mhurhangee/ep-ind-claims huggingface dataset:
A waterproof, breathable sock comprising: a seamless conformed or shaped expanded polytetrafluoroethylene (ePTFE) membrane having a first side and a second side and being made from a seamless conformed expanded polytetrafluoroethylene (ePTFE) tape which is elongated to conform to the shape of a three dimensional object without fracturing, tearing, or otherwise breaking; and a first elastic textile affixed to said first side of said ePTFE membrane, said first elastic textile having an elasticity of at least about 50%, wherein said seamless conformed ePTFE membrane and said first elastic textile form a first laminate. a seamless conformed or shaped expanded polytetrafluoroethylene (ePTFE) membrane having a first side and a second side and being made from a seamless conformed expanded polytetrafluoroethylene (ePTFE) tape which is elongated to conform to the shape of a three dimensional object without fracturing, tearing, or otherwise breaking; and a first elastic textile affixed to said first side of said ePTFE membrane, said first elastic textile having an elasticity of at least about 50%, wherein said seamless conformed ePTFE membrane and said first elastic textile form a first laminate.
Method of fabricating a micro machined channel, comprising the steps of: - Providing a substrate of a first material and having a buried layer of a different material therein; - Forming at least two trenches (21, 22) in said substrate by removing at least part of said substrate, wherein said trenches are provided at a distance from each other and wherein said trenches at least partly extend substantially parallel to each other, wherein said trenches extend towards said buried layer; - Forming at least two filled trenches (31, 32) by providing a second material different from said first material and filling said at least two trenches with at least said second material; - Forming an elongated cavity in between said filled trenches by removing at least part of said substrate extending between said filled trenches; - Forming an enclosed channel by providing a layer of material in said cavity and enclosing said cavity, characterized by: - Providing walls of the channel with sidewall heating. - Providing a substrate of a first material and having a buried layer of a different material therein; - Forming at least two trenches (21, 22) in said substrate by removing at least part of said substrate, wherein said trenches are provided at a distance from each other and wherein said trenches at least partly extend substantially parallel to each other, wherein said trenches extend towards said buried layer; - Forming at least two filled trenches (31, 32) by providing a second material different from said first material and filling said at least two trenches with at least said second material; - Forming an elongated cavity in between said filled trenches by removing at least part of said substrate extending between said filled trenches; - Forming an enclosed channel by providing a layer of material in said cavity and enclosing said cavity, characterized by: - Providing walls of the channel with sidewall heating.
A system, comprising: a non-transitory memory; and at least one logic layer processor configured to execute computer code stored in the non-transitory memory that causes the at least one logic layer processor to: receive over a communication network, from a plurality of electronic resources, initial user personal identifiable information of a user of a plurality of users; wherein user PII comprises a plurality of data elements; classify the plurality of data elements of the initial PII of the user to populate a profile map data structure having a standardized predefined data schema of a plurality of vector elements so as to form a user-specific profile map data structure of the user, comprising at least a plurality of: (i) a demographic user-specific parameter, (ii) a psychographic user-specific parameter, (iii) a behavioral user-specific parameter (iv) a quantitative user-specific parameter, or (v) any combination thereof; iteratively receive over the communication network, from the plurality of electronic resources, additional user personal identifiable information of the user based at least in part on the user-specific profile map data structure; iteratively classify the additional user PII of the user to update the user-specific profile map data structure of the user; and enable a plurality of user-specific data management software functions based on the user-specific profile map data structure. (i) a demographic user-specific parameter, (ii) a psychographic user-specific parameter, (iii) a behavioral user-specific parameter (iv) a quantitative user-specific parameter, or (v) any combination thereof; iteratively receive over the communication network, from the plurality of electronic resources, additional user personal identifiable information of the user based at least in part on the user-specific profile map data structure; iteratively classify the additional user PII of the user to update the user-specific profile map data structure of the user; and enable a plurality of user-specific data management software functions based on the user-specific profile map data structure.
A concentrated surfactant composition comprising: a. at least 50%, preferably from 50% to 80%, even more preferably 55% to 70%, by weight of the surfactant composition, substantially neutralized anionic sulfated surfactant, wherein by "substantially neutralized" it is meant that the sulfated surfactant is 98% to 100% neutralized; and b. from 5% to 30%, preferably 12% to 22%, by weight of the surfactant composition, of a water-soluble organic acid, wherein the organic acid comprises 6 carbon atoms or fewer, wherein the organic acid is present in free acid form and its salt in a molar ratio of from 5:1 to 1:5; wherein the composition has a pH of from 2 to 6.9, preferably a pH of from 2 to 6, more preferably a pH of 3 to 5, when measured in an aqueous 10% solution of the composition. a. at least 50%, preferably from 50% to 80%, even more preferably 55% to 70%, by weight of the surfactant composition, substantially neutralized anionic sulfated surfactant, wherein by "substantially neutralized" it is meant that the sulfated surfactant is 98% to 100% neutralized; and b. from 5% to 30%, preferably 12% to 22%, by weight of the surfactant composition, of a water-soluble organic acid, wherein the organic acid comprises 6 carbon atoms or fewer, wherein the organic acid is present in free acid form and its salt in a molar ratio of from 5:1 to 1:5;
A flexible sealing connector for conveying an electrical signal from a first tool portion to a second tool portion, at least one of the first tool portion and the second tool portion having a receiver with a surface defining a receiver passageway, comprising: a deformable boot adapted to come into sealing engagement with the surface of the receiver passageway, said deformable boot having a surface defining a boot passageway wherein said surface of said boot tapers towards said second tool portion; and an electrical coupler in sealing engagement with said surface of said boot passageway, said coupler having a first end electrically connected to a first electrical line extending from said first tool portion and a second end electrically connected to a second electrical line extending from said second tool portion whereby said first line and said second line are electrically connected, said receiver passageway is sealed by said boot and said boot passageway is sealed by said coupler, characterised in that said surface of said boot also tapers towards said first tool portion. a deformable boot adapted to come into sealing engagement with the surface of the receiver passageway, said deformable boot having a surface defining a boot passageway wherein said surface of said boot tapers towards said second tool portion; and an electrical coupler in sealing engagement with said surface of said boot passageway, said coupler having a first end electrically connected to a first electrical line extending from said first tool portion and a second end electrically connected to a second electrical line extending from said second tool portion whereby said first line and said second line are electrically connected, said receiver passageway is sealed by said boot and said boot passageway is sealed by said coupler, characterised in that said surface of said boot also tapers towards said first tool portion.
A method for preparing an ultraviolet radiation absorbing polymer composition comprising the polymer compound of formula in an esterification / transesterification, which method comprises the steps of reacting a polyglycerol intermediate with a benzotriazole UV-chromophore comprising a complementary functional group to form the UV absorbing polyether compound according to the following reaction scheme: wherein A is hydrogen; or C 1 -C 8 alkyl; and k is a number from 2 to 20; and n and m, independently from each other are a number from 0 to 20; wherein at least one of m and n is ≥ 1. A is hydrogen; or C 1 -C 8 alkyl; and k is a number from 2 to 20; and n and m, independently from each other are a number from 0 to 20; wherein at least one of m and n is ≥ 1.
Pivot module for pivoting a pile in the creation of an underwater foundation of a construction, comprising a carrier element that can be disposed on a base element of an erection device, comprising a pivot body, which is connected to the carrier element by a pivot bearing and at least one first feed element, wherein a guide element for the pile and a holding ring having at least one holding element, disposed on the holding ring, for locking in place the pile are provided on the pivot body, and comprising a second holding ring, which is provided with at least one second holding element for locking in place the pile, characterized in that the second holding ring is connected to the pivot body via at least one second feed element for generating a feed force, the connection being realized movably in the form of a relative movement between the first holding ring and second holding ring with respect to the pivot body, wherein the second feed element is a pushing cylinder.
A method for producing containers filled with a liquid filling material from preforms made of a thermoplastic material, wherein the respective preform is at least thermally conditioned and is subsequently shaped to form the container in a mould during a shaping phase by axial and radial stretching by means of liquid filling material introduced under pressure into the preform by means of a nozzle, characterised in that the axial stretching is initiated by filling material supplied to the preform in a pulsed manner, wherein supply of the filling material in a pulsed manner is to be understood as a supply, which takes place directly into the empty preform and the jet diameter and supply speed of which are suitable to transfer an impulse when striking the preform and to thus trigger the stretching process.
A spherical lamp facilitating heat dissipation, the spherical lamp comprising: lower and upper substrates, on each of which a plurality of LEDs is mounted; a plate-shaped substrate support unit having bottom and top surfaces, to which the lower and upper substrates are coupled, respectively; lower and upper semi-spherical covers fixed to the bottom and top surfaces of the substrate support unit, respectively; characterized in that a support unit is coupled to a central portion of the top surface of the substrate support unit and is exposed to the outside through a central portion of the upper cover; and a heat dissipation plate has a coupling portion provided on a bottom surface thereof, an end of the support unit is inserted into and fixed to the coupling portion. lower and upper substrates, on each of which a plurality of LEDs is mounted; a plate-shaped substrate support unit having bottom and top surfaces, to which the lower and upper substrates are coupled, respectively; lower and upper semi-spherical covers fixed to the bottom and top surfaces of the substrate support unit, respectively; characterized in that a support unit is coupled to a central portion of the top surface of the substrate support unit and is exposed to the outside through a central portion of the upper cover; and a heat dissipation plate has a coupling portion provided on a bottom surface thereof, an end of the support unit is inserted into and fixed to the coupling portion.
A telemetry wireless beacon apparatus comprising: a wireless beacon communication device, at least one beacon device, at least one remote device, and a vehicle device, said vehicle device further comprising a microprocessor, a memory, firmware, communications microprocessor, telematics sensors (33, 34) and an interface for communicating with a vehicle network communications bus, said at least one beacon device comprises a beacon microprocessor, a beacon memory, beacon firmware, a beacon radio module and at least one of a beacon accelerometer and beacon sensors, and is capable to communicate beacon data with said wireless beacon communication device, said vehicle device is capable to communicate with said at least one remote device, and wherein said microprocessor, memory and firmware are capable to monitor and receive data from said interface, said telematics sensors (33, 34) and said wireless beacon communication device, thereby rendering said vehicle device capable of logging said data for subsequent communication to said at least one remote device. a wireless beacon communication device, at least one beacon device, at least one remote device, and a vehicle device, said vehicle device further comprising a microprocessor, a memory, firmware, communications microprocessor, telematics sensors (33, 34) and an interface for communicating with a vehicle network communications bus, said at least one beacon device comprises a beacon microprocessor, a beacon memory, beacon firmware, a beacon radio module and at least one of a beacon accelerometer and beacon sensors, and is capable to communicate beacon data with said wireless beacon communication device, said vehicle device is capable to communicate with said at least one remote device, and wherein said microprocessor, memory and firmware are capable to monitor and receive data from said interface, said telematics sensors (33, 34) and said wireless beacon communication device, thereby rendering said vehicle device capable of logging said data for subsequent communication to said at least one remote device.
Thermal flowmeter designed to determine and/or monitor the mass flow (Φ M) and/or flow velocity (v D) of a medium capable of flowing through a pipe with at least three sensor elements (4a, 4b, 4c) and an electronics unit, wherein each of the at least three sensor elements (4a, 4b, 4c) - is at least partially and/or temporarily in thermal contact with the medium, and - comprises a heatable temperature sensor (5a, 5b, 5c), and wherein said electronics unit is designed to - heat each of the three sensor elements (4a, 4b, 4c) with a heating power (P1, P2, P3), - measure their temperature (T1, T2, T3), and - simultaneously heat at least two of the at least three sensor elements (4a, 4b, 4c), - continuously determine the mass flow (Φ M) and/or the flow velocity (v D) of the medium, and, at the same time, - provide information on the state (D1, D2, D3) of at least one of the at least three sensor elements (4a, 4b, 4c) and, in the event that a malfunction and/or the formation of buildup occurs at at least one of the at least three sensor elements (4a, 4b, 4c), to correct the measured value for the mass flow (Φ M) and/or flow velocity (v D) and/or to generate and output a message on the state of the at least one sensor element (4a, 4b, 4c). - is at least partially and/or temporarily in thermal contact with the medium, and - comprises a heatable temperature sensor (5a, 5b, 5c), and wherein said electronics unit is designed to - heat each of the three sensor elements (4a, 4b, 4c) with a heating power (P1, P2, P3), - measure their temperature (T1, T2, T3), and - simultaneously heat at least two of the at least three sensor elements (4a, 4b, 4c), - continuously determine the mass flow (Φ M) and/or the flow velocity (v D) of the medium, and, at the same time, - provide information on the state (D1, D2, D3) of at least one of the at least three sensor elements (4a, 4b, 4c) and, in the event that a malfunction and/or the formation of buildup occurs at at least one of the at least three sensor elements (4a, 4b, 4c), to correct the measured value for the mass flow (Φ M) and/or flow velocity (v D) and/or to generate and output a message on the state of the at least one sensor element (4a, 4b, 4c).
Method for making graphene comprising the steps: (a) supplying a substrate made of silicon carbide, (b) growing a graphene layer on the substrate and (c) applying a polymer layer onto the substrate prior to growing the graphene layer, characterised by the steps: (d) heating the substrate following the application of the polymer layer to a first temperature of at least 1100°C in an inert gas atmosphere, (e) maintaining the temperature of at least 1300°C for at least 8 minutes and (f) after maintaining the temperature, heating the substrate to a second temperature of at least 1600°C in the inert gas atmosphere, resulting in the formation of a graphene layer. (a) supplying a substrate made of silicon carbide, (b) growing a graphene layer on the substrate and (c) applying a polymer layer onto the substrate prior to growing the graphene layer, (d) heating the substrate following the application of the polymer layer to a first temperature of at least 1100°C in an inert gas atmosphere, (e) maintaining the temperature of at least 1300°C for at least 8 minutes and (f) after maintaining the temperature, heating the substrate to a second temperature of at least 1600°C in the inert gas atmosphere, resulting in the formation of a graphene layer.
A method of treating a residue stream obtained from a process for the production of bisphenol-A, the method comprising: (a) contacting the residue stream with an aqueous solution of a base under conditions effective to hydrolyze at least part of said residue stream into acetone and phenol and produce an effluent stream; (b) recovering acetone from the effluent stream to produce a phenol-containing mixed phase stream which is substantially free of acetone and which contains water and unhydrolyzed heavy organic compounds; (c) treating the phenol-containing mixed phase stream with a water-immiscible organic solvent to extract phenol and unhydrolyzed heavy organic compounds into said solvent and produce an organic phase containing said solvent, phenol and unhydrolyzed heavy aromatic compounds and an aqueous phase with reduced concentrations of phenol and unhydrolyzed heavy organic compounds; and (d) recovering at least part of the phenol and the organic solvent from the organic phase. (a) contacting the residue stream with an aqueous solution of a base under conditions effective to hydrolyze at least part of said residue stream into acetone and phenol and produce an effluent stream; (b) recovering acetone from the effluent stream to produce a phenol-containing mixed phase stream which is substantially free of acetone and which contains water and unhydrolyzed heavy organic compounds; (c) treating the phenol-containing mixed phase stream with a water-immiscible organic solvent to extract phenol and unhydrolyzed heavy organic compounds into said solvent and produce an organic phase containing said solvent, phenol and unhydrolyzed heavy aromatic compounds and an aqueous phase with reduced concentrations of phenol and unhydrolyzed heavy organic compounds; and (d) recovering at least part of the phenol and the organic solvent from the organic phase.
A protection device for a gaseous-fueled Otto-engine including a throttle valve (2.1) for a mixture of gaseous fuel and air GL and a turbocharger (2.5) having a turbine (2.2) associated with a throttle device (2.3) for exhaust gas A, the protection device comprising: a detection unit (1.1) configured to detect an actual differential pressure Δp over the throttle valve (2.1), and a control unit (1.2) configured to vary the position of the throttle device (2.3) in dependence of the actual differential pressure Δp, wherein, the throttle device (2.3) for exhaust gas A is provided only downstream of the turbine (2.2) with respect to the flow direction of the exhaust gas A. a detection unit (1.1) configured to detect an actual differential pressure Δp over the throttle valve (2.1), and a control unit (1.2) configured to vary the position of the throttle device (2.3) in dependence of the actual differential pressure Δp, the throttle device (2.3) for exhaust gas A is provided only downstream of the turbine (2.2) with respect to the flow direction of the exhaust gas A.
A redox flow battery comprising: first and second cells, each said cell having first and second electrodes and a separator layer arranged between the first and second electrodes; a first circulation loop fluidly connected with the first electrode of the first cell; a polysulfide electrolyte solution having a pH 11.5 or greater contained in the first recirculation loop; a second circulation loop fluidly connected with the second electrode of the second cell; an iron electrolyte solution having a pH 3 or less contained in the second circulation loop; a third circulation loop fluidly connected with the second electrode of the first cell and the first electrode of the second cell; and an intermediator electrolyte solution contained in the third circulation loop, wherein the polysulfide electrolyte solution and the intermediator electrolyte solution in the first cell, and the iron electrolyte solution and the intermediator electrolyte solution in the second cell, are operable to undergo reversible reactions to store input electrical energy upon charging and discharge the stored electrical energy upon discharging; wherein the intermediator electrolyte solution includes at least one of quinoxaline, anthraquinone, or benzoquinone. first and second cells, each said cell having first and second electrodes and a separator layer arranged between the first and second electrodes; a first circulation loop fluidly connected with the first electrode of the first cell; a polysulfide electrolyte solution having a pH 11.5 or greater contained in the first recirculation loop; a second circulation loop fluidly connected with the second electrode of the second cell; an iron electrolyte solution having a pH 3 or less contained in the second circulation loop; a third circulation loop fluidly connected with the second electrode of the first cell and the first electrode of the second cell; and an intermediator electrolyte solution contained in the third circulation loop, wherein the polysulfide electrolyte solution and the intermediator electrolyte solution in the first cell, and the iron electrolyte solution and the intermediator electrolyte solution in the second cell, are operable to undergo reversible reactions to store input electrical energy upon charging and discharge the stored electrical energy upon discharging; wherein the intermediator electrolyte solution includes at least one of quinoxaline, anthraquinone, or benzoquinone.
An acrylic resin composition which comprises an acrylic resin as a main component and a terminally-modified polycarbonate resin having terminal groups represented by the following general formula: (In the formula, R 1 represents an alkylene group having 1 to 20 carbon atoms and R 2 to R 6 represent hydrogen, an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 12 carbon atoms or an alkenyl group having 2 to 10 carbon atoms. R 7 and R 8 represent hydrogen, fluorine, chlorine, bromine, iodine, an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 12 carbon atoms, an alkenyl group having 2 to 10 carbon atoms, an alkoxy group having 1 to 5 carbon atoms or an aralkyl group having 7 to 17 carbon atoms. "a" is an integer from 1 to 1000.)