mhurhangee/ep-ind-claims huggingface dataset:
Pressure cooker comprising: a lid comprising a lid handle and a cooking vessel comprising a vessel handle, wherein the cooking vessel can be closed in a fluid-tight manner with the lid by means of a closure mechanism (7, 17) by placing the lid handle and the vessel handle one above the other, wherein one of the two handles (5, 3) comprises a coupling group having two coupling elements (1, 2) which can be mechanically coupled to one another and can be mechanically decoupled from one another again, and that the other of the two handles (5, 3) comprises a coupling device (4, 4', 14, 14') designed for said coupling and/or for said decoupling, such that, when the lid handle and the vessel handle are placed one above the other, the two coupling elements (1, 2) are either mechanically decoupled from one another or are mechanically coupled to one another by means of the coupling device (4, 4', 14, 14'), as a result of which said fluid-tight closure of the cooking vessel with the lid is effected by means of the closure mechanism (7, 17), characterized in that the coupling device (4, 14) has a separating element and two control cam branches (4a, 4b) separated from one another by the latter in such a way that, when the lid handle and the vessel handle are placed one above the other, the two coupling elements (1, 2) are mechanically decoupled from one another by the separating element and are mechanically guided separately from one another into the two control cam branches (4a, 4b). a lid comprising a lid handle and a cooking vessel comprising a vessel handle, wherein the cooking vessel can be closed in a fluid-tight manner with the lid by means of a closure mechanism (7, 17) by placing the lid handle and the vessel handle one above the other, wherein one of the two handles (5, 3) comprises a coupling group having two coupling elements (1, 2) which can be mechanically coupled to one another and can be mechanically decoupled from one another again, and that the other of the two handles (5, 3) comprises a coupling device (4, 4', 14, 14') designed for said coupling and/or for said decoupling, such that, when the lid handle and the vessel handle are placed one above the other, the two coupling elements (1, 2) are either mechanically decoupled from one another or are mechanically coupled to one another by means of the coupling device (4, 4', 14, 14'), as a result of which said fluid-tight closure of the cooking vessel with the lid is effected by means of the closure mechanism (7, 17), characterized in that the coupling device (4, 14) has a separating element and two control cam branches (4a, 4b) separated from one another by the latter in such a way that, when the lid handle and the vessel handle are placed one above the other, the two coupling elements (1, 2) are mechanically decoupled from one another by the separating element and are mechanically guided separately from one another into the two control cam branches (4a, 4b).
An electronic device, comprising: an electronic component as a heat source; and a heat conductive sheet, comprising: a folded section having at least two folds of the sheet establishing at least three superimposed layers of the sheet between the folds, wherein the folded section is configured to conduct heat from the heat source; and a layer of sheet, other than that of the three superimposed layers, wherein the layer of sheet is configured to spread heat across the electronic device, and wherein the layer of sheet receives the heat from the folded section; wherein the superimposed layers are closer to the heat source than the layer of sheet, and the folded section further includes a solid core, characterized in that, the sheet of the folded section is configured around the solid core. an electronic component as a heat source; and a heat conductive sheet, comprising: a folded section having at least two folds of the sheet establishing at least three superimposed layers of the sheet between the folds, wherein the folded section is configured to conduct heat from the heat source; and a layer of sheet, other than that of the three superimposed layers, wherein the layer of sheet is configured to spread heat across the electronic device, and wherein the layer of sheet receives the heat from the folded section; wherein the superimposed layers are closer to the heat source than the layer of sheet, and the folded section further includes a solid core, characterized in that, the sheet of the folded section is configured around the solid core. a folded section having at least two folds of the sheet establishing at least three superimposed layers of the sheet between the folds, wherein the folded section is configured to conduct heat from the heat source; and a layer of sheet, other than that of the three superimposed layers, wherein the layer of sheet is configured to spread heat across the electronic device, and wherein the layer of sheet receives the heat from the folded section; wherein the superimposed layers are closer to the heat source than the layer of sheet, and the folded section further includes a solid core, characterized in that, the sheet of the folded section is configured around the solid core.
Device for coating of lenses by means of sputtering, with at least one target and with a carrier for holding at least one lens which is to be coated, the target being designed elongated or tubular and the lens being rotatable around an axis which is centric and/or which intersects the lens, wherein the axis is stationary relative to the target, characterized in that the lens is located off-center over the target and in an end region or its vicinity of the target, such that the lens is located both in a first, at least essentially homogeneous region and in a second, inhomogeneous region of a rate profile of the removal of the target during coating, and/or in that the carrier is designed for holding a plurality of lenses, wherein the lenses are each rotatable around own axes.
A condensation-curable silicone resin composition comprising: a condensation-curable silicone resin mixture; and an adhesion-imparting agent, the adhesion-imparting agent including a compound that includes a structural unit represented by the formula and/or a structural unit represented by the formula between a structural unit represented by the formula and a structural unit represented by the formula: wherein R 1a 's in the formulas and each independently represent a C1-C18 alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group; R 1b 's in the formulas and each independently represent a C1-C18 alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group; m in the formula is an integer of 1 to 50; n in the formula is an integer of 1 to 1500; and A's in the formulas to each independently represent a C1-C18 alkyl group, a cycloalkyl group, an aryl group, an aralkyl group, or a group represented by the formula, provided that at least one of A's in the formulas to is a group represented by the formula: wherein R 2a represents a C1-C8 alkylene group in which a carbon atom other than a carbon atom bonded to a silicon atom is optionally partially substituted with an oxygen atom; R 2b 's each independently represent a C1-C3 alkylene group; R 3 's each independently represent a C1-C3 alkylene group; R 4 's each independently represent a hydrogen atom, a C1-C3 alkyl group, an OH group-containing C1-C3 alkyl group, or a halogeno group; and x is an integer of 0 to 2. a condensation-curable silicone resin mixture; and an adhesion-imparting agent, the adhesion-imparting agent including a compound that includes a structural unit represented by the formula and/or a structural unit represented by the formula between a structural unit represented by the formula and a structural unit represented by the formula: wherein R 1a 's in the formulas and each independently represent a C1-C18 alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group; R 1b 's in the formulas and each independently represent a C1-C18 alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group; m in the formula is an integer of 1 to 50; n in the formula is an integer of 1 to 1500; and A's in the formulas to each independently represent a C1-C18 alkyl group, a cycloalkyl group, an aryl group, an aralkyl group, or a group represented by the formula, provided that at least one of A's in the formulas to is a group represented by the formula: wherein R 2a represents a C1-C8 alkylene group in which a carbon atom other than a carbon atom bonded to a silicon atom is optionally partially substituted with an oxygen atom; R 2b 's each independently represent a C1-C3 alkylene group; R 3 's each independently represent a C1-C3 alkylene group; R 4 's each independently represent a hydrogen atom, a C1-C3 alkyl group, an OH group-containing C1-C3 alkyl group, or a halogeno group; and x is an integer of 0 to 2.
A light emitting die package comprising: a leadframe including a plurality of leads, said leadframe having a top side and a bottom side, and a portion of said leadframe defining a mounting pad; wherein the package body is a two-part heatsink, the two parts sandwiching said leadframe, the two-part heatsink comprising: a first part being a bottom heatsink made of a thermally conductive material and coupled to the bottom side of said leadframe, said bottom heatsink having a top surface thermally coupled to but electrically separated from said leadframe; and a second part being a top heatsink made of a thermally conductive material and thermally coupled to the top side of said leadframe, said top heatsink defining an opening, the opening extending from a main surface of the top heatsink to the opposite main surface of the top heatsink and generally surrounding the mounting pad; wherein said top heatsink and said bottom heatsink have similar lateral extents and substantially overlap each other; characterized in that at least one of said top heatsink and said bottom heatsink is made of copper or aluminum. a leadframe including a plurality of leads, said leadframe having a top side and a bottom side, and a portion of said leadframe defining a mounting pad; wherein the package body is a two-part heatsink, the two parts sandwiching said leadframe, the two-part heatsink comprising: a first part being a bottom heatsink made of a thermally conductive material and coupled to the bottom side of said leadframe, said bottom heatsink having a top surface thermally coupled to but electrically separated from said leadframe; and a second part being a top heatsink made of a thermally conductive material and thermally coupled to the top side of said leadframe, said top heatsink defining an opening, the opening extending from a main surface of the top heatsink to the opposite main surface of the top heatsink and generally surrounding the mounting pad; wherein said top heatsink and said bottom heatsink have similar lateral extents and substantially overlap each other; characterized in that at least one of said top heatsink and said bottom heatsink is made of copper or aluminum. a first part being a bottom heatsink made of a thermally conductive material and coupled to the bottom side of said leadframe, said bottom heatsink having a top surface thermally coupled to but electrically separated from said leadframe; and a second part being a top heatsink made of a thermally conductive material and thermally coupled to the top side of said leadframe, said top heatsink defining an opening, the opening extending from a main surface of the top heatsink to the opposite main surface of the top heatsink and generally surrounding the mounting pad; wherein said top heatsink and said bottom heatsink have similar lateral extents and substantially overlap each other; characterized in that at least one of said top heatsink and said bottom heatsink is made of copper or aluminum.
A system consisting of - a flash unit and - a photographic apparatus with a flash shoe for mounting the flash unit, and a tripod socket and - at least one flash light reflector arm, the flash unit comprising a lamp housing and a fine exposure sensor, and wherein the flash shoe is arranged so that the flash unit is mounted centrally on the photographic apparatus so that the exposure sensor faces forward along the camera axis and wherein the lamp housing is arranged so that it can emit its light to a first side of the photographic apparatus, wherein the flashlight reflector arm has a fastening means and a fastening arm (9, 12), wherein the fastening arm (9, 12) with the fastening means is fixed to the tripod socket and has means for fixing a reflection element to the fastening arm (9, 12), wherein the flash reflector arm is designed so that in the fixed state, the means for fixing reflection means can be positioned laterally on the first side next to the photographic apparatus, so that the light is directed to the object to be illuminated via the reflection means. - a flash unit and - a photographic apparatus with a flash shoe for mounting the flash unit, and a tripod socket and - at least one flash light reflector arm,
A current sensor arrangement comprising a primary conductor for conducting a current to be measured, at least two magnetic field probes for measuring magnetic fields and a magnetic core (1; 11), which has a closed annular structure, which surrounds the primary conductor and is formed in any desired manner, and at least two recesses (6; 7), each of which accommodates one of the magnetic field probes, characterized in that two L-shaped legs (2; 3) which form the magnetic core (1; 11) and each have two windings (25; 28) applied thereto, which are each arranged at one end of the legs (2; 3) and which each have an extension along the legs (2; 3) which is smaller than half the length of the L-shaped basic structure.
A patient interface for affixment on onto a patient eye, said patient interface including: - a negative-pressure cavity designed for fluidic coupling to the patient eye, wherein the negative pressure cavity is formed as a suction ring; - a first negative pressure interface with a first negative pressure aperture for fluidically coupling the negative-pressure cavity to a negative-pressure device to charge the negative pressure cavity with a negative pressure; - a second negative pressure interface with a second negative pressure aperture for fluidically coupling the negative-pressure cavity to the negative-pressure device to charge the negative cavity with a negative pressure; wherein the first negative pressure aperture and the second negative pressure aperture are arranged in a circumferential wall of the negative pressure cavity separate from and in close vicinity to each other, wherein an angular distance between the first and second negative pressure aperture does not exceed 30 degrees and/or a distance between the first and second negative pressure aperture does not exceed 5 millimeters. - a negative-pressure cavity designed for fluidic coupling to the patient eye, wherein the negative pressure cavity is formed as a suction ring; - a first negative pressure interface with a first negative pressure aperture for fluidically coupling the negative-pressure cavity to a negative-pressure device to charge the negative pressure cavity with a negative pressure; - a second negative pressure interface with a second negative pressure aperture for fluidically coupling the negative-pressure cavity to the negative-pressure device to charge the negative cavity with a negative pressure;
Cover unit for a converter head of a high-voltage converter device, comprising a flat, preferably planar, cover element and an RIV shielding device peripherally surrounding the cover element for shielding radio interference voltage, characterized in that the RIV shielding device is formed by a plurality of RIV shielding elements, each having a substantially cylindrical shape, in particular a capsule shape, distributed peripherally on the edge of the cover element.
A method of loading a cartridge for use in a pharmaceutical dispensing system comprising the steps of: (a) providing a cartridge comprising: a frame with: opposed sidewalls and a cylinder disposed between the sidewalls, a floor and a base, the floor positioned above the base and including a routing hole, an opening between the floor and the base at the end opposite the routing hole; (b) providing a plurality of individually sealed pouches of pharmaceuticals to be loaded in the cartridge, the pouches formed as an elongate strip and containing information on the pouches; (c) providing a spooler device comprising: a housing with an opening, an internal compartment and a slot; a first drive unit mounted in the housing to engage the cartridge cylinder; a second drive unit mounted in the housing to engage the strip of pouches; one or more sensors (444, 450) for reading pouch and cartridge information; (d) inserting the cartridge into the housing through the opening in the housing and into the compartment of the housing; (e) introducing the strip of pouches into the spooler device through the slot; (f) using the first drive unit, wrapping the strip of pouches around the cylinder of the cartridge; and (g) using the second drive unit, positioning the end of the strip of pouches near the opening in the cartridge. (a) providing a cartridge comprising: a frame with: opposed sidewalls and a cylinder disposed between the sidewalls, a floor and a base, the floor positioned above the base and including a routing hole, an opening between the floor and the base at the end opposite the routing hole; opposed sidewalls and a cylinder disposed between the sidewalls, a floor and a base, the floor positioned above the base and including a routing hole, an opening between the floor and the base at the end opposite the routing hole; (b) providing a plurality of individually sealed pouches of pharmaceuticals to be loaded in the cartridge, the pouches formed as an elongate strip and containing information on the pouches; (c) providing a spooler device comprising: a housing with an opening, an internal compartment and a slot; a first drive unit mounted in the housing to engage the cartridge cylinder; a second drive unit mounted in the housing to engage the strip of pouches; one or more sensors (444, 450) for reading pouch and cartridge information; a housing with an opening, an internal compartment and a slot; a first drive unit mounted in the housing to engage the cartridge cylinder; a second drive unit mounted in the housing to engage the strip of pouches; one or more sensors (444, 450) for reading pouch and cartridge information; (d) inserting the cartridge into the housing through the opening in the housing and into the compartment of the housing; (e) introducing the strip of pouches into the spooler device through the slot; (f) using the first drive unit, wrapping the strip of pouches around the cylinder of the cartridge; and (g) using the second drive unit, positioning the end of the strip of pouches near the opening in the cartridge.
A process for producing a polycarbonate resin foamed blow-molded article, comprising the steps of: (a) melting and mixing a branched polycarbonate resin "B", a linear polycarbonate resin "C" and a branching agent "D" to obtain a polycarbonate resin "A" in a molten state, wherein the branched polycarbonate resin "B" has a polystyrene equivalent weight average molecular weight Mw B of 5.5×10 4 to 7.0×10 4, a weight average absolute molecular weight Mw B (abs) providing a ratio Mw B (abs)/ Mw B of the weight average absolute molecular weight Mw B (abs) to the weight average molecular weight Mw B of 0.63 to 0.70 and a content of terminal hydroxyl groups of 500 ppm by mass or more, and the linear polycarbonate resin "C" has a polystyrene equivalent weight average molecular weight Mw C of less than 5.0×10 4, a weight average absolute molecular weight Mw C (abs) providing a ratio Mw C (abs)/ Mw C of the weight average absolute molecular weight Mw C (abs) to the weight average molecular weight Mw C of 0.62 or less and a content of terminal hydroxyl groups of 250 ppm by mass or less, and wherein the branched polycarbonate resin "B" and the linear polycarbonate resin "C" are used in such a proportion as to provide a mass ratio B:C of the branched polycarbonate resin "B" to the linear polycarbonate resin "C" of 30:70 to 95:5, (b) mixing the polycarbonate resin "A" in a molten state with a blowing agent to obtain a foamable molten resin composition, (c) extruding the foamable molten resin composition to obtain a foamed parison, and (d) blow-molding the foamed parison to obtain a foamed blow-molded article. (a) melting and mixing a branched polycarbonate resin "B", a linear polycarbonate resin "C" and a branching agent "D" to obtain a polycarbonate resin "A" in a molten state, wherein the branched polycarbonate resin "B" has a polystyrene equivalent weight average molecular weight Mw B of 5.5×10 4 to 7.0×10 4, a weight average absolute molecular weight Mw B (abs) providing a ratio Mw B (abs)/ Mw B of the weight average absolute molecular weight Mw B (abs) to the weight average molecular weight Mw B of 0.63 to 0.70 and a content of terminal hydroxyl groups of 500 ppm by mass or more, and the linear polycarbonate resin "C" has a polystyrene equivalent weight average molecular weight Mw C of less than 5.0×10 4, a weight average absolute molecular weight Mw C (abs) providing a ratio Mw C (abs)/ Mw C of the weight average absolute molecular weight Mw C (abs) to the weight average molecular weight Mw C of 0.62 or less and a content of terminal hydroxyl groups of 250 ppm by mass or less, and wherein the branched polycarbonate resin "B" and the linear polycarbonate resin "C" are used in such a proportion as to provide a mass ratio B:C of the branched polycarbonate resin "B" to the linear polycarbonate resin "C" of 30:70 to 95:5, (b) mixing the polycarbonate resin "A" in a molten state with a blowing agent to obtain a foamable molten resin composition, (c) extruding the foamable molten resin composition to obtain a foamed parison, and (d) blow-molding the foamed parison to obtain a foamed blow-molded article.