mhurhangee/ep-ind-claims huggingface dataset:
Cooling element for a heat source, particularly for highly equipped LED modules, comprising: one base body that is in thermal and mechanical contact with a body of the heat source; at least one heat pipe (4,5,6), whose end section is received in a form-fitting and thermally conducting manner in the base body; and at least one cooling element with cooling body lamellae on the other end section of the heat pipe, wherein: the heat pipes (4,5,6) run over an entire length of the base body the hot zone (16,34) of the heat source is evenly supported by a contact surface of the base body, where the heat pipes run parallel to each other spaced from another and parallel to a contact surface of the heat source with its hottest zone (16, 34), the base body is fastened to the body of the heat source, base body lamaellae formed integrally with or connected to the base body are provided, cooling lamaellae of the cooling body are fixed by shrinkfit or pressfit on the heat pipes (4,5,6) at a predetermined distance from one another, whereby spacers are provided between the cooling lamellae; that are punched out from lamellae sheets to form tongues, that are bent away from the lamella main plane, characterized therein, that through-holes for the heat pipes (5,6) of the cooling body cooling lamellae comprise a step-like deep drawn area in their circumference, so that after passing through the heat pipe, adhesive can collect in a groove formed between the heat pipe and the cooling body lamella. one base body that is in thermal and mechanical contact with a body of the heat source; at least one heat pipe (4,5,6), whose end section is received in a form-fitting and thermally conducting manner in the base body; and at least one cooling element with cooling body lamellae on the other end section of the heat pipe, the heat pipes (4,5,6) run over an entire length of the base body the hot zone (16,34) of the heat source is evenly supported by a contact surface of the base body, where the heat pipes run parallel to each other spaced from another and parallel to a contact surface of the heat source with its hottest zone (16, 34), the base body is fastened to the body of the heat source, base body lamaellae formed integrally with or connected to the base body are provided, cooling lamaellae of the cooling body are fixed by shrinkfit or pressfit on the heat pipes (4,5,6) at a predetermined distance from one another, whereby spacers are provided between the cooling lamellae; that are punched out from lamellae sheets to form tongues, that are bent away from the lamella main plane, characterized therein, that through-holes for the heat pipes (5,6) of the cooling body cooling lamellae comprise a step-like deep drawn area in their circumference, so that after passing through the heat pipe, adhesive can collect in a groove formed between the heat pipe and the cooling body lamella.
A method of microencapsulating an active ingredient with an enteric matrix, the method comprising: a) agitating a combination of water and enteric materials, the combination substantially free of organic solvents, at a pH so that the enteric materials are soluble in the water to form a solution, the enteric materials including shellac and sodium caseinate; b) mixing a hydrophobic liquid containing the active ingredient into the solution; c) homogenizing the hydrophobic liquid and the solution to create an emulsion; and d) acid titrating the emulsion with an amount of acid to a pH at an isoelectric point of sodium caseinate effective to precipitate a particulate of the hydrophobic liquid homogenously dispersed throughout an enteric matrix of the shellac and sodium caseinate. a) agitating a combination of water and enteric materials, the combination substantially free of organic solvents, at a pH so that the enteric materials are soluble in the water to form a solution, the enteric materials including shellac and sodium caseinate; b) mixing a hydrophobic liquid containing the active ingredient into the solution; c) homogenizing the hydrophobic liquid and the solution to create an emulsion; and d) acid titrating the emulsion with an amount of acid to a pH at an isoelectric point of sodium caseinate effective to precipitate a particulate of the hydrophobic liquid homogenously dispersed throughout an enteric matrix of the shellac and sodium caseinate.
An oil separator comprising a supply passage to which blow-by gas from an internal combustion engine is supplied, and a plurality of cyclone-type oil separation units arranged along a gas supply direction, each oil separation unit having a cylinder case part to which the blow-by gas is supplied, wherein an inner diameter of the cylinder case part of the oil separation unit is set larger with the oil separation unit arranged more upstream in the gas supply direction, the supply passage is configured by a supply space (As) through which blow-by gas can be distributed, and an intake opening of the oil separation unit having a larger inner diameter and an intake opening of the oil separation unit having a smaller inner diameter are arranged so as to be parallel along the gas supply direction in the supply space.
Device for handling coins, having a sorting unit for feeding the coins to a first receiving container for storing coins, and to at least one second receiving container for storing coins, wherein the sorting unit comprises a transport element driven in a direction of circulation, said transport element having a multiplicity of receiving regions for receiving in each case at least one coin, the sorting unit comprises a guide unit extending along a sorting section of the sorting unit in the direction of circulation, the transport element transports the coins in the direction of circulation with their edges resting against a bearing surface of the guide unit, the bearing surface has at least one opening through which the coins to be fed to the first receiving container are able to be fed to the first receiving container, and wherein the guide unit comprises a first closure element which, in a closed position, closes the opening at least far enough for the coins transported along the bearing surface to move over the opening and onwards in the direction of circulation, and which, in an open position, is arranged such that the coins that are transported along the bearing surface and are intended to be fed to the first receiving container move out of the particular receiving region through the opening, and wherein the first closure element is mounted so as to be pivotable about an axis of rotation, characterized in that, in the open position, the first closure element has been pivoted through a preset angle of between 70° and 90° relative to the closed position.
A method for producing a circuit board consisting of a plurality of circuit board areas, wherein the individual circuit board areas comprise at least one layer made of an in particular insulating base material and a conducting or conductive pattern located on or in the base material, said method comprising the steps of: - providing a substrate material, - forming at least one registration mark in the substrate material, - arranging a first circuit board area on the substrate material while orienting the first circuit board area relative to the registration mark, and - connecting the conducting or conductive pattern of the first circuit board area to the conducting or conductive pattern of at least one further circuit board area (5, 6, 7, 12, 13, 15), characterized by the following additional step: - arranging the at least one additional circuit board area (5, 6, 7, 12, 13, 15) adjoining the first circuit board area, or at least partially overlapping the first circuit board area, on the same or common surface of the substrate material while orienting the same relative to the registration mark. - providing a substrate material, - forming at least one registration mark in the substrate material, - arranging a first circuit board area on the substrate material while orienting the first circuit board area relative to the registration mark, and - connecting the conducting or conductive pattern of the first circuit board area to the conducting or conductive pattern of at least one further circuit board area (5, 6, 7, 12, 13, 15), - arranging the at least one additional circuit board area (5, 6, 7, 12, 13, 15) adjoining the first circuit board area, or at least partially overlapping the first circuit board area, on the same or common surface of the substrate material while orienting the same relative to the registration mark.
A composite article comprising: A. a first layer comprising a low surface energy polymer; B. a poly(meth)acrylate layer disposed on and in direct contact with said first layer, wherein said poly(meth)acrylate layer comprises a poly(meth)acrylate comprising the reaction product of at least one acrylate polymerized in the presence of an organoborane initiator; C. an epoxide layer disposed on and in direct contact with said poly(meth)acrylate layer, wherein said epoxide layer comprises an epoxide; and D. a hydrolytically resistant layer disposed on and in direct contact with said epoxide layer, wherein said hydrolytically resistant layer has an initial tensile strength as measured in accordance with the DIN 53504 S2 standard test method and comprises a hydrolytically resistant polyurethane elastomer comprising the reaction product of: an isocyanate component; and an isocyanate-reactive component comprising a polydiene polyol having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol; reacted in the presence of a curing agent for crosslinking the carbon-carbon double bonds of the polydiene polyol, wherein said hydrolytically resistant layer retains at least 80 % of said initial tensile strength as measured in accordance with the DIN 53504 S2 standard test method and after submersion in standardized seawater for 24 weeks at 102 °C in accordance with ASTM D665. A. a first layer comprising a low surface energy polymer; B. a poly(meth)acrylate layer disposed on and in direct contact with said first layer, wherein said poly(meth)acrylate layer comprises a poly(meth)acrylate comprising the reaction product of at least one acrylate polymerized in the presence of an organoborane initiator; C. an epoxide layer disposed on and in direct contact with said poly(meth)acrylate layer, wherein said epoxide layer comprises an epoxide; and D. a hydrolytically resistant layer disposed on and in direct contact with said epoxide layer, wherein said hydrolytically resistant layer has an initial tensile strength as measured in accordance with the DIN 53504 S2 standard test method and comprises a hydrolytically resistant polyurethane elastomer comprising the reaction product of: an isocyanate component; and an isocyanate-reactive component comprising a polydiene polyol having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol; reacted in the presence of a curing agent for crosslinking the carbon-carbon double bonds of the polydiene polyol, wherein said hydrolytically resistant layer retains at least 80 % of said initial tensile strength as measured in accordance with the DIN 53504 S2 standard test method and after submersion in standardized seawater for 24 weeks at 102 °C in accordance with ASTM D665. an isocyanate component; and an isocyanate-reactive component comprising a polydiene polyol having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol;
Welding station comprising a plurality of longitudinal welding heads for an installation for manufacturing packages with pads, each head being configured to weld to one another two superposed sheets as said sheets advance in a first direction, each head comprising a welding device configured to apply heat on a determined action area of said head or facing said head, a first traction belt (2.3) and a second traction belt (2.4) parallel to the first traction belt (2.3) and separated from the first traction belt (2.3) by a determined separation gap in a second direction which is transverse to the first direction, the action area being arranged in said separation gap between both traction belts (2.3, 2.4), or facing said separation gap, and each of the welding heads being configured to be able to move along the second direction.
Device for calculating a score for a human or an animal, said score being a quantitative or semi-quantitative evaluation of liver damage of alcoholic or non-alcoholic steatohepatitis type, said calculating device being constructed and arranged to calculate a score using the following at least physical or even biological parameters: - a parameter correlated to fibrosis, - a parameter correlated to steatosis, and - an additional parameter correlated to inflammatory activity, the additional parameter correlated to inflammatory activity being selected from: ALAT, ASAT, GGTs, the parameter correlated to fibrosis being elasticity, the parameter correlated to steatosis being a measurement of the attenuation of ultrasonic waves or of liver viscosity, the calculating device calculating the score as a function of said parameters, the score being calculated based on a logistic regression. - a parameter correlated to fibrosis, - a parameter correlated to steatosis, and - an additional parameter correlated to inflammatory activity, the additional parameter correlated to inflammatory activity being selected from: ALAT, ASAT, GGTs, the parameter correlated to fibrosis being elasticity, the parameter correlated to steatosis being a measurement of the attenuation of ultrasonic waves or of liver viscosity, the calculating device calculating the score as a function of said parameters, the score being calculated based on a logistic regression. the additional parameter correlated to inflammatory activity being selected from: ALAT, ASAT, GGTs, the parameter correlated to fibrosis being elasticity, the parameter correlated to steatosis being a measurement of the attenuation of ultrasonic waves or of liver viscosity, the calculating device calculating the score as a function of said parameters, the score being calculated based on a logistic regression.
Device for measuring a force, having a printed circuit board, wherein the printed circuit board has a sensor region which can be deformed relative to a base region of the printed circuit board and an electric circuit for measuring an extent and/or a direction of a deformation of the sensor region using an electrical variable which changes with the deformation, wherein the sensor region has a restoring element so that a deformation of the sensor region produced from a non-deformed state of the sensor region by means of an action of force can be restored after the end of the action of the force by means of the restoring element into the non-deformed state of the sensor region, characterised in that the restoring element is formed as an insert which is arranged at least in regions in the printed circuit board, wherein the insert is arranged only in a region of the printed circuit board which is subjected to bending load or which can be deformed. the sensor region has a restoring element so that a deformation of the sensor region produced from a non-deformed state of the sensor region by means of an action of force can be restored after the end of the action of the force by means of the restoring element into the non-deformed state of the sensor region, characterised in that the restoring element is formed as an insert which is arranged at least in regions in the printed circuit board, wherein the insert is arranged only in a region of the printed circuit board which is subjected to bending load or which can be deformed.
A method for transmitting information, comprising: receiving a downlink assignment sent by a base station, wherein the downlink assignment comprises a trigger flag, wherein the trigger flag is used to indicate a trigger state of aperiodic channel state information CSI; wherein in case the trigger flag is one bit, the trigger state indicated by the trigger flag is one of: triggering aperiodic CSI or not triggering the aperiodic CSI; and in case the trigger flag is two bits, the trigger state indicated by the trigger flag is one of: not triggering aperiodic CSI, triggering aperiodic CSI of a carrier where downlink data scheduled by the downlink assignment is located, triggering aperiodic CSI of a first downlink carrier set, or triggering aperiodic CSI of a second downlink carrier set; wherein the downlink assignment is a physical downlink control channel, PDCCH, used for downlink data scheduling; determining an uplink resource used to send the aperiodic CSI; and sending the aperiodic CSI to the base station, wherein the aperiodic CSI is sent, according to the trigger flag, to the base station on the uplink resource. receiving a downlink assignment sent by a base station, wherein the downlink assignment comprises a trigger flag, wherein the trigger flag is used to indicate a trigger state of aperiodic channel state information CSI; wherein in case the trigger flag is one bit, the trigger state indicated by the trigger flag is one of: triggering aperiodic CSI or not triggering the aperiodic CSI; and in case the trigger flag is two bits, the trigger state indicated by the trigger flag is one of: not triggering aperiodic CSI, triggering aperiodic CSI of a carrier where downlink data scheduled by the downlink assignment is located, triggering aperiodic CSI of a first downlink carrier set, or triggering aperiodic CSI of a second downlink carrier set; in case the trigger flag is one bit, the trigger state indicated by the trigger flag is one of: triggering aperiodic CSI or not triggering the aperiodic CSI; and in case the trigger flag is two bits, the trigger state indicated by the trigger flag is one of: not triggering aperiodic CSI, triggering aperiodic CSI of a carrier where downlink data scheduled by the downlink assignment is located, triggering aperiodic CSI of a first downlink carrier set, or triggering aperiodic CSI of a second downlink carrier set; wherein the downlink assignment is a physical downlink control channel, PDCCH, used for downlink data scheduling; determining an uplink resource used to send the aperiodic CSI; and sending the aperiodic CSI to the base station, wherein the aperiodic CSI is sent, according to the trigger flag, to the base station on the uplink resource.
A humidifier for a respirator, comprising a water receiving chamber enclosed by a main body and a bottom plate, the water receiving chamber being divided by a vertically disposed partition plate into a gastight liquid reservoir chamber and a heating chamber which is in communication with exterior environment, and a passage for communicating the liquid reservoir chamber and the heating chamber being disposed on the partition plate and adjacent to the bottom plate, characterized in that - the humidifier further comprises a baffle located in the heating chamber and extending toward the bottom plate from a top wall of the main body, - the heating chamber has a circumferential sidewall, - there is a gap between the baffle and each of the circumferential sidewall of the heating chamber and a level of liquid in the heating chamber, - the baffle comprises a first cylindrical portion having a circumferential sidewall and a second cylindrical portion having a circumferential sidewall, - the second cylindrical portion is connected with the circumferential outer sidewall of the first cylindrical portion, - the first cylindrical portion forms a gas outlet chamber, the second cylindrical portion forms a gas inlet chamber which is in communication with the gas outlet chamber, - circumferential sidewalls of the first and second cylindrical portions (51,52), the partition plate and the top wall collectively form a backflow tank. - the humidifier further comprises a baffle located in the heating chamber and extending toward the bottom plate from a top wall of the main body, - the heating chamber has a circumferential sidewall, - there is a gap between the baffle and each of the circumferential sidewall of the heating chamber and a level of liquid in the heating chamber, - the baffle comprises a first cylindrical portion having a circumferential sidewall and a second cylindrical portion having a circumferential sidewall, - the second cylindrical portion is connected with the circumferential outer sidewall of the first cylindrical portion, - the first cylindrical portion forms a gas outlet chamber, the second cylindrical portion forms a gas inlet chamber which is in communication with the gas outlet chamber, - circumferential sidewalls of the first and second cylindrical portions (51,52), the partition plate and the top wall collectively form a backflow tank.
A sorbent composition in powder form, comprising calcium hydroxide (Ca 2), magnesium hydroxide (Mg 2) and magnesium oxide (MgO), said composition having a specific surface BET area greater than 20 m 2 /g, preferably greater than 25 m 2 /g, even more preferably greater than 35 m 2 /g, wherein said magnesium oxide (MgO) is present in such an amount that the ratio between the weight of the magnesium oxide (MgO) and the total weight of the calcium and magnesium hydroxide (MgO/ (Ca 2 + Mg 2)) is within the range of 0.15-0.40, even more preferably within the range of 0.22-0.38.
An apparatus for determining a relative position as between a wireless power transmitter and a wireless power receiver, the apparatus comprising: a ferrite structure (402, 404); and a plurality of detection loops (414, 416, 418a, 418b) formed from metallic traces on a flexible printed circuit, each of the detection loops wrapped on and around respective portions of the ferrite structure and about respective axes normal to a winding plane of each detection loop, wherein each detection loop is configured to sense an amount of magnetic flux flowing in a direction normal to the winding plane of the detection loop. a ferrite structure (402, 404); and a plurality of detection loops (414, 416, 418a, 418b) formed from metallic traces on a flexible printed circuit, each of the detection loops wrapped on and around respective portions of the ferrite structure and about respective axes normal to a winding plane of each detection loop, wherein each detection loop is configured to sense an amount of magnetic flux flowing in a direction normal to the winding plane of the detection loop.