mhurhangee/ep-ind-claims huggingface dataset:
Method of producing an extract enriched with trigonelline (TRIG) and/or chlorogenic acids from a TRIG and/or CQA containing organic plant material like Rubiacea plants or mate plants, the method comprising the steps of: (a) providing an amount of the TRIG and/or CQA containing organic plant material in a container, said at least one organic plant material being selected of the group of green beans of Coffea arabica and Coffea canephoris, and mate leaves, (b) treating said amount of TRIG and/or CQA containing organic plant material with steam for a defined vaporisation period, (c) exposing the TRIG and/or CQA containing organic plant material steamed in step (b) to hot water for at least two times for extraction, and (d) removing said extract, in each time gained in step (c), enriched with trigonelline (TRIG) and/or chlorogenic acid from the residue. (a) providing an amount of the TRIG and/or CQA containing organic plant material in a container, said at least one organic plant material being selected of the group of green beans of Coffea arabica and Coffea canephoris, and mate leaves, (b) treating said amount of TRIG and/or CQA containing organic plant material with steam for a defined vaporisation period, (c) exposing the TRIG and/or CQA containing organic plant material steamed in step (b) to hot water for at least two times for extraction, and (d) removing said extract, in each time gained in step (c), enriched with trigonelline (TRIG) and/or chlorogenic acid from the residue.
An imaging apparatus comprising: an exterior component (20, 21) comprising a front cover and a back cover; an image sensor (12A, 12B) disposed inside the exterior component (20, 21), the image sensor (12A, 12B) including a board; a sheet body attached to the board of the image sensor (12A, 12B) through an adhesive layer, the sheet body configured to dissipate heat generated by the image sensors (12A, 12B); an elastic body elastically deformable and configured to support the sheet body; and a holder configured to hold the elastic body, the sheet body including: a heat receiver attached to the board of the image sensor (12A, 12B); and a heat dissipating section attached to the elastic body through the adhesive layer, the elastic body being compressively deformable between the exterior component (20, 21) and the holder so that a front surface of the heat dissipating section is pressed against an inner surface of the front cover, wherein the front surface of the heat dissipating section comes into pressure contact with the inner surface of the front cover. an exterior component (20, 21) comprising a front cover and a back cover; an image sensor (12A, 12B) disposed inside the exterior component (20, 21), the image sensor (12A, 12B) including a board; a sheet body attached to the board of the image sensor (12A, 12B) through an adhesive layer, the sheet body configured to dissipate heat generated by the image sensors (12A, 12B); an elastic body elastically deformable and configured to support the sheet body; and a holder configured to hold the elastic body, the sheet body including: a heat receiver attached to the board of the image sensor (12A, 12B); and a heat dissipating section attached to the elastic body through the adhesive layer, a heat receiver attached to the board of the image sensor (12A, 12B); and a heat dissipating section attached to the elastic body through the adhesive layer, the elastic body being compressively deformable between the exterior component (20, 21) and the holder so that a front surface of the heat dissipating section is pressed against an inner surface of the front cover, wherein the front surface of the heat dissipating section comes into pressure contact with the inner surface of the front cover.
A porous nanoweb comprising: a first polymer having a melting temperature not more than 200 °C; and a second polymer having a melting temperature not less than 210 °C, wherein the porous nanoweb comprises a first nanofilament formed of the first polymer and a second nanofilament formed of the second polymer, and the first and second nanofilaments are formed simultaneously, thereby forming a single nanoweb. a first polymer having a melting temperature not more than 200 °C; and a second polymer having a melting temperature not less than 210 °C, wherein the porous nanoweb comprises a first nanofilament formed of the first polymer and a second nanofilament formed of the second polymer, and the first and second nanofilaments are formed simultaneously, thereby forming a single nanoweb.
A method for supporting link adaptation in a wireless network comprising at least two nodes, said method comprising the steps of: - a designated transmitting node sending a first message, including an indication of a current transmit duration for transfer of a predetermined amount of information, to at least a designated receiving node, wherein said current transmit duration corresponds to a currently assumed data link rate; - said designated receiving node selecting a desired data link rate for subsequent communication from said designated transmitting node; - said designated receiving node determining an updated transmit duration according to said desired data link rate; wherein said updated transmit duration is determined based on said current transmit duration indicated in said first message, said currently assumed link rate known by both said designated transmitting node and said designated receiving node, and said desired link rate selected by said receiving node; - said designated receiving node sending a second message, including an indication of said updated transmit duration, to at least said designated transmitting node; and - said designated transmitting node determining an updated data link rate in response to said updated transmit duration. - a designated transmitting node sending a first message, including an indication of a current transmit duration for transfer of a predetermined amount of information, to at least a designated receiving node, wherein said current transmit duration corresponds to a currently assumed data link rate; - said designated receiving node selecting a desired data link rate for subsequent communication from said designated transmitting node; - said designated receiving node determining an updated transmit duration according to said desired data link rate; wherein said updated transmit duration is determined based on said current transmit duration indicated in said first message, said currently assumed link rate known by both said designated transmitting node and said designated receiving node, and said desired link rate selected by said receiving node; - said designated receiving node sending a second message, including an indication of said updated transmit duration, to at least said designated transmitting node; and - said designated transmitting node determining an updated data link rate in response to said updated transmit duration.
A screen frame cropping method, adapted to an electronic apparatus having a touch screen (12, 30, 40, 50, 60, 70, 90, 100), the method comprising: displaying a frame on the touch screen; detecting a first touch and a second touch performed by a user on the touch screen (12, 30, 40, 50, 60, 70, 90, 100); determining whether the first touch and the second touch satisfy a predetermined condition, the predetermined condition being determined by one or a combination of displacements, starting positions, ending positions, and durations of the first touch and the second touch; and when the first touch and the second touch satisfy the predetermined condition, storing a cropped frame (102, 112) of the frame as an image file, the cropped frame (102, 112) being determined according to at least one first touch position of the first touch and at least one second touch position of the second touch, characterized in that the cropped frame (102, 112) is a rectangle comprising a cropping area and a transparent area outside the cropping area, wherein the cropping area and the transparent area are determined according at least to a first moving path of the first touch and a second moving path of the second touch and the borders of the touch screen. displaying a frame on the touch screen; detecting a first touch and a second touch performed by a user on the touch screen (12, 30, 40, 50, 60, 70, 90, 100); determining whether the first touch and the second touch satisfy a predetermined condition, the predetermined condition being determined by one or a combination of displacements, starting positions, ending positions, and durations of the first touch and the second touch; and when the first touch and the second touch satisfy the predetermined condition, storing a cropped frame (102, 112) of the frame as an image file, the cropped frame (102, 112) being determined according to at least one first touch position of the first touch and at least one second touch position of the second touch, characterized in that the cropped frame (102, 112) is a rectangle comprising a cropping area and a transparent area outside the cropping area, wherein the cropping area and the transparent area are determined according at least to a first moving path of the first touch and a second moving path of the second touch and the borders of the touch screen.
An error detection and correction method comprising comparing at least three identical devices (100A, 100B, 100C), each comprising at least one chain (103A, 103B, 103C) of test data, each piece of test data is stored in a test point (101A, 101B, 101C), test points being arranged in the device from the moment of conception and the stored test data being a data giving a indication about the state of the one or the several components to which the test point is attached, the method comprising the following steps: (a) the test data in the last position in said chain (103A, 103B, 103C) of said at least three devices (100A, 100B, 100C) are compared; (b) the other test data are shifted forward by one position in their chain (103A, 103B, 103C); (c) the result of the comparison of step (a) is written in the first position in said chain (103A, 103B, 103C), steps (a), (b), and (c) are repeated until all the test data of said chains (103A, 103B, 103C) are compared. (a) the test data in the last position in said chain (103A, 103B, 103C) of said at least three devices (100A, 100B, 100C) are compared; (b) the other test data are shifted forward by one position in their chain (103A, 103B, 103C); (c) the result of the comparison of step (a) is written in the first position in said chain (103A, 103B, 103C),
A brake valve arrangement for use in a trailer electronic braking system comprising a pressure control module controllable by an electronic control unit, wherein the pressure control module is adapted to receive pressure inputs and/or electronic inputs (104,109) to signal that air flow into or from airbags on each wheel or axle should be controlled for the purpose of raising or lowering the level of the trailer, which airflow is actuated by the pressure control module, the electronic control module being further adapted to provide EBS functionality in a brake system, characterised in that the arrangement has a first pneumatic input to supply air to at least four solenoid valves adapted to provide said EBS functionality, a second pneumatic input (41,42) for raise and lower solenoids (55,56), which solenoids are adapted to raise and lower the height of the trailer, a pneumatic connection being provided between the said at least four solenoid valves and a further valve for controlling a lift axle on the trailer.
A laminated film having a layer on at least one side of a base film, wherein the resin contained in the layer has a (poly)caprolactone segment and a urethane bond, and, in measurement using a micro hardness tester, the maximum displacement amount in the thickness direction of the layer is 1.0 to 3.0 μm and the creep displacement amount in the thickness direction of the layer is 0.2 to 0.5 μm when a load of 0.5 mN is applied for 10 seconds, and the permanent displacement amount in the thickness direction of the layer is 0.3 to 0.65 μm when the load is released to 0 mN, wherein the resin contained in the layer A has a (poly)alkylene glycol segment.
A medical fluid-conducting blood cassette for a medical fluid treatment with at least a connection point and at least a contact protection apparatus for covering the connection point of the medical fluid-conducting cassette, wherein the contact protection apparatus comprises at least one covering device for covering the connection point before the use of the cassette, and at least one connection section for detachably connecting or holding the contact protection apparatus on the cassette, wherein the connection is effected via the connection section by means of latching or clamping, characterized in that the connection section of the contact protection apparatus connects the contact protection apparatus with a retaining hole or a centering hole of the cassette for its intake at a blood treatment apparatus; and in that there is no firmly bonded connection between the covering device of the contact protection apparatus and the connection point when the covering device is arranged over or across the connection point. wherein the connection is effected via the connection section by means of latching or clamping, characterized in that the connection section of the contact protection apparatus connects the contact protection apparatus with a retaining hole or a centering hole of the cassette for its intake at a blood treatment apparatus; and in that there is no firmly bonded connection between the covering device of the contact protection apparatus and the connection point when the covering device is arranged over or across the connection point.
A process for producing acetic acid, comprising (a) reacting a carbon monoxide feed comprising (i) less than 99.5 mol% carbon monoxide, preferably less than 95 mol% carbon monoxide, more preferably less than 60 mol% carbon monoxide; and (ii) at least one of methanol and a methanol derivative in a first reactor under conditions effective to produce a crude acetic acid product; (b) separating the crude acetic acid product into at least one derivative stream, at least one of the at least one derivative stream comprising residual carbon monoxide; and (c) reacting at least a portion of the residual carbon monoxide from the at least one derivative stream and at least one of methanol and a methanol derivative, preferably methyl acetate, in a second reactor, preferably comprising a solid metal catalyst comprising at least one metal selected from the group consisting of rhodium, iridium, ruthenium, nickel, and cobalt, under conditions effective to produce additional acetic acid. (a) reacting a carbon monoxide feed comprising (i) less than 99.5 mol% carbon monoxide, preferably less than 95 mol% carbon monoxide, more preferably less than 60 mol% carbon monoxide; and (ii) at least one of methanol and a methanol derivative in a first reactor under conditions effective to produce a crude acetic acid product; (i) less than 99.5 mol% carbon monoxide, preferably less than 95 mol% carbon monoxide, more preferably less than 60 mol% carbon monoxide; and (ii) at least one of methanol and a methanol derivative in a first reactor under conditions effective to produce a crude acetic acid product; (b) separating the crude acetic acid product into at least one derivative stream, at least one of the at least one derivative stream comprising residual carbon monoxide; and (c) reacting at least a portion of the residual carbon monoxide from the at least one derivative stream and at least one of methanol and a methanol derivative, preferably methyl acetate, in a second reactor, preferably comprising a solid metal catalyst comprising at least one metal selected from the group consisting of rhodium, iridium, ruthenium, nickel, and cobalt, under conditions effective to produce additional acetic acid.
A prosthetic foot (100, 200, 200', 300) comprising: an elongate foot element extending from a proximal end to a distal end, the foot element comprising a tongue portion defined by a slot in the foot element (100, 200, 200', 300) that at least partially separates the tongue portion from a remainder of the elongate foot element (100, 200, 200', 300); and a mechanism configured to be selectively actuated to operatively connect or operatively disconnect the tongue portion from the remainder of the foot element (100, 200, 200', 300), wherein when the tongue portion is operatively connected to the remainder of the foot element (100, 200, 200', 300) the foot element (100, 200, 200', 300) exhibits relatively greater stiffness, and when the tongue portion is operatively disconnected from the remainder of the foot element (100, 200, 200', 300) the foot element exhibits (100, 200, 200', 300) relatively lower stiffness. an elongate foot element extending from a proximal end to a distal end, the foot element comprising a tongue portion defined by a slot in the foot element (100, 200, 200', 300) that at least partially separates the tongue portion from a remainder of the elongate foot element (100, 200, 200', 300); and a mechanism configured to be selectively actuated to operatively connect or operatively disconnect the tongue portion from the remainder of the foot element (100, 200, 200', 300), wherein when the tongue portion is operatively connected to the remainder of the foot element (100, 200, 200', 300) the foot element (100, 200, 200', 300) exhibits relatively greater stiffness, and when the tongue portion is operatively disconnected from the remainder of the foot element (100, 200, 200', 300) the foot element exhibits (100, 200, 200', 300) relatively lower stiffness.
A stable pharmaceutical composition comprising: a) an active agent selected from 1-deoxynojirimycin or N-butyl-deoxynojirimycin, or a pharmaceutically acceptable salt thereof, and b) a sodium citrate buffer, wherein the buffer is present at a concentration of 20 mM to 75 mM, and wherein the stable pharmaceutical composition is shelf-stable for at least about one year under an atmosphere selected from nitrogen, air or a combination thereof, and a temperature of from about 2°C to about 42°C and is capable of being parenterally administered, preferably capable of being one or more of subcutaneously and intravenously administered, to a human without deleterious health effects. a) an active agent selected from 1-deoxynojirimycin or N-butyl-deoxynojirimycin, or a pharmaceutically acceptable salt thereof, and b) a sodium citrate buffer, wherein the buffer is present at a concentration of 20 mM to 75 mM, and wherein the stable pharmaceutical composition is shelf-stable for at least about one year under an atmosphere selected from nitrogen, air or a combination thereof, and a temperature of from about 2°C to about 42°C and is capable of being parenterally administered, preferably capable of being one or more of subcutaneously and intravenously administered, to a human without deleterious health effects.
A multicopter equipped with an aircraft propulsion system comprising: a plurality of engines (60-1, 60-2) attached to an aircraft body of the multicopter; generators (50-1, 50-2) connected to respective engine shafts of each of the engines (60-1, 60-2); a battery configured to store power generated by the generators (50-1, 50-2); a plurality of motors driven by the power supplied from the generators (50-1, 50-2) or the battery; a plurality of rotors attached to the aircraft body of the multicopter via respective arms and driven by driving forces output from the motors attached to a respective rotating shaft of the rotors and a controller configured to control operating states of the plurality of engines, wherein, when a flight state of the multicopter is a first state after the plurality of engines (60-1, 60-2) operate and the multicopter has taken off, the controller causes at least one engine among the plurality of engines to be stopped, causes another engine, which has not been stopped, to be operated in an efficient operating range in which the output power of the other engine starts at around 60% and ends at a value of about 95% or 100% of its maximum rated power, and causes the generator corresponding to the other engine to output power. a plurality of engines (60-1, 60-2) attached to an aircraft body of the multicopter; generators (50-1, 50-2) connected to respective engine shafts of each of the engines (60-1, 60-2); a battery configured to store power generated by the generators (50-1, 50-2); a plurality of motors driven by the power supplied from the generators (50-1, 50-2) or the battery; a plurality of rotors attached to the aircraft body of the multicopter via respective arms and driven by driving forces output from the motors attached to a respective rotating shaft of the rotors and a controller configured to control operating states of the plurality of engines, wherein, when a flight state of the multicopter is a first state after the plurality of engines (60-1, 60-2) operate and the multicopter has taken off, the controller causes at least one engine among the plurality of engines to be stopped, causes another engine, which has not been stopped, to be operated in an efficient operating range in which the output power of the other engine starts at around 60% and ends at a value of about 95% or 100% of its maximum rated power, and causes the generator corresponding to the other engine to output power.