mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting contamination with a photosynthesis inhibitor, the method comprising: a liquid supply step of supplying a preset storage amount of a test liquid at a preset time in a light-blocking pretreatment tank while irradiating phytoplankton in the test liquid with weak light having an underwater photon flux density that does not cause photoinhibitior, wherein photoinhibition indicates a decrease in photosynthetic function ; a storing and weak-light irradiation step of stopping the liquid supply of the test liquid to the pretreatment tank at a time at which the storage amount of the test liquid reaches a preset value, and irradiating the test liquid with light having the same underwater photon flux density as that in the liquid supply step for a preset time starting from the time at which the liquid supply is stopped; and a fluorescence quantum efficiency measurement step of irradiating the test liquid in the pretreatment tank with light having the same underwater photon flux density as that in the storing and weak-light irradiation step, discharging the test liquid from the pretreatment tank through a drainage conduit , and measuring a fluorescence quantum efficiency by sequentially irradiating, with measurement light and saturated pulse light, the test liquid remaining in the drainage conduit when flow of the test liquid into the drainage conduit is stopped during a discharge period of the pretreatment tank , after completion of the storing and weak-light irradiation step ; and detection of contamination with the photosynthesis inhibitor based on the fluorescence quantum efficiency. a liquid supply step of supplying a preset storage amount of a test liquid at a preset time in a light-blocking pretreatment tank while irradiating phytoplankton in the test liquid with weak light having an underwater photon flux density that does not cause photoinhibitior, wherein photoinhibition indicates a decrease in photosynthetic function ; a storing and weak-light irradiation step of stopping the liquid supply of the test liquid to the pretreatment tank at a time at which the storage amount of the test liquid reaches a preset value, and irradiating the test liquid with light having the same underwater photon flux density as that in the liquid supply step for a preset time starting from the time at which the liquid supply is stopped; and a fluorescence quantum efficiency measurement step of irradiating the test liquid in the pretreatment tank with light having the same underwater photon flux density as that in the storing and weak-light irradiation step, discharging the test liquid from the pretreatment tank through a drainage conduit , and measuring a fluorescence quantum efficiency by sequentially irradiating, with measurement light and saturated pulse light, the test liquid remaining in the drainage conduit when flow of the test liquid into the drainage conduit is stopped during a discharge period of the pretreatment tank , after completion of the storing and weak-light irradiation step ;
An optical analysis tool comprising: an electromagnetic radiation source that provides electromagnetic radiation to an optical train; and an optical computing device positioned within the optical train, the optical computing device comprising a planar array detector having at least two optical detection regions , at least one of the at least two optical detection regions having an integrated computational element disposed thereon, wherein at least one of the at least two optical detection regions comprises a neutral detection region configured to receive electromagnetic radiation without the electromagnetic radiation interacting with the integrated computational element , wherein separate bandpass filters overlay each optical detection region , and wherein the separate bandpass filters overlaying each optical detection area filter different wavelengths of electromagnetic radiation; and wherein the planar array detector and the integrated computational element are in a fixed configuration with respect to one another. an electromagnetic radiation source that provides electromagnetic radiation to an optical train; and an optical computing device positioned within the optical train, the optical computing device comprising a planar array detector having at least two optical detection regions , at least one of the at least two optical detection regions having an integrated computational element disposed thereon, wherein at least one of the at least two optical detection regions comprises a neutral detection region configured to receive electromagnetic radiation without the electromagnetic radiation interacting with the integrated computational element , wherein separate bandpass filters overlay each optical detection region , and wherein the separate bandpass filters overlaying each optical detection area filter different wavelengths of electromagnetic radiation; and wherein the planar array detector and the integrated computational element are in a fixed configuration with respect to one another.
An embolic protection device for transvascular delivery to an aortic arch of a patient, for protection of side branch vessels of said aortic arch from embolic material, said device including: a support frame , wherein at least a distal or a proximal portion of said support frame is a spring section configured for providing a radial force between said support frame and a wall of said aortic arch when in an expanded state; a filter member attached to said support frame , and configured for preventing said embolic material from passage with a blood flow into said side branch vessels of said aortic arch, characterized in that said filter member has a heat set three-dimensional shape and wherein said filter member is substantially flat when the support frame is not constrained such as by said wall of said aortic arch. a support frame , wherein at least a distal or a proximal portion of said support frame is a spring section configured for providing a radial force between said support frame and a wall of said aortic arch when in an expanded state; a filter member attached to said support frame , and configured for preventing said embolic material from passage with a blood flow into said side branch vessels of said aortic arch, characterized in that said filter member has a heat set three-dimensional shape and wherein said filter member is substantially flat when the support frame is not constrained such as by said wall of said aortic arch.
A display device, comprising: a case having a front surface on which a display screen is displayed, a rear surface opposite to the front surface , a top surface connecting upper ends of the front surface and the rear surface , and a bottom surface opposite to the top surface ; a display panel accommodated in the case ; a heat exchanger mounted inside the case and configured to cause heat exchange between internal air circulating along front and rear surfaces of the display panel and external air introduced from outside of the case ; an intake port formed in the case , through which the external air is introduced from the outside of the case ; a suction fan mounted inside the case and configured to suck the external air through the intake port into a lower portion of the heat exchanger ; characterized by a cooling passage defined at a rear surface of the display panel between the intake port and the suction fan , so that the external air directly cools the rear surface of the display panel . a case having a front surface on which a display screen is displayed, a rear surface opposite to the front surface , a top surface connecting upper ends of the front surface and the rear surface , and a bottom surface opposite to the top surface ; a display panel accommodated in the case ; a heat exchanger mounted inside the case and configured to cause heat exchange between internal air circulating along front and rear surfaces of the display panel and external air introduced from outside of the case ; an intake port formed in the case , through which the external air is introduced from the outside of the case ; a suction fan mounted inside the case and configured to suck the external air through the intake port into a lower portion of the heat exchanger ; characterized by a cooling passage defined at a rear surface of the display panel between the intake port and the suction fan , so that the external air directly cools the rear surface of the display panel .
A manufacturing method for a composite material provided with a reinforcement and resin infused into the reinforcement , characterized by comprising: applying an adhesive to the sheet-shaped reinforcement having first and second regions such that a content density of the adhesive of the second region is lower than that of the first region ; forming a preform by preforming the reinforcement ; placing the preform in a cavity of a mold such that the first region is placed in the vicinity of the injection port of the mold relative to the second region ; and injecting the resin into the cavity from an injection port of the mold to infuse the resin into the preform and mold the composite material . applying an adhesive to the sheet-shaped reinforcement having first and second regions such that a content density of the adhesive of the second region is lower than that of the first region ; forming a preform by preforming the reinforcement ; placing the preform in a cavity of a mold such that the first region is placed in the vicinity of the injection port of the mold relative to the second region ; and injecting the resin into the cavity from an injection port of the mold to infuse the resin into the preform and mold the composite material .
A water extractor comprising: an inlet and an outlet ; a body extending between the inlet and the outlet ; an outer wall ; an inner wall disposed radially inward from the outer wall , the inner wall forming a main flow channel through a portion of the body ; a helical wall extending between and connected to the outer wall and the inner wall , the helical wall forming a helical passageway fluidly connected to the inlet and the outlet , wherein the helical passageway includes a plurality of turns along a bottom of the body ; an ejector of the helical passageway , the ejector disposed at a downstream end of the helical passageway , wherein a gap between a downstream end of the inner wall and the outer wall creates the ejector , wherein the ejector comprises a nozzle for creating a pressure differential to draw airflow through and out of the helical passageway ; a plurality of catchment areas , wherein one of the catchment areas is disposed in each turn of the helical passageway ; and a scupper disposed in each turn of the helical passageway, wherein the scupper is connected to and extends radially inward from the outer wall , wherein each catchment area is formed between the outer wall and the scupper, and wherein the scupper is configured to collect moisture from the helical passageway , wherein a shape of the scupper comprises a scoop with a lip. an inlet and an outlet ; a body extending between the inlet and the outlet ; an outer wall ; an inner wall disposed radially inward from the outer wall , the inner wall forming a main flow channel through a portion of the body ; a helical wall extending between and connected to the outer wall and the inner wall , the helical wall forming a helical passageway fluidly connected to the inlet and the outlet , wherein the helical passageway includes a plurality of turns along a bottom of the body ; an ejector of the helical passageway , the ejector disposed at a downstream end of the helical passageway , wherein a gap between a downstream end of the inner wall and the outer wall creates the ejector , wherein the ejector comprises a nozzle for creating a pressure differential to draw airflow through and out of the helical passageway ; a plurality of catchment areas , wherein one of the catchment areas is disposed in each turn of the helical passageway ; and a scupper disposed in each turn of the helical passageway, wherein the scupper is connected to and extends radially inward from the outer wall , wherein each catchment area is formed between the outer wall and the scupper, and wherein the scupper is configured to collect moisture from the helical passageway , wherein a shape of the scupper comprises a scoop with a lip.
A tooth whitening composition, comprising: at least one whitening agent, wherein the at least one whitening agent is in the form of polyvinylpyrrolidone - hydrogen peroxide (PVP-H 2 O 2 ) complex; at least one bleach activator, wherein the at least one bleach activator is selected from the group consisting of N- or O Acyl compounds, tetraacetylglycouril, N-acetyl N-[4-(triethylammoniomethyl) benzoyl] caprolactam chloride, sodium acetoxy-benzene sulfonate, sodium-benzoyloxy benzene sulfonate, sodium-lauroyloxy-benzene sulfonate, sodiumisononanoyloxy benzene sulfonate, tetra acetyl ethylenediamine and sodium nonanoyloxybenzenesulfonate; at least one abrasive; and at least one anticalculus agent. at least one whitening agent, wherein the at least one whitening agent is in the form of polyvinylpyrrolidone - hydrogen peroxide (PVP-H 2 O 2 ) complex; at least one bleach activator, wherein the at least one bleach activator is selected from the group consisting of N- or O Acyl compounds, tetraacetylglycouril, N-acetyl N-[4-(triethylammoniomethyl) benzoyl] caprolactam chloride, sodium acetoxy-benzene sulfonate, sodium-benzoyloxy benzene sulfonate, sodium-lauroyloxy-benzene sulfonate, sodiumisononanoyloxy benzene sulfonate, tetra acetyl ethylenediamine and sodium nonanoyloxybenzenesulfonate; at least one abrasive; and at least one anticalculus agent.
A mounting accuracy measurement chip used to measure the mounting accuracy of a mounting device configured to mount a mounting member to a target mounting substrate (S), the mounting accuracy measurement chip characterized in : a chip main body ; and one or more protrusions (81 to 84), provided on a mounting face of the chip main body , which serve as a contact surface with a mounting target at a position shifted from the mounting face of the chip main body ; wherein the one or more protrusions (81 to 84) are disposed only within a range defined by a circle whose center is the center of gravity of the mounting face and whose radius is half the length of the longest distance from the center of gravity to the outer edge of the chip main body . a chip main body ; and one or more protrusions (81 to 84), provided on a mounting face of the chip main body , which serve as a contact surface with a mounting target at a position shifted from the mounting face of the chip main body ; wherein the one or more protrusions (81 to 84) are disposed only within a range defined by a circle whose center is the center of gravity of the mounting face and whose radius is half the length of the longest distance from the center of gravity to the outer edge of the chip main body .
A data processing apparatus for a collision check with respect to a plurality of rays, the data processing apparatus comprising: a control unit configured to generate a plurality of packets with respect to a plurality of rays associated with a first node in a spatial data structure and to group the plurality of rays into the generated packets, wherein plural rays are grouped into each generated packet; a processor configured to sequentially receive the plurality of packets and simultaneously determine which child node of the first node is associated with each of the plurality of rays, grouped in the received packet, associated with the first node; characterised in that the data processing apparatus further comprises: a first buffer memory , which stores the plurality of packets; a second buffer memory , which stores the plurality of rays whose child node is determined and the second buffer memory includes at least two memory structures and the rays having the same child node from among the plurality of rays whose child node is determined is stored in a same memory structure. a control unit configured to generate a plurality of packets with respect to a plurality of rays associated with a first node in a spatial data structure and to group the plurality of rays into the generated packets, wherein plural rays are grouped into each generated packet; a processor configured to sequentially receive the plurality of packets and simultaneously determine which child node of the first node is associated with each of the plurality of rays, grouped in the received packet, associated with the first node; characterised in that the data processing apparatus further comprises: a first buffer memory , which stores the plurality of packets; a second buffer memory , which stores the plurality of rays whose child node is determined and the second buffer memory includes at least two memory structures and the rays having the same child node from among the plurality of rays whose child node is determined is stored in a same memory structure. a first buffer memory , which stores the plurality of packets; a second buffer memory , which stores the plurality of rays whose child node is determined and the second buffer memory includes at least two memory structures and the rays having the same child node from among the plurality of rays whose child node is determined is stored in a same memory structure.
A method for autonomously maneuvering a tow vehicle towards a trailer for autonomous hitching between the trailer and the tow vehicle , the method comprising: receiving, at a data processing hardware , images from one or more cameras positioned on a back portion of the tow vehicle and in communication with the data processing hardware ; receiving, at the data processing hardware , sensor data from an inertial measurement unit in communication with the data processing hardware and supported by the tow vehicle ; sending, from the data processing hardware to a drive system supported by the tow vehicle , instruction to autonomously maneuver the tow vehicle along a tow vehicle path in a reverse direction (R) causing the tow vehicle to hitch with the trailer; characterized by that the method further comprises: determining, at the data processing hardware , a pixel-wise intensity difference between a current received image and a previous received image ; determining, at the data processing hardware , a camera pose and a trailer pose with respect to a world coordinate system, the camera pose and the trailer pose based on the images , the sensor data , and the pixel-wise intensity difference ; and determining, at the data processing hardware , the tow vehicle path based on the camera pose and the trailer pose . receiving, at a data processing hardware , images from one or more cameras positioned on a back portion of the tow vehicle and in communication with the data processing hardware ; receiving, at the data processing hardware , sensor data from an inertial measurement unit in communication with the data processing hardware and supported by the tow vehicle ; sending, from the data processing hardware to a drive system supported by the tow vehicle , instruction to autonomously maneuver the tow vehicle along a tow vehicle path in a reverse direction (R) causing the tow vehicle to hitch with the trailer; characterized by that the method further comprises: determining, at the data processing hardware , a pixel-wise intensity difference between a current received image and a previous received image ; determining, at the data processing hardware , a camera pose and a trailer pose with respect to a world coordinate system, the camera pose and the trailer pose based on the images , the sensor data , and the pixel-wise intensity difference ; and determining, at the data processing hardware , the tow vehicle path based on the camera pose and the trailer pose . determining, at the data processing hardware , a pixel-wise intensity difference between a current received image and a previous received image ; determining, at the data processing hardware , a camera pose and a trailer pose with respect to a world coordinate system, the camera pose and the trailer pose based on the images , the sensor data , and the pixel-wise intensity difference ; and determining, at the data processing hardware , the tow vehicle path based on the camera pose and the trailer pose .
A compound represented by formula (I): wherein R is a hydrocarbon aliphatic chain having from 6 to 26 carbon atoms, and/or its enantiomer, wherein the expression "hydrocarbon aliphatic chain" refers to a linear or branched, cyclic or acyclic, non-aromatic hydrocarbon chain, optionally substituted, and optionally comprising at least one double bond and/or at least one triple bond.
A stacked-type secondary battery made by stacking a plurality of battery cells each in a planar shape having a charge layer that stores electricity sandwiched between a negative electrode and a positive electrode , wherein adjacent battery cells are stacked such that negative electrodes thereof are in contact with each other and positive electrodes thereof are in contact with each other, wherein a taking-out lead electrode is sandwiched at least either between two negative electrodes in contact with each other or between two positive electrodes in contact with each other, characterized in that the lead electrode is smaller than a negative electrode surface or a positive electrode surface and wherein lead electrodes sandwiched between positive or negative electrodes of different layers are arranged such that there is no region where all of the lead electrodes simultaneously overlap one another as viewed in the direction of stacking.