mhurhangee/patent-ind-claim-en huggingface dataset:
A printing apparatus comprising: a feeding roller configured to feed a printing sheet stacked on a stacking unit ; a conveyance roller configured to convey the printing sheet fed by said feeding roller ; printing means configured to print the printing sheet conveyed by said conveyance roller ; conveyance control means configured to control conveyance of a preceding sheet (1-A) as a printing sheet fed by said feeding roller and a succeeding sheet (1-B) as a printing sheet fed by said feeding roller after the preceding sheet (1-A), wherein the conveyance control means forms an overlap state in which a leading edge of the succeeding sheet (1-B) is overlapping with a trailing edge of the preceding sheet (1-A); and determination means configured to determine whether to convey the succeeding sheet (1-B) to a printing start position at which a printing operation is started by the printing means while keeping the overlap state or to convey the succeeding sheet (1-B) to the printing start position after canceling the overlap state based on information regarding a position of the leading edge of the succeeding sheet if the succeeding sheet is conveyed to the printing start position. a feeding roller configured to feed a printing sheet stacked on a stacking unit ; a conveyance roller configured to convey the printing sheet fed by said feeding roller ; printing means configured to print the printing sheet conveyed by said conveyance roller ; conveyance control means configured to control conveyance of a preceding sheet (1-A) as a printing sheet fed by said feeding roller and a succeeding sheet (1-B) as a printing sheet fed by said feeding roller after the preceding sheet (1-A), wherein the conveyance control means forms an overlap state in which a leading edge of the succeeding sheet (1-B) is overlapping with a trailing edge of the preceding sheet (1-A); and determination means configured to determine whether to convey the succeeding sheet (1-B) to a printing start position at which a printing operation is started by the printing means while keeping the overlap state or to convey the succeeding sheet (1-B) to the printing start position after canceling the overlap state based on information regarding a position of the leading edge of the succeeding sheet if the succeeding sheet is conveyed to the printing start position.
A sheet processing device configured to separate a non-bonding portion of a two-ply sheet (PJ, S) in which two sheets (P1, P2) are overlapped and bonded together at one end as a bonding portion (A) of the two-ply sheet (PJ, S), the sheet processing device comprising: a first sheet feeder configured to feed the two-ply sheet (PJ, S); a second sheet feeder configured to feed an inner sheet (PM) to be inserted between the two sheets (P1, P2) of the two-ply sheet (PJ, S) in a state in which the non-bonding portion of the two-ply sheet (PJ, S) is separated; and a controller configured to: cause the first sheet feeder to feed the two-ply sheet (PJ, S); perform a sheet separating operation on the two-ply sheet (PJ, S) to separate the non-bonding portion of the two-ply sheet (PJ, S); and cause the second sheet feeder to start feeding the inner sheet (PM) before completion of the sheet separating operation on the two-ply sheet (PJ, S). a first sheet feeder configured to feed the two-ply sheet (PJ, S); a second sheet feeder configured to feed an inner sheet (PM) to be inserted between the two sheets (P1, P2) of the two-ply sheet (PJ, S) in a state in which the non-bonding portion of the two-ply sheet (PJ, S) is separated; and a controller configured to: cause the first sheet feeder to feed the two-ply sheet (PJ, S); perform a sheet separating operation on the two-ply sheet (PJ, S) to separate the non-bonding portion of the two-ply sheet (PJ, S); and cause the second sheet feeder to start feeding the inner sheet (PM) before completion of the sheet separating operation on the two-ply sheet (PJ, S). cause the first sheet feeder to feed the two-ply sheet (PJ, S); perform a sheet separating operation on the two-ply sheet (PJ, S) to separate the non-bonding portion of the two-ply sheet (PJ, S); and cause the second sheet feeder to start feeding the inner sheet (PM) before completion of the sheet separating operation on the two-ply sheet (PJ, S).
A method for preparing a reversible color changeable coating composition comprising the steps of: preparing a grinded substance with a ball mill by grinding a silica sol in 200 to 400 parts by weight, an alcohol in 100 to 300 parts by weight, and Fe 2 O 3 in 100 to 300 parts by weight as a pigment and filler for the total weight of the coating composition; and adding a curing agent in 200 to 300 parts by weight to the grinded substance. preparing a grinded substance with a ball mill by grinding a silica sol in 200 to 400 parts by weight, an alcohol in 100 to 300 parts by weight, and Fe 2 O 3 in 100 to 300 parts by weight as a pigment and filler for the total weight of the coating composition; and adding a curing agent in 200 to 300 parts by weight to the grinded substance.
Method for manufacturing the stability trailing edge ribs and the bearing ribs of trailing edges of aircraft lifting surfaces with control surfaces, the bearing ribs configured to hold a hinge line of a control surface, wherein the stability trailing edge ribs and the bearing ribs are made by joining C-shaped cross section parts and/or L-shaped cross section parts so as to obtain the final stability trailing edge ribs and the bearing ribs , such that the manufacturing of the C-shaped cross section parts uses the same tooling both for the stability trailing edge ribs and the bearing ribs , and the manufacturing of the L-shaped cross section parts uses the same tooling both for the stability trailing edge ribs and the bearing ribs , wherein all the bearing ribs and the stability trailing edge ribs are made of the same material, characterized in that the material is thermoplastic resin reinforced with continuous carbon fiber, and the C-shaped cross section parts and/or the L-shaped cross section parts are joined by welding.
A method comprising: receiving (S1) an additional user provided access token requesting application at a device already having a user provided access token requesting application, said applications requesting different access tokens, requesting (S3) information from a user of said device if an access token of one of said applications is to be changed to that of the other of said applications, and using said access token of the other of said application for verification of said one of said applications. receiving (S1) an additional user provided access token requesting application at a device already having a user provided access token requesting application, said applications requesting different access tokens, requesting (S3) information from a user of said device if an access token of one of said applications is to be changed to that of the other of said applications, and using said access token of the other of said application for verification of said one of said applications.
A carton containing a plurality of articles (C), the carton comprising: a plurality of panels (10, 20, 30, 40; 230) that extends at least partially around an interior of the carton, the plurality of panels comprising at least a bottom panel , a top panel (30; 230), and a side panel ; and at least one end flap comprising at least a bottom end flap foldably attached to the bottom panel at an end of the carton, the end having an opening adjacent the bottom end flap ; characterised in that the plurality of articles (C) is disposed in the interior of the carton so that a void is formed in the interior between at least one article (C) of the plurality of articles (C) and at least a portion of the bottom end flap at the end . a plurality of panels (10, 20, 30, 40; 230) that extends at least partially around an interior of the carton, the plurality of panels comprising at least a bottom panel , a top panel (30; 230), and a side panel ; and at least one end flap comprising at least a bottom end flap foldably attached to the bottom panel at an end of the carton, the end having an opening adjacent the bottom end flap ; characterised in that the plurality of articles (C) is disposed in the interior of the carton so that a void is formed in the interior between at least one article (C) of the plurality of articles (C) and at least a portion of the bottom end flap at the end .
Semiconductor arrangement comprising - at least two turn-off semiconductor switches , - an energy store , - two external terminals , wherein the energy store is interconnected with the semiconductor switches in such a way that a voltage corresponding to an energy store voltage present at the energy store or to a zero voltage is able to be generated at the terminals , - a protective semiconductor connected to the energy store in a parallel circuit, - a diode series circuit connected to the energy store in a further parallel circuit, wherein the diode series circuit comprises at least two diodes arranged in series, wherein a first diode of the diode series circuit is connected in antiparallel with the first semiconductor switch and a second diode of the diode series circuit is connected in antiparallel with the second semiconductor switch , wherein the diodes of the diode series circuit are disc-type diodes that are mechanically clamped in at least one diode clamping assembly, characterized in that the two semiconductor switches are arranged as chips on a substrate and face one another on the chip side, a respective external cooling plate is provided for cooling the two semiconductor switches , wherein the diode clamping assembly is mechanically clamped between the two cooling plates , wherein the diode clamping assembly is arranged spatially between the protective semiconductor and the semiconductor switches , and wherein the cooling plates are used as electrical terminals in a link circuit of the energy store . - at least two turn-off semiconductor switches , - an energy store , - two external terminals , wherein the energy store is interconnected with the semiconductor switches in such a way that a voltage corresponding to an energy store voltage present at the energy store or to a zero voltage is able to be generated at the terminals , - a protective semiconductor connected to the energy store in a parallel circuit, - a diode series circuit connected to the energy store in a further parallel circuit, wherein the diode series circuit comprises at least two diodes arranged in series, wherein a first diode of the diode series circuit is connected in antiparallel with the first semiconductor switch and a second diode of the diode series circuit is connected in antiparallel with the second semiconductor switch ,
A strain gauge comprising: a flexible substrate ; a resistor made from a film containing Cr, CrN, and Cr 2 N, on one surface of the substrate ; and a resin barrier layer covering an upper surface and side surfaces of the resistor in a continuous manner, wherein, in the barrier layer , a ratio of moisture permeability (g/m 2 /24h) to thickness (mm) is 5:1 or less than 5:1, and the thickness of the barrier layer is 100 μm or more and 3 mm or less, wherein the moisture permeability is measured in an environment of 40°C and 90% relative humidity in accordance with the provision of JIS Z0208. a flexible substrate ; a resistor made from a film containing Cr, CrN, and Cr 2 N, on one surface of the substrate ; and a resin barrier layer covering an upper surface and side surfaces of the resistor in a continuous manner, wherein, in the barrier layer , a ratio of moisture permeability (g/m 2 /24h) to thickness (mm) is 5:1 or less than 5:1, and the thickness of the barrier layer is 100 μm or more and 3 mm or less, wherein the moisture permeability is measured in an environment of 40°C and 90% relative humidity in accordance with the provision of JIS Z0208.
A method for producing a semiconductor module formed as powerelectronic assembly comprising a ceramic interconnect device carrying at least one semiconductor component , wherein the at least one semiconductor component is covered by an encapsulating compound comprising a cured inorganic cement, wherein the encapsulating compound has a thermal expansion coefficient in the range of from 2 to 10 ppm/K, and wherein the ceramic of the ceramic interconnect device is selected from the group consisting of ceramics based on aluminium oxide, aluminium nitride, or silicon nitride, comprising the formation of the cured inorganic cement by means of the steps of: mixing a powdery mixture of inorganic binding agent and inorganic additives with water to form a pourable mass, pouring the pourable mass formed in this way, and then setting and drying the poured mass, wherein the powdery mixture of inorganic binding agent and inorganic additives is a magnesium phosphate cement, wherein the semiconductor component is fastened to the ceramic interconnect device , wherein the semiconductor module has a frame as carrier of electrical contacts, which are guided to the outside, wherein the ceramic interconnect device is attached to the upper side of a heat dissipation plate , the underside of which is connected to a cooling element , wherein the encapsulating compound is formed as "glob-top", wherein the bond wires contacting the semiconductor component are at least partially covered with the encapsulating compound , wherein the "glob-top" and the further surface regions of the semiconductor module are covered by an insulating mass . mixing a powdery mixture of inorganic binding agent and inorganic additives with water to form a pourable mass, pouring the pourable mass formed in this way, and then setting and drying the poured mass,
A mask for photolithography comprising: a transparent substrate ; a phase shift pattern formed onto the transparent substrate and configured to change a phase of light; a dielectric layer formed onto the phase shift pattern and the transparent substrate ; and a negative refractive-index meta material layer formed onto the dielectric layer ; characterized in that the phase shift pattern comprises at least one of chrome oxide nitride (CrOxNy) and molybdenum silicide oxide nitride (MoSiOxNy). a transparent substrate ; a phase shift pattern formed onto the transparent substrate and configured to change a phase of light; a dielectric layer formed onto the phase shift pattern and the transparent substrate ; and a negative refractive-index meta material layer formed onto the dielectric layer ; characterized in that the phase shift pattern comprises at least one of chrome oxide nitride (CrOxNy) and molybdenum silicide oxide nitride (MoSiOxNy).
A method of manufacturing a composite connector for a fluid transfer conduit , the method comprising: manufacturing a continuous fibre pre-form net that is shaped to comprise a hub-forming portion and a flange-forming portion , the continuous fibre pre-form net comprising continuous fibre reinforcement and a common support layer to which the continuous fibre reinforcement is secured by being stitched thereto, wherein at least some of the continuous fibre reinforcement extends between the hub-forming portion and the flange-forming portion ; placing the continuous fibre pre-form net into a mould , the mould being shaped such that the hub-forming portion forms a tubular hub portion which extends along a central axis (C) and the flange-forming portion forms a flange portion which extends from the hub portion at an angle to the central axis (C); and introducing polymer into the mould so as to form a composite connector comprising the flange portion and the hub portion ; characterised in that : the flange-forming portion comprises an annular portion which surrounds the hub-forming portion and the hub-forming portion comprises one or more tabs which extend from an inner edge of the annular portion; or the hub-forming portion comprises a contiguous sheet and the flange-forming portion comprises one or more tabs extending from an edge of the contiguous sheet. manufacturing a continuous fibre pre-form net that is shaped to comprise a hub-forming portion and a flange-forming portion , the continuous fibre pre-form net comprising continuous fibre reinforcement and a common support layer to which the continuous fibre reinforcement is secured by being stitched thereto, wherein at least some of the continuous fibre reinforcement extends between the hub-forming portion and the flange-forming portion ; placing the continuous fibre pre-form net into a mould , the mould being shaped such that the hub-forming portion forms a tubular hub portion which extends along a central axis (C) and the flange-forming portion forms a flange portion which extends from the hub portion at an angle to the central axis (C); and introducing polymer into the mould so as to form a composite connector comprising the flange portion and the hub portion ; the flange-forming portion comprises an annular portion which surrounds the hub-forming portion and the hub-forming portion comprises one or more tabs which extend from an inner edge of the annular portion; or the hub-forming portion comprises a contiguous sheet and the flange-forming portion comprises one or more tabs extending from an edge of the contiguous sheet.
A theranostic bubble preparation including bubbles and enabling diagnostics and therapeutics of a tissue of interest through an action of diagnostic ultrasound and an action of low intensity therapeutic ultrasound, the bubbles each comprising a coating of a lipid and a gas encapsulated in an inner cavity defined by the coating, wherein the lipid forming the coating is an anionic lipid including distearoylphosphatidylcholine (DSPC), distearoylphosphatidylglycerol (DSPG), and 1,2-distearoyl-sn-glycero-3-phosphoethanolamine-N-[methoxy(polyethylene glycol)] (DSPE-PEG) at a molar ratio of 30-45:45-60:4-12, and the gas includes at least one of perfluoropropane, perfluorobutane, perfluoropentane, or perfluorohexane, or a mixed gas thereof.
An elevator system comprising: a buffer ; a frame ; a platform spaced from the frame ; a pre-compressed pad device disposed between the frame and the platform and engaged to one of the frame and the platform and spaced from the other of the frame and the platform by a gap ; and at least one isolation pad disposed between and in contact with the frame and the platform , wherein the at least one isolation pad is substantially uncompressed when in a non-strike position , is partially compressed when in a mid-strike position , and is more compressed when in a full-strike position . wherein the frame is spaced above the buffer and the platform is spaced above the frame ; wherein the elevator system is configured to adopt the non-strike position with the pre-compressed pad device being spaced from the other of the frame and the platform and such that the at least one isolation pad is generally not compressed, the mid-strike position with the pre-compressed pad device being in contact with the other of the frame and the platform and the at least one isolation pad is vertically compressed by a distance substantially equal to the gap , and the full-strike position with the pre-compressed pad device being further compressed against the other of the frame and the platform . a buffer ; a frame ; a platform spaced from the frame ; a pre-compressed pad device disposed between the frame and the platform and engaged to one of the frame and the platform and spaced from the other of the frame and the platform by a gap ; and at least one isolation pad disposed between and in contact with the frame and the platform , wherein the at least one isolation pad is substantially uncompressed when in a non-strike position , is partially compressed when in a mid-strike position , and is more compressed when in a full-strike position . wherein the frame is spaced above the buffer and the platform is spaced above the frame ; wherein the elevator system is configured to adopt the non-strike position with the pre-compressed pad device being spaced from the other of the frame and the platform and such that the at least one isolation pad is generally not compressed, the mid-strike position with the pre-compressed pad device being in contact with the other of the frame and the platform and the at least one isolation pad is vertically compressed by a distance substantially equal to the gap , and the full-strike position with the pre-compressed pad device being further compressed against the other of the frame and the platform .
A method for controlling a robotic device by a control unit (CU) of a clipping machine (CM), the robotic device being arranged in a system for producing sausage-shaped products (S) by filling a filling material into a tubular packaging casing supply (M) arranged on a filling tube of the clipping machine (CM), wherein the system comprises at least the clipping machine (CM) provided with at least two filling tubes , a storage device for storing at least one tubular packaging casing supply (M), and a robotic device for transferring a tubular packaging casing supply (M) from the storage device onto a filling tube of the clipping machine (CM), wherein the control unit (CU) is adapted to provide control commands at least to the robotic device , and wherein the robotic device includes a gripper unit for gripping a tubular packaging casing supply (M), the method comprises the steps of: - moving the robotic device into a take-up position for taking up by the gripper unit a tubular packaging casing supply (M) provided in a storage device ; - gripping the tubular packaging casing supply (M) provided in a storage device by the gripper unit ; - moving the robotic device from the take-up position toward the filling tube ; - transferring the tubular packaging casing supply (M) onto the filling tube by the gripper unit ; and - releasing the tubular packaging casing supply (M) onto the filling tube of the clipping machine (CM) by the gripper unit . - moving the robotic device into a take-up position for taking up by the gripper unit a tubular packaging casing supply (M) provided in a storage device ; - gripping the tubular packaging casing supply (M) provided in a storage device by the gripper unit ; - moving the robotic device from the take-up position toward the filling tube ; - transferring the tubular packaging casing supply (M) onto the filling tube by the gripper unit ; and - releasing the tubular packaging casing supply (M) onto the filling tube of the clipping machine (CM) by the gripper unit .