mhurhangee/ep-ind-claims huggingface dataset:
A process for making a substantially cuboid reclosable flexible package of personal hygiene absorbent articles (1,100) selected from sanitary napkins, pantyliners and incontinence pads free of an individual wrapping pouch, having a front wall, a rear wall, two opposed side walls (83,83') and two opposed end walls (84,84'), comprising the steps of: (i) providing personal hygiene absorbent articles (1,100) comprising a garment attachment adhesive covered by a removable release paper; (ii) folding inwardly each individual absorbent article (1,100) into a folded article wherein the removable release paper is exposed; (iii) providing each folded article with closure means for securing said folding; (iv) stacking at least two folded articles; (v) wrapping a wrapping material around the resulting stack of folded articles; (vi) sealing the wrapping material at one position on either the front, the rear, or one of the two side walls (83,83'), and on the two end walls (84,84'); (vii) providing at least one wall of the package with a tear-open flap limited by at least one tearing line. (i) providing personal hygiene absorbent articles (1,100) comprising a garment attachment adhesive covered by a removable release paper; (ii) folding inwardly each individual absorbent article (1,100) into a folded article wherein the removable release paper is exposed; (iii) providing each folded article with closure means for securing said folding; (iv) stacking at least two folded articles; (v) wrapping a wrapping material around the resulting stack of folded articles; (vi) sealing the wrapping material at one position on either the front, the rear, or one of the two side walls (83,83'), and on the two end walls (84,84'); (vii) providing at least one wall of the package with a tear-open flap limited by at least one tearing line.
An apparatus comprising: a first transceiver that communicates with a mobile communication network via a first access network; a second transceiver that communicates with the mobile communication network via a second access network; and a processor that: sends a request to start authentication via the second access network; receives an extensible authentication protocol ("EAP") request with a first expanded type via the second access network; sends an EAP response via the second access network, the EAP response comprising the first expanded type, a first set of parameters, and a first message, wherein the first message is a same type of message usable to establish a connection with the mobile communication network over the first access network. a first transceiver that communicates with a mobile communication network via a first access network; a second transceiver that communicates with the mobile communication network via a second access network; and a processor that: sends a request to start authentication via the second access network; receives an extensible authentication protocol ("EAP") request with a first expanded type via the second access network; sends an EAP response via the second access network, the EAP response comprising the first expanded type, a first set of parameters, and a first message, wherein the first message is a same type of message usable to establish a connection with the mobile communication network over the first access network. sends a request to start authentication via the second access network; receives an extensible authentication protocol ("EAP") request with a first expanded type via the second access network; sends an EAP response via the second access network, the EAP response comprising the first expanded type, a first set of parameters, and a first message, wherein the first message is a same type of message usable to establish a connection with the mobile communication network over the first access network.
A tamperproof dosage form article comprising: a core, wherein said core comprises a first end and a second end; a first shell on at least a portion of the first end of the core; a second shell on at least a portion of the second end of the core, and wherein said core is a caplet or a tablet; characterized in that the first and second shells (5,6) comprise one or more locking protrusion(s) and/or recess(es) extending along at least a portion of the circumference and inner surface of said shells (5,6), and said core comprises one or more locking recess(es) and/or protrusions, and wherein at least a portion of said shells (5,6) proximal to the locking protrusion(s) and/or recess(es) is elastically deformable and arranged such that each one locking protrusion and/or recess(es) of said shells is snapped into each one of the locking recess(es) and/or protrusion(s) of the core, once inserted over a predetermined portion of the core to provide a locking force between the core and the shells (5,6), wherein the opening force to separate the shells from the core is greater than the fracture strength of the core and/or shells, and wherein a gap is formed between the first and second shells to expose a portion of the core or wherein the first and second shells abut each other. a core, wherein said core comprises a first end and a second end; a first shell on at least a portion of the first end of the core; a second shell on at least a portion of the second end of the core, and wherein said core is a caplet or a tablet; characterized in that the first and second shells (5,6) comprise one or more locking protrusion(s) and/or recess(es) extending along at least a portion of the circumference and inner surface of said shells (5,6), and said core comprises one or more locking recess(es) and/or protrusions, and wherein at least a portion of said shells (5,6) proximal to the locking protrusion(s) and/or recess(es) is elastically deformable and arranged such that each one locking protrusion and/or recess(es) of said shells is snapped into each one of the locking recess(es) and/or protrusion(s) of the core, once inserted over a predetermined portion of the core to provide a locking force between the core and the shells (5,6), wherein the opening force to separate the shells from the core is greater than the fracture strength of the core and/or shells, and wherein a gap is formed between the first and second shells to expose a portion of the core or wherein the first and second shells abut each other.
A power electronics circuit comprising: a switching circuit comprising a first solid-state device coupled in series with a second solid-state device, with at least the first solid-state device comprising a solid-state switch having a gate terminal; a current sense transformer according to claim 11, positioned between the first and second solid-state devices and configured to sense a current flowing on the conductive trace connecting the first and second solid-state devices; a controller coupled to the switching circuit and the current sense transformer so as to be in operable communication therewith, the controller programmed to: receive a current sense signal from the current sense transformer indicative of the current flowing on the conductive trace; and modulate a gate voltage to the gate terminal of the first solid-state device based on the received current sense signal, so as to control switching thereof; and the printed circuit board, PCB, having mounted thereon the switching circuit and the current sense transformer. a switching circuit comprising a first solid-state device coupled in series with a second solid-state device, with at least the first solid-state device comprising a solid-state switch having a gate terminal; a current sense transformer according to claim 11, positioned between the first and second solid-state devices and configured to sense a current flowing on the conductive trace connecting the first and second solid-state devices; a controller coupled to the switching circuit and the current sense transformer so as to be in operable communication therewith, the controller programmed to: receive a current sense signal from the current sense transformer indicative of the current flowing on the conductive trace; and modulate a gate voltage to the gate terminal of the first solid-state device based on the received current sense signal, so as to control switching thereof; and the printed circuit board, PCB, having mounted thereon the switching circuit and the current sense transformer. receive a current sense signal from the current sense transformer indicative of the current flowing on the conductive trace; and modulate a gate voltage to the gate terminal of the first solid-state device based on the received current sense signal, so as to control switching thereof; and the printed circuit board, PCB, having mounted thereon the switching circuit and the current sense transformer.
A pharmaceutical formulation comprising: i) an effective amount of a synthetic messenger ribonucleic acid (mRNA) encoding a granulocyte colony-stimulating factor (G-CSF) polypeptide or an insulin polypeptide, said mRNA comprising at least two nucleoside modifications; and ii) a pharmaceutically acceptable carrier, wherein i) the mRNA comprises pseudouridine, 5-methyl-cytidine or a combination thereof, or ii) wherein the mRNA does not comprise a substantial amount of a nucleotide or nucleotides selected from the group consisting of cytidine, and a combination of uridine and cytidine, and wherein the formulation is for use in a therapeutic method comprising repeated intravenous administration of said formulation to a mammalian subject in need thereof. i) an effective amount of a synthetic messenger ribonucleic acid (mRNA) encoding a granulocyte colony-stimulating factor (G-CSF) polypeptide or an insulin polypeptide, said mRNA comprising at least two nucleoside modifications; and ii) a pharmaceutically acceptable carrier, wherein i) the mRNA comprises pseudouridine, 5-methyl-cytidine or a combination thereof, or ii) wherein the mRNA does not comprise a substantial amount of a nucleotide or nucleotides selected from the group consisting of cytidine, and a combination of uridine and cytidine, and wherein the formulation is for use in a therapeutic method comprising repeated intravenous administration of said formulation to a mammalian subject in need thereof.
An agricultural machine arrangement comprising at least one tractor and at least one implement adapted to the tractor and a driver assist system which optimises operation of the tractor and the respective implement and which has a computing unit and at least one display unit, wherein the computing unit processes information generated by sensor systems internal to the machine, external information and information which can be stored in the computing unit and wherein the tractor and the at least one implement include a control device for open-loop and closed-loop control of the tractor and the implement, wherein the implement is in the form of a ground working device, characterised in that the driver assist system is of such a structure that it forms an automatic tractor setting means and/or an automatic implement setting means, and the respective automatic setting means (15, 16) independently of each other or in dependence on each other effect optimisation of the mode of operation of the tractor and the at least one ground working device and wherein the driver assist system includes selectable strategies, and the selectable strategies are tractor-specific strategies, implement-specific strategies and/or a combination of both.
An apparatus comprising: an enclosure defining a first cavity adjacent an exterior surface of a wall and a second cavity adjacent an interior surface of the wall, opposite the exterior surface, the second cavity having environmental protection; a dividing wall protruding from the exterior surface of the wall, the dividing wall dividing the first cavity into an indicator housing and a switch housing; a panel coupled to an exterior protrusion of the enclosure and spaced apart from the wall of the enclosure; a hand-operated switch actuator coupled to the panel and spaced apart from the wall, the switch actuator having a head, a stem coupled to an inner surface of the head, and a magnet attached to the stem and positioned within the switch housing of the first cavity; and a magnetically-responsive switch disposed within the second cavity of the enclosure opposite the switch actuator, the magnet to operate the magnetically-responsive switch through the wall when the switch actuator is in a first position. an enclosure defining a first cavity adjacent an exterior surface of a wall and a second cavity adjacent an interior surface of the wall, opposite the exterior surface, the second cavity having environmental protection; a dividing wall protruding from the exterior surface of the wall, the dividing wall dividing the first cavity into an indicator housing and a switch housing; a panel coupled to an exterior protrusion of the enclosure and spaced apart from the wall of the enclosure; a hand-operated switch actuator coupled to the panel and spaced apart from the wall, the switch actuator having a head, a stem coupled to an inner surface of the head, and a magnet attached to the stem and positioned within the switch housing of the first cavity; and a magnetically-responsive switch disposed within the second cavity of the enclosure opposite the switch actuator, the magnet to operate the magnetically-responsive switch through the wall when the switch actuator is in a first position.
A process for the purification of TiCl 4 comprising: (a) contacting vanadium-containing crude TiCl 4 with tin to produce purified TiCl 4, SnCl 4, and solid vanadium; and (b) separating the solid vanadium from the purified TiCl 4 and SnCl 4, wherein the contacting and separating steps are performed by a two stage process comprising: (i) reducing the vanadium content in the vanadium-containing crude TiCl 4 by contacting the vanadium-containing crude TiCl 4 with a less than excess amount of tin to produce partially purified TiCl 4, SnCl 4, and solid vanadium; (ii) separating the solid vanadium from the partially purified TiCl 4 and SnCl 4; (iii) further reducing the vanadium content in the partially purified TiCl 4 by contacting the partially purified TiCl 4 with an excess of tin to produce purified TiCl 4, SnCl 4, solid vanadium, and excess tin; and (iv) separating the solid vanadium and excess tin from the purified TiCl 4 and SnCl 4. (a) contacting vanadium-containing crude TiCl 4 with tin to produce purified TiCl 4, SnCl 4, and solid vanadium; and (b) separating the solid vanadium from the purified TiCl 4 and SnCl 4, wherein the contacting and separating steps are performed by a two stage process comprising: (i) reducing the vanadium content in the vanadium-containing crude TiCl 4 by contacting the vanadium-containing crude TiCl 4 with a less than excess amount of tin to produce partially purified TiCl 4, SnCl 4, and solid vanadium; (ii) separating the solid vanadium from the partially purified TiCl 4 and SnCl 4; (iii) further reducing the vanadium content in the partially purified TiCl 4 by contacting the partially purified TiCl 4 with an excess of tin to produce purified TiCl 4, SnCl 4, solid vanadium, and excess tin; and (iv) separating the solid vanadium and excess tin from the purified TiCl 4 and SnCl 4. (i) reducing the vanadium content in the vanadium-containing crude TiCl 4 by contacting the vanadium-containing crude TiCl 4 with a less than excess amount of tin to produce partially purified TiCl 4, SnCl 4, and solid vanadium; (ii) separating the solid vanadium from the partially purified TiCl 4 and SnCl 4; (iii) further reducing the vanadium content in the partially purified TiCl 4 by contacting the partially purified TiCl 4 with an excess of tin to produce purified TiCl 4, SnCl 4, solid vanadium, and excess tin; and (iv) separating the solid vanadium and excess tin from the purified TiCl 4 and SnCl 4.
Implant to be used for the occlusion of aneurysms in blood vessels in the region of vascular branches (X, Y), in particular bifurcation aneurysms, with the implant being in an expanded state in which it is implanted in the blood vessel and in a contracted state in which it is movable through the blood vessel, with the implant having a proximal fixing section by means of which the implant can be secured to the wall of a blood vessel, a distal section where the implant is radially widened relative to the fixing section and which is intended for placement in or in front of the aneurysm, and having a transition section located between the fixing section and the distal section, wherein the implant is composed of interconnected or intersecting filaments and in the transition section one or more filaments starting from the fixing section or distal section come together centrally, the filaments in the transition section running at least in some areas through a sleeve, characterized in that one or more filaments have an eyelet in the transition section, the sleeve extending at least in sections through the eyelet and the eyelet restricting the sleeve in its mobility in the longitudinal direction of the implant.
An electron beam wafer imaging system, comprising: an emitter for emitting an electron beam, wherein the emitter is a cold field emitter, a thermally assisted field emitter, or a Schottky emitter; a power supply for applying a voltage between the emitter and the column housing of at least 20 kV; an objective lens (360; 560) for focusing the electron beam on a wafer, wherein the objective lens has a magnetic lens component and an electrostatic lens component, wherein the magnetic lens component and the electrostatic lens component substantially overlap each other, wherein the electrostatic lens component has a first electrode, a second electrode and a third electrode; and a control electrode positioned along an optical axis from the position of the third electrode to the position of a specimen stage, wherein the control electrode is configured for control of signal electrons; a controller to switch between a first operational mode and a second operational mode, wherein the controller is connected to a further power supply for switching between the first operational mode and the second operational mode. an emitter for emitting an electron beam, wherein the emitter is a cold field emitter, a thermally assisted field emitter, or a Schottky emitter; a power supply for applying a voltage between the emitter and the column housing of at least 20 kV; an objective lens (360; 560) for focusing the electron beam on a wafer, wherein the objective lens has a magnetic lens component and an electrostatic lens component, wherein the magnetic lens component and the electrostatic lens component substantially overlap each other, wherein the electrostatic lens component has a first electrode, a second electrode and a third electrode; and a control electrode positioned along an optical axis from the position of the third electrode to the position of a specimen stage, wherein the control electrode is configured for control of signal electrons; a controller to switch between a first operational mode and a second operational mode, wherein the controller is connected to a further power supply for switching between the first operational mode and the second operational mode.
A method for manufacturing a RFID card product with several laminated layers (10, 12, 20, 22, 23), said method comprising: a first pre-lamination step including: - providing a lamination plate having a recess; - providing a second layer; - placing the second layer in contact at least on one side with the lamination plate; and - laminating the second layer using the lamination plate such that a raised portion is being formed on the second layer in the recess of the lamination plate; an assembling step including: - providing a first layer having an opening; - placing the first layer in contact with the second layer such that the raised portion of the second layer is placed in the opening of the first layer; and a lamination step including: - laminating the assembled first and second layers (10, 12) together such that the raised portion of the second layer fills at least partially the opening of the first layer such that the first layer of the resulting card product has an even outer surface and no collapse at the location of the opening of the first layer. a first pre-lamination step including: - providing a lamination plate having a recess; - providing a second layer; - placing the second layer in contact at least on one side with the lamination plate; and - laminating the second layer using the lamination plate such that a raised portion is being formed on the second layer in the recess of the lamination plate; - providing a lamination plate having a recess; - providing a second layer; - placing the second layer in contact at least on one side with the lamination plate; and - laminating the second layer using the lamination plate such that a raised portion is being formed on the second layer in the recess of the lamination plate; an assembling step including: - providing a first layer having an opening; - placing the first layer in contact with the second layer such that the raised portion of the second layer is placed in the opening of the first layer; and - providing a first layer having an opening; - placing the first layer in contact with the second layer such that the raised portion of the second layer is placed in the opening of the first layer; and a lamination step including: - laminating the assembled first and second layers (10, 12) together such that the raised portion of the second layer fills at least partially the opening of the first layer such that the first layer of the resulting card product has an even outer surface and no collapse at the location of the opening of the first layer. - laminating the assembled first and second layers (10, 12) together such that the raised portion of the second layer fills at least partially the opening of the first layer such that the first layer of the resulting card product has an even outer surface and no collapse at the location of the opening of the first layer.
An in vitro method of analyzing a genetically modified T cell to detect at least one contaminant, wherein said at least one contaminant is selected from the group consisting of replication competent lentivirus, p24, vesicular stomatitis virus-G (VSV-G) nucleic acid and human immunodeficiency virus gag; said method comprising a) centrifuging a culture of said modified T cell, performing a PCR assay assessing for VSV-G and HIVgag on the centrifugation pellet, and performing ELISA for p24 on the centrifugation supernatant to detect replication competent lentivirus; b) performing an ELISA to detect p24; or c) performing quantitative PCR assay to detect VSV-G nucleic acid; wherein the genetically modified T cell comprises a nucleic acid encoding a chimeric antigen receptor, wherein the CAR comprises an antigen binding domain, a transmembrane domain, a costimulatory signaling region, and a signaling domain. a) centrifuging a culture of said modified T cell, performing a PCR assay assessing for VSV-G and HIVgag on the centrifugation pellet, and performing ELISA for p24 on the centrifugation supernatant to detect replication competent lentivirus; b) performing an ELISA to detect p24; or c) performing quantitative PCR assay to detect VSV-G nucleic acid;