mhurhangee/patent-ind-claim-en huggingface dataset:
A ventilation system of an operating room accessible to service personnel in a nuclear plant, in particular a control room in a nuclear power plant , having at least the following components: • air supply line guidable from an external inlet to the operating room, to which a first fan and a first inert gas adsorber column (e.g. 38) are connected, • an air discharge line guidable from the operating room to an external outlet , to which a second fan and a second inert gas adsorber column (e.g. 48) are connected, and • switchover means for interchanging the roles of the first and second inert gas adsorber columns , characterized in that an air circulation line , to which a CO 2 adsorber column and an air circulation fan are connected, can be guided away from the operating room and back again, wherein the second fan can be connected as an air circulation fan to the air circulation line . • air supply line guidable from an external inlet to the operating room, to which a first fan and a first inert gas adsorber column (e.g. 38) are connected, • an air discharge line guidable from the operating room to an external outlet , to which a second fan and a second inert gas adsorber column (e.g. 48) are connected, and • switchover means for interchanging the roles of the first and second inert gas adsorber columns ,
A method comprising: determining , by a component of a distributed antenna system, a link quality indicator associated with an aspect of performance of a digital transport link in the distributed antenna system over time, wherein the digital transport link is a cable; determining an indication of a potential fault condition of the digital transport link based on a history of the link quality indicator determined over time and before a fault condition of the digital transport link associated with the potential fault condition of the digital transport link occurs, wherein a potential fault condition of the digital transport link comprises a degradation of operation of the digital transport link to outside a normal operating range, wherein a normal operating range comprises a range of parameters in which the digital transport link is functioning at its full performance; and communicating the indication of the potential fault condition of the digital transport link to a user device to be displayed for a user, wherein the user device is separate from the distributed antenna system, wherein the user device is communicatively coupled to the distributed antenna system. determining , by a component of a distributed antenna system, a link quality indicator associated with an aspect of performance of a digital transport link in the distributed antenna system over time, wherein the digital transport link is a cable; determining an indication of a potential fault condition of the digital transport link based on a history of the link quality indicator determined over time and before a fault condition of the digital transport link associated with the potential fault condition of the digital transport link occurs, wherein a potential fault condition of the digital transport link comprises a degradation of operation of the digital transport link to outside a normal operating range, wherein a normal operating range comprises a range of parameters in which the digital transport link is functioning at its full performance; and communicating the indication of the potential fault condition of the digital transport link to a user device to be displayed for a user, wherein the user device is separate from the distributed antenna system, wherein the user device is communicatively coupled to the distributed antenna system.
A hull control device for maintaining a ship's hull in a range near a fixed target position (Pt, Pr, Pf) on water or sea, the hull control device comprising: an error distance calculating module configured to calculate an error distance (e, eR, eF) between the fixed target position (Pt, Pr, Pf) and a ship position (P); an approaching speed calculating module configured to calculate an approaching speed (-Δe, -ΔeR, -ΔeF) of the ship to the target position (Pt, Pr, Pf); and a command value setting module configured to set a throttle command value (R) according to a combination of the error distance (e, eR, eF) and the approaching speed (-Δe, -ΔeR, -ΔeF). an error distance calculating module configured to calculate an error distance (e, eR, eF) between the fixed target position (Pt, Pr, Pf) and a ship position (P); an approaching speed calculating module configured to calculate an approaching speed (-Δe, -ΔeR, -ΔeF) of the ship to the target position (Pt, Pr, Pf); and a command value setting module configured to set a throttle command value (R) according to a combination of the error distance (e, eR, eF) and the approaching speed (-Δe, -ΔeR, -ΔeF).
A method of measuring a property of a radome , the method comprising utilizing at least one transmitting antenna facing a first side of the radome and utilizing at least one receiving antenna facing a second side of the radome , wherein the first side is opposite to the second side ; while the radome is positioned at a first distance from the at least one receiving antenna , the at least one transmitting antenna emitting a first electromagnetic wave and the at least one receiving antenna receiving a portion of the first electromagnetic wave; while the radome is positioned at a second distance from the at least one receiving antenna , the at least one transmitting antenna emitting a second electromagnetic wave and the at least one receiving antenna receiving a portion of the second electromagnetic wave; determining the property of the radome based on the received portion of the first electromagnetic wave and the received portion of the second electromagnetic wave; wherein the relative position between the at least one transmitting antenna and the at least one receiving antenna is maintained fixed. utilizing at least one transmitting antenna facing a first side of the radome and utilizing at least one receiving antenna facing a second side of the radome , wherein the first side is opposite to the second side ; while the radome is positioned at a first distance from the at least one receiving antenna , the at least one transmitting antenna emitting a first electromagnetic wave and the at least one receiving antenna receiving a portion of the first electromagnetic wave; while the radome is positioned at a second distance from the at least one receiving antenna , the at least one transmitting antenna emitting a second electromagnetic wave and the at least one receiving antenna receiving a portion of the second electromagnetic wave; determining the property of the radome based on the received portion of the first electromagnetic wave and the received portion of the second electromagnetic wave; wherein the relative position between the at least one transmitting antenna and the at least one receiving antenna is maintained fixed.
Use of a poultry feed additive composition which is a flowable mixture of phytogenic compounds comprising at least a. an oil component which is microencapsulated essential thyme oil, and b. a saponin component which is saponin containing particulate dried Quillaja bark powder, which mixture contains at least 0.5% saponin component (w/w), and the oil component in an effective ratio of at least 0.2:1 (w/w, oil component per saponin component), for improving the feed conversion efficiency in antibiotic-free poultry production. a. an oil component which is microencapsulated essential thyme oil, and b. a saponin component which is saponin containing particulate dried Quillaja bark powder,
A method of sensing an interaction with an electronic device comprising a camera, the method comprising: receiving image data representative of one or more images captured by the camera; processing the image data representative of the one or more images to determine a type for a hand gesture and a location of the hand gesture in the one or more images; processing the image data representative of the one or more images to determine a plurality of face landmark locations in the image; comparing the location of the hand gesture to each face landmark location of the plurality of face landmark locations; identifying , based on the comparing, a selected face landmark, the selected face landmark having a selected face landmark location, among the plurality of face landmark locations, having a greatest proximity to the location of the hand gesture; identifying, based on the comparing and the type for the hand gesture, an action, wherein the identifying the action is further based on the selected face landmark; and providing an indication of the action, wherein the action comprises adding an augmented reality element to the image and the method further comprises selecting, based on the selected face landmark, the augmented reality element to add to the image, wherein the processing the image comprises adding the augmented reality element spatially associated with the selected face landmark to the processed image. receiving image data representative of one or more images captured by the camera; processing the image data representative of the one or more images to determine a type for a hand gesture and a location of the hand gesture in the one or more images; processing the image data representative of the one or more images to determine a plurality of face landmark locations in the image; comparing the location of the hand gesture to each face landmark location of the plurality of face landmark locations; identifying , based on the comparing, a selected face landmark, the selected face landmark having a selected face landmark location, among the plurality of face landmark locations, having a greatest proximity to the location of the hand gesture; identifying, based on the comparing and the type for the hand gesture, an action, wherein the identifying the action is further based on the selected face landmark; and providing an indication of the action, wherein the action comprises adding an augmented reality element to the image and the method further comprises selecting, based on the selected face landmark, the augmented reality element to add to the image, wherein the processing the image comprises adding the augmented reality element spatially associated with the selected face landmark to the processed image.
A flexible circuit comprising: a flexible substrate; a conductive contact pad formed on the substrate and configured to electrically couple to a corresponding contact of a surface mount device (SMD), the conductive contact pad including a plurality of cured conductive epoxy bond pad strips deposited adjacent to one another; at least one conductive trace deposited over the surface of the flexible substrate and contacting a portion of at least one of the plurality of cured conductive epoxy bond pad strips, leaving a portion of the at least one cured conductive epoxy bond pad strip exposed; and characterized in that said cured conductive epoxy bond pad strips are deposited adjacent to one another in a parallel fashion and by an additional cured conductive epoxy bond strip deposited in a relatively perpendicular fashion across the plurality of cured conductive epoxy bond pad strips, wherein the additional cured conductive epoxy bond strip is for securing the SMD. a flexible substrate; a conductive contact pad formed on the substrate and configured to electrically couple to a corresponding contact of a surface mount device (SMD), the conductive contact pad including a plurality of cured conductive epoxy bond pad strips deposited adjacent to one another; at least one conductive trace deposited over the surface of the flexible substrate and contacting a portion of at least one of the plurality of cured conductive epoxy bond pad strips, leaving a portion of the at least one cured conductive epoxy bond pad strip exposed; and characterized in that said cured conductive epoxy bond pad strips are deposited adjacent to one another in a parallel fashion and by an additional cured conductive epoxy bond strip deposited in a relatively perpendicular fashion across the plurality of cured conductive epoxy bond pad strips, wherein the additional cured conductive epoxy bond strip is for securing the SMD.
A process for obtaining a material comprising a substrate coated on one of its sides with a coating comprising a functional layer, said process comprising: - a step of depositing the functional layer on the substrate, then - a step of depositing an absorbent layer on top of said functional layer, then - a step of heat treatment by radiation means, said radiation having at least one treatment wavelength comprised between 200 and 2500 nm, said absorbent layer being in contact with air during this heat treatment step, characterized in that the absorbent layer absorbs at least 80% of the radiation used during the heat treatment and transmits less than 10% thereof. - a step of depositing the functional layer on the substrate, then - a step of depositing an absorbent layer on top of said functional layer, then - a step of heat treatment by radiation means, said radiation having at least one treatment wavelength comprised between 200 and 2500 nm, said absorbent layer being in contact with air during this heat treatment step, characterized in that the absorbent layer absorbs at least 80% of the radiation used during the heat treatment and transmits less than 10% thereof.
A yaw feedback system for use by a pilot of an aircraft during takeoff, comprising: a processor configured to determine a yaw difference between a current track of the aircraft and a runway centerline ; a runway centerline indicator configured to virtually extend a runway visual range "RVR" for a pilot of the aircraft ; and a yaw feedback indicator coupled to the processor and configured to prompt the pilot for a yaw input to compensate for the yaw difference, said yaw feedback indicator is further configured to visually indicate to the pilot a magnitude and direction of the yaw input to compensate for the yaw difference, wherein the yaw feedback indicator comprises a colored port indicator light and a colored starboard indicator light , the port indicator light configured to illuminate when prompting the pilot for port yaw input, the starboard indicator light configured to illuminate when prompting the pilot for starboard yaw input, wherein the port indicator light and the starboard indicator light are each operable to illuminate in a plurality of colors, wherein the yaw feedback indicator is configured to select an illuminated color of the port indicator light or the starboard indicator light based on an estimated magnitude of yaw input necessary to compensate for the yaw difference, and wherein the yaw feedback indicator is configured to change the selected color of the port indicator light or the starboard indicator light in response to the actual magnitude of the yaw input. a processor configured to determine a yaw difference between a current track of the aircraft and a runway centerline ; a runway centerline indicator configured to virtually extend a runway visual range "RVR" for a pilot of the aircraft ; and a yaw feedback indicator coupled to the processor and configured to prompt the pilot for a yaw input to compensate for the yaw difference, said yaw feedback indicator is further configured to visually indicate to the pilot a magnitude and direction of the yaw input to compensate for the yaw difference, wherein the yaw feedback indicator comprises a colored port indicator light and a colored starboard indicator light , the port indicator light configured to illuminate when prompting the pilot for port yaw input, the starboard indicator light configured to illuminate when prompting the pilot for starboard yaw input, wherein the port indicator light and the starboard indicator light are each operable to illuminate in a plurality of colors, wherein the yaw feedback indicator is configured to select an illuminated color of the port indicator light or the starboard indicator light based on an estimated magnitude of yaw input necessary to compensate for the yaw difference, and wherein the yaw feedback indicator is configured to change the selected color of the port indicator light or the starboard indicator light in response to the actual magnitude of the yaw input.
A method for adjusting a display view of a vision aid system of a vehicle , the method comprising the following steps: - (S1) identifying a specific situation when the vision aid system should be utilized; - (S2) receiving a display view setting for the specific situation, wherein the display view setting is based on at least one previous display view setting from at least one other vision aid system of another vehicle which has experienced the specific situation, wherein the at least one previous display view setting relates to the specific situation; and - (S3) adjusting the display view of the vision aid system in accordance with the received display view setting. - (S1) identifying a specific situation when the vision aid system should be utilized; - (S2) receiving a display view setting for the specific situation, wherein the display view setting is based on at least one previous display view setting from at least one other vision aid system of another vehicle which has experienced the specific situation, wherein the at least one previous display view setting relates to the specific situation; and - (S3) adjusting the display view of the vision aid system in accordance with the received display view setting.
A metal surface treatment method wherein the surface is simultaneously bombarded with a mixture of abrasive particles and dopant particles ; wherein the dopant is a polymer and the abrasive has an average particle size in the range of 5-1500 microns, characterised in that the abrasive particles and dopant particles are delivered at a velocity in the range of 50-250 m/sec, thereby depositing the dopant materia on the surface . wherein the dopant is a polymer and the abrasive has an average particle size in the range of 5-1500 microns, characterised in that the abrasive particles and dopant particles are delivered at a velocity in the range of 50-250 m/sec, thereby depositing the dopant materia on the surface .
A double sliding-plug door system, comprising a fixed frame , a sliding-plug rail arranged in the fixed frame , a cross beam , a driving mechanism arranged in the cross beam for driving a side door to reciprocate, and a linkage mechanism matched with the driving mechanism for pulling another side door to reciprocate; and, further comprising a guide locking piece arranged in the cross beam , and a limiting mechanism ; wherein, the driving mechanism comprises a screw rod and a nut assembly driven by a motor ; the nut assembly comprises a transmission frame , a nut sleeved in the screw rod , and a follow-up member fixed in the nut ; the nut is mounted in the transmission frame , and the transmission frame is connected with an active sleeve assembly ; the screw rod drives the nut assembly to reciprocate axially along the screw rod ; during the forward rotation of the screw rod , when the follow-up member is contacted with the guide locking piece , the follow-up member moves to the limiting mechanism under the guiding of an upper surface of the guide locking piece and is blocked by the limiting mechanism , then the follow-up member rotates with the screw rod to enter a space between a side plane of the guide locking piece and the limiting mechanism and is locked; and when the screw rod rotates reversely, the follow-up member reversely rotates with the screw rod to disengage from the limitation of the guide locking piece and is unlocked, and then moves axially along the screw rod ; wherein the limiting mechanism comprises a limiting plate mounted in the cross beam , the limiting plate has a side plane facing the guide locking piece , the side plane and the side plane of the guiding block constitute a space enabling the follow-up member to fall into; and wherein the limiting plate is rotatably mounted in the cross beam by a pin shaft, and one side of the limiting plate facing the guide locking piece has a bent vertical plate ; and a return spring is arranged between the limiting plate and the pin shaft. wherein the limiting mechanism comprises a limiting plate mounted in the cross beam , the limiting plate has a side plane facing the guide locking piece , the side plane and the side plane of the guiding block constitute a space enabling the follow-up member to fall into; and wherein the limiting plate is rotatably mounted in the cross beam by a pin shaft, and one side of the limiting plate facing the guide locking piece has a bent vertical plate ; and a return spring is arranged between the limiting plate and the pin shaft.
A device for medical imaging, comprising: a printed circuit board associated with obtaining intraluminal medical images of a patient; and an enclosure comprising a patient interface module configured to be connected to an intraluminal imaging device, wherein the printed circuit board is disposed within the enclosure, wherein the enclosure is configured to disperse heat generated by the printed circuit board, wherein the enclosure comprises: a first heat spreader coupled to and in thermal contact with the printed circuit board; a second heat spreader in thermal contact with the first heat spreader at an interface such that the heat is distributed between the first heat spreader and the second heat spreader across the interface; a first cover portion coupled to and in thermal contact with the first heat spreader; a second cover portion coupled to and in thermal contact with the second heat spreader, and wherein the first cover portion is coupled to the second cover portion to form the enclosure. a printed circuit board associated with obtaining intraluminal medical images of a patient; and an enclosure comprising a patient interface module configured to be connected to an intraluminal imaging device, wherein the printed circuit board is disposed within the enclosure, wherein the enclosure is configured to disperse heat generated by the printed circuit board, wherein the enclosure comprises: a first heat spreader coupled to and in thermal contact with the printed circuit board; a second heat spreader in thermal contact with the first heat spreader at an interface such that the heat is distributed between the first heat spreader and the second heat spreader across the interface; a first cover portion coupled to and in thermal contact with the first heat spreader; a second cover portion coupled to and in thermal contact with the second heat spreader, and wherein the first cover portion is coupled to the second cover portion to form the enclosure. a first heat spreader coupled to and in thermal contact with the printed circuit board; a second heat spreader in thermal contact with the first heat spreader at an interface such that the heat is distributed between the first heat spreader and the second heat spreader across the interface; a first cover portion coupled to and in thermal contact with the first heat spreader; a second cover portion coupled to and in thermal contact with the second heat spreader, and wherein the first cover portion is coupled to the second cover portion to form the enclosure.