mhurhangee/patent-ind-claim-en huggingface dataset:
An automated analyzer , comprising: a reaction disk on which a plurality of reaction vessels capable of containing a mixed solution of a sample and a reagent are placed; a first cover (302; 303; 305; 308) that covers at least a part of an upper side of the reaction disk ; a second cover (301; 304; 306, 307) that is openable and closable independently of the first cover (302; 303; 305; 308); at least one sensor that is adapted to monitor opening and closing of the first cover (302; 303; 305; 308); and a control unit , characterized in that the first cover has a shape in which at least one of a position where a sample or a reagent is dispensed to the reaction vessel and a position where a cleaning mechanism is provided is opened, the control unit is adapted to monitor a signal from the sensor and performs control to skip one or both of a cleaning operation and a blank measurement operation before analysis start in a case where there is no opening and closing of the first cover (302; 303; 305; 308) until a new analysis operation starts, and the control unit is adapted to determine the reaction vessel stopped at or having passed through the opened position until a new analysis operation starts, and perform control not to skip the cleaning operation and the blank measurement operation before the analysis start for the reaction vessel stopped at or having passed through the opened position. a reaction disk on which a plurality of reaction vessels capable of containing a mixed solution of a sample and a reagent are placed; a first cover (302; 303; 305; 308) that covers at least a part of an upper side of the reaction disk ; a second cover (301; 304; 306, 307) that is openable and closable independently of the first cover (302; 303; 305; 308); at least one sensor that is adapted to monitor opening and closing of the first cover (302; 303; 305; 308); and a control unit , characterized in that the first cover has a shape in which at least one of a position where a sample or a reagent is dispensed to the reaction vessel and a position where a cleaning mechanism is provided is opened, the control unit is adapted to monitor a signal from the sensor and performs control to skip one or both of a cleaning operation and a blank measurement operation before analysis start in a case where there is no opening and closing of the first cover (302; 303; 305; 308) until a new analysis operation starts, and the control unit is adapted to determine the reaction vessel stopped at or having passed through the opened position until a new analysis operation starts, and perform control not to skip the cleaning operation and the blank measurement operation before the analysis start for the reaction vessel stopped at or having passed through the opened position.
A medical instrument identification setup , comprising - a sensor carrier , configured to be removably arranged in a lumen of a medical instrument , the sensor carrier (1 00, 202, 302, 510) having at least two localizers (106, 108, 110, 310, 312; 512, 514), the localizers each being configured for providing a sensor signal representing position and orientation of the respective localizer, - a position detection system , configured for determining position and orientation of the at least two localizers (106, 108, 110, 310, 312; 512, 514) in a position detection system's coordinate system from received sensor signals, - a calibration device , configured such that its position and orientation in the position detection system's coordinate system can be determined by the position detection system , - a calibration unit , configured for calibrating a medical instrument with the sensor carrier arranged in its lumen by calculating a distance between the medical instrument's tip and at least one of the two localizers (106, 108, 110, 310, 312; 512, 514) based on the position and orientation of the calibration device and the position and orientation of at least one of the two localizers (106, 108, 110, 310, 312; 512, 514) determined by the position detection system , and - a medical instrument identification unit , configured for determining a length of the medical instrument's lumen at least from the calculated distance and for using the determined length of the lumen for identifying the medical instrument . - a sensor carrier , configured to be removably arranged in a lumen of a medical instrument , the sensor carrier (1 00, 202, 302, 510) having at least two localizers (106, 108, 110, 310, 312; 512, 514), the localizers each being configured for providing a sensor signal representing position and orientation of the respective localizer, - a position detection system , configured for determining position and orientation of the at least two localizers (106, 108, 110, 310, 312; 512, 514) in a position detection system's coordinate system from received sensor signals, - a calibration device , configured such that its position and orientation in the position detection system's coordinate system can be determined by the position detection system , - a calibration unit , configured for calibrating a medical instrument with the sensor carrier arranged in its lumen by calculating a distance between the medical instrument's tip and at least one of the two localizers (106, 108, 110, 310, 312; 512, 514) based on the position and orientation of the calibration device and the position and orientation of at least one of the two localizers (106, 108, 110, 310, 312; 512, 514) determined by the position detection system , and - a medical instrument identification unit , configured for determining a length of the medical instrument's lumen at least from the calculated distance and for using the determined length of the lumen for identifying the medical instrument .
A continuous vapor phase olefin polymerization process comprising polymerization of at least one olefin monomer in at least two serial vapor phase polymerization reactors containing an agitated bed of forming polymer particles, wherein forming polymer particles are transferred from an upstream reactor to a downstream reactor through sequentially a gas-solid separator and a pressure transfer chamber, wherein the upstream reactor is a horizontal stirred reactor containing multiple reaction zones, each reaction zone having at least one inlet for a gaseous stream and optionally additionally an inlet for a liquid stream and, wherein one reaction zone comprised in the upstream reactor vessel is a polymer discharge reaction zone from which forming polymer particles are discharged and subsequently transported to the downstream reactor and wherein the ratio of the hydrogen concentration to the olefin monomer concentration in the polymer discharge reaction zone ([H 2 ] discharge zone /[Olefin monomer] discharge zone ) is reduced compared to the ratio of the hydrogen concentration to the olefin monomer concentration in the preceding reactor zone ([H 2 ] preceding zone /[Olefin monomer] preceding zone ), wherein one or more liquid streams to one or more reaction zones and/or one or more gaseous streams to one or more reaction zones are controlled to achieve the desired ratios of the hydrogen concentration to the olefin monomer concentration in the reaction zones.. wherein forming polymer particles are transferred from an upstream reactor to a downstream reactor through sequentially a gas-solid separator and a pressure transfer chamber, wherein the upstream reactor is a horizontal stirred reactor containing multiple reaction zones, each reaction zone having at least one inlet for a gaseous stream and optionally additionally an inlet for a liquid stream and, wherein one reaction zone comprised in the upstream reactor vessel is a polymer discharge reaction zone from which forming polymer particles are discharged and subsequently transported to the downstream reactor and wherein the ratio of the hydrogen concentration to the olefin monomer concentration in the polymer discharge reaction zone ([H 2 ] discharge zone /[Olefin monomer] discharge zone ) is reduced compared to the ratio of the hydrogen concentration to the olefin monomer concentration in the preceding reactor zone ([H 2 ] preceding zone /[Olefin monomer] preceding zone ), wherein one or more liquid streams to one or more reaction zones and/or one or more gaseous streams to one or more reaction zones are controlled to achieve the desired ratios of the hydrogen concentration to the olefin monomer concentration in the reaction zones..
A compression apparatus comprising: a device having an internal cavity into which a vehicle air-bag may be placed; a compression arrangement operable to reduce the volume of the cavity, wherein the compression arrangement is configured to reduce the volume of the cavity in more than one stage, with the reduction in volume being halted between stages; a selectively openable valve having a closed position, in which the cavity is sealed in a gas-tight or substantially gas-tight manner, and an open position, in which a gas flow path is opened, allowing communication between the cavity and a further region; and a valve control arrangement operable to place the valve in the closed position during an initial compression, and operable to place the valve in the open position when the temperature and/or pressure within the cavity reaches a predetermined level. a device having an internal cavity into which a vehicle air-bag may be placed; a compression arrangement operable to reduce the volume of the cavity, wherein the compression arrangement is configured to reduce the volume of the cavity in more than one stage, with the reduction in volume being halted between stages; a selectively openable valve having a closed position, in which the cavity is sealed in a gas-tight or substantially gas-tight manner, and an open position, in which a gas flow path is opened, allowing communication between the cavity and a further region; and a valve control arrangement operable to place the valve in the closed position during an initial compression, and operable to place the valve in the open position when the temperature and/or pressure within the cavity reaches a predetermined level.
A method in a computing environment, the method being performed at least in part on at least one processor, the method characterized by comprising: re-optimizing a partially deduplicated file into a fully deduplicated file, wherein the partially deduplicated file is a previously deduplicated file that is partially recalled, the partially deduplicated file having at least one undeduplicated portion including partially recalled data and at least one deduplicated portion, wherein the at least one deduplicated portion is stored as one or more chunks (C3, C6, C7) in a chunk store , and wherein the one or more chunks are referenced by metadata associated with the partially deduplicated file, the metadata reflecting which portions of the file have been recalled and which portions of the file remain deduplicated, the re-optimizing including: processing each of the at least one undeduplicated portion of the partially deduplicated file to determine at least one chunk, wherein the at least one deduplicated portion of the partially deduplicated file is not deduplicated again; committing the determined at least one chunk to the chunk store ; and updating the metadata associated with the partially deduplicated file to include a reference to the determined at least one chunk that is committed to the chunk store . re-optimizing a partially deduplicated file into a fully deduplicated file, wherein the partially deduplicated file is a previously deduplicated file that is partially recalled, the partially deduplicated file having at least one undeduplicated portion including partially recalled data and at least one deduplicated portion, wherein the at least one deduplicated portion is stored as one or more chunks (C3, C6, C7) in a chunk store , and wherein the one or more chunks are referenced by metadata associated with the partially deduplicated file, the metadata reflecting which portions of the file have been recalled and which portions of the file remain deduplicated, the re-optimizing including: processing each of the at least one undeduplicated portion of the partially deduplicated file to determine at least one chunk, wherein the at least one deduplicated portion of the partially deduplicated file is not deduplicated again; committing the determined at least one chunk to the chunk store ; and updating the metadata associated with the partially deduplicated file to include a reference to the determined at least one chunk that is committed to the chunk store . processing each of the at least one undeduplicated portion of the partially deduplicated file to determine at least one chunk, wherein the at least one deduplicated portion of the partially deduplicated file is not deduplicated again; committing the determined at least one chunk to the chunk store ; and updating the metadata associated with the partially deduplicated file to include a reference to the determined at least one chunk that is committed to the chunk store .
A method for producing a container for foods having depth, by injection molding a molten resin that contains a supercritical fluid and a resin composition into a cavity in a metal mold , comprising a step of moving a part of the metal mold to expand a volume of the cavity , before the molten resin is solidified which has been charged into the cavity , wherein the cavity comprises a first region that forms an underside portion of the container for foods having depth, a second region that forms a curved side portion , and a third region that forms a lateral side portion , from a resin injection port toward a flow end, and wherein mold surfaces that face the cavity of the second region and the third region have an asperity shape formed thereon which has an arithmetic mean roughness of 0.5 μm or larger and 10 μm or smaller, and a ten-point mean roughness of 2 μm or larger and 60 μm or smaller. comprising a step of moving a part of the metal mold to expand a volume of the cavity , before the molten resin is solidified which has been charged into the cavity , wherein the cavity comprises a first region that forms an underside portion of the container for foods having depth, a second region that forms a curved side portion , and a third region that forms a lateral side portion , from a resin injection port toward a flow end, and wherein mold surfaces that face the cavity of the second region and the third region have an asperity shape formed thereon which has an arithmetic mean roughness of 0.5 μm or larger and 10 μm or smaller, and a ten-point mean roughness of 2 μm or larger and 60 μm or smaller.
An additive manufacturing system , comprising: a housing defining a chamber ; a build platform disposed in a lower portion of the chamber ; an upper gas inlet disposed in a first side wall of the chamber above the build platform , wherein the upper gas inlet is configured to supply an upper gas flow in a first direction parallel to the build platform ; a lower gas inlet disposed in the chamber and configured to supply a lower gas flow in a second direction at least initially toward a bottom wall of the chamber ; a flow directing system disposed near the bottom wall and configured to receive the lower gas flow , wherein the flow directing system redirects the lower gas flow in the first direction parallel to the build platform ; one or more gas delivery devices fluidly coupled to the upper and lower gas inlets and configured to regulate one or more flow characteristics of the upper and lower gas flows ; and a gas outlet disposed in a second side wall of the chamber , wherein the gas outlet is configured to discharge the upper and lower gas flows from the chamber characterized in that , the flow directing system comprises a flow directing element comprising a curved profile that extends tangentially between a first end portion of the flow directing element and a second end portion of the flow directing element . a housing defining a chamber ; a build platform disposed in a lower portion of the chamber ; an upper gas inlet disposed in a first side wall of the chamber above the build platform , wherein the upper gas inlet is configured to supply an upper gas flow in a first direction parallel to the build platform ; a lower gas inlet disposed in the chamber and configured to supply a lower gas flow in a second direction at least initially toward a bottom wall of the chamber ; a flow directing system disposed near the bottom wall and configured to receive the lower gas flow , wherein the flow directing system redirects the lower gas flow in the first direction parallel to the build platform ; one or more gas delivery devices fluidly coupled to the upper and lower gas inlets and configured to regulate one or more flow characteristics of the upper and lower gas flows ; and a gas outlet disposed in a second side wall of the chamber , wherein the gas outlet is configured to discharge the upper and lower gas flows from the chamber characterized in that , the flow directing system comprises a flow directing element comprising a curved profile that extends tangentially between a first end portion of the flow directing element and a second end portion of the flow directing element .
A system for detecting a location of an elevator passenger, the system comprising: a plurality of sensors , wherein the plurality of sensors are positioned at one or more locations associated with an elevator system ; a processor coupled to a memory , the processor configured to: receive a call request for an elevator car from a user device ; transmit an identifier to the user device ; determine a location of the user device based at least in part on at least one sensor in the plurality of sensors detecting the identifier on the user device ; transmit the call request to an elevator controller ; and characterized in that the processor transmits a confirmation to the user device , wherein the confirmation comprises a time window for a user of the user device to travel to a first region. a plurality of sensors , wherein the plurality of sensors are positioned at one or more locations associated with an elevator system ; a processor coupled to a memory , the processor configured to: receive a call request for an elevator car from a user device ; transmit an identifier to the user device ; determine a location of the user device based at least in part on at least one sensor in the plurality of sensors detecting the identifier on the user device ; transmit the call request to an elevator controller ; and characterized in that the processor transmits a confirmation to the user device , wherein the confirmation comprises a time window for a user of the user device to travel to a first region. receive a call request for an elevator car from a user device ; transmit an identifier to the user device ; determine a location of the user device based at least in part on at least one sensor in the plurality of sensors detecting the identifier on the user device ; transmit the call request to an elevator controller ; and characterized in that the processor transmits a confirmation to the user device , wherein the confirmation comprises a time window for a user of the user device to travel to a first region.
A method facilitating contextual note taking, the method comprising: receiving , at an end user device, an indication of a specific presentation session; receiving , at the end user device, specific presentation session content, the specific presentation session content comprising identifiable context images; receiving , from a presenter device, a navigation message via a communication interface of the end user device, the navigation message comprising a location identifier that provides a location in the specific presentation session content a presenter is displaying; responsive to receiving the navigation message, changing , at the end user device, a current assistant context image of the specific presentation session content to a current presenter context image based on the navigation message, the current assistant context image corresponding to a context image to which any text units being received are assigned and the current presenter context image corresponding to a context image a presenter is currently displaying; receiving , at the end user device, a speech-to-text message comprising a unit of text associated with the current presenter context image from the presenter device; displaying , at the end user device, the unit of text associated with the current presenter context image; and storing , at the end user device, the unit of text associated with the current presenter context image regardless of a context image that an end user is currently viewing. receiving , at an end user device, an indication of a specific presentation session; receiving , at the end user device, specific presentation session content, the specific presentation session content comprising identifiable context images; receiving , from a presenter device, a navigation message via a communication interface of the end user device, the navigation message comprising a location identifier that provides a location in the specific presentation session content a presenter is displaying; responsive to receiving the navigation message, changing , at the end user device, a current assistant context image of the specific presentation session content to a current presenter context image based on the navigation message, the current assistant context image corresponding to a context image to which any text units being received are assigned and the current presenter context image corresponding to a context image a presenter is currently displaying; receiving , at the end user device, a speech-to-text message comprising a unit of text associated with the current presenter context image from the presenter device; displaying , at the end user device, the unit of text associated with the current presenter context image; and storing , at the end user device, the unit of text associated with the current presenter context image regardless of a context image that an end user is currently viewing.
A viewer for authenticity determination comprising: a polarized light separation layer containing a layer of a cholesteric material; and a phase difference layer disposed on one side of the polarized light separation layer , the phase difference layer having reverse wavelength dispersion property, wherein the viewer is used for observing an identification medium containing a reflective material that contains a layer of a cholesteric material and that has a reflection wavelength region in which a reflectivity is 40% or more with respect to incident unpolarized light, and the polarized light separation layer of the viewer has a reflection wavelength region in which a reflectivity is 40% or more with respect to incident unpolarized light, and a part or all of the reflection wavelength region of the polarized light separation layer of the viewer and all of the reflection wavelength region of the reflective material of the identification medium overlap with each other. the viewer is used for observing an identification medium containing a reflective material that contains a layer of a cholesteric material and that has a reflection wavelength region in which a reflectivity is 40% or more with respect to incident unpolarized light, and the polarized light separation layer of the viewer has a reflection wavelength region in which a reflectivity is 40% or more with respect to incident unpolarized light, and a part or all of the reflection wavelength region of the polarized light separation layer of the viewer and all of the reflection wavelength region of the reflective material of the identification medium overlap with each other.