mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the cryogenic freezing of units for packaging a biological substance, comprising: - a receptacle configured in order for a flow of vapour of a cryogenic agent to flow therein, having at its top an opening for introducing said packaging units into said receptacle ; - a lid movable between a closed position in which it closes said introduction opening and an open position in which it leaves said introduction opening free; and - an aperture for venting said vapour, provided in said receptacle ; characterized in that said device further includes an obturator mechanically connected to said lid such that when said lid is in closed position, said obturator is away from said aperture and when said lid is in an open position, said obturator closes said aperture . - a receptacle configured in order for a flow of vapour of a cryogenic agent to flow therein, having at its top an opening for introducing said packaging units into said receptacle ; - a lid movable between a closed position in which it closes said introduction opening and an open position in which it leaves said introduction opening free; and - an aperture for venting said vapour, provided in said receptacle ;
A device , comprising: a housing defining an aperture , wherein the housing is selectively securable via a fastener to a surgical instrument in a selected orientation relative to the instrument ; a power source disposed within the housing ; and a light source assembly at least partially disposed in the housing , the light source assembly comprising a light source operably coupled to the power source via a power circuit , wherein the light source is positioned within the housing to emit through the aperture of the housing , wherein, upon activation, the light source assembly emits a parallax-free alignment indicator along an alignment axis having at least one of a selected angle and a selected displacement relative to a selected reference axis, wherein the alignment indicator is configured to be rotatable about at least three alignment axes to adjust a roll, a pitch and/or a yaw of the alignment indicator and wherein the alignment indicator is configured to guide a surgical procedure; characterised in that the power circuit comprises a first lead and a second lead both exposed on an exterior surface of the housing in a location designed to contact a metal object to complete the power circuit and activate the light source ; and wherein the metal object comprises a portion of the fastener . a housing defining an aperture , wherein the housing is selectively securable via a fastener to a surgical instrument in a selected orientation relative to the instrument ; a power source disposed within the housing ; and a light source assembly at least partially disposed in the housing , the light source assembly comprising a light source operably coupled to the power source via a power circuit , wherein the light source is positioned within the housing to emit through the aperture of the housing , wherein, upon activation, the light source assembly emits a parallax-free alignment indicator along an alignment axis having at least one of a selected angle and a selected displacement relative to a selected reference axis, wherein the alignment indicator is configured to be rotatable about at least three alignment axes to adjust a roll, a pitch and/or a yaw of the alignment indicator and wherein the alignment indicator is configured to guide a surgical procedure; characterised in that the power circuit comprises a first lead and a second lead both exposed on an exterior surface of the housing in a location designed to contact a metal object to complete the power circuit and activate the light source ; and wherein the metal object comprises a portion of the fastener .
A method for an ownship aircraft to sequence behind a lead aircraft on an approach to a runway, comprising: receiving, by a processing system onboard the ownship aircraft, an altitude, a position, and a velocity for the ownship aircraft; receiving, by the processing system, a position, an elevation and an orientation of the runway,inbound course data for the ownship aircraft, approach slope, final approach fix position, weather data and wind data; receiving, by the processing system via a traffic system, a turbulence category, an altitude, a position, and a velocity for the lead aircraft; receiving, from a user interface, a pilot selection of the lead aircraft; and by the processing system, responsive to the pilot selection of the lead aircraft: calculating, an arrival time of the lead aircraft at the runway; determining a target point for the ownship aircraft to merge onto a centerline of the runway by processing the arrival time of the lead aircraft at the runway with a desired separation time together with the position, the elevation and the orientation of the runway,the inbound course data for the ownship aircraft, the approach slope, the final approach fix position, the weather data and the wind data; and computing and providing vertical commands, lateral commands, and a speed target to guide the ownship aircraft to the target point with the desired separation from the lead aircraft and at a profile selected in terms of fuel burn and speed conditions. receiving, by a processing system onboard the ownship aircraft, an altitude, a position, and a velocity for the ownship aircraft; receiving, by the processing system, a position, an elevation and an orientation of the runway,inbound course data for the ownship aircraft, approach slope, final approach fix position, weather data and wind data; receiving, by the processing system via a traffic system, a turbulence category, an altitude, a position, and a velocity for the lead aircraft; receiving, from a user interface, a pilot selection of the lead aircraft; and calculating, an arrival time of the lead aircraft at the runway; determining a target point for the ownship aircraft to merge onto a centerline of the runway by processing the arrival time of the lead aircraft at the runway with a desired separation time together with the position, the elevation and the orientation of the runway,the inbound course data for the ownship aircraft, the approach slope, the final approach fix position, the weather data and the wind data; and computing and providing vertical commands, lateral commands, and a speed target to guide the ownship aircraft to the target point with the desired separation from the lead aircraft and at a profile selected in terms of fuel burn and speed conditions.
Process for treating a mixture which comprises sugar beet chips as extraction material, a sand and/or fine gravel fraction and a sugar solution as extraction solution, comprising the steps: (a) provision of the mixture in a mash section of a chip masher and (b) separation of sand and/or fine gravel from the mixture in a settling chamber which is arranged on the mash section and/or a pipe (C) which leads away from the chip masher , characterized in that (c) to separate the sand and/or fine gravel from the extraction material, process fluid containing treated extraction solution is fed to the settling chamber through a feed connection on the settling chamber and a feed device (H) coupled thereto and a flow in the direction of the mash section and/or the pipe (C) is generated thereby, where the settling chamber is separated from the mash section and/or the pipe (C) by a retention device in order to prevent at least part of the extraction material from getting into the settling chamber . (a) provision of the mixture in a mash section of a chip masher and (b) separation of sand and/or fine gravel from the mixture in a settling chamber which is arranged on the mash section and/or a pipe (C) which leads away from the chip masher , characterized in that (c) to separate the sand and/or fine gravel from the extraction material, process fluid containing treated extraction solution is fed to the settling chamber through a feed connection on the settling chamber and a feed device (H) coupled thereto and a flow in the direction of the mash section and/or the pipe (C) is generated thereby, where the settling chamber is separated from the mash section and/or the pipe (C) by a retention device in order to prevent at least part of the extraction material from getting into the settling chamber .
A method for regenerating spent electrolyte solution, said method comprising: • providing a membrane electrolysis cell comprising: o an anode; o a cathode consuming gaseous oxygen; o a cation exchange membrane placed in the space between said anode and said cathode, said membrane defining an anode compartment and cathode compartment. • filling said spent electrolyte into said anode compartment to form an anolyte solution; • filling alkaline solution into said cathode compartment to form a catholyte solution; • passing an electric current, and monitoring a voltage, through said membrane electrolysis cell thus reducing the concentration of alkali hydroxide in said anolyte solution and increasing the concentration of alkali hydroxide in said catholyte solution. • providing a membrane electrolysis cell comprising: o an anode; o a cathode consuming gaseous oxygen; o a cation exchange membrane placed in the space between said anode and said cathode, said membrane defining an anode compartment and cathode compartment. o an anode; o a cathode consuming gaseous oxygen; o a cation exchange membrane placed in the space between said anode and said cathode, said membrane defining an anode compartment and cathode compartment. • filling said spent electrolyte into said anode compartment to form an anolyte solution; • filling alkaline solution into said cathode compartment to form a catholyte solution; • passing an electric current, and monitoring a voltage, through said membrane electrolysis cell thus reducing the concentration of alkali hydroxide in said anolyte solution and increasing the concentration of alkali hydroxide in said catholyte solution.
An apparatus of inspecting a substrate for a foreign substance, comprising: a projecting part configured to provide at least one grid pattern light onto the substrate; a lighting part configured to provide a plurality of color lights onto the substrate ; an image capturing part configured to capture an image of the substrate and a target object on the substrate by receiving the grid pattern light and the color lights reflected by the target object and the substrate ; a processing part configured to obtain 3-dimensional information including height of the substrate by using the grid pattern light, detect a foreign substance of the substrate by using the 3-dimensional information including height, obtain 2-dimensional information of the substrate per color by using the color lights, detect a foreign substance of the substrate by using the 2-dimensional information per color, and combine a detection result of a foreign substance, performed by using the 3-dimensional information including height and a detection result of a foreign substance, performed by using the 2-dimensional information per color, characterized in that the processing part obtains master images of a master substrate per color by using the plurality of color lights, obtains images of the substrate per color by using the plurality of color lights, and compares the master images per color and the images per color to detect a foreign substance. a projecting part configured to provide at least one grid pattern light onto the substrate; a lighting part configured to provide a plurality of color lights onto the substrate ; an image capturing part configured to capture an image of the substrate and a target object on the substrate by receiving the grid pattern light and the color lights reflected by the target object and the substrate ; a processing part configured to obtain 3-dimensional information including height of the substrate by using the grid pattern light, detect a foreign substance of the substrate by using the 3-dimensional information including height, obtain 2-dimensional information of the substrate per color by using the color lights, detect a foreign substance of the substrate by using the 2-dimensional information per color, and combine a detection result of a foreign substance, performed by using the 3-dimensional information including height and a detection result of a foreign substance, performed by using the 2-dimensional information per color, characterized in that the processing part obtains master images of a master substrate per color by using the plurality of color lights, obtains images of the substrate per color by using the plurality of color lights, and compares the master images per color and the images per color to detect a foreign substance.
A pressure control system for an environment to be pressurized, comprising: a controller configured to calculate an environment leakage effective area CdALEAK according to: CdALEAK = f Pc Tc Pa WLEAK wherein: Pc is an environment pressure; Tc is an environment temperature; Pa is an ambient pressure outside of the environment; WLEAK = WECS − WOFV − WAPU ; wherein: WECS = air pressure inflow into the environment; WOFV = air pressure outflow to ambient that is outside of the environment; WAPU = f(Tin, Pin, APURPM, Flowfuel) wherein: Tin = inlet temperature to a power source; Pin = inlet pressure to the power source; APURPM = rotational speed of the power source; Flowfuel = power source fuel flow; and a processor in communication with the controller and configured to compare a current CdALEAK value with a control limit; wherein the control limit is based on historical CdALEAK values. a controller configured to calculate an environment leakage effective area CdALEAK according to: CdALEAK = f Pc Tc Pa WLEAK wherein: Pc is an environment pressure; Tc is an environment temperature; Pa is an ambient pressure outside of the environment; WLEAK = WECS − WOFV − WAPU ; wherein: WECS = air pressure inflow into the environment; WOFV = air pressure outflow to ambient that is outside of the environment; WAPU = f(Tin, Pin, APURPM, Flowfuel) wherein: Tin = inlet temperature to a power source; Pin = inlet pressure to the power source; APURPM = rotational speed of the power source; Flowfuel = power source fuel flow; and Pc is an environment pressure; Tc is an environment temperature; Pa is an ambient pressure outside of the environment; WLEAK = WECS − WOFV − WAPU ; WECS = air pressure inflow into the environment; WOFV = air pressure outflow to ambient that is outside of the environment; WAPU = f(Tin, Pin, APURPM, Flowfuel) Tin = inlet temperature to a power source; Pin = inlet pressure to the power source; APURPM = rotational speed of the power source; Flowfuel = power source fuel flow; and a processor in communication with the controller and configured to compare a current CdALEAK value with a control limit; wherein the control limit is based on historical CdALEAK values.
A semiconductor device , comprising: a buried dielectric layer having an opening; a carrier channel region , disposed on a front-side of the buried dielectric layer ; a first gate structure , disposed on a front-side of the buried dielectric layer ; a second gate structure , disposed on a backside of the buried dielectric layer wherein a portion of the buried dielectric layer is disposed between the second gate structure and the carrier channel region , the first gate structure and the second gate structure constituting a double gate structure for the carrier channel region ; a first source/drain region (141-1) and a second source/drain region (141-2), disposed between the first gate structure and the second gate structure ; a first contact structure (20_2), disposed on the front-side of the buried dielectric layer and electrically coupled to the first source/drain region; an interlayer dielectric disposed on the backside of the buried dielectric layer and covering the second gate structure ; and a second contact structure (42_1), disposed on the backside of the buried dielectric layer and electrically coupled to the second source/drain region, characterized in that the second contact structure (42_1) comprises a first portion and a second portion (42_1), the first portion of the second contact structure (42_1) being filled into the opening of the buried dielectric layer, and the second portion (42_1) of the second contact structure (42_1) penetrating the interlayer dielectric . a buried dielectric layer having an opening; a carrier channel region , disposed on a front-side of the buried dielectric layer ; a first gate structure , disposed on a front-side of the buried dielectric layer ; a second gate structure , disposed on a backside of the buried dielectric layer wherein a portion of the buried dielectric layer is disposed between the second gate structure and the carrier channel region , the first gate structure and the second gate structure constituting a double gate structure for the carrier channel region ; a first source/drain region (141-1) and a second source/drain region (141-2), disposed between the first gate structure and the second gate structure ; a first contact structure (20_2), disposed on the front-side of the buried dielectric layer and electrically coupled to the first source/drain region; an interlayer dielectric disposed on the backside of the buried dielectric layer and covering the second gate structure ; and a second contact structure (42_1), disposed on the backside of the buried dielectric layer and electrically coupled to the second source/drain region, characterized in that the second contact structure (42_1) comprises a first portion and a second portion (42_1), the first portion of the second contact structure (42_1) being filled into the opening of the buried dielectric layer, and the second portion (42_1) of the second contact structure (42_1) penetrating the interlayer dielectric .
Apparatus for characterizing an electrocardiogram, comprising: a probe which is configured to receive a first unipolar signal from a first location of a heart and a second unipolar signal from a second location of the heart ; and a processor which is configured to generate a bipolar signal from the first and second unipolar signals , wherein the processor is further configured to: analyze the bipolar signal to delineate a time period during which the first and second locations generate a QRS bipolar complex , wherein delineating the time period comprises feeding data of the bipolar signal into a two-state state machine so as to determine bounds of the time period, and analyze the first unipolar signal within the time period to determine an activation time of the first location . a probe which is configured to receive a first unipolar signal from a first location of a heart and a second unipolar signal from a second location of the heart ; and a processor which is configured to generate a bipolar signal from the first and second unipolar signals , analyze the bipolar signal to delineate a time period during which the first and second locations generate a QRS bipolar complex , wherein delineating the time period comprises feeding data of the bipolar signal into a two-state state machine so as to determine bounds of the time period, and analyze the first unipolar signal within the time period to determine an activation time of the first location .
Method for acquiring and displaying at least one video enriched with at least one piece of contextual information , said method comprising a step of acquiring a video by means of one acquisition system among a network of acquisition systems distributed over an external wall of an aeroplane , so as to generate a native video signal , the method comprising: - a step of delivering at least one piece of contextual information by means of a module for delivering at least one piece of contextual information of the acquisition system , or, if the module for delivering at least one piece of contextual information of the acquisition system loses geolocation signals from geolocation satellites or no longer picks up signals from a terrestrial telecommunication network, by means of the module for delivering at least one piece of contextual information of another acquisition system of the network of acquisition systems through a step of exchanging, between the acquisition systems of the network, pieces of contextual information acquired by each thereof, - a step of embedding the contextual information into the video, before any compressing step, so as to obtain an enriched video, - a step of compressing the enriched video so as to generate an enriched video signal , - a step of transmitting the enriched video signal to at least one screen , and - a step of displaying the enriched video on the screen . - a step of delivering at least one piece of contextual information by means of a module for delivering at least one piece of contextual information of the acquisition system , or, if the module for delivering at least one piece of contextual information of the acquisition system loses geolocation signals from geolocation satellites or no longer picks up signals from a terrestrial telecommunication network, by means of the module for delivering at least one piece of contextual information of another acquisition system of the network of acquisition systems through a step of exchanging, between the acquisition systems of the network, pieces of contextual information acquired by each thereof, - a step of embedding the contextual information into the video, before any compressing step, so as to obtain an enriched video, - a step of compressing the enriched video so as to generate an enriched video signal , - a step of transmitting the enriched video signal to at least one screen , and - a step of displaying the enriched video on the screen .
A printer comprising: a base ; a lid hingedly attached to the base movable between a closed position in which the lid is secured to the base , and an open position; a cavity defined between the lid and the base , wherein the cavity is inaccessible when the lid is in the closed position and the cavity is accessible when the lid is in the open position; a ribbon positioning assembly disposed within the cavity that is pivotably attached to the lid or the base wherein the ribbon positioning assembly is configured to move between a printing position when the lid is in the closed position, and an accessible position when the lid is in the open position; characterized in that the ribbon positioning assembly further comprises at least one cartridge channel configured to receive therein a ribbon cartridge and at least one printhead assembly channel ; and wherein the printer further comprises a printhead assembly attached to the lid , wherein the printhead assembly engages the at least one printhead assembly channel and translates within the at least one printhead assembly channel in response to the lid being moved between the closed position and the open position. a base ; a lid hingedly attached to the base movable between a closed position in which the lid is secured to the base , and an open position; a cavity defined between the lid and the base , wherein the cavity is inaccessible when the lid is in the closed position and the cavity is accessible when the lid is in the open position; a ribbon positioning assembly disposed within the cavity that is pivotably attached to the lid or the base wherein the ribbon positioning assembly is configured to move between a printing position when the lid is in the closed position, and an accessible position when the lid is in the open position; characterized in that the ribbon positioning assembly further comprises at least one cartridge channel configured to receive therein a ribbon cartridge and at least one printhead assembly channel ; and wherein the printer further comprises a printhead assembly attached to the lid , wherein the printhead assembly engages the at least one printhead assembly channel and translates within the at least one printhead assembly channel in response to the lid being moved between the closed position and the open position.