mhurhangee/ep-ind-claims huggingface dataset:
A method for producing contact lenses, comprising the steps of: obtaining a mold for cast-molding contact lenses from a lens formulation, wherein the mold comprises a first mold half having a first molding surface and a first back surface, a second mold half having a second molding surface and a second back surface, wherein the first and second mold halves are configured to receive each other such that a lens-forming cavity is formed between the first molding surface and the second molding surface; with an electrode which is connected to a high voltage high frequency source applying a corona discharge on one of the first and second back surfaces at a frequency in the range of about 10 kHz to 35 kHz and at a voltage from 10 kV to 20 kV, wherein a distance between the electrode and a top of the mold is 0.5 mm to 10 mm and a treatment time is 0.1 second to 5.0 seconds, so that the molding surface of the mold half with the treated back surface has an average water contact angle smaller than the water contact angle of the molding surface of the mold half with the untreated back surface by about 0.1 degrees to about 6 degrees; introducing a lens formulation into the lens-forming cavity formed between the first and second molding surfaces; curing the lens formulation in the lens-forming cavity to form a contact lens; and opening the mold and removing the molded contact lens, wherein the method provides for retaining the contact lens on the mold half having the corona discharge treated back surface and producing low percentages of lens tearing. obtaining a mold for cast-molding contact lenses from a lens formulation, wherein the mold comprises a first mold half having a first molding surface and a first back surface, a second mold half having a second molding surface and a second back surface, wherein the first and second mold halves are configured to receive each other such that a lens-forming cavity is formed between the first molding surface and the second molding surface; with an electrode which is connected to a high voltage high frequency source applying a corona discharge on one of the first and second back surfaces at a frequency in the range of about 10 kHz to 35 kHz and at a voltage from 10 kV to 20 kV, wherein a distance between the electrode and a top of the mold is 0.5 mm to 10 mm and a treatment time is 0.1 second to 5.0 seconds, so that the molding surface of the mold half with the treated back surface has an average water contact angle smaller than the water contact angle of the molding surface of the mold half with the untreated back surface by about 0.1 degrees to about 6 degrees; introducing a lens formulation into the lens-forming cavity formed between the first and second molding surfaces; curing the lens formulation in the lens-forming cavity to form a contact lens; and opening the mold and removing the molded contact lens, wherein the method provides for retaining the contact lens on the mold half having the corona discharge treated back surface and producing low percentages of lens tearing.
A birthing sensor for mounting on the tail of a pregnant animal comprising a casing and an adjustable strap for securing the casing to the tail of a pregnant animal, the casing housing monitoring equipment, communication equipment and a power supply therein, characterised in that there is provided a padding insert (7, 37) mounted on the casing and the strap for location intermediate the casing, the strap and the animal's tail, the padding insert comprising a resiliently deformable material having a plurality of ventilation passageways formed therein for throughpassage of air when the birthing sensor is mounted on the tail of a pregnant animal.
A printer (110, 200, 300), comprising: a data store (210, 310) to store a one-time pad; an encryption module (220, 320, 840) to encrypt a message using the one-time pad and to transmit the encrypted message to a trusted device that stores a copy of the one-time pad; a decryption module (230, 330) to decrypt, using the one-time pad, a received message from the trusted device and to control the printer to perform an action based on the received message; and a refresh module (240, 340) to replace the one-time pad during a service event; where the service event is a replacement of a print consumable. a data store (210, 310) to store a one-time pad; an encryption module (220, 320, 840) to encrypt a message using the one-time pad and to transmit the encrypted message to a trusted device that stores a copy of the one-time pad; a decryption module (230, 330) to decrypt, using the one-time pad, a received message from the trusted device and to control the printer to perform an action based on the received message; and a refresh module (240, 340) to replace the one-time pad during a service event; where the service event is a replacement of a print consumable.
A manufacturing method of a stent that has an annular body configured to include a waved strut which at least has first and second main strut portions to be coated with a drug and a bending portion formed between the first and second main strut portions, the method comprising: a drug coating process of coating the stent with the drug, wherein the drug coating process comprises a non-coating portion forming process including coating an outer surface of the first main strut portion with the drug by causing a nozzle for discharging a coating solution prepared by dissolving the drug and a polymer in a solvent to move along the first main strut portion, and when the nozzle reaches the bending portion, preventing the bending portion from being coated with the drug by causing the nozzle to go past the bending portion and to move toward the second main strut portion, and wherein in the non-coating portion forming process, an adhesion amount of the coating solution adhering to the nozzle is reduced while the nozzle is going past the bending portion. a drug coating process of coating the stent with the drug, wherein the drug coating process comprises a non-coating portion forming process including coating an outer surface of the first main strut portion with the drug by causing a nozzle for discharging a coating solution prepared by dissolving the drug and a polymer in a solvent to move along the first main strut portion, and when the nozzle reaches the bending portion, preventing the bending portion from being coated with the drug by causing the nozzle to go past the bending portion and to move toward the second main strut portion, and wherein in the non-coating portion forming process, an adhesion amount of the coating solution adhering to the nozzle is reduced while the nozzle is going past the bending portion.
A method, performed by a control device, for controlling an exhaust gas aftertreatment system comprising a diesel particulate filter, a first selective catalytic reduction catalyst arranged upstream of the diesel particulate filter, and a second selective catalytic reduction catalyst arranged downstream of the diesel particulate filter, the method comprising a step of, in response to a determination that a temperature of an exhaust gas entering the diesel particulate filter is equal to or below 325 °C, controlling a NOx concentration of the exhaust gas entering the diesel particulate filter to be at least 200 ppm and equal to or less than 600 ppm, wherein the step of controlling the NOx concentration of the exhaust gas entering the diesel particulate filter comprises controlling a dosage of a reducing agent to the first selective catalytic reduction catalyst.
A system for healing a wound at a tissue site, comprising: a drape adapted to cover the wound at the tissue site; an adhesive having one surface affixed to at least a portion of said drape and an opposite surface adapted to bond to the tissue site; micelles dispersed within the adhesive layer; and release material encapsulated in the micelles and releasable from the micelles into the adhesive layer in response to exposure to light, the release material operable to weaken the bond of said adhesive to the tissue site; whereby the weakening of the bond of said adhesive facilitates removal of said drape from the tissue site. a drape adapted to cover the wound at the tissue site; an adhesive having one surface affixed to at least a portion of said drape and an opposite surface adapted to bond to the tissue site; micelles dispersed within the adhesive layer; and release material encapsulated in the micelles and releasable from the micelles into the adhesive layer in response to exposure to light, the release material operable to weaken the bond of said adhesive to the tissue site; whereby the weakening of the bond of said adhesive facilitates removal of said drape from the tissue site.
A wireless communication system comprising: a user equipment, UE, configured to detect synchronization signals within a search window; said UE configured to determine if said detected synchronization signals are part of a discovery burst sent by a sending cell, based upon properties of said detected synchronization signals; and said UE configured to perform discovery radio resource management, RRM, measurements on signals in said discovery burst if said synchronization signals are part of said discovery burst and said UE configured to not perform discovery RRM measurements on signals in said search window if said synchronization signals are not part of said discovery burst, wherein said properties comprise at least one of: a frequency difference between a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, in said discovery burst, a time difference between said PSS and said SSS in said discovery burst, and a sequence used for said synchronization signals. a user equipment, UE, configured to detect synchronization signals within a search window; said UE configured to determine if said detected synchronization signals are part of a discovery burst sent by a sending cell, based upon properties of said detected synchronization signals; and said UE configured to perform discovery radio resource management, RRM, measurements on signals in said discovery burst if said synchronization signals are part of said discovery burst and said UE configured to not perform discovery RRM measurements on signals in said search window if said synchronization signals are not part of said discovery burst, wherein said properties comprise at least one of: a frequency difference between a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, in said discovery burst, a time difference between said PSS and said SSS in said discovery burst, and a sequence used for said synchronization signals. a frequency difference between a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, in said discovery burst, a time difference between said PSS and said SSS in said discovery burst, and a sequence used for said synchronization signals.
A grill assembly comprising: an air inlet screen configured to allow passage of air therethrough; a base frame attached to the air inlet screen; a plurality of trusses connected to the base frame; a motor affixed to the trusses, the motor configured to mechanically vibrate the trusses, wherein the trusses are arranged in a manner such that the air inlet screen is configured to vibrate during an operation of the motor; a support frame coupled to the base frame; and a plurality of mounting members disposed between the support frame and the base frame, wherein the plurality of mounting members are made of rubber. an air inlet screen configured to allow passage of air therethrough; a base frame attached to the air inlet screen; a plurality of trusses connected to the base frame; a motor affixed to the trusses, the motor configured to mechanically vibrate the trusses, wherein the trusses are arranged in a manner such that the air inlet screen is configured to vibrate during an operation of the motor; a support frame coupled to the base frame; and a plurality of mounting members disposed between the support frame and the base frame, wherein the plurality of mounting members are made of rubber.
A cartridge (2, 102) for use in an aerosol-generating system, the cartridge comprising: an elongate first compartment (10, 110) having a length L 1 and a maximum transverse cross-sectional area A 1, the first compartment (10, 110) having a first air inlet (20, 120) and a first air outlet (26, 126) and containing a nicotine source comprising a first carrier material (12, 112) loaded with between 1 milligram and 50 milligrams of nicotine; and an elongate second compartment (14, 114) having a length L 2 and a maximum transverse cross-sectional area A 2, the second compartment (14, 114) having a second air inlet (22, 122) and a second air outlet (28, 128) and containing an acid source, wherein the first compartment (10, 110) and the second compartment (14, 114) are arranged in parallel within the cartridge (2, 102) and wherein the ratio 2:A 1 is at least 12:1 and the ratio (L 2) 2:A 2 is at least 12:1. an elongate first compartment (10, 110) having a length L 1 and a maximum transverse cross-sectional area A 1, the first compartment (10, 110) having a first air inlet (20, 120) and a first air outlet (26, 126) and containing a nicotine source comprising a first carrier material (12, 112) loaded with between 1 milligram and 50 milligrams of nicotine; and an elongate second compartment (14, 114) having a length L 2 and a maximum transverse cross-sectional area A 2, the second compartment (14, 114) having a second air inlet (22, 122) and a second air outlet (28, 128) and containing an acid source, wherein the first compartment (10, 110) and the second compartment (14, 114) are arranged in parallel within the cartridge (2, 102) and wherein the ratio 2:A 1 is at least 12:1 and the ratio (L 2) 2:A 2 is at least 12:1.
Device for the isostatic mounting of at least one set of components on the body of a motor vehicle, the body extending in the three directions of an orthonormal reference frame comprising a longitudinal direction, a transverse direction and a vertical direction, the components of the said at least one set of components each being fixed to the body and comprising a support for receiving a luminous headlamp and a bumper, characterised in that the support and the bumper extend below the headlamp, the headlamp being positioned on the support in the three directions (L1, T1, V1) of the orthonormal reference frame, the support and the bumper extending below the headlamp, the headlamp being positioned on the support in the three directions (L1, T1, V1) of the orthonormal reference frame via an assembly member between the headlamp and the support, the headlamp being fixed at a first of its longitudinal ends to the body via a first fixing member, the support being fixed at a first of its longitudinal ends to the body via a second fixing member arranged below the headlamp, and being configured as a tilting lever arm at its first longitudinal end fixed to the body by exerting a thrust against the headlamp between its longitudinal ends (3a, 3b) in accordance with at least one vertical force component via a support member for the headlamp provided on the support, the bumper being fixed to the body and comprising a transversely extending wing which is vertically interposed between the headlamp and the support at their second longitudinal end (3b, 2b), the said wing being housed inside a passage formed between the headlamp and the support via the said support member, characterised in that the second fixing member is free to move transversely on the body, immobilising the first longitudinal end of the support longitudinally and vertically on the body.
A method, comprising: receiving a first set of satellite tracking data at a server; generating integrity data for a second set of satellite tracking data stored in at least one remote receiver using said first set of satellite tracking data; and transmitting said integrity data to said at least one remote receiver. receiving a first set of satellite tracking data at a server; generating integrity data for a second set of satellite tracking data stored in at least one remote receiver using said first set of satellite tracking data; and transmitting said integrity data to said at least one remote receiver.
A method for wireless communication performed by a user equipment, UE, comprising: obtaining (405; 1405) an approximated interference and noise covariance matrix for a plurality of antennas of the UE, the plurality of antennas comprising a first antenna group and a second antenna group, wherein the first antenna group and the second antenna group are configured to transmit at different times, and wherein the approximated interference and noise covariance matrix is approximated as a block diagonal matrix comprising a plurality of non-zero blocks, wherein each one of the plurality of non-zero blocks corresponds to a precoder for use by antennas of the plurality of antennas that transmit simultaneously; determining (410; 1410) a first plurality of precoders for the first antenna group and a second plurality of precoders for the second antenna group, wherein the first plurality of precoders and the second plurality of precoders each correspond to one of the non-zero blocks of the approximated interference and noise covariance matrix; precoding (415; 1415) a first sounding reference signal, SRS, for the first antenna group using the first determined plurality of precoders and a second SRS for the second antenna group using the second determined plurality of precoders; and performing a first SRS transmission for the first antenna group using the first determined plurality of precoders (420; 425) and a second SRS transmission for the second antenna group using the second determined plurality of precoders (430; 435). obtaining (405; 1405) an approximated interference and noise covariance matrix for a plurality of antennas of the UE, the plurality of antennas comprising a first antenna group and a second antenna group, wherein the first antenna group and the second antenna group are configured to transmit at different times, and wherein the approximated interference and noise covariance matrix is approximated as a block diagonal matrix comprising a plurality of non-zero blocks, wherein each one of the plurality of non-zero blocks corresponds to a precoder for use by antennas of the plurality of antennas that transmit simultaneously; determining (410; 1410) a first plurality of precoders for the first antenna group and a second plurality of precoders for the second antenna group, wherein the first plurality of precoders and the second plurality of precoders each correspond to one of the non-zero blocks of the approximated interference and noise covariance matrix; precoding (415; 1415) a first sounding reference signal, SRS, for the first antenna group using the first determined plurality of precoders and a second SRS for the second antenna group using the second determined plurality of precoders; and performing a first SRS transmission for the first antenna group using the first determined plurality of precoders (420; 425) and a second SRS transmission for the second antenna group using the second determined plurality of precoders (430; 435).
Device for ink supply in digital printing, having at least one print head, a supply tank for an ink medium, the supply tank being connected via a supply line to the inlet of the at least one print head, and a return tank for the ink medium, the return tank being connected to the outlet of the at least one print head via a return line, a gas volume (20, 21) being formed in the supply tank and/or in the return tank, and in that the ink medium can be conveyed through the print head by the pressure of the gas volume (20, 21) in the supply tank and/or in the return tank characterized in that a volume of the supply tank and a volume of the return tank are each between 50 ml and 350 ml, in that an overpressure sensor for measuring an overpressure at the inlet of the print head is provided in the feed line, and in that a vacuum sensor for measuring a vacuum at the outlet of the print head is provided in the return line.
An injection-molding system, comprising: an extruding system; a plurality of molding devices, wherein each of the plurality of molding devices includes a hollow space; a plurality of discharging channel communicable with the extruding system and each of the discharging channels includes an outlet disposed away from the extruding system; wherein each of the molding devices further includes several feeding ports communicable with the hollow space and engageable with the outlets, characterized in that the extruding system is configured to produce a mixture of a polymeric material and a blowing agent, the molding device further comprises an insulator disposed between the discharging channels and the molding device, the insulator is configured to maintain temperatures of the discharging channels greater than a temperature of the molding device, the discharging channels are extendable into the insulator and thereby partially surrounded by the insulator, wherein each of the outlets is configured to discharge the mixture; and each of the molding devices is configured to receive the mixture from the outlets. an extruding system; a plurality of molding devices, wherein each of the plurality of molding devices includes a hollow space; a plurality of discharging channel communicable with the extruding system and each of the discharging channels includes an outlet disposed away from the extruding system; wherein each of the molding devices further includes several feeding ports communicable with the hollow space and engageable with the outlets, characterized in that the extruding system is configured to produce a mixture of a polymeric material and a blowing agent, the molding device further comprises an insulator disposed between the discharging channels and the molding device, the insulator is configured to maintain temperatures of the discharging channels greater than a temperature of the molding device, the discharging channels are extendable into the insulator and thereby partially surrounded by the insulator, wherein each of the outlets is configured to discharge the mixture; and each of the molding devices is configured to receive the mixture from the outlets.