mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an optical device, comprising: rubbing a first alignment film of a first substrate including a first base layer and a spacer, the first alignment film being formed on the first base layer; and rubbing a second alignment film of a second substrate including a second base layer, the second alignment film being formed on the second base layer, wherein no spacer is present in the second substrate, characterized in that a first rubbing strength RS1 determined by Equation 1 below when rubbing the first alignment film and a second rubbing strength RS2 determined by Equation 1 below when rubbing the second alignment film satisfy Equation 2 below, and wherein the first rubbing strength RS1 is in a range of 2.5 to 100 and the average of the first and the second rubbing strengths RS1 and RS2 is in a range of 12 to 250; RS 1 or RS 2 = 2 × N × M × π × n × r / v − 1 RS 1 < RS 2 wherein, RS1 is the first rubbing strength when rubbing the first alignment film, RS2 is the second rubbing strength when rubbing the second alignment film, N is a number of rubbing times, M is a rubbing depth (unit: mm), r is a radius (unit: mm) of a rubbing drum, n is a rotation speed (unit: rpm) of the rubbing drum, and v is a relative moving speed (unit: mm/sec) of the substrate to the rubbing drum. rubbing a first alignment film of a first substrate including a first base layer and a spacer, the first alignment film being formed on the first base layer; and rubbing a second alignment film of a second substrate including a second base layer, the second alignment film being formed on the second base layer, wherein no spacer is present in the second substrate, characterized in that a first rubbing strength RS1 determined by Equation 1 below when rubbing the first alignment film and a second rubbing strength RS2 determined by Equation 1 below when rubbing the second alignment film satisfy Equation 2 below, and wherein the first rubbing strength RS1 is in a range of 2.5 to 100 and the average of the first and the second rubbing strengths RS1 and RS2 is in a range of 12 to 250; RS 1 or RS 2 = 2 × N × M × π × n × r / v − 1 RS 1 < RS 2 wherein, RS1 is the first rubbing strength when rubbing the first alignment film, RS2 is the second rubbing strength when rubbing the second alignment film, N is a number of rubbing times, M is a rubbing depth (unit: mm), r is a radius (unit: mm) of a rubbing drum, n is a rotation speed (unit: rpm) of the rubbing drum, and v is a relative moving speed (unit: mm/sec) of the substrate to the rubbing drum.
A fenestrated cuff for implantation in the aorta, the cuff comprising: at least one stent ring configured to expand into engagement with an inner wall of the aorta; and a cylindrical graft comprising a fenestration and a scallop, the graft being sized to extend from the distal renal artery into but not all the way across a sac of an aneurysm in the aorta, characterized in that the fenestration and the scallop are arranged generally opposite one another in the graft and sized and shaped such that, when the fenestration is aligned with the distal renal artery, an orifice of the superior renal artery is within an opening in the graft defined by the scallop, wherein the distal renal artery is the more distal one of the two renal arteries, and wherein the superior renal artery is the other one of the two renal arteries. at least one stent ring configured to expand into engagement with an inner wall of the aorta; and a cylindrical graft comprising a fenestration and a scallop, the graft being sized to extend from the distal renal artery into but not all the way across a sac of an aneurysm in the aorta, characterized in that the fenestration and the scallop are arranged generally opposite one another in the graft and sized and shaped such that, when the fenestration is aligned with the distal renal artery, an orifice of the superior renal artery is within an opening in the graft defined by the scallop, wherein the distal renal artery is the more distal one of the two renal arteries, and wherein the superior renal artery is the other one of the two renal arteries.
A battery module comprising: a pouch cell laminate comprising a first pouch cell and a second pouch cell located adjacent to the first pouch cell and one cooling fin, wherein each of the first pouch cell and the second pouch cell comprises an electrode assembly, a pair of electrode leads connected to the electrode assembly, and a pouch case being configured to accommodate the electrode assembly and being hermetically sealed with the electrode leads withdrawn outwardly, wherein the pouch case includes an upper case and a lower case, each of the upper case and the lower case being provided to have: - an accommodation portion configured to provide a space in which the electrode assembly is accommodated, and - a sealing portion corresponding to an outer circumferential region of the accommodation portion, characterized in that one of the accommodation portions of the pouch case of the first pouch cell and one of the accommodation portions of the pouch case of the second pouch cell are in contact with each other, and the cooling fin has such a size and shape so as to surround, all at once, the circumferences of the accommodation portion of the first pouch cell and of the second pouch cell, which are in contact with each other. a pouch cell laminate comprising a first pouch cell and a second pouch cell located adjacent to the first pouch cell and one cooling fin, wherein each of the first pouch cell and the second pouch cell comprises an electrode assembly, a pair of electrode leads connected to the electrode assembly, and a pouch case being configured to accommodate the electrode assembly and being hermetically sealed with the electrode leads withdrawn outwardly, wherein the pouch case includes an upper case and a lower case, each of the upper case and the lower case being provided to have: - an accommodation portion configured to provide a space in which the electrode assembly is accommodated, and - a sealing portion corresponding to an outer circumferential region of the accommodation portion, - an accommodation portion configured to provide a space in which the electrode assembly is accommodated, and - a sealing portion corresponding to an outer circumferential region of the accommodation portion, characterized in that one of the accommodation portions of the pouch case of the first pouch cell and one of the accommodation portions of the pouch case of the second pouch cell are in contact with each other, and the cooling fin has such a size and shape so as to surround, all at once, the circumferences of the accommodation portion of the first pouch cell and of the second pouch cell, which are in contact with each other.
A closure assembly for a port of a cell culture apparatus, the port having an annular sidewall defining an opening in communication with a cell culture chamber of the cell culture apparatus, the closure assembly comprising: a snap cap having a top and an annular sidewall extending from the top, wherein the sidewall of the snap cap comprises an inwardly annularly projecting element configured to engage with an annularly protruding snap cap engagement feature of a port; and a stopper having a proximal end portion configured to be received by an opening of the port and a distal end portion configured to remain external to the port, the distal end portion comprising a flange, wherein a bottom surface of the top of the snap cap, when the snap cap is fully engaged with the port, is configured to compress the flange of the stopper against the top of the port; and wherein the distal end portion of the stopper includes a distal extension defining a lumen (140; 270) configured to sealing receive tubing for introducing gas or fluids into the culture apparatus through the port when the stopper is sealingly engaged with the port, characterised in that the stopper further comprises an annular shoulder projecting into the lumen (140; 270) to limit proximal insertion of the tubing into the lumen (140; 270). a snap cap having a top and an annular sidewall extending from the top, wherein the sidewall of the snap cap comprises an inwardly annularly projecting element configured to engage with an annularly protruding snap cap engagement feature of a port; and a stopper having a proximal end portion configured to be received by an opening of the port and a distal end portion configured to remain external to the port, the distal end portion comprising a flange, wherein a bottom surface of the top of the snap cap, when the snap cap is fully engaged with the port, is configured to compress the flange of the stopper against the top of the port; and wherein the distal end portion of the stopper includes a distal extension defining a lumen (140; 270) configured to sealing receive tubing for introducing gas or fluids into the culture apparatus through the port when the stopper is sealingly engaged with the port, characterised in that the stopper further comprises an annular shoulder projecting into the lumen (140; 270) to limit proximal insertion of the tubing into the lumen (140; 270).
An amplifier arrangement comprising: N amplifier stages (10 1 to 10 N) comprising a main amplifier stage and a plurality of peaking amplifier stages; a transmission line comprising a varying impedance for transforming a load impedance to a higher impedance at the main amplifier stage (10 2), wherein the plurality of peaking amplifiers are coupled at intermediate locations (12 1 to 12 N-1) to the transmission line; and wherein the amplifier arrangement is configured such that at least two of the peaking amplifiers are collectively driven with time delayed versions of substantially the same signal; wherein the transmission line comprises a cascade of transmission lines coupled between the N amplifier stages and an output node of the amplifier arrangement, and wherein the amplifier arrangement is configured to operate in a Doherty mode of operation; characterized in that: the length of at least one of the transmission lines of the cascade is adapted to compensate for parasitic capacitance, wherein a transmission line closer to the input side of the cascade is shortened by a greater amount compared to a transmission line closer to the output side of the cascade. N amplifier stages (10 1 to 10 N) comprising a main amplifier stage and a plurality of peaking amplifier stages; a transmission line comprising a varying impedance for transforming a load impedance to a higher impedance at the main amplifier stage (10 2), wherein the plurality of peaking amplifiers are coupled at intermediate locations (12 1 to 12 N-1) to the transmission line; and wherein the amplifier arrangement is configured such that at least two of the peaking amplifiers are collectively driven with time delayed versions of substantially the same signal; wherein the transmission line comprises a cascade of transmission lines coupled between the N amplifier stages and an output node of the amplifier arrangement, and wherein the amplifier arrangement is configured to operate in a Doherty mode of operation; characterized in that: the length of at least one of the transmission lines of the cascade is adapted to compensate for parasitic capacitance, wherein a transmission line closer to the input side of the cascade is shortened by a greater amount compared to a transmission line closer to the output side of the cascade. the length of at least one of the transmission lines of the cascade is adapted to compensate for parasitic capacitance, wherein a transmission line closer to the input side of the cascade is shortened by a greater amount compared to a transmission line closer to the output side of the cascade.
A composition for locally alleviating inflammation and/or for simultaneously preventing microbial growth and debriding a wound, said composition comprising nanoparticles of TiO 2 having a mean particle diameter (D 50) of 20-50 nm at a concentration of 3-10 g/L, preferably 4-8 g/L and H 2 O 2 at a final concentration at 2.5-25 % by volume.
An apparatus for moulding plastic preforms into containers, including at least one blow mould for receiving the plastic preforms, said blow mould including two mould parts (3, 4) that can be pivoted relative to each other about a connection axis, including at least one locking element arranged on one of the mould parts (3, 4), which locking element cooperates with at least one counter element (10a, 10b) arranged on the other mould part (4, 3), in order to lock the two mould parts (3, 4) against each other, said counter element (10a, 10b) being a counter element (10a, 10b) arranged essentially parallel to the axis (Y, Y') arranged on the connecting axis, which counter element is rotatable between a locking position in which the blow mould is locked and an unlocking position in which the blow mould can be opened, said counter element (10a, 10b) being designed in such a way that the counter element (10a, 10b) rests in the locking position at least partially on the locking element and in the unlocking position releases the locking element, wherein the apparatus includes an actuating element for rotating the counter element (10a, 10b), characterized in that said actuating element is movable in the direction of the rotary axis of the counter element (10a, 10b) and includes a drive element cooperating with the counter element (10a, 10b) so as to actuate the same.
An electromagnetic actuator for a surgical or medical instrument, wherein the actuator has a stator and a shiftable element that has at least partially a paramagnetic and/or ferromagnetic material and can be shifted from a first position into a second position by applying an electromagnetic field, characterized in that the shiftable element is or will be held in the first position by a permanent-magnetic field and after shifting into the second position is or will be held in the second position by a permanent-magnetic field, wherein two stops (16, 17) are provided that define the first and the second position, wherein when the shiftable element abuts a stop (16, 17) a force acts on the shiftable element in the direction of the stops (16, 17), wherein the stator comprises two permanent magnets (20, 21) that are polarized opposite to each other, wherein a coil is provided for generating the electromagnetic field, wherein a ferromagnetic material is arranged between the permanent magnets (20, 21) of the stator, wherein the coil is surrounded to the outside by the permanent magnets (20, 21) and the ferromagnetic material (22, 23, 23'), wherein the ferromagnetic material is designed horseshoe-shaped in the longitudinal axial section.
An amine compound represented by the following formula wherein R is a hydrogen atom or P(=O) 2, X is an oxygen atom or a sulfur atom, Y is -CH 2 CH 2 - or -CH=CH-, Z is alkylene having 1 to 5 carbon atoms, alkenylene having 2 to 5 carbon atoms or alkynylene having 2 to 5 carbon atoms, R 1 is trifluoromethyl, R 2 is alkyl having 1 to 4 carbon atoms, which is optionally substituted by a hydroxyl group or halogen atom, R 3 and R 4 are optionally the same or different and each is a hydrogen atom or alkyl having 1 to 4 carbon atoms, and A is optionally substituted aryl having 6 to 10 carbon atoms, optionally substituted heteroaryl having 5 to 10 ring-constituting atoms, which contains, as ring-constituting atom(s), 1 or 2 atoms from nitrogen atom, oxygen atom and sulfur atom, optionally substituted cycloalkyl having 3 to 7 carbon atoms, which is optionally condensed with optionally substituted benzene, or heterocycloalkyl having 5 to 7 ring-constituting atoms, which contains, as ring-constituting atom(s), optionally substituted 1 or 2 atoms from nitrogen atom and oxygen atom, or a pharmaceutically acceptable acid addition salt thereof, or a hydrate thereof, or a solvate thereof.
Apparatus for monitoring at least one physical or chemical process variable comprising at least one measuring branch and one compensation branch, which is switched in parallel to said measuring branch, for compensating the influence of at least an external environmental and/or ambient parameter on the process variable and/or on the measurement of the process variable, wherein the measuring branch comprises at least a primary sensor unit and a primary electronic unit designed to measure, evaluate and/or transmit signals, wherein the compensation branch has at least a secondary sensor unit and a secondary electronic unit, wherein the secondary sensor unit is designed in such a way that it measures a physical or chemical variable that is characteristic of the at least an external environmental and/or ambient parameter, wherein the secondary electronic unit is designed in such a way that it draws the necessary energy from the measuring branch, and in such a way that it locally generates a compensation signal in the compensation branch from the characteristic physical or chemical variable and transmits said signal to the primary electronic unit of the measuring branch.
Cartridge holder for a drug delivery device, the holder comprising snap fastening connection means for fastening the cartridge holder to a housing of a drug delivery device, wherein the fastening connection means are provided with at least one basically rectangular window for receiving a locking element, characterized in that each of the corners of the window is provided with a round contour.
A method of generating data during wrapping of a load with a wrapping machine, the wrapping machine including a packaging material dispenser, the method comprising: determining with a sensing assembly a number of relative revolutions between the packaging material dispenser and the load during wrapping of the load; determining a number of layers on a face of the load based on the number of relative revolutions between the packaging material dispenser and the load; obtaining a value indicative of an individual containment force exerted on the load by each layer; and determining a value indicative of a containment force exerted on the load by the layers based on the number of layers and the individual containment force value. determining with a sensing assembly a number of relative revolutions between the packaging material dispenser and the load during wrapping of the load; determining a number of layers on a face of the load based on the number of relative revolutions between the packaging material dispenser and the load; obtaining a value indicative of an individual containment force exerted on the load by each layer; and determining a value indicative of a containment force exerted on the load by the layers based on the number of layers and the individual containment force value.
A flight guidance panel for an aircraft, the flight guidance panel comprising: a first user input portion comprising a knob and a panel selector for receiving panel selection inputs to select a panel to be active for editing; a second user input portion comprising a knob and a panel selector for receiving panel selection inputs to select a panel to be active for editing; a display disposed between the first user input portion and the second user input portion, wherein the display is optionally composed of single touch capable screen; and a controller configured to: generate a first functional panel on the display, wherein the first functional panel is associated with a first flight parameter; generate a second functional panel on the display, wherein the second functional panel is associated with a second flight parameter; and activate the first functional panel or the second functional panel based on the panel selection inputs from the panel selector of the first input portion or the panel selector of the second input portion, and adjust the flight parameter values or a mode of operation of said active functional panel based on inputs from the knob of one of the first user input portion and the second user input portion. a first user input portion comprising a knob and a panel selector for receiving panel selection inputs to select a panel to be active for editing; a second user input portion comprising a knob and a panel selector for receiving panel selection inputs to select a panel to be active for editing; a display disposed between the first user input portion and the second user input portion, wherein the display is optionally composed of single touch capable screen; and a controller configured to: generate a first functional panel on the display, wherein the first functional panel is associated with a first flight parameter; generate a second functional panel on the display, wherein the second functional panel is associated with a second flight parameter; and activate the first functional panel or the second functional panel based on the panel selection inputs from the panel selector of the first input portion or the panel selector of the second input portion, and adjust the flight parameter values or a mode of operation of said active functional panel based on inputs from the knob of one of the first user input portion and the second user input portion. generate a first functional panel on the display, wherein the first functional panel is associated with a first flight parameter; generate a second functional panel on the display, wherein the second functional panel is associated with a second flight parameter; and activate the first functional panel or the second functional panel based on the panel selection inputs from the panel selector of the first input portion or the panel selector of the second input portion, and adjust the flight parameter values or a mode of operation of said active functional panel based on inputs from the knob of one of the first user input portion and the second user input portion.