mhurhangee/ep-ind-claims huggingface dataset:
A particle for delivery of a polynucleotide to a target cell, generated according to a method comprising: (a) contacting the polynucleotide with a composition comprising 1,2-Dilauroyl-sn-Glicero-3-Phosphoethanolamine (DLPE) and 1,2-Dilauroyl-sn-Glicero-3-Glycerol (DLPG), wherein said DLPE and DLPG condense the polynucleotide by electrostatic interactions to generate a complex, without generation of liposomes; and (b) covalently binding said complex to a glycosaminoglycan targeting moiety at a pH equal to or below 4.5 (± 5%), wherein the targeting moiety comprises Hyaluronic Acid. (a) contacting the polynucleotide with a composition comprising 1,2-Dilauroyl-sn-Glicero-3-Phosphoethanolamine (DLPE) and 1,2-Dilauroyl-sn-Glicero-3-Glycerol (DLPG), wherein said DLPE and DLPG condense the polynucleotide by electrostatic interactions to generate a complex, without generation of liposomes; and (b) covalently binding said complex to a glycosaminoglycan targeting moiety at a pH equal to or below 4.5 (± 5%),
Infrared measuring device with an infrared beam source for emitting an infrared beam, a reference chamber, in which a reference gas is held, a sample chamber, in which a sample gas to be analyzed is held, an infrared detector and an evaluation device, wherein, in a first operating position, the infrared beam penetrates the reference chamber and the infrared beam emerging from the reference chamber can be received by the infrared detector, wherein, in a second operating position, the infrared beam penetrates the sample chamber and the infrared beam emerging from the sample chamber can be received by the infrared detector, wherein the reference chamber and the sample chamber are adjustable as a unit between the at least two operating positions, wherein a beam entry area of the reference chamber and a beam entry area of the sample chamber are respectively covered by a transparent covering and wherein a beam exit area of the reference chamber and a beam exit area of the sample chamber are respectively covered by a transparent covering, wherein the covering of the beam entry area of the reference chamber and the covering of the beam entry area of the sample chamber are formed by a common first transparent covering and wherein the covering of the beam exit area of the reference chamber and the covering of the beam exit area of the sample chamber are formed by a common second transparent covering, characterized in that the first transparent covering is provided on its side facing away from the reference chamber and the sample chamber with a common first outer antireflective layer.
An antenna device comprising: at least first and second electrically conductive tracks (2, 3) disposed in at least first and second planes (4, 5) in a laminate dielectric structure, each electrically conductive track (2, 3) having at least two electrical connection points on an external surface of the laminate dielectric structure, wherein each of the first and second electrically conductive tracks (2, 3) are separate tracks within the antenna device each having different inductive values, and wherein the at least first and second electrically conductive tracks (2, 3) are configured such that the antenna device exhibits both capacitive and inductive properties such that, in use, the antenna device is reconfigurable between a plurality of different antenna types by connecting the electrical connection points to external circuitry in different configurations, characterised in that one or other or both of the at least first and second tracks (2, 3) is or are disposed in both the first and the second planes (4, 5), crossing from one plane to another by way of vias or other electrical connections between the planes. at least first and second electrically conductive tracks (2, 3) disposed in at least first and second planes (4, 5) in a laminate dielectric structure, each electrically conductive track (2, 3) having at least two electrical connection points on an external surface of the laminate dielectric structure, wherein each of the first and second electrically conductive tracks (2, 3) are separate tracks within the antenna device each having different inductive values, and wherein the at least first and second electrically conductive tracks (2, 3) are configured such that the antenna device exhibits both capacitive and inductive properties such that, in use, the antenna device is reconfigurable between a plurality of different antenna types by connecting the electrical connection points to external circuitry in different configurations, characterised in that one or other or both of the at least first and second tracks (2, 3) is or are disposed in both the first and the second planes (4, 5), crossing from one plane to another by way of vias or other electrical connections between the planes.
A process for producing water-absorbing polymer particles by polymerizing a monomer solution or suspension comprising a) an ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) at least one ethylenically unsaturated monomer copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, in a polymerization reactor with at least two axially parallel rotating shafts, which comprises performing the polymerization in the presence of an inert gas and under positive pressure, the positive pressure in the polymerization reactor being from 15 to 500 mbar. a) an ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) at least one ethylenically unsaturated monomer copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers,
A headphone device comprising: a left speaker array and a right speaker array each formed of a plurality of speaker units arranged in a single circle instead of a double circle or a triple circle, arranged in use to surround and not block an auricle of a listener, wherein each speaker array reproduces, using a wave field synthesis, a sound field inside a closed curved surface having a sound pressure and particle velocity at a number of points on the closed curved surface, the closed curved surface being in the vicinity of the auricle in use. a left speaker array and a right speaker array each formed of a plurality of speaker units arranged in a single circle instead of a double circle or a triple circle, arranged in use to surround and not block an auricle of a listener, wherein each speaker array reproduces, using a wave field synthesis, a sound field inside a closed curved surface having a sound pressure and particle velocity at a number of points on the closed curved surface, the closed curved surface being in the vicinity of the auricle in use.
System for visualizing tissue, the system comprising: an endoscope comprising a drive shaft, a pair of gears (1630, 1635) and a rotatabale drive collar: and a disposable drive tube comprising an elongated tube having a helical thread disposed on an exterior surface of the elongated tube; wherein the drive shaft is configured to deliver rotary motion to the drive tube via the pairs of gears (1630, 1635) and the rotatable drive collar, wherein the helical thread is partially deformable and has a height to engage an interior side wall of a bodily passageway, and characterised in that the disposable drive tube is releasably mounted to rotatable drive collar by a bayonet mount formed by: the disposable drive tube comprising an extension having a radially-extending pin mounted thereto, a shoulder formed distal to the radially-extending pin, a ring and a compression spring biasing the ring proximally, away from shoulder, and the rotatable drive collar comprising a shoulder for opposing the ring, and a C-shaped slot for receiving the pin, wherein the C-shaped slot comprises a first proximally-extending section, a second circumferentially-extending section and a third distally-extending section. an endoscope comprising a drive shaft, a pair of gears (1630, 1635) and a rotatabale drive collar: and a disposable drive tube comprising an elongated tube having a helical thread disposed on an exterior surface of the elongated tube; wherein the drive shaft is configured to deliver rotary motion to the drive tube via the pairs of gears (1630, 1635) and the rotatable drive collar, wherein the helical thread is partially deformable and has a height to engage an interior side wall of a bodily passageway, and characterised in that the disposable drive tube is releasably mounted to rotatable drive collar by a bayonet mount formed by: the disposable drive tube comprising an extension having a radially-extending pin mounted thereto, a shoulder formed distal to the radially-extending pin, a ring and a compression spring biasing the ring proximally, away from shoulder, and the rotatable drive collar comprising a shoulder for opposing the ring, and a C-shaped slot for receiving the pin, wherein the C-shaped slot comprises a first proximally-extending section, a second circumferentially-extending section and a third distally-extending section. the disposable drive tube comprising an extension having a radially-extending pin mounted thereto, a shoulder formed distal to the radially-extending pin, a ring and a compression spring biasing the ring proximally, away from shoulder, and the rotatable drive collar comprising a shoulder for opposing the ring, and a C-shaped slot for receiving the pin, wherein the C-shaped slot comprises a first proximally-extending section, a second circumferentially-extending section and a third distally-extending section.
A control device for controlling charging of a vehicle's onboard battery with power supplied from a power supply located outside the vehicle via a charge cable, the control device mounted in the vehicle, wherein the control device comprises: a first microcomputer configured to receive a control signal from a signal generating unit in the charge cable, said first microcomputer configured to turn on a charge mode signal for controlling charging of the vehicle's onboard battery upon detecting an "on" edge of the control signal, and configured to turn off the charge mode signal upon detecting that a charge completion signal, that is output from a second microcomputer for indicating that the vehicle's on-board battery is being charged, is turned off, or to turn off the charge mode signal upon detecting an abnormality after turning on the charge mode signal; and the second microcomputer configured to turn on the charge completion signal to charge the vehicle's onboard battery based on power supplied from the outside power supply via the charge cable upon detecting the charge mode signal that is turned on by the first microcomputer, and configured to turn off the charge completion signal when the charging is complete; wherein the first microcomputer is further configured to turn the charge mode signal on again upon detecting that the charge mode signal was turned off due to the abnormality before detection of the charge completion signal being turned off. a first microcomputer configured to receive a control signal from a signal generating unit in the charge cable, said first microcomputer configured to turn on a charge mode signal for controlling charging of the vehicle's onboard battery upon detecting an "on" edge of the control signal, and configured to turn off the charge mode signal upon detecting that a charge completion signal, that is output from a second microcomputer for indicating that the vehicle's on-board battery is being charged, is turned off, or to turn off the charge mode signal upon detecting an abnormality after turning on the charge mode signal; and the second microcomputer configured to turn on the charge completion signal to charge the vehicle's onboard battery based on power supplied from the outside power supply via the charge cable upon detecting the charge mode signal that is turned on by the first microcomputer, and configured to turn off the charge completion signal when the charging is complete; wherein the first microcomputer is further configured to turn the charge mode signal on again upon detecting that the charge mode signal was turned off due to the abnormality before detection of the charge completion signal being turned off.
Optical sensing layer for detecting a chemical species, said optical sensing layer comprising: - a substrate; characterised in that said optical sensing layer comprises - a mesoporous matrix disposed on the substrate in a layer having a thickness of 1-50 μm, preferably 5-40 μm; - a microporous matrix disposed within the mesoporous matrix, the microporous matrix being a layer having a thickness of less than 100 nm and comprising an indicator dye dispersed therein, said indicator dye exhibiting changes in its optical properties in response to the presence of said chemical species. - a substrate; - a mesoporous matrix disposed on the substrate in a layer having a thickness of 1-50 μm, preferably 5-40 μm; - a microporous matrix disposed within the mesoporous matrix, the microporous matrix being a layer having a thickness of less than 100 nm and comprising an indicator dye dispersed therein, said indicator dye exhibiting changes in its optical properties in response to the presence of said chemical species.
Method for adjusting mattresses or chair-beds to an operating position, comprising the steps of: providing a bed, having a bed frame and a bed base or a board and a mattress (13, 34, 61, 71) equipped with a pivot pin projecting out of its centerline, with an adjustment mechanism, lifting the displacement means to the pivot pins of the mattress (13, 34, 61, 71), coupling the pivot pin of the mattress (13, 34, 61, 71) with a hinge pin of the adjustment mechanism, lifting the mattress (13, 34, 61, 71) to such a height as to allow the mattress (13, 34, 61, 71) to be pivoted about its centerline, pivoting the mattress (13, 34, 61, 71) about its pivot pins to an upturned position, lowering the mattress (13, 34, 61, 71) until it rests on the bed base-board supported by feet, lifting the bed frame, the latter intercepting means for pushing the adjustment mechanism, holding the bed frame-base in position by means of bed base supporting feet. exposing the upward side of the mattress (13, 34, 61, 71), intercepting the bed frame-base with the interception means, lowering the bed frame-base with the mattress (13, 34, 61, 71) with the interception means in the operating position. providing a bed, having a bed frame and a bed base or a board and a mattress (13, 34, 61, 71) equipped with a pivot pin projecting out of its centerline, with an adjustment mechanism, lifting the displacement means to the pivot pins of the mattress (13, 34, 61, 71), coupling the pivot pin of the mattress (13, 34, 61, 71) with a hinge pin of the adjustment mechanism, lifting the mattress (13, 34, 61, 71) to such a height as to allow the mattress (13, 34, 61, 71) to be pivoted about its centerline, pivoting the mattress (13, 34, 61, 71) about its pivot pins to an upturned position, lowering the mattress (13, 34, 61, 71) until it rests on the bed base-board supported by feet, lifting the bed frame, the latter intercepting means for pushing the adjustment mechanism, holding the bed frame-base in position by means of bed base supporting feet. exposing the upward side of the mattress (13, 34, 61, 71), intercepting the bed frame-base with the interception means, lowering the bed frame-base with the mattress (13, 34, 61, 71) with the interception means in the operating position.
A method for information transmission, comprising: in a process of a terminal initial accessing, an upper level access node belonging to a hierarchical architecture access network notifying a final access node belonging to the same hierarchical architecture access network of information of a mobility management entity, MME, to which the terminal accesses, wherein, in the process of the terminal initial accessing, the step of the upper level access node notifying the final access node of the information of the MME to which the terminal accesses comprises: in the process of the terminal initial accessing, after the upper level access node receives an initial context setup request message sent by the MME to which the terminal accesses, the information of the MME is carried in an initial access signaling sent by the upper level access node to the final access node. in a process of a terminal initial accessing, an upper level access node belonging to a hierarchical architecture access network notifying a final access node belonging to the same hierarchical architecture access network of information of a mobility management entity, MME, to which the terminal accesses, wherein, in the process of the terminal initial accessing, the step of the upper level access node notifying the final access node of the information of the MME to which the terminal accesses comprises: in the process of the terminal initial accessing, after the upper level access node receives an initial context setup request message sent by the MME to which the terminal accesses, the information of the MME is carried in an initial access signaling sent by the upper level access node to the final access node.
An intermediate section for a supporting structure of a horizontal axis wind generator, the section comprising an upper mount and a lower mount, wherein the upper mount is configured for coupling the intermediate section to an upper section and the lower mount is configured for coupling the intermediate section to a lower section of the supporting structure, in a substantially vertical direction, wherein, the intermediate section has a size in a substantially horizontal direction, which is greater than that of the upper and / or the lower section, wherein the intermediate section is configured to accommodate modules of a sub-system of the wind generator, characterized in that the intermediate section is assembled from a plurality of sub-units.
A method for operating a wireless narrowband receiver, receiving a signal on a channel of the wireless narrowband receiver, wherein at least a portion of the signal is received from a first wireless transmitter, determining if interference is present on the channel and one or more errors are detected in receiving the signal; in response to determining that interference is present on the channel and one or more errors are detected in receiving the signal: measuring received signal strength of one or more neighboring frequencies of the channel; storing the measurements of received signal strength of the one or more neighboring frequencies in a memory; wherein the measurements are used to determine a source type of the interference; wherein the source type of interference is a wideband transmitter or a narrowband transmitter; wherein the wireless narrowband receiver includes a rotator operable to rotate a measured frequency of the received signal; wherein said measuring received signal strength of one or more neighboring frequencies of the channel comprises using the rotator to rotate the measured frequency of the received signal to the one or more neighboring frequencies of the channel by modifying the sign and number of steps through the rotator waveform. measuring received signal strength of one or more neighboring frequencies of the channel; storing the measurements of received signal strength of the one or more neighboring frequencies in a memory;
A stator core comprising a plurality of stator segments assembled together, each stator segment comprising: only one tooth section; a back iron section, the back iron section comprising a retainer interface being a cut-out having a dovetail shape, the retainer interface being located at a peripheral surface of the back iron; and an end cap comprising an electrically non-conductive material, characterized in that the end cap comprises an insulator engaging segment for retaining one or more insulating elements loose fit into respective notches between stator teeth prior to winding, wherein the end cap comprises an end cap dovetail interface, the end cap dovetail interface being at least partially dovetail in shape and being a dovetail shaped groove, and wherein a periphery of the end cap dovetail interface is configured to coincide with a periphery of the retainer interface. only one tooth section; a back iron section, the back iron section comprising a retainer interface being a cut-out having a dovetail shape, the retainer interface being located at a peripheral surface of the back iron; and an end cap comprising an electrically non-conductive material, characterized in that the end cap comprises an insulator engaging segment for retaining one or more insulating elements loose fit into respective notches between stator teeth prior to winding, wherein the end cap comprises an end cap dovetail interface, the end cap dovetail interface being at least partially dovetail in shape and being a dovetail shaped groove, and wherein a periphery of the end cap dovetail interface is configured to coincide with a periphery of the retainer interface.
A method of manufacturing a carbonaceous material for a non-aqueous electrolyte secondary battery negative electrode, comprising: an alkali impregnating step of adding 3.0 wt.% to 40.0 wt.% of a compound containing an alkali metal element to a plant-derived char to obtain a plant-derived char impregnated with alkali; a heat treating step of heat treating the plant-derived char impregnated with alkali at 500°C to 1000°C in a non-oxidizing gas atmosphere to obtain an alkali-treated carbonaceous material precursor; a gas phase de-mineralizing step of heat treating the alkali-treated carbonaceous material precursor at 500°C to 1250°C in an inert gas atmosphere containing a halogen compound; a step of pulverizing the carbonaceous material precursor obtained by gas phase de-mineralizing; a step of main firing the pulverized carbonaceous material precursor at 800°C to 1600°C in a non-oxidizing gas atmosphere; and a step of coating the fired material with pyrolytic carbon. an alkali impregnating step of adding 3.0 wt.% to 40.0 wt.% of a compound containing an alkali metal element to a plant-derived char to obtain a plant-derived char impregnated with alkali; a heat treating step of heat treating the plant-derived char impregnated with alkali at 500°C to 1000°C in a non-oxidizing gas atmosphere to obtain an alkali-treated carbonaceous material precursor; a gas phase de-mineralizing step of heat treating the alkali-treated carbonaceous material precursor at 500°C to 1250°C in an inert gas atmosphere containing a halogen compound; a step of pulverizing the carbonaceous material precursor obtained by gas phase de-mineralizing; a step of main firing the pulverized carbonaceous material precursor at 800°C to 1600°C in a non-oxidizing gas atmosphere; and a step of coating the fired material with pyrolytic carbon.
A moisture-permeable, microporous packaging material made of nonwoven fabric for solid luxury foods for oral application, said material consisting of a carded web of staple fibres and at least one thermoplastic binder, characterised in that the nonwoven fabric has a uniformly distributed perforation in the form of a plurality of holes, wherein the fluctuation around the median value of the diameter is in the range of +/- 30%.