mhurhangee/ep-ind-claims huggingface dataset:
A pyranometer comprising: a pyranometer housing; a radiation sensor housing; and at least one radiation sensor located in the radiation sensor housing, wherein the at least one radiation sensor comprises a thermopile-based sensor, and wherein the radiation sensor housing comprises, or is made of, a metallic material; wherein the at least one radiation sensor is electrically isolated from the pyranometer housing and thermally coupled to the pyranometer housing by at least one supporting element, wherein the supporting element is connected to the pyranometer housing and is configured to support the radiation sensor housing, wherein the radiation sensor housing is configured to at least partially contact a first surface of the supporting element, wherein the supporting element comprises, or at least partially is made, of a ceramic material to enable electrical isolation and such that a heat flow is exchanged between the pyranometer housing and the radiation sensor housing by means of the supporting element. a pyranometer housing; a radiation sensor housing; and at least one radiation sensor located in the radiation sensor housing, wherein the at least one radiation sensor comprises a thermopile-based sensor, and wherein the radiation sensor housing comprises, or is made of, a metallic material; wherein the at least one radiation sensor is electrically isolated from the pyranometer housing and thermally coupled to the pyranometer housing by at least one supporting element, wherein the supporting element is connected to the pyranometer housing and is configured to support the radiation sensor housing, wherein the radiation sensor housing is configured to at least partially contact a first surface of the supporting element, wherein the supporting element comprises, or at least partially is made, of a ceramic material to enable electrical isolation and such that a heat flow is exchanged between the pyranometer housing and the radiation sensor housing by means of the supporting element.
A biosensor applicator device comprising: a biosensor applicator housing (302, 502) having a lower portion configured to receive and physically couple to a biosensor device, the biosensor applicator configured to apply the biosensor device to a wearer; a first coil antenna (310, 510) physically coupled to an inner or outer surface of an upper portion of the biosensor applicator housing; and a second coil antenna physically coupled to the biosensor applicator housing, the second coil antenna located distant from the first coil antenna towards the lower portion of the housing and substantially co-axially aligned with the first coil antenna, wherein the first coil antenna is configured to: wirelessly receive electromagnetic, EM, energy from a transmitter coil antenna; and provide at least a portion of the received EM energy to the second coil antenna. a biosensor applicator housing (302, 502) having a lower portion configured to receive and physically couple to a biosensor device, the biosensor applicator configured to apply the biosensor device to a wearer; a first coil antenna (310, 510) physically coupled to an inner or outer surface of an upper portion of the biosensor applicator housing; and a second coil antenna physically coupled to the biosensor applicator housing, the second coil antenna located distant from the first coil antenna towards the lower portion of the housing and substantially co-axially aligned with the first coil antenna, wherein the first coil antenna is configured to: wirelessly receive electromagnetic, EM, energy from a transmitter coil antenna; and provide at least a portion of the received EM energy to the second coil antenna. wirelessly receive electromagnetic, EM, energy from a transmitter coil antenna; and provide at least a portion of the received EM energy to the second coil antenna.
A method for active depth sensing, comprising: determining an amount of ambient light for a scene to be captured by a structured light receiver (108; 502); adjusting a frame capture rate of the structured light receiver, wherein adjusting the frame capture rate comprises increasing the frame capture rate from a base frame capture rate to an integer multiple of the base frame capture rate; adjusting an exposure time for frame capture of a sensor (132; 902) of the structured light receiver based on the determined amount of ambient light, wherein the adjusted exposure time of the sensor of the structured light receiver is inversely related to the determined amount of ambient light and wherein the adjusted exposure time is based on the adjusted frame capture rate; receiving (652; 702; 806) a plurality of frames (202; 302; 904) captured by the structured light receiver at the increased frame capture rate and using the adjusted exposure time; and generating (654; 808) an aggregated frame, wherein generating the aggregated frame includes aggregating, for each pixel, corresponding pixel values across the plurality of captured frames. determining an amount of ambient light for a scene to be captured by a structured light receiver (108; 502); adjusting a frame capture rate of the structured light receiver, wherein adjusting the frame capture rate comprises increasing the frame capture rate from a base frame capture rate to an integer multiple of the base frame capture rate; adjusting an exposure time for frame capture of a sensor (132; 902) of the structured light receiver based on the determined amount of ambient light, wherein the adjusted exposure time of the sensor of the structured light receiver is inversely related to the determined amount of ambient light and wherein the adjusted exposure time is based on the adjusted frame capture rate; receiving (652; 702; 806) a plurality of frames (202; 302; 904) captured by the structured light receiver at the increased frame capture rate and using the adjusted exposure time; and generating (654; 808) an aggregated frame, wherein generating the aggregated frame includes aggregating, for each pixel, corresponding pixel values across the plurality of captured frames.
Optical fiber comprising an optical waveguide, a first coating layer disposed to surround said optical waveguide and a second coating layer disposed to surround said first coating layer, wherein said first coating layer is based on a cured polymeric material obtained by curing a radiation curable composition comprising at least one (meth)acrylate monomer esterified with at least one branched alcohol having from 9 to 12 carbon atoms, and said second coating layer is formed by a cured polymeric material obtained by curing a radiation curable (meth)acrylate composition comprising from 0.8% to 1.5% by weight of silica, based on the total weight of the composition.
A method for use in a network node, the method comprising: sending (606, 706, 806, 906, 1006, 1106, 1206) a control information message to at least one wireless device that is in idle mode, the message comprising a mapping that maps a quasi co-location, QCL, assumption to a multicast transmission or multicast channel, wherein the multicast transmission or multicast channel is associated with a temporary multicast group indicator, TMGI, and the mapping maps the QCL assumption to the TMGI.
A wall-mounted toilet fixing device, movably mated with a screw rod, said screw rod being intended to be fixed on a mounting base, the fixing device comprising a housing, a driven member, at least one press block movably fitted on the driven member, a driving member for driving the driven member to rotate and to engage with the screw rod, and a driver for driving the driving member to rotate; the housing having a first chamber body and a second chamber body which are intersected and communicated with each other; one end of the first chamber body being provided with a through hole passing through the housing, two ends of the second chamber body being provided with two perforations passing through the housing and facing each other; the driver being a cylindrical structure, the driven member and the driving member being hollow tubular structures, the driver being rotatably fitted in the first chamber body, the driving member and the driven member being rotatably fitted in the second chamber body, the driving member being movably sleeved on the driven member, the driven member being provided with a through passage aligned with the two perforations, the driver cooperating with the driving member through an intersecting shaft gear transmission mechanism or an interlaced shaft gear transmission mechanism, the driving member being movably engaged with the driven member, one end of the driven member extending out of the driving member and being provided with a stop portion for blocking the driving member, the fixing device being characterized in that the driving member is also for driving the press block to engage with the screw rod, and in that a rotation damping mechanism is provided between the stop portion and the second chamber body, the rotation damping mechanism enabling the driven member to have a forward rotation damping and a reverse rotation damping, the reverse rotation damping being greater than the forward rotation damping; a side wall of the driven member being provided with at least one engaging hole passing through the side wall of the driven member along a direction that is perpendicular to the direction of extension of the screw rod in said through passage, the press block being movably fitted in the engaging hole, the number of the press block corresponding to the number of the engaging hole, an inner surface of the press block being formed with an engaging surface corresponding to an external threaded surface of the screw rod; wherein when the driving member is rotated in a forward direction, the press block is pushed by the driving member to engage with the screw rod.
A method comprising: receiving, at a central controller of an air mattress system, a plurality of air pressure values; determining a plurality of average values using the plurality of the received air pressure values; calculating a difference value between a first one of the plurality of average values and a second one of the plurality of average values; comparing the difference value to a threshold value; determining, based on the comparison, whether a user of the air mattress system moved; initiating a timer upon determining that the user of the air mattress system moved; and stopping the timer upon determining that the user of the air mattress system has stopped moving, wherein an accumulated time in the timer represents a total amount of time that the user has moved. receiving, at a central controller of an air mattress system, a plurality of air pressure values; determining a plurality of average values using the plurality of the received air pressure values; calculating a difference value between a first one of the plurality of average values and a second one of the plurality of average values; comparing the difference value to a threshold value; determining, based on the comparison, whether a user of the air mattress system moved; initiating a timer upon determining that the user of the air mattress system moved; and stopping the timer upon determining that the user of the air mattress system has stopped moving, wherein an accumulated time in the timer represents a total amount of time that the user has moved.
A detection chip, comprising a sample injection structure, a filter structure, and a reaction structure which are sequentially connected, wherein the filter structure comprises a first main body, and a first inlet portion and a first outlet portion respectively on two sides of the first main body, and a width of the first inlet portion gradually decreases in a direction away from the first main body, and a width of the first outlet portion gradually decreases in a direction away from the first main body; wherein the detection chip further comprises a filter film, and the filter film is in the filter structure; characterized in that the detection chip further comprises a mixing structure, wherein the mixing structure is connected between the sample injection structure and the filter structure, wherein the filter structure further comprises a groove at the first inlet portion, and a height of the groove is greater than a height of the filter structure by 0.2 mm to 1 mm; and the detection chip further comprises a first flow channel, wherein the mixing structure is connected to the groove through the first flow channel; the first flow channel comprises a first portion and a second portion, the first portion extends into the first inlet portion of the filter structure to be connected to the groove, the second portion is between the mixing structure and the filter structure, and a height of the first portion is greater than a height of the second portion. wherein the filter structure comprises a first main body, and a first inlet portion and a first outlet portion respectively on two sides of the first main body, and a width of the first inlet portion gradually decreases in a direction away from the first main body, and a width of the first outlet portion gradually decreases in a direction away from the first main body; wherein the detection chip further comprises a filter film, and the filter film is in the filter structure; characterized in that the detection chip further comprises a mixing structure, wherein the mixing structure is connected between the sample injection structure and the filter structure, wherein the filter structure further comprises a groove at the first inlet portion, and a height of the groove is greater than a height of the filter structure by 0.2 mm to 1 mm; and the detection chip further comprises a first flow channel, wherein the mixing structure is connected to the groove through the first flow channel; the first flow channel comprises a first portion and a second portion, the first portion extends into the first inlet portion of the filter structure to be connected to the groove, the second portion is between the mixing structure and the filter structure, and a height of the first portion is greater than a height of the second portion.
A diffuser for a pressurized container fitted with a valve, especially for an aerosol generator, which diffuser is provided with: - a base body provided with a cavity formed by an outer wall of the base body, said base body having a finger tab intended to be depressed by the user in order to actuate the valve, and having an outlet opening for the release of the product contained in the container, wherein a lower part of the outer wall is configured to be attached to a cylindrical end of the container, and - an outlet duct placed in the cavity formed by the outer wall, which duct has a passage between a first end, said first end being configured to engage with the valve of the pressurized container, and a second end, said second end being configured for the release of the product contained in the pressurized container and corresponding with the outlet opening of the base body, wherein the base body further comprises a connecting hole at a distance from the outlet opening; wherein the outlet duct and the base body are two separate parts, and wherein the outlet duct, in the state fastened to the base body, comprises a portion introduced into the connecting hole; characterized in that said connecting hole is a through hole between an outer surface of the base body and an inner surface of the base body, and is configured to facilitate the attachment of the outlet duct in such a way that the outlet duct can be fastened to the base body. - a base body provided with a cavity formed by an outer wall of the base body, said base body having a finger tab intended to be depressed by the user in order to actuate the valve, and having an outlet opening for the release of the product contained in the container, wherein a lower part of the outer wall is configured to be attached to a cylindrical end of the container, and - an outlet duct placed in the cavity formed by the outer wall, which duct has a passage between a first end, said first end being configured to engage with the valve of the pressurized container, and a second end, said second end being configured for the release of the product contained in the pressurized container and corresponding with the outlet opening of the base body, wherein the base body further comprises a connecting hole at a distance from the outlet opening; wherein the outlet duct and the base body are two separate parts, and wherein the outlet duct, in the state fastened to the base body, comprises a portion introduced into the connecting hole; characterized in that said connecting hole is a through hole between an outer surface of the base body and an inner surface of the base body, and is configured to facilitate the attachment of the outlet duct in such a way that the outlet duct can be fastened to the base body.
An agricultural working machine with a towing vehicle, in particular a tractor, with at least one agricultural working assembly for processing a field crop comprising a plurality of crop plants, and with a regulating device, wherein the regulating device has a camera system with at least one camera, in particular a 3D camera, which is configured to produce images of the field crop by means of the camera, wherein the regulating device has an image processing unit which is configured to generate situational information regarding the situation of rows of plants and/or sections of ground to be processed by means of image processing on the basis of the images produced, wherein the situational information comprises information regarding the width of the rows of plants or of the sections of ground, wherein the regulating device is configured to adjust the transverse position of the agricultural working assembly on the basis of the generated information regarding the width of the rows of plants or of the sections of ground, wherein the image processing unit is configured to dynamically and/or statically hide image areas in the produced images which are not to be considered during the image processing, wherein "dynamically hide" means that the image processing unit is capable of freshly determining the said image areas which are not to be considered for each image produced with the camera. wherein the regulating device has a camera system with at least one camera, in particular a 3D camera, which is configured to produce images of the field crop by means of the camera, wherein the regulating device has an image processing unit which is configured to generate situational information regarding the situation of rows of plants and/or sections of ground to be processed by means of image processing on the basis of the images produced, wherein the situational information comprises information regarding the width of the rows of plants or of the sections of ground, wherein the regulating device is configured to adjust the transverse position of the agricultural working assembly on the basis of the generated information regarding the width of the rows of plants or of the sections of ground, wherein the image processing unit is configured to dynamically and/or statically hide image areas in the produced images which are not to be considered during the image processing, wherein "dynamically hide" means that the image processing unit is capable of freshly determining the said image areas which are not to be considered for each image produced with the camera.
A piece of furniture having a frame and at least one drawer (30, 32, 34, 36, 38), wherein the drawer (30, 32, 34, 36, 38) has a rear wall, and wherein the rear wall is provided with a recess for passing through a cable, in particular a charging and/or connecting cable, characterized by a cable guide (100, 200), which is arranged on the frame and is associated with the recess, the cable guide comprising: - a first guide element (102, 202) that is arranged as a guide roller (112, 212) with a guide surface (130, 230) for a cable to be guided, which cooperates with a second guide element (104, 204), wherein the first guide element (102, 202) and the second guide element (104, 204) are biased against one another to guide the cable therebetween under pretension, and - an energy accumulator that generates a restoring torque when the guide roller (112, 212) is rotated in a first rotation direction by the cable to be guided during a pull-out movement, wherein the restoring torque is oriented in the opposite direction to the first rotation direction in order to support a rotation of the guide roller (112, 212) in a second rotation direction when the cable to be guided is moved relative to the guide roller (112, 212) during a slide-in movement. - a first guide element (102, 202) that is arranged as a guide roller (112, 212) with a guide surface (130, 230) for a cable to be guided, which cooperates with a second guide element (104, 204), wherein the first guide element (102, 202) and the second guide element (104, 204) are biased against one another to guide the cable therebetween under pretension, and - an energy accumulator that generates a restoring torque when the guide roller (112, 212) is rotated in a first rotation direction by the cable to be guided during a pull-out movement, wherein the restoring torque is oriented in the opposite direction to the first rotation direction in order to support a rotation of the guide roller (112, 212) in a second rotation direction when the cable to be guided is moved relative to the guide roller (112, 212) during a slide-in movement.
A method, in a node of a communication network, for managing effects of a scheduled outage of mains power, the method comprising: receiving a notification of a scheduled outage of mains power, the notification comprising a location to be affected by the scheduled outage and a time period during which the scheduled outage is scheduled; identifying mains powered devices registered on the communication network and situated in the notified location; discovering an entity affected by an outage of at least one of the identified devices; and informing the discovered entity that the identified devices are scheduled to be without power during the notified time period. receiving a notification of a scheduled outage of mains power, the notification comprising a location to be affected by the scheduled outage and a time period during which the scheduled outage is scheduled; identifying mains powered devices registered on the communication network and situated in the notified location; discovering an entity affected by an outage of at least one of the identified devices; and informing the discovered entity that the identified devices are scheduled to be without power during the notified time period.
A method for producing a mycosporine-like amino acid, comprising the steps of: culturing a microorganism extracellularly producing the mycosporine-like amino acid, separating the microbial cell and extracellular culture solution, and recovering the mycosporine-like amino acid from the extracellular culture solution wherein the microorganism comprises heterologous mycosporine-like amino acid biosynthetic enzyme genes, and the mycosporine-like amino acid biosynthetic enzyme genes are composed of amir_4256, amir_4257, amir_4258 and amir_4259 genes derived from Actinosynnema mirum, or composed of codon-optimized amir_4256 (SEQ ID NO: 9), codon-optimized amir_4257 (SEQ ID NO: 10), codon-optimized amir_4258 (SEQ ID NO: 11) and codon-optimized amir_4259 (SEQ ID NO: 12). culturing a microorganism extracellularly producing the mycosporine-like amino acid, separating the microbial cell and extracellular culture solution, and recovering the mycosporine-like amino acid from the extracellular culture solution