mhurhangee/ep-ind-claims huggingface dataset:
Method of opened or closed-loop control of the welding tong movement by a welding tong drive comprising at least one primary and one secondary drive device (2, 3), wherein the primary drive device pivots at least two welding tong limbs (5, 6) with welding electrodes (7, 8) from essentially opposite sides about a pivot axis towards a welding object and presses the at least two welding tong limbs with a predetermined pressure force onto the welding object, and wherein the secondary drive device when actuated, varies a spatial position of the welding tongs and in particular of the welding tong limbs (5, 6), the method comprising the following steps: a) approach of the welding tongs at a predetermined spatial point relative to the welding object by a robot device; b) holding of the welding tongs in a fixed spatial orientation during the approach and detecting of an applied holding current of the secondary drive device with its prefix; c) actuation of the secondary drive device until contacting of the welding object with one welding tong limb (5, 6), wherein the holding current is varied by a predetermined contacting current level for the actuation of the secondary drive device for establishing contact, detecting the contact, and detecting of the corresponding contact position by the movement of the secondary drive device, the fixed spatial orientation and the predetermined spatial point, and d) closure of the welding tong by the primary drive device with a build-up of a predetermined compressive force for welding. a) approach of the welding tongs at a predetermined spatial point relative to the welding object by a robot device; b) holding of the welding tongs in a fixed spatial orientation during the approach and detecting of an applied holding current of the secondary drive device with its prefix; c) actuation of the secondary drive device until contacting of the welding object with one welding tong limb (5, 6), wherein the holding current is varied by a predetermined contacting current level for the actuation of the secondary drive device for establishing contact, detecting the contact, and detecting of the corresponding contact position by the movement of the secondary drive device, the fixed spatial orientation and the predetermined spatial point, and d) closure of the welding tong by the primary drive device with a build-up of a predetermined compressive force for welding.
A method of producing a composite nanoparticle (M-A x O y), having: generating, in an inert gas, an alloy (A-M) nanoparticle, which contains 0.1 at.% to 30 at.% of a noble metal, with the balance being a base metal and inevitable impurities, and which has a particle size of 1 nm to 100 nm, by TEM, to heat the alloy (A-M) nanoparticle and to bring the alloy (A-M) nanoparticle into contact with a supplied oxidizing gas during transportation of the alloy (A-M) nanoparticle with the inert gas, to oxidize the base metal component in the floating alloy (A-M) nanoparticle, and to phase separate into the thus-oxidized base metal component (A x O y) and the noble metal component, to thereby obtain a composite nanoparticle (M-A x O y) having one noble metal particle combined to the surface of a particulate base metal oxide (A x O y).
An acoustic composite comprising a plurality of layers, the layers including: a. an outermost top layer having a specific air flow resistance of 100 mks Rayls to 10,000 mks Rayls according to ASTM standard C522-87 or ISO standard 9053; b. a middle layer having a specific air flow resistance of 100 mks Rayls to 10,000 mks Rayls; c. a first lofted nonwoven layer sandwiched between the top layer and the middle layer, the first lofted nonwoven layer having a lower specific air flow resistance than the top layer and the middle layer; and d. a second lofted nonwoven layer attached to the middle layer opposite the first lofted nonwoven layer, the second lofted nonwoven layer having a lower specific air flow resistance than the top layer and the middle layer; wherein the acoustic composite as a whole exhibits greater sound absorption than the summation of performance of the layers individually; wherein the first lofted nonwoven layer, the second lofted nonwoven layer, or both, is formed by a lapping process. a. an outermost top layer having a specific air flow resistance of 100 mks Rayls to 10,000 mks Rayls according to ASTM standard C522-87 or ISO standard 9053; b. a middle layer having a specific air flow resistance of 100 mks Rayls to 10,000 mks Rayls; c. a first lofted nonwoven layer sandwiched between the top layer and the middle layer, the first lofted nonwoven layer having a lower specific air flow resistance than the top layer and the middle layer; and d. a second lofted nonwoven layer attached to the middle layer opposite the first lofted nonwoven layer, the second lofted nonwoven layer having a lower specific air flow resistance than the top layer and the middle layer; wherein the acoustic composite as a whole exhibits greater sound absorption than the summation of performance of the layers individually; wherein the first lofted nonwoven layer, the second lofted nonwoven layer, or both, is formed by a lapping process.
A method of making a sustained release microsphere formulation, wherein the release rate of a bioactive ingredient is manipulated by controlling the crystallinity of said bioactive ingredient, comprising the steps of: (a) sterilizing an active ingredient to form a sterilized active ingredient; wherein the active ingredient is betamethasone; (b) dissolving an encapsulating polymer in a solvent or mixtures thereof; wherein the encapsulating polymer is selected from a polylactide or polylactide-co-glycolide; (c) filtering the result of step (b); wherein said filtering.is accomplished with a hydrophobic or hydrophilic filter; (d) combining (a) and step (c) to form a dispersed phase, (e) combining the dispersed phase with a continuous phase to form the microsphere formulation. (a) sterilizing an active ingredient to form a sterilized active ingredient; wherein the active ingredient is betamethasone; (b) dissolving an encapsulating polymer in a solvent or mixtures thereof; wherein the encapsulating polymer is selected from a polylactide or polylactide-co-glycolide; (c) filtering the result of step (b); wherein said filtering.is accomplished with a hydrophobic or hydrophilic filter; (d) combining (a) and step (c) to form a dispersed phase, (e) combining the dispersed phase with a continuous phase to form the microsphere formulation.
A communication method of a mobility management, MM, function, the communication method comprising: receiving (210, 220), from a terminal, a signaling message to establish a protocol data unit, PDU, session, the signaling message including first information for selecting a session management, SM, function (140, 145) to transmit the signaling message, the first information comprising assistance information for routing; in case that information on the SM function (140, 145) corresponding to the first information is locally configured on the MM function, selecting the SM function (140, 145) based on the first information; in case that the information on the SM function (140, 145) corresponding to the first information is not locally configured on the MM function, transmitting, to a network repository function, a request message for requesting second information on additional SM functions (140, 145) corresponding to the first information, receiving, from the network repository function, the second information on additional SM functions, and selecting the SM function (140, 145) based on the first and second information; and transmitting the signaling message to the selected SM function (140, 145). receiving (210, 220), from a terminal, a signaling message to establish a protocol data unit, PDU, session, the signaling message including first information for selecting a session management, SM, function (140, 145) to transmit the signaling message, the first information comprising assistance information for routing; in case that information on the SM function (140, 145) corresponding to the first information is locally configured on the MM function, selecting the SM function (140, 145) based on the first information; in case that the information on the SM function (140, 145) corresponding to the first information is not locally configured on the MM function, transmitting, to a network repository function, a request message for requesting second information on additional SM functions (140, 145) corresponding to the first information, receiving, from the network repository function, the second information on additional SM functions, and selecting the SM function (140, 145) based on the first and second information; and transmitting the signaling message to the selected SM function (140, 145).
A hermetically-sealed package, comprising: a non-conductive substrate comprising a first major surface, a second major surface, and a cavity disposed in the first major surface, wherein the cavity comprises a recessed surface; a cover layer disposed over the cavity and attached to the first major surface of the non-conductive substrate to form a hermetically-sealed enclosure; a feedthrough comprising: a via between the recessed surface of the cavity and the second major surface of the substrate; a conductive material disposed in the via; and an external contact disposed over the via on the second major surface of the non-conductive substrate, wherein the external contact is electrically connected to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the second major surface of the non-conductive substrate by a laser bond surrounding the via; an electronic device disposed within the hermetically-sealed enclosure, wherein the electronic device comprises a device contact that is electrically connected to the conductive material disposed in the via such that the electronic device is electrically connected to the external contact; and one or more conductors disposed on the recessed surface and connected to the electronic device. a non-conductive substrate comprising a first major surface, a second major surface, and a cavity disposed in the first major surface, wherein the cavity comprises a recessed surface; a cover layer disposed over the cavity and attached to the first major surface of the non-conductive substrate to form a hermetically-sealed enclosure; a feedthrough comprising: a via between the recessed surface of the cavity and the second major surface of the substrate; a conductive material disposed in the via; and an external contact disposed over the via on the second major surface of the non-conductive substrate, wherein the external contact is electrically connected to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the second major surface of the non-conductive substrate by a laser bond surrounding the via; a via between the recessed surface of the cavity and the second major surface of the substrate; a conductive material disposed in the via; and an external contact disposed over the via on the second major surface of the non-conductive substrate, wherein the external contact is electrically connected to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the second major surface of the non-conductive substrate by a laser bond surrounding the via; an electronic device disposed within the hermetically-sealed enclosure, wherein the electronic device comprises a device contact that is electrically connected to the conductive material disposed in the via such that the electronic device is electrically connected to the external contact; and one or more conductors disposed on the recessed surface and connected to the electronic device.
A method of injecting a liquid formulation into molten polymer using apparatus comprising a melt-processing device which includes a polymer flow conduit for passage of molten polymer and an injector arranged to deliver liquid formulation via a first flow path into polymer within the melt-processing device, wherein said polymer flow conduit is part of an extruder, said method comprising: (i) selecting said apparatus comprising said polymer flow conduit for passage of molten polymer and said injector arranged to deliver liquid formulation via a first flow path into polymer in said polymer flow conduit when the apparatus is in a first configuration; (ii) with the apparatus in said first configuration, operating said injector to inject liquid formulation into molten polymer in said polymer flow conduit, via said first flow path; (iii) arranging the apparatus in a second configuration wherein said first flow path is interrupted and wherein molten polymer continues to flow in said polymer flow conduit; characterized in that (iv) with said apparatus in said second configuration, disengaging said injector from other parts of the apparatus and moving said injector away from said polymer flow conduit, so there is no physical and/or operative connection between said injector and said polymer flow conduit and, during such movement, molten polymer continues to flow in said polymer flow conduit. (i) selecting said apparatus comprising said polymer flow conduit for passage of molten polymer and said injector arranged to deliver liquid formulation via a first flow path into polymer in said polymer flow conduit when the apparatus is in a first configuration; (ii) with the apparatus in said first configuration, operating said injector to inject liquid formulation into molten polymer in said polymer flow conduit, via said first flow path; (iii) arranging the apparatus in a second configuration wherein said first flow path is interrupted and wherein molten polymer continues to flow in said polymer flow conduit; characterized in that (iv) with said apparatus in said second configuration, disengaging said injector from other parts of the apparatus and moving said injector away from said polymer flow conduit, so there is no physical and/or operative connection between said injector and said polymer flow conduit and, during such movement, molten polymer continues to flow in said polymer flow conduit.
A door lock, in particular a motor vehicle door lock, comprising at least one actuating/locking element, wherein at least two spaced bearing blocks (2, 3, 4) are provided, by means of which the actuating/locking element is supported without any backlash, characterized in that the bearing blocks respectively engage in the end sides of the actuating/locking element.
An apparatus for forming a pouch case for a secondary battery, comprising: a mold on which the pouch case with a plate shape can be placed, wherein the mold bulges upwards; a chamber that is open at bottom to the pouch case and the mold, the chamber having an inner space in which the mold can be received by lift-up of the mold or lift-down of the chamber, wherein the chamber is seated on an edge portion of the pouch case to carry out guide forming of the pouch case, and the chamber is equipped with a fluid input valve at top and a fluid output valve at bottom; and a fluid supply unit configured to supply a fluid via the fluid input valve to carry out pressure forming of the pouch case to conform to the mold; and a heating device configured to heat at least one of the chamber, the fluid, and the mold in order to heat the pouch case. a mold on which the pouch case with a plate shape can be placed, wherein the mold bulges upwards; a chamber that is open at bottom to the pouch case and the mold, the chamber having an inner space in which the mold can be received by lift-up of the mold or lift-down of the chamber, wherein the chamber is seated on an edge portion of the pouch case to carry out guide forming of the pouch case, and the chamber is equipped with a fluid input valve at top and a fluid output valve at bottom; and a fluid supply unit configured to supply a fluid via the fluid input valve to carry out pressure forming of the pouch case to conform to the mold; and a heating device configured to heat at least one of the chamber, the fluid, and the mold in order to heat the pouch case.
A membrane stack for use in transporting protons comprising: a first polymer layer, a second polymer layer, a nanostructured carbon material layer encapsulated between the first polymer layer and the second polymer layer, wherein the nanostructured carbon material is electrically isolated from an anode and a cathode by the first polymer layer and the second polymer layer, and wherein the nanostructured carbon material layer comprises a plurality of nanostructured carbon material intercalated with superacids. a first polymer layer, a second polymer layer, a nanostructured carbon material layer encapsulated between the first polymer layer and the second polymer layer, wherein the nanostructured carbon material is electrically isolated from an anode and a cathode by the first polymer layer and the second polymer layer, and wherein the nanostructured carbon material layer comprises a plurality of nanostructured carbon material intercalated with superacids.
A vehicle including a chassis, a pair of wheels supported in spaced apart relationship by the chassis for rotation about a common axis, and a pair of drive modules associated with the respective wheels, wherein the drive modules and the chassis are connected for rotation as a sub-assembly relative to the wheels about the common axis with the centre of mass of the sub-assembly below the common axis in a static equilibrium position, and wherein the centres of mass of the drive modules in the static equilibrium position are disposed below the common axis, to counterbalance the chassis and thereby allow the centre of mass of the chassis and any associated payload to be stably positioned substantially above the common axis, characterized in that each of the drive modules is housed within the respective wheel.
Method for controlling a hot beverage preparation appliance, in particular one for household purposes, having a heater, having at least one temperature sensor downstream of the heater, having a pump for conveying water within the preparation appliance, having a control device for controlling the heater and the pump, having the following steps: a) applying electric power to the heater, b) detecting a temperature change downstream of the heater after a defined time period (b) has passed, c) evaluating the detected temperature change by comparing it with a target value, d) outputting an error message or continuing/initiating the brewing operation, characterised in that the set electric power applied during a set time period in step a) corresponds to a predetermined amount of energy, which corresponds to a defined target value according to step c) for a temperature change. a) applying electric power to the heater, b) detecting a temperature change downstream of the heater after a defined time period (b) has passed, c) evaluating the detected temperature change by comparing it with a target value, d) outputting an error message or continuing/initiating the brewing operation, characterised in that the set electric power applied during a set time period in step a) corresponds to a predetermined amount of energy, which corresponds to a defined target value according to step c) for a temperature change.
Method for manufacturing a radio-frequency identification tag comprising a textile material backing intended to receive a radio-frequency identification module coupled with an electrical antenna, characterised in that in it comprises the following steps: a) depositing a layer of thermosetting adhesive material on an area of the textile material backing optionally comprising said electrical antenna, said layer of adhesive material being deposited on an area covering at least partially said electrical antenna if said textile material backing already comprises said electrical antenna; b) if said textile material backing does not comprise the electrical antenna, depositing said electrical antenna on the layer of adhesive material; c) depositing said radio-frequency identification module on the electrical antenna and the layer of adhesive material, the radio-frequency identification module being positioned so as to be coupled with the electrical antenna and at least partially in contact with the layer of adhesive material; d) folding the textile material backing or depositing a strip of textile material so as to cover said electrical antenna and said radio-frequency identification module; and e) hot-pressing the folded textile material backing or the textile material backing provided with the textile material strip so as to embed at least partially the electrical antenna and the radio-frequency identification module in the layer of adhesive material and polymerise at least partially said layer of adhesive material. a) depositing a layer of thermosetting adhesive material on an area of the textile material backing optionally comprising said electrical antenna, said layer of adhesive material being deposited on an area covering at least partially said electrical antenna if said textile material backing already comprises said electrical antenna; b) if said textile material backing does not comprise the electrical antenna, depositing said electrical antenna on the layer of adhesive material; c) depositing said radio-frequency identification module on the electrical antenna and the layer of adhesive material, the radio-frequency identification module being positioned so as to be coupled with the electrical antenna and at least partially in contact with the layer of adhesive material; d) folding the textile material backing or depositing a strip of textile material so as to cover said electrical antenna and said radio-frequency identification module; and e) hot-pressing the folded textile material backing or the textile material backing provided with the textile material strip so as to embed at least partially the electrical antenna and the radio-frequency identification module in the layer of adhesive material and polymerise at least partially said layer of adhesive material.