mhurhangee/ep-ind-claims huggingface dataset:
Device intended to mask a part of a surface in an operation performed in a number of steps on this surface, comprising a mask adopting the form of said part to be masked, characterized in that it comprises i) a film, the outline of which adopts the form of said part to be masked and the bottom face of which is coated with an adhesive substance which is covered by an at least partially removable protective sheet, ii) at least two protective trims removably glued one on top of the other at the border of the top face of the film, said trims each comprising an outer edge which follows the outline of said film, such that said edges are exactly superposed relative to one another. i) a film, the outline of which adopts the form of said part to be masked and the bottom face of which is coated with an adhesive substance which is covered by an at least partially removable protective sheet, ii) at least two protective trims removably glued one on top of the other at the border of the top face of the film, said trims each comprising an outer edge which follows the outline of said film, such that said edges are exactly superposed relative to one another.
An arrangement for handling screening material, e.g. aggregate, ore or similar, said arrangement comprising a screening deck and/or a screening duct on or in relation to which screening material is traveling, the arrangement further comprising an ultrasonic detection system comprising an ultrasonic transmitter arranged at the arrangement, and adapted to send out an ultrasonic signal towards a surface, an ultrasonic receiver adapted to receive the ultrasonic signal, and a control unit connected to the ultrasonic transmitter and the ultrasonic receiver, the control unit being adapted to detect at least one parameter of the ultrasonic signal, wherein the control unit further is adapted to detect a difference in the at least one parameter based on a comparison between the ultrasonic signal and a reference signal, characterised in that the arrangement further comprises: cleaning means connected to the control unit and arranged at the ultrasonic transmitter and the ultrasonic receiver, wherein the control unit is adapted to control a cleaning process of the ultrasonic transmitter and/or the ultrasonic receiver using the cleaning means, wherein the cleaning means comprises air blowing means, and a protective case at least partly housing the ultrasonic transmitter and the ultrasonic receiver. an ultrasonic transmitter arranged at the arrangement, and adapted to send out an ultrasonic signal towards a surface, an ultrasonic receiver adapted to receive the ultrasonic signal, and a control unit connected to the ultrasonic transmitter and the ultrasonic receiver, the control unit being adapted to detect at least one parameter of the ultrasonic signal, wherein the control unit further is adapted to detect a difference in the at least one parameter based on a comparison between the ultrasonic signal and a reference signal, characterised in that the arrangement further comprises: cleaning means connected to the control unit and arranged at the ultrasonic transmitter and the ultrasonic receiver, wherein the control unit is adapted to control a cleaning process of the ultrasonic transmitter and/or the ultrasonic receiver using the cleaning means, wherein the cleaning means comprises air blowing means, and a protective case at least partly housing the ultrasonic transmitter and the ultrasonic receiver. cleaning means connected to the control unit and arranged at the ultrasonic transmitter and the ultrasonic receiver, wherein the control unit is adapted to control a cleaning process of the ultrasonic transmitter and/or the ultrasonic receiver using the cleaning means, wherein the cleaning means comprises air blowing means, and a protective case at least partly housing the ultrasonic transmitter and the ultrasonic receiver.
A box packing apparatus comprising: a first conveyor that conveys an article; a parallel link robot that takes hold of the article on the first conveyor and carries it into a box that has an upper opening; and a flap folding mechanism that folds open to the outside of the upper opening at least one of plural cover flaps (F1, F2, F3, F4) of the box that are located around the upper opening, wherein the flap folding mechanism folds open to the outside of the upper opening a conveyor-side cover flap that is the cover flap located in the closest position to the first conveyor when it has been folded open to the outside of the upper opening, wherein the parallel link robot moves the article and carries the article into the box at a height position above the cover flap that has been folded open and lower than upper ends of the other cover flaps (F2, F3, F4) that are not folded open. a first conveyor that conveys an article; a parallel link robot that takes hold of the article on the first conveyor and carries it into a box that has an upper opening; and a flap folding mechanism that folds open to the outside of the upper opening at least one of plural cover flaps (F1, F2, F3, F4) of the box that are located around the upper opening, wherein the flap folding mechanism folds open to the outside of the upper opening a conveyor-side cover flap that is the cover flap located in the closest position to the first conveyor when it has been folded open to the outside of the upper opening, wherein the parallel link robot moves the article and carries the article into the box at a height position above the cover flap that has been folded open and lower than upper ends of the other cover flaps (F2, F3, F4) that are not folded open.
Biomaterials obtainable by mixing - hyaluronic acid hexadecylamide (HYADD) with - the derivative of hyaluronic acid crosslinked with 1,4-butanediol diglycidyl ether (BDDE) in the weight ratio of between 10:90 and 90:10 as novel fillers and/or as body shaping products. - hyaluronic acid hexadecylamide (HYADD) with - the derivative of hyaluronic acid crosslinked with 1,4-butanediol diglycidyl ether (BDDE)
A method of manufacturing a lacrimal implant insertable into a lacrimal canaliculus, the implant comprising a therapeutic agent the method comprising the step of providing an implant body (302, 1802), including first (304, 1804) and second (306, 1806) portions, the implant body extending from a proximal end (308, 1808) of the first portion to a distal (310, 1810) end of the second portion; the first portion including a cavity near the proximal end; the proximal end of the first portion defining a longitudinal proximal axis and the distal end of the second portion defining a longitudinal distal axis; the implant body being configured such that, when implanted in the lacrimal canaliculus, an angled intersection exists between the proximal axis and the distal axis for biasing at least a portion of the implant body against at least a portion of the lacrimal canaliculus located at or more distal to a canalicular curvature; and wherein the second portion of the implant body includes a longitudinal length having a magnitude less than four times a longitudinal length of the first portion of the implant body; the method further comprising the step of disposing a drug insert (322, 324) into the cavity, the drug insert comprises a plurality of therapeutic agent inclusions distributed in a matrix to provide sustained release of the agent, the drug insert having a sheath body disposed over at least a portion of the insert to define at least one insert exposed surface located at or near the proximal end of the first portion of the implant body.
A method for secure wireless communications with a network at a subscriber station, comprising: receiving a random value from the network, the random value having an expiration marker denoting an expiration time; comparing a current time to the expiration time; authenticating the communication if the current time does not exceed the expiration time; and refusing authentication of the communication if the current time exceeds the expiration time, wherein the subscriber station performs the steps of receiving, comparing and authenticating or refusing authentication. receiving a random value from the network, the random value having an expiration marker denoting an expiration time; comparing a current time to the expiration time; authenticating the communication if the current time does not exceed the expiration time; and refusing authentication of the communication if the current time exceeds the expiration time, wherein the subscriber station performs the steps of receiving, comparing and authenticating or refusing authentication.
A method for estimating a steady-state noise floor in a signal, the method comprising: receiving a plurality of representations of the signal corresponding to samples of the signal within a frame (305; 310) of predetermined time duration; estimating, by one or more processing devices, a power spectral density for each of a plurality of frequency bins, wherein the power spectral density for a particular frequency bin is estimated based on a smoothing parameter calculated from a noise estimate for the particular frequency bin as obtained from samples corresponding to a preceding frame; generating, based on the power spectral density for each of the plurality of frequency bins, an estimate of the steady-state noise floor; computing a measure of spectral flatness associated with the samples within the frame, the measure of spectral flatness being calculated based on power spectral densities calculated for at least a portion of the plurality of frequency bins; and determining that the measure of spectral flatness satisfies a threshold condition; and responsive to determining that the measure of spectral flatness satisfies a threshold condition, computing an updated estimate of the steady-state noise floor. receiving a plurality of representations of the signal corresponding to samples of the signal within a frame (305; 310) of predetermined time duration; estimating, by one or more processing devices, a power spectral density for each of a plurality of frequency bins, wherein the power spectral density for a particular frequency bin is estimated based on a smoothing parameter calculated from a noise estimate for the particular frequency bin as obtained from samples corresponding to a preceding frame; generating, based on the power spectral density for each of the plurality of frequency bins, an estimate of the steady-state noise floor; computing a measure of spectral flatness associated with the samples within the frame, the measure of spectral flatness being calculated based on power spectral densities calculated for at least a portion of the plurality of frequency bins; and determining that the measure of spectral flatness satisfies a threshold condition; and responsive to determining that the measure of spectral flatness satisfies a threshold condition, computing an updated estimate of the steady-state noise floor.
Expandable toroidal forming drum for building tyres, comprising: circumferentially consecutive sectors that are radially movable between a contracted condition in which said sectors are moved closer to a geometric rotation axis (X-X) of the forming drum, and an expanded condition in which the sectors are radially moved away from said geometric axis (X-X) in order to define a radially external abutment surface ("S"), wherein each sector has circumferentially opposite coupling portions (36a, 36b), each comprising circumferential projections alternated with circumferential cavities, wherein the projections of each sector are slidably engaged in the respective cavities of circumferentially adjacent sectors, wherein from at least one of said projections, at least one support wing is extended having a first side and a second side that are respectively opposite, wherein the first side coincides with a portion of said abutment surface ("S") and the second side at least partially overlaps one of the projections belonging to an adjacent sector. circumferentially consecutive sectors that are radially movable between a contracted condition in which said sectors are moved closer to a geometric rotation axis (X-X) of the forming drum, and an expanded condition in which the sectors are radially moved away from said geometric axis (X-X) in order to define a radially external abutment surface ("S"), wherein each sector has circumferentially opposite coupling portions (36a, 36b), each comprising circumferential projections alternated with circumferential cavities, wherein the projections of each sector are slidably engaged in the respective cavities of circumferentially adjacent sectors, wherein from at least one of said projections, at least one support wing is extended having a first side and a second side that are respectively opposite, wherein the first side coincides with a portion of said abutment surface ("S") and the second side at least partially overlaps one of the projections belonging to an adjacent sector.
An electric motor comprising: - a stator having a stator cavity with an axis (A-A) extending in a longitudinal direction (X-X), said stator cavity having a stator inlet for receiving a fluid and a stator outlet for discharging said fluid, - a rotor arranged inside the stator cavity and rotatable around said axis (A-A), - a tubular sleeve, arranged between the stator and the rotor, coaxial with said axis (A-A), and attached to the stator through attachment members, wherein: - the tubular sleeve is spaced from the stator by a first tubular gap, and from the rotor by a second tubular gap, said tubular sleeve having an electrical resistivity higher than 10 3 Ωcm, - the second tubular gap extends along the longitudinal direction (X-X) between a second gap inlet and a second gap outlet, characterized in that: - the first tubular gap extends along the longitudinal direction (X-X) between a first gap inlet and a first gap outlet, - the first and second gap inlets (151, 161) are in direct fluid communication with the stator inlet, and the first and second gap outlets (152, 162) are in direct fluid communication with the stator outlet, such that the fluid entering the stator cavity at said stator inlet divides into a first fluid flow and a second fluid flow respectively flowing through the first tubular gap and the second tubular gap and exiting the stator cavity at said stator outlet, - the tubular sleeve is made of a thermal insulating material, thereby thermally insulating the first tubular gap from the second tubular gap. - a stator having a stator cavity with an axis (A-A) extending in a longitudinal direction (X-X), said stator cavity having a stator inlet for receiving a fluid and a stator outlet for discharging said fluid, - a rotor arranged inside the stator cavity and rotatable around said axis (A-A), - a tubular sleeve, arranged between the stator and the rotor, coaxial with said axis (A-A), and attached to the stator through attachment members, - the tubular sleeve is spaced from the stator by a first tubular gap, and from the rotor by a second tubular gap, said tubular sleeve having an electrical resistivity higher than 10 3 Ωcm, - the second tubular gap extends along the longitudinal direction (X-X) between a second gap inlet and a second gap outlet, - the first tubular gap extends along the longitudinal direction (X-X) between a first gap inlet and a first gap outlet, - the first and second gap inlets (151, 161) are in direct fluid communication with the stator inlet, and the first and second gap outlets (152, 162) are in direct fluid communication with the stator outlet, such that the fluid entering the stator cavity at said stator inlet divides into a first fluid flow and a second fluid flow respectively flowing through the first tubular gap and the second tubular gap and exiting the stator cavity at said stator outlet, - the tubular sleeve is made of a thermal insulating material, thereby thermally insulating the first tubular gap from the second tubular gap.
A radar satellite comprising: a radar unit including a plurality of radar panels coupled to each other in a single flat plate shape, each of the plurality of radar panels including a panel substrate, a plurality of antennas which transmit and receive radar waves, and a solar cell; and a communication unit which performs communications with a spot on an earth or a spacecraft, wherein the radar unit includes: a radar panel array which is a plate-shaped structure including the plurality of radar panels; and a deployable truss structure including a plurality of side frame members supporting the plurality of radar panels, respectively, and coupled to each other in such a manner that the plurality of side frame members are foldable and deployable, characterized in that each of the plurality of radar panels includes an electric charging unit charged with electric power generated by the solar cell, and a power supply controller which controls at least charging and discharging of the electric charging unit, and the solar cell is mounted to a surface of the panel substrate, and the electric charging unit is disposed between the solar cell and the panel substrate. a radar unit including a plurality of radar panels coupled to each other in a single flat plate shape, each of the plurality of radar panels including a panel substrate, a plurality of antennas which transmit and receive radar waves, and a solar cell; and a communication unit which performs communications with a spot on an earth or a spacecraft, wherein the radar unit includes: a radar panel array which is a plate-shaped structure including the plurality of radar panels; and a deployable truss structure including a plurality of side frame members supporting the plurality of radar panels, respectively, and coupled to each other in such a manner that the plurality of side frame members are foldable and deployable, characterized in that each of the plurality of radar panels includes an electric charging unit charged with electric power generated by the solar cell, and a power supply controller which controls at least charging and discharging of the electric charging unit, and the solar cell is mounted to a surface of the panel substrate, and the electric charging unit is disposed between the solar cell and the panel substrate. a radar panel array which is a plate-shaped structure including the plurality of radar panels; and a deployable truss structure including a plurality of side frame members supporting the plurality of radar panels, respectively, and coupled to each other in such a manner that the plurality of side frame members are foldable and deployable, characterized in that each of the plurality of radar panels includes an electric charging unit charged with electric power generated by the solar cell, and a power supply controller which controls at least charging and discharging of the electric charging unit, and the solar cell is mounted to a surface of the panel substrate, and the electric charging unit is disposed between the solar cell and the panel substrate.
A cylinder head oil separator for a cylinder head of an internal combustion engine, wherein the internal combustion engine accommodates at least one piston in an engine block so as to be relatively movable, said piston driving with a piston lower end a crankshaft rotatably supported in a crankshaft housing, wherein an oil pan arranged below the crankshaft is provided for collecting an oil, wherein the cylinder head oil separator comprises a first opening for the supply of an air-oil aerosol supplied from the crankshaft housing via a supply line, an oil separation device fluidically connected thereto for separating the oil from the air-oil aerosol, and comprising a second opening fluidically connected and adjoining the oil separation device, which can be fluidically connected to a return line for returning an air cleaned of oil, CHARACTERISED IN THAT the oil separating device comprises a flow channel (12, 14, 16, 18, 20, 22) which is designed in such a way in that an air-oil aerosol entering at the first opening in a separation direction flows through a longer flow path up to an air outlet of the air cleaned of the oil at the second opening than a fluid flowing in at the second opening and flowing to the first opening in a ventilation direction opposite to the separation direction, and in that the flow channel (12, 14, 16, 18, 20, 22) in the separation direction is geometrically designed to realize flow-guided oil separation.
A method for modulating mannose 5 on a recombinant protein during a mammalian cell culture process comprising limiting the amount of glucose in the cell culture medium, wherein the concentration of the glucose is from about 0 to 3 g/L, and supplementing the cell culture medium with galactose, wherein the concentration of galactose is from 10-15 g/L, and wherein the cell culture process is a perfusion process.
An oil in water (o/w) micro-emulsion comprising: a. water; b. from about 3% up to about 30%, by weight oil, of the total weight of the emulsion; c. from about 0.1% up to about 10% of a lecithin; d. a sucrose monoester as an emulsifier wherein the ratio, by weight, of the combined amount of the lecithin and sucrose monoester to the oil is less than 1; e. propylene glycol wherein the propylene glycol to water ratio by weight is greater than 1:1; and f. from about 14%, more particularly 17% up to about 40%, by weight, a sugar selected from the group consisting of fructose, glucose, and sucrose, by total weight of the emulsion and combinations thereof; wherein the mean droplet size of the o/w micro-emulsion is about 10 to about 80 nm. a. water; b. from about 3% up to about 30%, by weight oil, of the total weight of the emulsion; c. from about 0.1% up to about 10% of a lecithin; d. a sucrose monoester as an emulsifier wherein the ratio, by weight, of the combined amount of the lecithin and sucrose monoester to the oil is less than 1; e. propylene glycol wherein the propylene glycol to water ratio by weight is greater than 1:1; and f. from about 14%, more particularly 17% up to about 40%, by weight, a sugar selected from the group consisting of fructose, glucose, and sucrose, by total weight of the emulsion and combinations thereof;