mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a coil component comprising the steps of: preparing a coil assembly body, in which a coil is attached on a magnetic core, and a mold body, which is formed with a cavity portion in the inside thereof and which includes at least one opening portion, putting a viscous admixture including magnetic powders and thermosetting resin and the coil assembly body in the cavity portion, pushing the put-in viscous admixture in the mold body, and thermally-curing the pushed-in viscous admixture and forming a magnetic exterior body which covers the coil assembly body, characterised in that in the step of pushing, the viscous admixture put in the cavity portion is covered by a lid member composed of a resin material, and the viscous admixture is pushed-in by pressing a press body having a thinner diameter than that of the opening portion against the lid member. preparing a coil assembly body, in which a coil is attached on a magnetic core, and a mold body, which is formed with a cavity portion in the inside thereof and which includes at least one opening portion, putting a viscous admixture including magnetic powders and thermosetting resin and the coil assembly body in the cavity portion, pushing the put-in viscous admixture in the mold body, and thermally-curing the pushed-in viscous admixture and forming a magnetic exterior body which covers the coil assembly body, characterised in that in the step of pushing, the viscous admixture put in the cavity portion is covered by a lid member composed of a resin material, and the viscous admixture is pushed-in by pressing a press body having a thinner diameter than that of the opening portion against the lid member.
A fluid product dispenser comprising a fluid product reservoir, a dispensing member, such as a pump or a valve, having a valve stem that is movable axially and/or in rotation, a pushbutton mounted on the valve stem and an attachment ring to attach the dispensing member to the fluid product reservoir, the valve stem being provided with a locking member (1; 1'; 1") comprising a support element intended to cooperate with at least one abutment (2; 2') integral with the attachment ring to lock the valve stem axially and/or in rotation so as to allow the mounting of the pushbutton without moving the valve stem, characterized in that the locking member (1; 1'; 1") comprises a socket (12; 12'; 12") engaged fixedly around the valve stem.
An antenna in package structure, comprising: a first substrate, a second substrate, and a plurality of supporting blocks spaced apart from each other, wherein the first substrate and the second substrate are disposed opposite to each other, a first antenna radiation sheet is disposed on a surface of the first substrate that faces away from or faces the second substrate, and a second antenna radiation sheet is disposed on a surface of the second substrate that faces the first substrate; the plurality of supporting blocks are located between the first substrate and the second substrate, and at least one of the first substrate and the second substrate adheres to the plurality of supporting blocks by using an adhesive layer; and the second antenna radiation sheet is located in a gap between the plurality of supporting blocks, wherein a plurality of bumps spaced apart from each other are disposed on a surface that is of the supporting blocks and that adheres to the respective substrate, and a gap between the bumps is filled with an adhesive material forming the adhesive layer. a first substrate, a second substrate, and a plurality of supporting blocks spaced apart from each other, wherein the first substrate and the second substrate are disposed opposite to each other, a first antenna radiation sheet is disposed on a surface of the first substrate that faces away from or faces the second substrate, and a second antenna radiation sheet is disposed on a surface of the second substrate that faces the first substrate; the plurality of supporting blocks are located between the first substrate and the second substrate, and at least one of the first substrate and the second substrate adheres to the plurality of supporting blocks by using an adhesive layer; and the second antenna radiation sheet is located in a gap between the plurality of supporting blocks, wherein a plurality of bumps spaced apart from each other are disposed on a surface that is of the supporting blocks and that adheres to the respective substrate, and a gap between the bumps is filled with an adhesive material forming the adhesive layer.
Apparatus comprising a frame for receiving an object such as a pile or a tube, and a vibrator intended for extracting the object from or driving it into the ground, characterized in that the vibrator comprises two vibrator modules and the frame comprises at least one lateral opening allowing the object to be inserted by a lateral translational movement into the frame between the two vibrator modules, the object being in a vertical position, and means for clamping the object that at least partially close said opening when the object is retained.
A transmitter system for a signal isolator system, comprising: an oscillator circuit coupled to a first winding of a transformer (240, 340, 440, 540) to supply a periodic signal to the first winding for transmission across an isolation barrier of the transformer (240, 340, 440, 540), wherein the first winding is an inductor of the oscillator circuit; a control switch (345, 445, 545, 630, 740), coupled between the oscillator circuit and a voltage supply, the control switch having an input for an input signal to be transmitted by the system; and accelerating means for accelerating transition of the oscillator circuit on a transition between an OFF state and an ON state as determined by the input signal, wherein the accelerating means comprises a current injection circuit (350, 550, 650, 760), coupled to the oscillator, that becomes active and supplies current to the oscillator during a transition from an OFF state of the oscillator to an ON state of the oscillator as determined by the input signal. an oscillator circuit coupled to a first winding of a transformer (240, 340, 440, 540) to supply a periodic signal to the first winding for transmission across an isolation barrier of the transformer (240, 340, 440, 540), wherein the first winding is an inductor of the oscillator circuit; a control switch (345, 445, 545, 630, 740), coupled between the oscillator circuit and a voltage supply, the control switch having an input for an input signal to be transmitted by the system; and accelerating means for accelerating transition of the oscillator circuit on a transition between an OFF state and an ON state as determined by the input signal, wherein the accelerating means comprises a current injection circuit (350, 550, 650, 760), coupled to the oscillator, that becomes active and supplies current to the oscillator during a transition from an OFF state of the oscillator to an ON state of the oscillator as determined by the input signal.
A hand-held pump apparatus comprising a peristaltic pump head and a container for a liquid to be dispensed; the pump head having: a rotatable peristaltic pump member and a flexible dispensing tube in fluid connection with the inside of the container, and a finger-actuated trigger arranged to drive the peristaltic pump member when actuated so as to cause the peristaltic pump member to turn and pump fluid through the dispensing tube; characterised in that the pump head has a thumb hole disposed through it, the thumb hole disposed within an area around which the peristaltic pump member turns when actuated. a rotatable peristaltic pump member and a flexible dispensing tube in fluid connection with the inside of the container, and a finger-actuated trigger arranged to drive the peristaltic pump member when actuated so as to cause the peristaltic pump member to turn and pump fluid through the dispensing tube; characterised in that the pump head has a thumb hole disposed through it, the thumb hole disposed within an area around which the peristaltic pump member turns when actuated.
A process for preparing alkanolamines and/or ethyleneamines in the liquid phase, by reacting ethylene glycol and/or monoethanolamine with ammonia in the presence of an amination catalyst which is obtained by reducing a catalyst precursor, wherein the preparation of the catalyst precursor comprises a step a) in which a catalyst precursor comprising one or more catalytically active components of Sn, Cu and Ni is first prepared and the catalyst precursor prepared in step a) is contacted simultaneously or successively with a soluble Ru compound and a soluble Co compound in a step b), and wherein the catalyst precursor which is prepared in step a) additionally comprises catalytically active components of Co.
An apparatus for wirelessly communicating characteristics of a down hole environment in a tubular string, with the tubular string being concentrically positioned within a well bore, the apparatus comprising: a sensor means, positioned within a pocket in the tubular string, for collecting information of the characteristic and processing the information; a sensor electronics module electrically connected to said sensor means; a first modem means for modulating the information from the sensor module; a sensor antenna coil winding (20, 122), electrically connected to said first modem means, for generating a modulated electromagnetic wave; and a probe to be concentrically positioned within the tubular string; a probe antenna coil winding (14, 126), disposed within the probe, for receiving the modulated electromagnetic wave and generating an output, the probe antenna coil winding (14, 126) being disposed about the outer periphery of the probe so that a gap is formed between the sensor antenna coil winding (20, 122) and the probe antenna coil winding (14, 126) providing a path for drilling fluids; a second modem means for demodulating the electromagnetic wave received from said sensor means; wherein the sensor antenna coil winding is disposed about the tubular string; and characterised in that the probe antenna coil winding has a first axial length and the sensor antenna coil winding has a second axial length, wherein the first axial length of the probe antenna coil winding is different from the second axial length of the sensor antenna coil winding to reduce the sensitivity to axial misalignment of the two antenna coil windings (122, 126). a sensor means, positioned within a pocket in the tubular string, for collecting information of the characteristic and processing the information; a sensor electronics module electrically connected to said sensor means; a first modem means for modulating the information from the sensor module; a sensor antenna coil winding (20, 122), electrically connected to said first modem means, for generating a modulated electromagnetic wave; and a probe to be concentrically positioned within the tubular string; a probe antenna coil winding (14, 126), disposed within the probe, for receiving the modulated electromagnetic wave and generating an output, the probe antenna coil winding (14, 126) being disposed about the outer periphery of the probe so that a gap is formed between the sensor antenna coil winding (20, 122) and the probe antenna coil winding (14, 126) providing a path for drilling fluids; a second modem means for demodulating the electromagnetic wave received from said sensor means; wherein the sensor antenna coil winding is disposed about the tubular string; and characterised in that the probe antenna coil winding has a first axial length and the sensor antenna coil winding has a second axial length, wherein the first axial length of the probe antenna coil winding is different from the second axial length of the sensor antenna coil winding to reduce the sensitivity to axial misalignment of the two antenna coil windings (122, 126).
A thermal barrier enclosure configured to interconnect a capacitance diaphragm gauge, CDG, with an electronics enclosure wherein the CDG is configured to operate at an elevated temperature, which is higher than a temperature of the electronics enclosure, the CDG being heated to the elevated temperature to reduce deposition of contaminates onto a diaphragm of the CDG, the thermal barrier enclosure comprising: a side wall surrounding the CDG; a first wall configured to mechanically engage the CDG; a second wall configured to engage the electronics enclosure, the second wall spaced apart from the first wall; a central interconnection strut connected to the first wall and the second wall, wherein the central interconnection strut defines a central through bore in which a coaxial conductor extending from the CDG is disposed, and wherein signals are transmitted between the CDG and electronics inside the electronics enclosure via the coaxial conductor; and an intermediate thermal restriction and ventilation portion interconnecting the first wall and the second wall, the intermediate thermal restriction and ventilation portion comprising a plurality of struts (810, 860) that surround the central interconnection strut characterised in that the intermediate thermal restriction and ventilation portion has a total volume between the first wall and the second wall, the central inter connection strut and the plurality of struts have a total strut volume, and the total strut volume is in a range of approximately 15 percent to approximately 50 percent of the total volume. a side wall surrounding the CDG; a first wall configured to mechanically engage the CDG; a second wall configured to engage the electronics enclosure, the second wall spaced apart from the first wall; a central interconnection strut connected to the first wall and the second wall, wherein the central interconnection strut defines a central through bore in which a coaxial conductor extending from the CDG is disposed, and wherein signals are transmitted between the CDG and electronics inside the electronics enclosure via the coaxial conductor; and an intermediate thermal restriction and ventilation portion interconnecting the first wall and the second wall, the intermediate thermal restriction and ventilation portion comprising a plurality of struts (810, 860) that surround the central interconnection strut characterised in that the intermediate thermal restriction and ventilation portion has a total volume between the first wall and the second wall, the central inter connection strut and the plurality of struts have a total strut volume, and the total strut volume is in a range of approximately 15 percent to approximately 50 percent of the total volume.
Venting device for a gearbox having a casing mounted in an engine compartment comprising a rear wall, the casing comprising a venting opening, the venting device comprising a venting duct (6,11) having a first opening associated with the venting opening and extending towards the bottom from the venting opening, the venting duct having a second opening adjacent to an expansion chamber, characterized in that said second opening has a section greater than a section of the venting opening, and the expansion chamber has a section in full opening.
A method of monitoring and controlling surface associated microbiological activity in a process stream comprising: a. connecting an apparatus to a process stream, wherein said apparatus comprises a flow cell containing a plurality of openings, wherein at least one opening is a flow cell inlet for fluid drawn from said process stream and at least one opening is a flow cell outlet for fluid exiting said flow cell, a DO (Dissolved Oxygen) probe attached to one of said openings, a cleaning device attached to one of said openings, and a valve associated with said flow cell; b. drawing fluid from said process steam into said flow cell; c. opening the valve of said apparatus to allow fluid to be drawn into said flow cell; d. measuring at least once the DO concentration of said process stream with said DO probe, and wherein said DO probe is not cleaned prior to each measurement; e. cleaning the surface of said DO probe; f. measuring at least once both the DO concentration of the fluid inside said apparatus with said DO probe; g. calculating a ΔDO reading between step (d) and step (f);. h. correlating at least said ΔDO in step (g) with surface associated microbiological activity; and i. controlling the amount of said microbiological activity by adding an effective amount of a treatment containing one or more oxidizing biocides to the process stream and/or an effective amount of a treatment containing one or more non-oxidizing biocides. a. connecting an apparatus to a process stream, wherein said apparatus comprises a flow cell containing a plurality of openings, wherein at least one opening is a flow cell inlet for fluid drawn from said process stream and at least one opening is a flow cell outlet for fluid exiting said flow cell, a DO (Dissolved Oxygen) probe attached to one of said openings, a cleaning device attached to one of said openings, and a valve associated with said flow cell; a DO (Dissolved Oxygen) probe attached to one of said openings, a cleaning device attached to one of said openings, and a valve associated with said flow cell; b. drawing fluid from said process steam into said flow cell; c. opening the valve of said apparatus to allow fluid to be drawn into said flow cell; d. measuring at least once the DO concentration of said process stream with said DO probe, and wherein said DO probe is not cleaned prior to each measurement; e. cleaning the surface of said DO probe; f. measuring at least once both the DO concentration of the fluid inside said apparatus with said DO probe; g. calculating a ΔDO reading between step (d) and step (f);. h. correlating at least said ΔDO in step (g) with surface associated microbiological activity; and i. controlling the amount of said microbiological activity by adding an effective amount of a treatment containing one or more oxidizing biocides to the process stream and/or an effective amount of a treatment containing one or more non-oxidizing biocides.
A method for preparing a metallic article made of metallic constituent elements, comprising the steps of furnishing a mixture of nonmetallic precursor compounds of the metallic constituent elements; chemically reducing the mixture of nonmetallic precursor compounds to produce an initial metallic material, without melting the initial metallic material, such that the material is not macroscopically or grossly melted so that it liquefies and loses its shape; and consolidating the initial metallic material to produce a consolidated metallic article, without melting the initial metallic material and without melting the consolidated metallic article, wherein the metallic article is a gas turbine engine disk, and wherein a net macroscopic composition of the consolidated metallic article varies spatially according to a preselected graded pattern.
A system for producing an impregnated fiber roving, the system comprising: a feed unit comprising a spool with a fiber roving; an impregnation unit configured for applying liquid matrix material onto the moving fiber roving fed from the feed unit; a matrix supply unit fluidically connected to the impregnation unit for supplying liquid matrix material to the impregnation unit; a tension sensing unit adapted to determine a tension of the fiber roving fed from the feed unit to the impregnation unit; a speed sensor for determining a speed of the fiber roving fed from the feed unit to the impregnation unit; control means (PLC-2) configured for: monitoring the tension determined by the tension sensing unit and adapting the speed of the fiber roving depending on the monitored tension; monitoring the fiber roving speed determined by the speed sensor and adapting the supply of liquid matrix material based on the monitored fiber roving speed. a feed unit comprising a spool with a fiber roving; an impregnation unit configured for applying liquid matrix material onto the moving fiber roving fed from the feed unit; a matrix supply unit fluidically connected to the impregnation unit for supplying liquid matrix material to the impregnation unit; a tension sensing unit adapted to determine a tension of the fiber roving fed from the feed unit to the impregnation unit; a speed sensor for determining a speed of the fiber roving fed from the feed unit to the impregnation unit; control means (PLC-2) configured for: monitoring the tension determined by the tension sensing unit and adapting the speed of the fiber roving depending on the monitored tension; monitoring the fiber roving speed determined by the speed sensor and adapting the supply of liquid matrix material based on the monitored fiber roving speed. monitoring the tension determined by the tension sensing unit and adapting the speed of the fiber roving depending on the monitored tension; monitoring the fiber roving speed determined by the speed sensor and adapting the supply of liquid matrix material based on the monitored fiber roving speed.
A handover handling method, wherein the method is applied to a scenario in which a handover handling apparatus is handed over from a first access and management function to a second access and management function, and the method comprises: receiving, by the handover handling apparatus, a handover command message from a first access network device, wherein the handover command message carries a non-access stratum container, wherein the non-access stratum container is from the second access and management function; obtaining, by the handover handling apparatus, a third non-access stratum, security context based on a first non-access stratum security context if the non-access stratum container comprises a key derivation indication and a value of the key derivation indication is 1; wherein the first non-access stratum security context is used by the handover handling apparatus and the first access and management function and comprises a first key; wherein the obtaining the third non-access stratum security context based on the first non-access stratum security context comprises obtaining, by the handover handling apparatus, a second key based on the first key; performing, by the handover handling apparatus, integrity verification on the non-access stratum container; wherein the handover handling method is characterized in that: if the integrity verification performed on the non-access stratum container fails, continuing, by the handover handling apparatus, to use the first non-access stratum security context used by the handover handling apparatus and the first access and management function. receiving, by the handover handling apparatus, a handover command message from a first access network device, wherein the handover command message carries a non-access stratum container, wherein the non-access stratum container is from the second access and management function; obtaining, by the handover handling apparatus, a third non-access stratum, security context based on a first non-access stratum security context if the non-access stratum container comprises a key derivation indication and a value of the key derivation indication is 1; wherein the first non-access stratum security context is used by the handover handling apparatus and the first access and management function and comprises a first key; wherein the obtaining the third non-access stratum security context based on the first non-access stratum security context comprises obtaining, by the handover handling apparatus, a second key based on the first key; performing, by the handover handling apparatus, integrity verification on the non-access stratum container; wherein the handover handling method is characterized in that: if the integrity verification performed on the non-access stratum container fails, continuing, by the handover handling apparatus, to use the first non-access stratum security context used by the handover handling apparatus and the first access and management function.