoil extending into the primary gas path , the method comprising: initiating a cleaning program in-flight, the initiating a cleaning program including determining that a temperature limit has been exceeded within the gas turbine engine ; directing a cleaning fluid toward the engine core in response to the initiation of the cleaning program; and initiating delivery of the cleaning fluid as a non-vaporized liquid within the primary gas path to the engine core . initiating a cleaning program in-flight, the initiating a cleaning program including determining that a temperature limit has been exceeded within the gas turbine engine ; directing a cleaning fluid toward the engine core in response to the initiation of the cleaning program; and initiating delivery of the cleaning fluid as a non-vaporized liquid within the primary gas path to the engine core .
A terminal device for use in a communications network, the device comprising a processor and a memory , the memory containing instructions executable by the processor, wherein the terminal device is operable to: obtain accurate location information relating to a location of the terminal device, wherein the accurate location information comprises GNSS data; introduce an inaccuracy into the obtained accurate location information by removing some least significant bits of the obtained accurate location information to form imprecise location information relating to a location of the terminal device, wherein the inaccuracy introduced by removing said some least significant bits is in the order of a range of a proximity service; and transmit a proximity service discovery message, wherein the discovery message includes the imprecise location information. obtain accurate location information relating to a location of the terminal device, wherein the accurate location information comprises GNSS data; introduce an inaccuracy into the obtained accurate location information by removing some least significant bits of the obtained accurate location information to form imprecise location information relating to a location of the terminal device, wherein the inaccuracy introduced by removing said some least significant bits is in the order of a range of a proximity service; and transmit a proximity service discovery message,