mhurhangee/patent-ind-claim-en huggingface dataset:
A carrier (90; 190) for packaging at least one article, the carrier (90; 190) comprising at least four panels (14, 16, 18, 20; 114, 116, 118, 120) hingedly connected together to form a tubular structure, and a locking device (L1/L2) for locking the tubular structure in a flat collapsed form, in which a first one (20; 118, 120) of the at least four panels (14, 16, 18, 20; 114, 116, 118, 120) is in an overlapping arrangement with a second one (18; 120, 118) of the at least four panels (14, 16, 18, 20; 114, 116, 118, 120), wherein the locking device comprises at least one male locking tab (42; 150A, 150B) formed from the first one (20; 118, 120) of the at least four panels (14, 16, 18, 20; 114, 116, 118, 120) and at least one female locking opening for engaging with the at least one male locking tab (42; 150A, 150B), characterised by the at least one female locking opening being defined in the second one (18; 120, 118) of the at least four panels (14, 16, 18, 20; 114, 116, 118, 120) so as to be in registry with the at least one male locking tab (42; 150A, 150B) when the tubular structure is in the collapsed form.
Method for the transmission of date from a source device to a target device comprising the steps: - encrypt the data on the source device by means of a cryptographic method, - transmission of the encrypted data to the target device over an interface that has an emitter and a receiver, wherein the receiver is a part of the target device and the matter is for the interface of a unidirectional interface, - decrypt the encrypted data on the target device , characterized in that - the encrypted data are stored in a non-volatile first storage of the target device , wherein the encrypted data in the first storage are preferably deleted by the target device after a predetermined time, - the data are stored in decrypted form in the target device in a volatile second storage, wherein the output of the data takes place over the target device , while the data are available stored in the second storage and the data are deleted from the second storage after the output and/or after a predetermined period of time. - encrypt the data on the source device by means of a cryptographic method, - transmission of the encrypted data to the target device over an interface that has an emitter and a receiver, wherein the receiver is a part of the target device and the matter is for the interface of a unidirectional interface, - decrypt the encrypted data on the target device , characterized in that - the encrypted data are stored in a non-volatile first storage of the target device , wherein the encrypted data in the first storage are preferably deleted by the target device after a predetermined time, - the data are stored in decrypted form in the target device in a volatile second storage, wherein the output of the data takes place over the target device , while the data are available stored in the second storage and the data are deleted from the second storage after the output and/or after a predetermined period of time.
A centrifugal fan comprising: a main plate that is fixed to a rotational shaft of a fan motor and driven by the fan motor ; a shroud having an air inlet ; and a plurality of blades disposed between the main plate and the shroud , wherein the centrifugal fan is configured to draw a gas by suction in an axis of rotation direction and to blow the gas in a direction intersecting with an axis of rotation of the rotational shaft , each of the blades includes a main blade set on a suction surface side thereof and a blade cover set on a pressure surface side thereof, the main blade includes a main plate side surface joined to the main plate by welding and a shroud side surface joined to the shroud by welding, and the blade cover is joined to the main blade . a main plate that is fixed to a rotational shaft of a fan motor and driven by the fan motor ; a shroud having an air inlet ; and a plurality of blades disposed between the main plate and the shroud , wherein the centrifugal fan is configured to draw a gas by suction in an axis of rotation direction and to blow the gas in a direction intersecting with an axis of rotation of the rotational shaft , each of the blades includes a main blade set on a suction surface side thereof and a blade cover set on a pressure surface side thereof, the main blade includes a main plate side surface joined to the main plate by welding and a shroud side surface joined to the shroud by welding, and the blade cover is joined to the main blade .
An ophthalmic article comprising: a substrate , a first coating comprising an abrasion resistant coating obtained by radiation-curing a first coating composition comprising flexible materials and optionally rigid materials, flexible materials being materials that form a flexible polymer having a glass transition temperature of 25°C to -150°C or less when subjected to radiation curing; and a second coating comprising a sputter-applied anti-reflective (AR) coating, wherein the ophthalmic article has a Bayer value of at or between 1.25 and 2,6 and a hand steel wool value of 3 or less, and wherein the weight amount of flexible materials is greater than the weight amount of rigid materials when rigid materials are present in the abrasion resistant coating. a substrate , a first coating comprising an abrasion resistant coating obtained by radiation-curing a first coating composition comprising flexible materials and optionally rigid materials, flexible materials being materials that form a flexible polymer having a glass transition temperature of 25°C to -150°C or less when subjected to radiation curing; and a second coating comprising a sputter-applied anti-reflective (AR) coating, wherein the ophthalmic article has a Bayer value of at or between 1.25 and 2,6 and a hand steel wool value of 3 or less, and wherein the weight amount of flexible materials is greater than the weight amount of rigid materials when rigid materials are present in the abrasion resistant coating.
Method for activating a fluid solenoid valve in a fluid system of a vehicle , in which an activation voltage (UA) is applied to a coil arrangement of the fluid solenoid valve in order to set a switching mode (S0, S1, S2), wherein the activation voltage (UA) is set in at least two different operating modes (BM1, BM2) depending on an operating criterion (K1), wherein, in a first operating mode (BM1), current control of the coil current (I) flowing through the coil arrangement is carried out, and in a second operating mode (BM2) which is different from the first operating mode (BM1), the activation voltage (UA) is set without current control, characterized in that the operating criterion (K1) comprises a comparison of the current activation voltage (UA) with a limit voltage (TV), or is formed by the comparison, wherein in a first case, where the activation voltage (UA) exceeds the limit voltage (TV), the first operating mode (BM1) is set, and in a second case, where the activation voltage (UA) falls below the limit voltage (TV), the second operating mode (BM2) is set. in which an activation voltage (UA) is applied to a coil arrangement of the fluid solenoid valve in order to set a switching mode (S0, S1, S2), wherein the activation voltage (UA) is set in at least two different operating modes (BM1, BM2) depending on an operating criterion (K1), wherein, in a first operating mode (BM1), current control of the coil current (I) flowing through the coil arrangement is carried out, and in a second operating mode (BM2) which is different from the first operating mode (BM1), the activation voltage (UA) is set without current control, characterized in that the operating criterion (K1) comprises a comparison of the current activation voltage (UA) with a limit voltage (TV), or is formed by the comparison, wherein in a first case, where the activation voltage (UA) exceeds the limit voltage (TV), the first operating mode (BM1) is set, and in a second case, where the activation voltage (UA) falls below the limit voltage (TV), the second operating mode (BM2) is set.
A guide for guided surgery on zygomatic implants for dental prostheses, said guide comprising a first half-bushing and a second half-bushing that are connected by a pair of bars , said half-bushings and said bars defining a common longitudinal median axis between them; said half-bushings having a semicircular cross-section with mutually opposite concavities directed toward said median axis; said half-bushings and said bars forming a seat in which it is possible to insert a work member ; said work member being movable along said median axis and rotating about a rotation axis that coincides with said median axis; characterized in that said first half-bushing is configured to be arranged at a crestal maxillary position with vestibular concavity, said first half-bushing is adapted to determine a working depth of said work member , said working depth being the vestibulo-palatal penetration of said work member ; wherein said second half-bushing is configured to be arranged at the zygomatic region.
A controller configured for use in an LED lighting system having a heatsink and a plurality of strings of LEDs each string comprising one or more LEDs each having a junction and being mounted on the heatsink, the controller comprising: a memory unit ; and a processor , and being configured to supply a respective current to each of the strings of LEDs; characterised in that the processor comprises: a first temperature estimation subunit configured to generate a first estimate, being an estimate of the junction temperature of the LEDs of a one of the strings of LEDs; a heatsink temperature estimation subunit configured to estimate a temperature of the heatsink unit from the first estimate; and a second temperature estimation subunit configured to provide a second estimate, being an estimate of a junction temperature of LEDs of a second string of LEDs, from the estimated temperature of the heatsink.
Roller container with an open top side for transport and storage of loose goods, comprising a floor , two side walls , a front wall and a rear wall , and a cover system for covering the open top side of the container , wherein said cover system comprises two rotatable cover devices , wherein each cover device is rotatable between an open position in which the cover device lies against a side wall of the container , and a covering position in which a part of the open top side is covered, characterized in that the top side of each side wall is provided with a top tube which extends over almost the complete length of the container , and that each cover device comprises a U-shaped frame provided with a longitudinal part with head ends and two upright fixing legs , wherein said longitudinal part is arranged so as to be freely rotatable in the top tube of a side wall .
A method for identifying an analyte sensor system for connection, the method comprising: a display device receiving a first signal from an analyte sensor system of a set of analyte sensor systems, wherein the first signal is received via a first link; the display device determining a derivative of the first signal; the display device identifying the analyte sensor system for selection, based on the derivative of the first signal; the display device receiving a second signal from the analyte sensor system ; the display device determining a derivative of the second signal; and selecting the analyte sensor system for connection, based on the derivative of the second signal, wherein selecting the analyte sensor system for connection comprises comparing the derivative of the second signal to a first threshold. a display device receiving a first signal from an analyte sensor system of a set of analyte sensor systems, wherein the first signal is received via a first link; the display device determining a derivative of the first signal; the display device identifying the analyte sensor system for selection, based on the derivative of the first signal; the display device receiving a second signal from the analyte sensor system ; the display device determining a derivative of the second signal; and selecting the analyte sensor system for connection, based on the derivative of the second signal, wherein selecting the analyte sensor system for connection comprises comparing the derivative of the second signal to a first threshold.
A method for dispensing fluids, the method comprising steps of: a. providing a system comprising a reservoir, a micro-fluidic thermal inkjet print head in fluid communication with the reservoir, a controller and a power source in electrical communication with the controller and the print head, the reservoir containing a fluid, the micro-fluidic thermal inkjet print head comprising nozzles; b. heating the fluid in the microfluidic device to a temperature of 40 C to 75 C in less than 1000 ms; c. activating the print head to eject the fluid from the nozzles at a first frequency; d. subsequent to step c, activating the print head to eject the fluid from the nozzles at a second frequency, the second frequency being less than the first frequency; and e. subsequent to step d, activating the print head to eject the fluid from the nozzles at a third frequency being greater than the first frequency. a. providing a system comprising a reservoir, a micro-fluidic thermal inkjet print head in fluid communication with the reservoir, a controller and a power source in electrical communication with the controller and the print head, the reservoir containing a fluid, the micro-fluidic thermal inkjet print head comprising nozzles; b. heating the fluid in the microfluidic device to a temperature of 40 C to 75 C in less than 1000 ms; c. activating the print head to eject the fluid from the nozzles at a first frequency; d. subsequent to step c, activating the print head to eject the fluid from the nozzles at a second frequency, the second frequency being less than the first frequency; and e. subsequent to step d, activating the print head to eject the fluid from the nozzles at a third frequency being greater than the first frequency.
A measuring apparatus comprising: a flow cell through which a sample containing particles flows; a light source to irradiate light on the sample flowing through the flow cell ; a fluorescence detector to detect fluorescence generated from the sample irradiated with light from the light source ; and a controller programmed to carry out a sensitivity adjustment comprising: causing a positive control sample containing a fluorescent dye to flow through the flow cell , obtaining a measurement value of the fluorescence generated from the positive control sample irradiated by the light from the light source via the fluorescence detector , comparing the measurement value and a reference value, and adjusting a sensitivity of the fluorescence detector according to a comparison result; and wherein the controller is programmed to obtain, in the sensitivity adjustment, a measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a first detection sensitivity, characterized in that the controller is programmed to, in response to the comparison result not satisfying a condition, obtain the measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a second detection sensitivity that brings the measurement value closer to the reference value than when using the first detection sensitivity according to the detection result, and to compare the measurement value and the reference value. a flow cell through which a sample containing particles flows; a light source to irradiate light on the sample flowing through the flow cell ; a fluorescence detector to detect fluorescence generated from the sample irradiated with light from the light source ; and a controller programmed to carry out a sensitivity adjustment comprising: causing a positive control sample containing a fluorescent dye to flow through the flow cell , obtaining a measurement value of the fluorescence generated from the positive control sample irradiated by the light from the light source via the fluorescence detector , comparing the measurement value and a reference value, and adjusting a sensitivity of the fluorescence detector according to a comparison result; and wherein the controller is programmed to obtain, in the sensitivity adjustment, a measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a first detection sensitivity, characterized in that the controller is programmed to, in response to the comparison result not satisfying a condition, obtain the measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a second detection sensitivity that brings the measurement value closer to the reference value than when using the first detection sensitivity according to the detection result, and to compare the measurement value and the reference value.
A light emitting device comprising: a covering member including a first light-reflective member having a through-hole and a light-transmissive resin disposed in the through-hole ; a light-emitting element arranged to face the light-transmissive resin ; and a second light-reflective member arranged to face the first light-reflective member around the light-emitting element , the second light-reflective member covering a lateral surface of the light-emitting element , wherein the light-transmissive resin contains a wavelength-conversion material distributed predominantly on a side of a lower surface of the light-transmissive resin facing the light-emitting element , or predominantly on a side of an upper surface of the light-transmissive resin , the side of the upper surface apart from the light-emitting element , characterized in that a sidewall of the through-hole has a protrusion , and in that a distance between the upper surface of the light-transmissive resin and a tip of the protrusion is shorter than a distance between the lower surface of the light-transmissive resin and the tip of the protrusion . a covering member including a first light-reflective member having a through-hole and a light-transmissive resin disposed in the through-hole ; a light-emitting element arranged to face the light-transmissive resin ; and a second light-reflective member arranged to face the first light-reflective member around the light-emitting element , the second light-reflective member covering a lateral surface of the light-emitting element , wherein the light-transmissive resin contains a wavelength-conversion material distributed predominantly on a side of a lower surface of the light-transmissive resin facing the light-emitting element , or predominantly on a side of an upper surface of the light-transmissive resin , the side of the upper surface apart from the light-emitting element , characterized in that a sidewall of the through-hole has a protrusion , and in that a distance between the upper surface of the light-transmissive resin and a tip of the protrusion is shorter than a distance between the lower surface of the light-transmissive resin and the tip of the protrusion .
A method for protecting a wind turbine from extreme and fatigue loads associated with high wind speed events, the method comprising: receiving, via a wind turbine condition estimator programmed in a turbine controller of the wind turbine , operating data indicative of current wind turbine operation; characterised by the following method steps: determining, via the wind turbine condition estimator , a plurality of estimated wind turbine conditions at the wind turbine by solving a control algorithm having one or more equations using the operating data, the plurality of estimated wind turbine conditions comprising, at least, an estimated wind speed at the wind turbine and at least one loading proxy of the wind turbine ; and, implementing, via the turbine controller , a corrective action only when each of the plurality of estimated wind turbine conditions indicates that one or more loading conditions of the wind turbine exceeds a predetermined limit. receiving, via a wind turbine condition estimator programmed in a turbine controller of the wind turbine , operating data indicative of current wind turbine operation; characterised by the following method steps: determining, via the wind turbine condition estimator , a plurality of estimated wind turbine conditions at the wind turbine by solving a control algorithm having one or more equations using the operating data, the plurality of estimated wind turbine conditions comprising, at least, an estimated wind speed at the wind turbine and at least one loading proxy of the wind turbine ; and, implementing, via the turbine controller , a corrective action only when each of the plurality of estimated wind turbine conditions indicates that one or more loading conditions of the wind turbine exceeds a predetermined limit. determining, via the wind turbine condition estimator , a plurality of estimated wind turbine conditions at the wind turbine by solving a control algorithm having one or more equations using the operating data, the plurality of estimated wind turbine conditions comprising, at least, an estimated wind speed at the wind turbine and at least one loading proxy of the wind turbine ; and, implementing, via the turbine controller , a corrective action only when each of the plurality of estimated wind turbine conditions indicates that one or more loading conditions of the wind turbine exceeds a predetermined limit.
Method for forming a laser-welded connection, in which two joining partners (11; 11a, 12; 12a) are connected to each other by action of a laser beam in a joining region (30; 30a), forming a weld seam , wherein the one joining partner (11; 11a) consists of a material which is transparent to laser radiation and the other joining partner (12; 12a) consists of a material which is absorbent to laser radiation, and wherein a receptacle (25; 25a; 25b) for a component (13; 13a; 13b; 14) which is separate from the joining partners (11; 11a, 12; 12a) is formed by the two joining partners (11; 11a, 12; 12a), characterized in that the receptacle (25; 25a; 25b) is designed as a through-opening , in that the separate component (13; 13a; 13b; 14), which is designed as a current-conducting component and has a sheath (24; 24a; 24b) which is absorbent to laser radiation, consists at least partially of a material which is absorbent to laser radiation, in that the material of the separate component (13; 13a; 13b; 14), which material is absorbent to laser radiation, is arranged in a functionally communicating manner with the joining partner (11; 11a) which consists of the material which is transparent to laser radiation, and in that the laser beam acts upon the material of the separate component (13; 13a; 13b; 14), which material is absorbent to laser radiation, so that by means of heat transfer from the separate component (13; 13a; 13b; 14) the material of the one joining partner (11; 11a), which material is transparent to laser radiation, is melted and closes off the through-opening .