mhurhangee/patent-ind-claim-en huggingface dataset:
A system for the continuous production of liposomes, the system comprising: a mixer in fluid communication with one or more containers; a vessel; and one or more injection ports, wherein each injection port includes: a first inlet including a first conduit in fluid communication with the mixer, a second inlet including a second conduit in fluid communication with the vessel, an outlet, wherein the first conduit is positioned concentrically within the second conduit, and wherein the first conduit extends through the outlet; one or more degassing units in fluid communication with the second conduit of each of the one or more injection ports; and a three-way port including a first port, a second port, and third port, wherein the first port is in fluid communication with one or more degassing units, wherein the second port is in fluid communication with the vessel, and wherein the third port is an outlet port. a mixer in fluid communication with one or more containers; a vessel; and one or more injection ports, wherein each injection port includes: a first inlet including a first conduit in fluid communication with the mixer, a second inlet including a second conduit in fluid communication with the vessel, an outlet, wherein the first conduit is positioned concentrically within the second conduit, and wherein the first conduit extends through the outlet; a first inlet including a first conduit in fluid communication with the mixer, a second inlet including a second conduit in fluid communication with the vessel, an outlet, wherein the first conduit is positioned concentrically within the second conduit, and wherein the first conduit extends through the outlet; one or more degassing units in fluid communication with the second conduit of each of the one or more injection ports; and a three-way port including a first port, a second port, and third port, wherein the first port is in fluid communication with one or more degassing units, wherein the second port is in fluid communication with the vessel, and wherein the third port is an outlet port.
A device for determining an aerosol delivery of an aerosol stream generated by an aerosol generator , the device comprising: - a collecting unit , the collecting unit having a filter designated for collecting aerosol particles carried by an aerosol stream , a first fluid connection point which is connectable to an aerosol generator , and a second fluid connection point which is connectable to a breathing simulator being designated for simulating tidal breathing; and - at least one optical measurement unit which is designed for generating at least one optical measurement signal depending on the interaction of the at least one light beam with the aerosol particles , wherein the optical measurement unit is or comprises a laser measurement system , wherein the laser measurement system is designed for providing the at least one light beam, - at least one measurement volume which is designed for an interaction of at least one light beam with the aerosol particles carried by the aerosol stream and passing through the measurement volume ; and - at least one evaluation unit which is designed for determining the aerosol delivery of the aerosol stream from the at least one optical measurement signal, characterized in that the evaluation unit is designed for determining the aerosol delivery of the aerosol stream from the at least one optical measurement signal by using a conversion function between the optical measurement signal and the aerosol delivery , wherein the conversion function is determined by at least one single time collecting the aerosol particles carried by the aerosol stream in the filter , measuring a particle load on the filter , and determining the conversion function from a relationship between the particle load and the at least one optical measurement signal. - a collecting unit , the collecting unit having a filter designated for collecting aerosol particles carried by an aerosol stream , a first fluid connection point which is connectable to an aerosol generator , and a second fluid connection point which is connectable to a breathing simulator being designated for simulating tidal breathing; and - at least one optical measurement unit which is designed for generating at least one optical measurement signal depending on the interaction of the at least one light beam with the aerosol particles , wherein the optical measurement unit is or comprises a laser measurement system , wherein the laser measurement system is designed for providing the at least one light beam, - at least one measurement volume which is designed for an interaction of at least one light beam with the aerosol particles carried by the aerosol stream and passing through the measurement volume ; and - at least one evaluation unit which is designed for determining the aerosol delivery of the aerosol stream from the at least one optical measurement signal,
An in vitro non-invasive method for determining the quality of an embryo comprising the steps consisting of: i) providing a sample of the culture medium where the embryo is grown; ii) extracting the cell free DNA from the sample; iii) determining the level of the cell free DNA in the DNA extraction; and iv) determining the quality of the embryo in view of the level obtained in step iii) wherein step iii) is performed by quantitative PCR or probes arrays. i) providing a sample of the culture medium where the embryo is grown; ii) extracting the cell free DNA from the sample; iii) determining the level of the cell free DNA in the DNA extraction; and iv) determining the quality of the embryo in view of the level obtained in step iii)
Sorting system for sorting products comprising a central control system, a number of successive combinations , located one after another, of an elongated carrying body and a pusher body movable in a direction of movement following a path along which a number of sorting locations are provided, wherein the carrying bodies extend parallel to each other and perpendicular to the direction of movement and each one of the carrying bodies is configured for carrying a product to be sorted, the sorting system further comprising a displacing device for moving the combinations in the direction of movement along the path, each combination further being provided with a further displacing device that is provided with an on-board driving device for moving the pusher body in a sorting direction along the carrying body , extending perpendicularly to the direction of movement , for pushing a product carried by the carrying body off of the carrying body with the pusher body , as well as with an on-board control system that is configured for receiving destination data emanating from the central control system relating to the sorting location where a product to be sorted should be pushed off of the carrying body and for driving the on-board driving device hereto, the sorting system comprising a distance-determining device that is configured for determining a distance parameter that is related to the, or at least a, distance viewed in the sorting direction between a pusher body of a combination , of which the carrying body carries a product to be sorted and the product to be sorted carried by the carrying body and for sending the distance parameter to the on-board control system and wherein the on-board control system is configured for controlling the on-board driving device of the combination on the basis of this distance data, characterized in that the distance-determining device comprises, for at least some of the combinations , an on-board distance-determining device that is provided with a sensor assembly with at least one sensor, said on-board distance-determining device being configured for determining the distance parameter and for sending the distance parameter directly to the on-board control system .
Device for recovering hydraulic energy in an implement with a mooring pump for operation as pump or as motor, comprising a high-pressure accumulator as well as a working cylinder and a throttle differential circuit for connecting the bottom side of the working cylinder with the rod side of the working cylinder of the implement, wherein the device is configured such that if pressure is applied to the working cylinder by lowering of a boom of the implement, hydraulic fluid flows out of the working cylinder into three regions, wherein in the first region the mooring pump operates in the motor mode and drives multiple pumps via a transmission, wherein in the second region the high-pressure accumulator stores pressure energy, and wherein in the third region the hydraulic fluid flowing out of the bottom side or the rod side of the working cylinder at least partly fills the respective other side of the working cylinder, wherein a hydraulic slewing gear pump is provided for driving a slewing gear of the implement, wherein stored energy of the high-pressure accumulator can be transmitted to the other pumps and/or to a diesel engine via the slewing gear pump .
A roof window for installation in a roof structure of a building, wherein the total weight of the roof window is more than 35 kg, wherein the roof window comprises: - a fixation frame , - a movable frame which is movably connected to the fixation frame by means of a hinge arrangement, wherein the movable frame comprises structural elongated profiles comprising an elongated top profile , an elongated bottom profile and parallel, elongated side profiles , and wherein the movable frame supports at least a first insulated glass unit and a second insulated glass unit , - a releasable, mechanical holding system , - at least one division bar arrangement wherein said division bar arrangement is arranged between and separates a first frame opening and a second frame opening of the movable frame , wherein the first insulated glass unit is arranged to cover the first frame opening, and wherein the second insulated glass unit is arranged to cover the second frame opening, wherein the first insulated glass unit and the second insulated glass unit are arranged side by side in a common glass unit plane (PL1), and wherein the fixation frame substantially surrounds the movable frame , wherein the releasable, mechanical holding system is arranged to secure the first and second insulated glass units at the movable frame . wherein the roof window comprises: - a fixation frame , - a movable frame which is movably connected to the fixation frame by means of a hinge arrangement, wherein the movable frame comprises structural elongated profiles comprising an elongated top profile , an elongated bottom profile and parallel, elongated side profiles , and wherein the movable frame supports at least a first insulated glass unit and a second insulated glass unit , - a releasable, mechanical holding system , - at least one division bar arrangement - a fixation frame , - a movable frame which is movably connected to the fixation frame by means of a hinge arrangement, wherein the movable frame comprises structural elongated profiles comprising an elongated top profile , an elongated bottom profile and parallel, elongated side profiles , and wherein the movable frame supports at least a first insulated glass unit and a second insulated glass unit , - a releasable, mechanical holding system , - at least one division bar arrangement wherein said division bar arrangement is arranged between and separates a first frame opening and a second frame opening of the movable frame , wherein the first insulated glass unit is arranged to cover the first frame opening, and wherein the second insulated glass unit is arranged to cover the second frame opening, wherein the first insulated glass unit and the second insulated glass unit are arranged side by side in a common glass unit plane (PL1), and wherein the fixation frame substantially surrounds the movable frame , wherein the releasable, mechanical holding system is arranged to secure the first and second insulated glass units at the movable frame .
A method for detection and/or quantification of microorganism in a liquid sample, in particular in a water sample, the method comprising the steps of: (a-1) distributing the liquid sample into a number of different discrete volume portions, wherein the different discrete volume portions define linearly increasing volumes, or (a-2) diluting the liquid sample into a number of diluted samples which are defined by linearly increasing dilutions; (b) allowing the microorganism to grow; and (c) applying the Most Probable Number method to the linearly distributed volume portions or the linearly diluted dilution samples to detect and/or quantify the microorganism. (a-1) distributing the liquid sample into a number of different discrete volume portions, wherein the different discrete volume portions define linearly increasing volumes, or (a-2) diluting the liquid sample into a number of diluted samples which are defined by linearly increasing dilutions; (b) allowing the microorganism to grow; and (c) applying the Most Probable Number method to the linearly distributed volume portions or the linearly diluted dilution samples to detect and/or quantify the microorganism.
A pulley for an endless belt drive system, the pulley comprising: a hub including an outer hub (220 or 320); an outer rim (240 or 340); and a first plurality of arms (232a, 232b, 232c..., 332a, 332b, 332c...) extending radially outward from and connecting the outer hub to the outer rim, characterized in that radially outermost ends of proximate pairs of arms (232a/232b, 232b/232c . .. or 332a/332b, 332b/332c ...) in the first plurality of arms (232a, 232b, 232c..., 332a, 332b, 332c...) are arcuately spaced apart according to a pitch sequence (X n ) describing a pattern of varying relative spacing (a n ), wherein n is an integer 1 through n T representing, in order, the first through the n T proximate pairs of arms, and n T is the total number of arms; and the sequence of said relative spacing (a n ) is determinable as a n =(2nr X n )/ X T , where X T is the sum of members of X n . a hub including an outer hub (220 or 320); an outer rim (240 or 340); and a first plurality of arms (232a, 232b, 232c..., 332a, 332b, 332c...) extending radially outward from and connecting the outer hub to the outer rim, characterized in that radially outermost ends of proximate pairs of arms (232a/232b, 232b/232c . .. or 332a/332b, 332b/332c ...) in the first plurality of arms (232a, 232b, 232c..., 332a, 332b, 332c...) are arcuately spaced apart according to a pitch sequence (X n ) describing a pattern of varying relative spacing (a n ), wherein n is an integer 1 through n T representing, in order, the first through the n T proximate pairs of arms, and n T is the total number of arms; and the sequence of said relative spacing (a n ) is determinable as a n =(2nr X n )/ X T , where X T is the sum of members of X n .
A flow regulating device , comprising: a housing defining a water inlet and a water outlet ; a flow regulating assembly disposed in the housing, the flow regulating assembly defining a temperature-flow regulating orifice between the water inlet and the water outlet , and the flow regulating assembly further comprising a regulating component for regulating opening of the temperature-flow regulating orifice; and a temperature sensitive assembly disposed in the housing and connected to the regulating component, and the temperature sensitive assembly driving the regulating component according to temperature of water in the housing; the flow regulating device being characterised by comprising a flow feedback assembly disposed to the housing and configured to detect a flow rate of water in the housing and performing feedback, wherein the flow feedback assembly comprises: a turbine blade rotatably disposed in the housing, and driving a nearby water stream to rotate while rotating; a magnetic rotor rotatably disposed in the housing and adjacent to the turbine blade, the magnetic rotor being rotated by the rotating water stream; and a hall element mounted to an outer wall of the housing, the hall element judging the flow rate of the water by sensing rotation of the magnetic rotor and performing feedback. a housing defining a water inlet and a water outlet ; a flow regulating assembly disposed in the housing, the flow regulating assembly defining a temperature-flow regulating orifice between the water inlet and the water outlet , and the flow regulating assembly further comprising a regulating component for regulating opening of the temperature-flow regulating orifice; and a temperature sensitive assembly disposed in the housing and connected to the regulating component, and the temperature sensitive assembly driving the regulating component according to temperature of water in the housing; the flow regulating device being characterised by comprising a flow feedback assembly disposed to the housing and configured to detect a flow rate of water in the housing and performing feedback, wherein the flow feedback assembly comprises: a turbine blade rotatably disposed in the housing, and driving a nearby water stream to rotate while rotating; a magnetic rotor rotatably disposed in the housing and adjacent to the turbine blade, the magnetic rotor being rotated by the rotating water stream; and a hall element mounted to an outer wall of the housing, the hall element judging the flow rate of the water by sensing rotation of the magnetic rotor and performing feedback. a turbine blade rotatably disposed in the housing, and driving a nearby water stream to rotate while rotating; a magnetic rotor rotatably disposed in the housing and adjacent to the turbine blade, the magnetic rotor being rotated by the rotating water stream; and a hall element mounted to an outer wall of the housing, the hall element judging the flow rate of the water by sensing rotation of the magnetic rotor and performing feedback.
Electronic power conversion apparatus for electric or hybrid vehicles, connectable to at least one battery of an electric or hybrid vehicle, comprising: - at least one external enclosure ; - at least one electronic circuit housed inside said enclosure , connectable to said battery and configured for the conversion of an input current/voltage into a predefined output current/voltage; - at least one liquid cooling chamber made at a portion of said enclosure for cooling said electronic circuit ; - at least one heating chamber made at at least one portion of said enclosure and provided with at least one inlet port of a fluid and at least one outlet port of said fluid, said inlet port and said outlet port being connected to a heating circuit of said battery, characterized in that the apparatus comprises heating means of the fluid inside said heating chamber , in that said heating means comprise at least one heating element housed inside said heating chamber and operationally connected to said electronic circuit , and in that said heating element comprises at least one electrical resistor and/or at least one heating coil and in that said electronic circuit comprises management and control means of said heating element . - at least one external enclosure ; - at least one electronic circuit housed inside said enclosure , connectable to said battery and configured for the conversion of an input current/voltage into a predefined output current/voltage; - at least one liquid cooling chamber made at a portion of said enclosure for cooling said electronic circuit ; - at least one heating chamber made at at least one portion of said enclosure and provided with at least one inlet port of a fluid and at least one outlet port of said fluid, said inlet port and said outlet port being connected to a heating circuit of said battery, characterized in that the apparatus comprises heating means of the fluid inside said heating chamber , in that said heating means comprise at least one heating element housed inside said heating chamber and operationally connected to said electronic circuit , and in that said heating element comprises at least one electrical resistor and/or at least one heating coil and in that said electronic circuit comprises management and control means of said heating element .
A method for manufacturing an electrode assembly , the method comprising: preparing a separation film and a plurality of unit cells (110, 120, 130, 140, and 150), each of which comprises at least one positive electrode , at least one negative electrode , and at least one separator ; seating the plurality of unit cells (110, 120, 130, 140, and 150) on one surface of the separation film ; and successively folding the separation film on which the unit cells (110, 120, 130, 140, and 150) are seated so that the separation film is disposed between the plurality of unit cells (110, 120, 130, 140, and 150), wherein, in the folding, the separation film is folded two times or more to come into contact with and surround a first unit cell , which is disposed at an initial position of the separation film , of the plurality of unit cells (110, 120, 130, 140, and 150), and wherein the folding comprises: a first folding process of folding an end of the first separation film toward the first unit cell to allow a first folding part of the separation film to surround one surface and one side surface of the first unit cell ; and a second folding process of rotating the first unit cell at an angle of about 180 degrees to allow a second folding part of the separation film to additionally surround a circumference of the first unit cell . preparing a separation film and a plurality of unit cells (110, 120, 130, 140, and 150), each of which comprises at least one positive electrode , at least one negative electrode , and at least one separator ; seating the plurality of unit cells (110, 120, 130, 140, and 150) on one surface of the separation film ; and successively folding the separation film on which the unit cells (110, 120, 130, 140, and 150) are seated so that the separation film is disposed between the plurality of unit cells (110, 120, 130, 140, and 150), wherein, in the folding, the separation film is folded two times or more to come into contact with and surround a first unit cell , which is disposed at an initial position of the separation film , of the plurality of unit cells (110, 120, 130, 140, and 150), and wherein the folding comprises: a first folding process of folding an end of the first separation film toward the first unit cell to allow a first folding part of the separation film to surround one surface and one side surface of the first unit cell ; and a second folding process of rotating the first unit cell at an angle of about 180 degrees to allow a second folding part of the separation film to additionally surround a circumference of the first unit cell . a first folding process of folding an end of the first separation film toward the first unit cell to allow a first folding part of the separation film to surround one surface and one side surface of the first unit cell ; and a second folding process of rotating the first unit cell at an angle of about 180 degrees to allow a second folding part of the separation film to additionally surround a circumference of the first unit cell .