mhurhangee/ep-ind-claims huggingface dataset:
Laminated packaging material (10a;10b;10c) for packaging of liquid food, comprising a cellulose-based bulk material layer (11a; 11b;11c), an outermost, transparent and protective thermoplastic polymer layer (13a;13b;13c) arranged on the outside of the bulk material layer, i.e. on the side to be directed to the exterior of a packaging container made from the laminated material, a decorative print pattern arranged beneath, i.e. inside of, and visible through the outermost, transparent and protective thermoplastic polymer layer, an innermost, heat sealable and liquid-tight thermoplastic polymer layer (15a;15b;15c), to be in direct contact with the liquid food in the packaging container, wherein the laminated packaging material further comprises a cellulose-based print substrate paper (12a;12b;12c), adhered to the outer side of the bulk material layer by means of 1-4 g/m 2 adhesive, dry weight, and having an outside print surface for carrying the decorative print pattern, the print substrate paper being laminated between the outside of the bulk layer and the outermost thermoplastic polymer layer, and having a density higher than 650 kg/m 3, a surface weight of 100 g/m 2 or lower (ISO 536), and comprising at least one sizing agent at from 0.1 to 0.4 weight-%, the outside print surface having a Bendtsen surface roughness value lower than 100 ml air/min (ISO 8791-2) and a Cobb value greater than 20 g/m 2 and lower than 30 g/m 2 (water).
Liquid-crystalline medium having negative dielectric anisotropy based on a mixture of polar compounds, characterised in that it comprises at least one compound of the formula I, in which R 1, R 1* each, independently of one another, denote an alkyl radical having 1-6 C atoms, and a denotes 0 or 1, and one or more compounds selected from the group of the difluorodibenzochroman compounds of the formula BC, chromans of the formula CR, fluorinated phenanthrenes of the formulae PH-1 and PH-2, fluorinated dibenzofurans of the formula BF, in which R B1, R B2, R CR1, R CR2, R 1 and R 2 each, independently of one another, denote H, an alkyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and c is 0, 1 or 2, and the medium comprises at least one compound of the formulae I-1 to I-6, R 1, R 1* each, independently of one another, denote an alkyl radical having 1-6 C atoms, and a denotes 0 or 1, R B1, R B2, R CR1, R CR2, R 1 and R 2 each, independently of one another, denote H, an alkyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, and c is 0, 1 or 2,
A diaphragm pump system comprising: a) a pump housing (10a; 10 b) comprising a drive gas chamber (11 b) and a fluid chamber (11 a) separated by an elastic diaphragm; the drive gas chamber being connected to one or more gas ports for injecting and/or sucking a drive gas into and out of the drive gas chamber; the fluid chamber being connected to at least one port for fluid inlet and at least one port for fluid outlet, said at least one port for fluid inlet having a valve adapted to open for fluid inlet when drive gas is sucked out of the drive gas chamber and said at least one port for fluid outlet having a valve adapted to open for fluid outlet when drive gas is injected into the drive gas chamber; b) means for providing a drive gas over-pressure in response to a control signal, said means being connected to at least one gas port; c) means for providing a drive gas under-pressure or sucking of gas in response to a control signal, wherein the drive gas under-pressure or sucking of gas moves the diaphragm from an expanded position to a relaxed position, said means being connected to at least one gas port; d) a displacement sensor for measuring in real time the distance to and position of the diaphragm; e) control circuitry connected to the displacement sensor for determining the displacement or position of the diaphragm and adapted for supplying the control signals to the drive gas pressure means and the drive gas under-pressure means. a) a pump housing (10a; 10 b) comprising a drive gas chamber (11 b) and a fluid chamber (11 a) separated by an elastic diaphragm; the drive gas chamber being connected to one or more gas ports for injecting and/or sucking a drive gas into and out of the drive gas chamber; the fluid chamber being connected to at least one port for fluid inlet and at least one port for fluid outlet, said at least one port for fluid inlet having a valve adapted to open for fluid inlet when drive gas is sucked out of the drive gas chamber and said at least one port for fluid outlet having a valve adapted to open for fluid outlet when drive gas is injected into the drive gas chamber; b) means for providing a drive gas over-pressure in response to a control signal, said means being connected to at least one gas port; c) means for providing a drive gas under-pressure or sucking of gas in response to a control signal, wherein the drive gas under-pressure or sucking of gas moves the diaphragm from an expanded position to a relaxed position, said means being connected to at least one gas port; d) a displacement sensor for measuring in real time the distance to and position of the diaphragm; e) control circuitry connected to the displacement sensor for determining the displacement or position of the diaphragm and adapted for supplying the control signals to the drive gas pressure means and the drive gas under-pressure means.
Cooking appliance with a control device comprising a control unit arranged to determine at least one combination (c i) of determined cooking parameters (t i, T i) as a function at least of the specific surface area of at least one ingredient of a plurality of ingredients of a determined recipe (R i) inserted into the cooking chamber of the cooking appliance, said specific surface area being estimated from descriptive parameters of the at least one ingredient from among the plurality of ingredients of the determined recipe (R i).
A submersible loudspeaker assembly, comprising: a housing; a loudspeaker enclosed within the housing; an external diaphragm disposed adjacent to the loudspeaker housing in a manner which leaves an air gap between the external diaphragm and the housing, wherein the external diaphragm is acoustically transparent when subject to ambient air pressure and configured to flex towards the loudspeaker into a recessed portion of the housing formed in an external surface thereof adjacent to the loudspeaker when subject to pressure which exceeds some threshold ambient air pressure to cause pressure exceeding the pressure that can be withstood by the loudspeaker to be absorbed. a housing; a loudspeaker enclosed within the housing; an external diaphragm disposed adjacent to the loudspeaker housing in a manner which leaves an air gap between the external diaphragm and the housing, wherein the external diaphragm is acoustically transparent when subject to ambient air pressure and configured to flex towards the loudspeaker into a recessed portion of the housing formed in an external surface thereof adjacent to the loudspeaker when subject to pressure which exceeds some threshold ambient air pressure to cause pressure exceeding the pressure that can be withstood by the loudspeaker to be absorbed.
A magnetic device, comprising a magnetic core, a base, a winding, and a plurality of pins, wherein the winding is arranged inside the magnetic core and parts of two ends of the winding that pass through the base are the pins, and a first metal layer and a second metal layer are sequentially stacked on a part or all of a side surface of each pin of the plurality of pins; the first metal layer is coated on a part or all of the side surface of each pin; and the second metal layer is coated on an outer side of the first metal layer, wherein the winding comprises an aluminum wire, the first metal layer comprises a copper-aluminum composite foil, and the second metal layer comprises a tin layer or a tin alloy layer; and the copper-aluminum composite foil comprises two layers, a first layer of the copper-aluminum composite foil is an aluminum layer, a second layer of the copper-aluminum composite foil is a copper layer, the aluminum layer is in contact with the winding, and the copper layer is in contact with the second metal layer. the first metal layer is coated on a part or all of the side surface of each pin; and the second metal layer is coated on an outer side of the first metal layer, wherein the winding comprises an aluminum wire, the first metal layer comprises a copper-aluminum composite foil, and the second metal layer comprises a tin layer or a tin alloy layer; and the copper-aluminum composite foil comprises two layers, a first layer of the copper-aluminum composite foil is an aluminum layer, a second layer of the copper-aluminum composite foil is a copper layer, the aluminum layer is in contact with the winding, and the copper layer is in contact with the second metal layer.
A method for controlling an orthopedic device with an upper part and a lower part, which are connected to each other by a joint device so as to be pivotable about a joint axis and have fastening devices with which the orthopedic device can be secured to a limb, and with an actuator, which is secured to the upper part and the lower part at fastening points (15, 25) and influences a pivoting of the upper part relative to the lower part, and with at least one sensor coupled to a controller which activates or deactivates an adjustment device for adjusting an extension stop that limits a maximum joint angle, wherein the extension stop, in accordance with sensor data, is moved from a starting position, in which the upper part is located in a position of flexion relative to the lower part, to an end position, in which the upper part is located, relative to the lower part, in a position different than the starting position, characterized in that, when the extension stop is reached, the moment effective about the joint axis or the force effective between the upper part and the lower part is measured, and, if a threshold value is exceeded, the extension stop is moved in the direction of its end position, and, if the threshold value is not reached, the extension stop is moved in the opposite direction.
An expansion valve for reducing a pressure of a fluid flowing through the expansion valve along a fluid flow path (110, 111, 112, 121, 122, 123), the expansion valve comprising: at least one fluid inlet and at least one fluid outlet, a first valve element comprising at least one first channel structure, a second valve element comprising at least one second channel structure (22a, 22b) and one third channel structure (23a, 23b), wherein the first valve element and the second valve element are movable relative to each other, wherein, in a first position of the valve elements (10, 20), the first channel structure and the second channel structure (22a, 22b) are aligned with each other and form a first fluid flow path comprising a first flow resistance between the fluid inlet and the fluid outlet, wherein, in a second position of the valve elements (10, 20), the first channel structure and the third channel structure (23a, 23b) are aligned with each other and form a second fluid flow path comprising a second flow resistance differing from the first flow resistance between the fluid inlet and the fluid outlet, and wherein the second channel structure (22a, 22b) comprises a first variable or constant flow area, and wherein the third channel structure (23a, 23b) comprises a second variable or constant flow area differing from the first flow area, wherein the different flow areas oppose different flow resistances to the fluid and throttle the flow rate of the fluid to different extents. at least one fluid inlet and at least one fluid outlet, a first valve element comprising at least one first channel structure, a second valve element comprising at least one second channel structure (22a, 22b) and one third channel structure (23a, 23b), wherein the first valve element and the second valve element are movable relative to each other, wherein, in a first position of the valve elements (10, 20), the first channel structure and the second channel structure (22a, 22b) are aligned with each other and form a first fluid flow path comprising a first flow resistance between the fluid inlet and the fluid outlet, wherein, in a second position of the valve elements (10, 20), the first channel structure and the third channel structure (23a, 23b) are aligned with each other and form a second fluid flow path comprising a second flow resistance differing from the first flow resistance between the fluid inlet and the fluid outlet, and wherein the second channel structure (22a, 22b) comprises a first variable or constant flow area, and wherein the third channel structure (23a, 23b) comprises a second variable or constant flow area differing from the first flow area, wherein the different flow areas oppose different flow resistances to the fluid and throttle the flow rate of the fluid to different extents.
A lifting system for handling a load, comprising a lifting arm extending at least partly between an operating device and a work implement, and a load cell for detecting a weight of the load, wherein the load cell comprises: a first portion (7; 8) connected to the lifting arm, a second portion (7; 8) connected to the work implement, and an intermediate portion connecting the first portion (7; 8) and the second portion (7; 8), the intermediate portion comprising at least one strain gauge, wherein the first portion (7; 8), the second portion (7; 8) and the intermediate portion are connected to each other in a radial direction, characterised in that the first portion (7; 8) comprises an inner portion of the load cell and the second portion (7; 8) comprises an outer portion of the load cell, or in that first portion (7; 8) comprises an outer portion of the load cell and the second portion (7; 8) comprises an inner portion of the load cell. a first portion (7; 8) connected to the lifting arm, a second portion (7; 8) connected to the work implement, and an intermediate portion connecting the first portion (7; 8) and the second portion (7; 8), the intermediate portion comprising at least one strain gauge, wherein the first portion (7; 8), the second portion (7; 8) and the intermediate portion are connected to each other in a radial direction, characterised in that the first portion (7; 8) comprises an inner portion of the load cell and the second portion (7; 8) comprises an outer portion of the load cell, or in that first portion (7; 8) comprises an outer portion of the load cell and the second portion (7; 8) comprises an inner portion of the load cell.
Gluing unit, in particular for a labeling apparatus, comprising a glue roller and a motor for driving said glue roller, where said motor is positioned above said glue roller, where said motor is with respect to a support structure of said motor mounted in a height-adjustable manner, where the height position of the motor is adjustable using an adjustment apparatus of the gluing unit, where the height of said motor is adjustable using a lever, which is part of the adjustment apparatus, in particular using an elbow lever or a rocker lever, and where said motor can from an operating position in a first height position be brought to a removal position in a second height position, where said glue roller can in the removal position be removed from the gluing unit by a lateral motion.
A resin-metal composite sealed container having: a first metal foil having an end part, a second metal foil having an end part, a heat sealed part (6, 6') using a heat-sealing resin, between said end part of said first metal foil and said end part of said second metal foil, and a metallically sealed part with a weld bead, on an end face outside said heat sealed part (6, 6') of said first metal foil and said second metal foil, wherein: the melting point of the metal constituting said metal foil is higher by 300°C or more than the thermal decomposition temperature of said heat-sealing resin, the specific gravity of the metal constituting said metal foil is 5 or more, and said weld bead is formed by a laser welding, and said weld bead is a weld bead having a substantially circular cross-sectional shape and the dimension of the weld bead in the thickness direction of the metal foil is from 1.1 to 5.0 times the thickness-direction dimension of said first metal foil and said second metal foil in the portion coming into contact with said weld bead. a first metal foil having an end part, a second metal foil having an end part, a heat sealed part (6, 6') using a heat-sealing resin, between said end part of said first metal foil and said end part of said second metal foil, and a metallically sealed part with a weld bead, on an end face outside said heat sealed part (6, 6') of said first metal foil and said second metal foil, wherein: the melting point of the metal constituting said metal foil is higher by 300°C or more than the thermal decomposition temperature of said heat-sealing resin, the specific gravity of the metal constituting said metal foil is 5 or more, and said weld bead is formed by a laser welding, and the melting point of the metal constituting said metal foil is higher by 300°C or more than the thermal decomposition temperature of said heat-sealing resin, the specific gravity of the metal constituting said metal foil is 5 or more, and said weld bead is formed by a laser welding, and said weld bead is a weld bead having a substantially circular cross-sectional shape and the dimension of the weld bead in the thickness direction of the metal foil is from 1.1 to 5.0 times the thickness-direction dimension of said first metal foil and said second metal foil in the portion coming into contact with said weld bead.
Upstanding nanostructured LED comprising a substrate and a nanowire protruding from the Substrate and a bulb having a larger diameter than the nanowire, characterized in that the bulb is arranged without direct contact with the substrate at a top portion of the nanowire such that the bulb encloses the top portion of the nanowire, and in that a light producing active region is arranged within the bulb.
An assembly comprising a pressure-booster output stabilizer (10, 40) and a fluid pressure booster that outputs a predetermined secondary pressure from a primary pressure, the pressure-booster output stabilizer (10, 40) being connected to the fluid pressure booster, the pressure-booster output stabilizer comprising: a first cylinder (12, 42) having therein a first chamber (24a, 54a) and a second chamber (24b, 54b) separated by a first piston (12b, 42b); a second cylinder (14, 44) having therein a third chamber (26a, 56a) and a fourth chamber (26b, 56b) separated by a second piston (14b, 44b); and a piston rod (16, 46) configured to couple the first piston and the second piston, wherein the primary pressure is supplied to the first chamber, the secondary pressure is supplied to the fourth chamber, and a pressurized fluid is taken out from the fourth chamber. a first cylinder (12, 42) having therein a first chamber (24a, 54a) and a second chamber (24b, 54b) separated by a first piston (12b, 42b); a second cylinder (14, 44) having therein a third chamber (26a, 56a) and a fourth chamber (26b, 56b) separated by a second piston (14b, 44b); and a piston rod (16, 46) configured to couple the first piston and the second piston, wherein the primary pressure is supplied to the first chamber, the secondary pressure is supplied to the fourth chamber, and a pressurized fluid is taken out from the fourth chamber.
Method for producing a tapelike laminate which comprises a tapelike carrier material and, on at least one of the surfaces of the tapelike carrier material, a first adhesive layer, said method comprising the steps of (a) coating a first tapelike auxiliary carrier material with at least the first adhesive layer, and winding the coated first auxiliary carrier material onto a first roll; (b) unwinding the coated first tapelike auxiliary carrier material from the first roll, and guiding the coated first tapelike auxiliary carrier material to a first laminating roller; (c) laminating the coated first tapelike auxiliary carrier material onto the tapelike carrier material, so that the first adhesive layer is facing the tapelike carrier material; and (d) delaminating the first auxiliary carrier material from the first adhesive layer; (e) coating a second tapelike auxiliary carrier material with at least one second adhesive layer, and winding the coated second auxiliary carrier material onto a second roll (8"); (f) unwinding the coated second tapelike auxiliary carrier material from the second roll (8"), and guiding the coated second tapelike auxiliary carrier material to the first laminating roller or to a second laminating roller; (g) laminating the coated second tapelike auxiliary carrier material onto the tapelike carrier material, so that the second adhesive layer is facing the tapelike carrier material; and (h) delaminating the second auxiliary carrier material (2") from the second adhesive layer. (a) coating a first tapelike auxiliary carrier material with at least the first adhesive layer, and winding the coated first auxiliary carrier material onto a first roll; (b) unwinding the coated first tapelike auxiliary carrier material from the first roll, and guiding the coated first tapelike auxiliary carrier material to a first laminating roller; (c) laminating the coated first tapelike auxiliary carrier material onto the tapelike carrier material, so that the first adhesive layer is facing the tapelike carrier material; and (d) delaminating the first auxiliary carrier material from the first adhesive layer; (e) coating a second tapelike auxiliary carrier material with at least one second adhesive layer, and winding the coated second auxiliary carrier material onto a second roll (8"); (f) unwinding the coated second tapelike auxiliary carrier material from the second roll (8"), and guiding the coated second tapelike auxiliary carrier material to the first laminating roller or to a second laminating roller; (g) laminating the coated second tapelike auxiliary carrier material onto the tapelike carrier material, so that the second adhesive layer is facing the tapelike carrier material; and (h) delaminating the second auxiliary carrier material (2") from the second adhesive layer.
A method of making a composite material characterized in the steps of forming an inoculum including a preselected fungus; forming a mixture of a substrate of discrete particles and a nutrient material, said nutrient material being capable of being digested by said fungi; adding said inoculum to said mixture; and allowing said fungus to digest said nutrient material in said mixture over a period sufficient to grow hyphae and to allow said hyphae to form a network of interconnected mycelia cells through and around said discrete particles thereby bonding said discrete particles together to form a self-supporting composite material. forming an inoculum including a preselected fungus; forming a mixture of a substrate of discrete particles and a nutrient material, said nutrient material being capable of being digested by said fungi; adding said inoculum to said mixture; and allowing said fungus to digest said nutrient material in said mixture over a period sufficient to grow hyphae and to allow said hyphae to form a network of interconnected mycelia cells through and around said discrete particles thereby bonding said discrete particles together to form a self-supporting composite material.