mhurhangee/ep-ind-claims huggingface dataset:
A hydrophobically-modified cationic tetrapolymer of the following monomers A, B, C and D in wt.%; vinyl caprolactam (5-85%); vinylpyrrolidone (5-85%) where: P is O or NR 2; R 1, R 2, R 3, R 4 are independently H or C 1 - C 5 alkyl; and R 5 is C 2 - C 16 alkylene; or the N-oxide derivative thereof; and where: P is O or NR 2; R 1, R 2, R 3, R 4 are independently H or C 1 - C 5 alkyl; R 5 is a C 2 - C 16 alkylene; R 6 is C 8 - C 24 alkyl; and M is a halide, tosylate or phosphate anion. P is O or NR 2; R 1, R 2, R 3, R 4 are independently H or C 1 - C 5 alkyl; and R 5 is C 2 - C 16 alkylene; or the N-oxide derivative thereof; and where: P is O or NR 2; R 1, R 2, R 3, R 4 are independently H or C 1 - C 5 alkyl; R 5 is a C 2 - C 16 alkylene; R 6 is C 8 - C 24 alkyl; and M is a halide, tosylate or phosphate anion. P is O or NR 2; R 1, R 2, R 3, R 4 are independently H or C 1 - C 5 alkyl; R 5 is a C 2 - C 16 alkylene; R 6 is C 8 - C 24 alkyl; and M is a halide, tosylate or phosphate anion.
A semiconductor device comprising: a memory array including a plurality of twin non-volatile cells, each of the twin cells composed of a first storage element and a second storage element configured to hold binary data according to a difference in threshold voltage between them, the first storage element and the second storage element each being electrically rewritable; and an output circuit characterised in that the output circuit is configured to, upon receiving a request to read the twin cell, when the threshold voltage of the first storage element forming the twin cell is lower than an erasure determination level and the threshold voltage of the second storage element forming the twin cell is lower than the erasure determination level, a) mask the data stored in the twin cell and output a mask value, or b) not read the data stored in the twin cell. a memory array including a plurality of twin non-volatile cells, each of the twin cells composed of a first storage element and a second storage element configured to hold binary data according to a difference in threshold voltage between them, the first storage element and the second storage element each being electrically rewritable; and an output circuit characterised in that the output circuit is configured to, upon receiving a request to read the twin cell, when the threshold voltage of the first storage element forming the twin cell is lower than an erasure determination level and the threshold voltage of the second storage element forming the twin cell is lower than the erasure determination level, a) mask the data stored in the twin cell and output a mask value, or b) not read the data stored in the twin cell. a) mask the data stored in the twin cell and output a mask value, or b) not read the data stored in the twin cell.
A method for manufacturing a high-frequency plug connector with the following method steps: • Manufacture of a base body part of the high-frequency plug connector from a dielectric material by means of an additive manufacturing process, wherein the base body part has a feed-through (4; 4 1, 4 2) between a first end (6 1) and a second end (6 2) of a longitudinal extension of the base body part and an end face at the first end (6 1) for making contact with a mating plug connector, • Coating the dielectric base body part with an electrically conductive layer (5; 5 1,5 2;5 2 1,5 2 2), characterized by the method step: • Removal of the electrically conductive layer (5; 5 1, 5 2; 5 2 1, 5 2 2) in a region (34 1, 34 2) in each case surrounding the feed-through (4; 4 1, 4 2) at the end face at the first end (6 1) and at the second end (6 2) of the base body part for the formation of an electrically conductive coating (5 1) on the outer conductor side and an electrically conductive coating (5 2) on the inner conductor side. • Manufacture of a base body part of the high-frequency plug connector from a dielectric material by means of an additive manufacturing process, wherein the base body part has a feed-through (4; 4 1, 4 2) between a first end (6 1) and a second end (6 2) of a longitudinal extension of the base body part and an end face at the first end (6 1) for making contact with a mating plug connector, • Coating the dielectric base body part with an electrically conductive layer (5; 5 1,5 2;5 2 1,5 2 2), • Removal of the electrically conductive layer (5; 5 1, 5 2; 5 2 1, 5 2 2) in a region (34 1, 34 2) in each case surrounding the feed-through (4; 4 1, 4 2) at the end face at the first end (6 1) and at the second end (6 2) of the base body part for the formation of an electrically conductive coating (5 1) on the outer conductor side and an electrically conductive coating (5 2) on the inner conductor side.
A cable transportation system for moving transportation units along a given track, the cable transportation system comprising a switch in turn comprising a first movable guide having one degree of freedom, along an operating plane, between two given positions; a second movable guide having one degree of freedom, along the operating plane, between two given positions; and a third and a fourth movable guide (13, 14) connected rigidly to each other and having one degree of freedom, along the operating plane, between two given positions; the first, second, third and fourth movable guide being designed so that the first and second movable guide (11, 12) each define a continuation of the third or fourth movable guide (13, 14), characterized by comprising an actuating assembly connected to the first and second movable guide (11, 12) to move the first and second movable guide (11, 12) between the respective given positions; a rotary actuator; and a crank which rotates, about a fourth axis, between two limit stops, and is connected to the first and second movable guide (11, 12) to define a mechanism movable between two stable positions; a further actuating assembly connected to the third and fourth movable guide (13, 14) to move the third and fourth movable guide (13, 14) between the respective given positions; a further rotary actuator; and a further crank which rotates, about a fifth axis, between two limit stops, and is connected to the third and fourth movable guide (13, 14) to define a mechanism movable between two stable positions.
A device with a camera unit, which is used for image acquisition of the outside area of a motor vehicle, with a camera which is accommodated in a housing of the camera unit so as to be movable between a retracted position and an image capturing position, and with a cover element which is movable relative to the housing between a closed position and an open position, wherein the movement of the camera and the movement of the cover element is generated by a drive unit, wherein at least one first guide slot is provided for guiding the movement of the camera between the retracted position and the image capturing position, characterized in that at least one second guide slot is provided for guiding the movement of the cover element between the closed position and the open position, so that a movement of the camera relative to the cover element is made possible.
A method for the preparation of a composition comprising a therapeutically effective amount of one or more miRNA molecule, said miRNA being upregulated in a body fluid or element thereof upon activation of said body fluid or element thereof, the method comprising the steps of a) Incubating a body fluid or element thereof to be collected from a mammal in contact with an increased surface area; b) Collecting said body fluid produced after step a). a) Incubating a body fluid or element thereof to be collected from a mammal in contact with an increased surface area; b) Collecting said body fluid produced after step a).
A method for preparing the Aliskiren intermediate compound of formula XV comprising:. reacting the compound of formula IX 4-bromo-1-methoxy-2-(3-methoxypropoxy)benzene ()with sequentially added isopropylmagnesium chloride and n-butyllithium in an ether class solvent under temperature of -25°C ~ 20°C to obtain the intermediate compound of formula XXII;. methylsulfonylation of the compound of formula XIX in an inert solvent under temperature of -1°C ~ 25°C to obtain the compound of formula XX wherein Ms is methylsulfonyl group.. substituting the intermediate compound of formula XX with anhydrous lithium bromide in a ketone class solvent under temperature of 35°C to refluxing temperature to obtain the intermediate compound of formula XXI;. coupling the intermediate compound of formula XXII in step with the intermediate compound of formula XXI in step in an ether class solvent under temperature of -25°C ~ 55°C with the presence of iron-contained catalyst to obtain the compound of formula XV; wherein R 1 is tert butoxycarbonyl or benzyloxycarbonyl group in the compounds of formula XV, XIX, XX and XXI in the above reaction steps.. reacting the compound of formula IX 4-bromo-1-methoxy-2-(3-methoxypropoxy)benzene ()with sequentially added isopropylmagnesium chloride and n-butyllithium in an ether class solvent under temperature of -25°C ~ 20°C to obtain the intermediate compound of formula XXII;. methylsulfonylation of the compound of formula XIX in an inert solvent under temperature of -1°C ~ 25°C to obtain the compound of formula XX wherein Ms is methylsulfonyl group.. substituting the intermediate compound of formula XX with anhydrous lithium bromide in a ketone class solvent under temperature of 35°C to refluxing temperature to obtain the intermediate compound of formula XXI;. coupling the intermediate compound of formula XXII in step with the intermediate compound of formula XXI in step in an ether class solvent under temperature of -25°C ~ 55°C with the presence of iron-contained catalyst to obtain the compound of formula XV; wherein R 1 is tert butoxycarbonyl or benzyloxycarbonyl group in the compounds of formula XV, XIX, XX and XXI in the above reaction steps.
Electrical contactless switch (1, 13, 25) comprising: a housing (2, 24); a resilient element (9, 22); a moveable element (3, 18) made of a semi-hard or a hard ferromagnetic metal material and slidably mounted in the housing, wherein the moveable element has a plate shape with a thickness of 1 mm to 3 mm and is adapted to move relative to the housing between a resting position and an engaged position, the moveable element being elastically biased towards the resting position, wherein the moveable element comprises a plurality of magnetized legs (4, 5, 6, 16, 19, 21) spaced from each other and at least part of the magnetized legs is slidably guided in the housing; a magnetic field sensor (7, 14) secured to the housing and positioned to face the plurality of magnetized legs, the magnetic sensor is configured to detect a magnetic field generated by the magnetized legs as the moveable element is in the engaged position, wherein the moveable element is closer to the magnetic field sensor in the engaged position than in the resting position, wherein the resilient element is positioned at least partially between the plurality of magnetized legs and the magnetic field sensor, wherein the resilient element is configured to elastically bias the moveable element towards the resting position and counteract a movement of the moveable element from the resting position to the engaged position. a housing (2, 24); a resilient element (9, 22); a moveable element (3, 18) made of a semi-hard or a hard ferromagnetic metal material and slidably mounted in the housing, wherein the moveable element has a plate shape with a thickness of 1 mm to 3 mm and is adapted to move relative to the housing between a resting position and an engaged position, the moveable element being elastically biased towards the resting position, wherein the moveable element comprises a plurality of magnetized legs (4, 5, 6, 16, 19, 21) spaced from each other and at least part of the magnetized legs is slidably guided in the housing; a magnetic field sensor (7, 14) secured to the housing and positioned to face the plurality of magnetized legs, the magnetic sensor is configured to detect a magnetic field generated by the magnetized legs as the moveable element is in the engaged position, wherein the moveable element is closer to the magnetic field sensor in the engaged position than in the resting position, wherein the resilient element is positioned at least partially between the plurality of magnetized legs and the magnetic field sensor, wherein the resilient element is configured to elastically bias the moveable element towards the resting position and counteract a movement of the moveable element from the resting position to the engaged position.
An apparatus, comprising: a receptacle defining a hold chamber to receive ink, the receptacle comprising: a first portion configured to hold a first quantity of ink; and a second portion that is smaller than the first portion and configured to hold a second quantity of ink, the second portion comprising a first heat conducting surface, and a second heat conducting surface offset from the first heat conducting surface by a distance determined in accordance with a melting point of the ink, the second heat conducting surface (33 1b) defining a barrier between the first portion and the second portion and including at least one opening configured to allow flow of the ink from the first portion to the second portion; and at least one heating element configured to heat the receptacle. a receptacle defining a hold chamber to receive ink, the receptacle comprising: a first portion configured to hold a first quantity of ink; and a second portion that is smaller than the first portion and configured to hold a second quantity of ink, the second portion comprising a first heat conducting surface, and a second heat conducting surface offset from the first heat conducting surface by a distance determined in accordance with a melting point of the ink, the second heat conducting surface (33 1b) defining a barrier between the first portion and the second portion and including at least one opening configured to allow flow of the ink from the first portion to the second portion; and a first portion configured to hold a first quantity of ink; and a second portion that is smaller than the first portion and configured to hold a second quantity of ink, the second portion comprising a first heat conducting surface, and a second heat conducting surface offset from the first heat conducting surface by a distance determined in accordance with a melting point of the ink, the second heat conducting surface (33 1b) defining a barrier between the first portion and the second portion and including at least one opening configured to allow flow of the ink from the first portion to the second portion; and a first heat conducting surface, and a second heat conducting surface offset from the first heat conducting surface by a distance determined in accordance with a melting point of the ink, the second heat conducting surface (33 1b) defining a barrier between the first portion and the second portion and including at least one opening configured to allow flow of the ink from the first portion to the second portion; and at least one heating element configured to heat the receptacle.
A method for the production of a recombinant biological product, comprising: (a) obtaining cells that have been expanded in suspension mode; and (c) inoculating the cells into a bioreactor having a packed-fiber carrier providing a surface area for adherent cell culture; and then (d) exposing the cells to a factor promoting adherence selected from the group consisting of: fetal bovine serum, collagen, fibronectin, laminin, calcium ions, proteoglycans and ECM polysaccharides, in an amount effective to promote adherence, whereby the cells adhere to said packed-fiber carrier in said bioreactor. (a) obtaining cells that have been expanded in suspension mode; and (c) inoculating the cells into a bioreactor having a packed-fiber carrier providing a surface area for adherent cell culture; and then (d) exposing the cells to a factor promoting adherence selected from the group consisting of: fetal bovine serum, collagen, fibronectin, laminin, calcium ions, proteoglycans and ECM polysaccharides, in an amount effective to promote adherence, whereby the cells adhere to said packed-fiber carrier in said bioreactor.
Coating method for coating parts in an immersion centrifugal process, wherein the parts to be coated are immersed in a coating liquid, wherein the parts to be coated are subsequently centrifuged in at least two planetary basket arrangements (18a, 18b, 20a, 20b), namely at least into a first and in a second planetary basket arrangement (18a, 18b, 20a, 20b), which each provide a maximum receiving volume, in a planetary centrifuge, wherein the planetary centrifuge comprises a main rotor rotating about a main rotor axis of rotation, wherein the at least two planetary basket arrangements (18a, 18b, 20a, 20b) rotate about their planetary axes of rotation (P1, P2), and further wherein the planetary axes of rotation (P1, P2) are arranged on the main rotor spaced from the main rotor axis of rotation, wherein the first planetary basket arrangement (18a, 20a) is rotated about its respective planetary axis of rotation in the opposite direction to the second planetary basket arrangement (18b, 20b) during the centrifuging process, wherein the filling of the receiving volume is carried out only up to at most 50% of the maximum receiving volume of the planetary basket arrangement.
Method for the production of heavy electrons comprising at least a first step of making a nanofluid by dispersing, through sonication, or else other mechanical dispersion methods in a dielectric liquid transparent to electromagnetic radiation, and which has dispersed inside it hydrogen ions and/or hydroxonium ions, electrical conductive nanoparticles wherein said nonparticles belong to the type defined as nanohorns; and wherein the method comprises at least a second irradiation step of said nanofluid with a source of electromagnetic radiation, at the natural surface plasmonic resonance frequency of said nanofluid.
Rotary vibration damping arrangement, in particular for the drivetrain of a vehicle, comprising an input region and an output region, wherein, between the input region and the output region, there are provided a first torque-transmitting path and, parallel thereto, a second torque-transmitting path and also a coupling arrangement for superposition of the torques conducted via the torque-transmitting paths (14, 16), wherein a phase shift arrangement is provided at least in the first torque-transmitting path for the purposes of generating a phase shift of rotational non-uniformities conducted via the first torque-transmitting path in relation to rotational non-uniformities conducted via the second torque-transmitting path, wherein an axial and/or radial and/or tilting movement functionality is integrated into the input region and/or into the output region and/or into the first torque-transmitting path and/or into the second torque-transmitting path, and/or wherein the input region and/or the output region are/is coupled or couplable in axially movable and/or radially movable and/or tiltably movable fashion to a drive-input element or drive-output element, wherein the coupling arrangement comprises a planetary gear set arrangement, wherein the planetary gear set arrangement comprises a planet gear carrier, which is connected to the second torque-transmitting path and which has a multiplicity of planet gears rotatably supported thereon, and said planetary gear set arrangement comprises a first coupling gear arrangement, which is connected to the first torque-transmitting path and which is in meshing engagement with the planet gears, and a second coupling gear arrangement, which is connected to the output region and which is in meshing engagement with the planet gears, characterized in that at least one planet gear is supported on the planet gear carrier in axially movable and/or radially movable and/or tiltably movable fashion in such a way that at least one support element which supports a planet gear on the planet gear carrier is axially movable and/or radially movable and/or tiltably movable relative to the planet gear carrier.
Compound Q-VD-OPh of the structure N-(2(quinolyl)valyl-aspartyl-(2,6-difluorophenoxy)methyl ketone for use in the prophylaxis and/or treatment of a viral infection caused by a human immunodeficiency virus.
An isolated nucleic acid molecule, coding for a polypeptide having the amino acid sequence SEQ ID 2, wherein the nucleic acid molecule in the amino acid 243 encodes the amino acid T.
Hydrodynamic bearing intended to guide a shaft in rotation about a longitudinal axis defined relative to a support, the hydrodynamic bearing comprising a stationary outer annular bearing wall and a rotatable inner annular bearing wall extending opposite the outer annular bearing wall so as to provide an annular space between the inner and outer annular bearing walls (18, 20), wherein the outer annular bearing wall comprises at least one lubricant supply orifice for supplying pressurised lubricant to said annular space so as to form a load-bearing fluid film, wherein the hydrodynamic bearing comprises a cavity externally defined by the inner annular bearing wall and axially defined by two transverse annular walls (31A, 31B) secured to the inner annular bearing wall and arranged on both sides of the cavity, the inner annular bearing wall comprising fluid connection means that place the cavity in fluid communication with said annular space, wherein the hydrodynamic bearing further comprises partitioning means (48, 68, 92, 94) connected to the inner annular bearing wall so as to divide the cavity into a plurality of compartments (50, 52, 70, 72, 74, 82), the partitioning means forming an obstacle to a flow of lubricant contained in at least one of the compartments under gravitational force, towards the fluid connection means, regardless of an angular position of the inner annular bearing wall when the latter is at a standstill, such that the cavity form a lubricant reserve for a transient operating phase.