mhurhangee/ep-ind-claims huggingface dataset:
A recombinant RhCMV or HCMV vector comprising a nucleic acid sequence encoding a heterologous antigen, wherein the heterologous antigen is a human pathogen-specific antigen isolated from human immunodeficiency virus, wherein the vector includes a deletion of one or more RhCMV or HCMV genes that are essential for or augment replication.
A cigarette temperature detection device comprising multiple cylindrical convex lenses, a cylindrical grating and a cylindrical infrared detector; the cylindrical grating is sleeved outside the multiple cylindrical convex lenses, and the cylindrical infrared detector is sleeved outside the cylindrical grating, such that the cylindrical infrared detector is located on a focus ring of the multiple cylindrical convex lenses; and the multiple cylindrical convex lenses, the cylindrical grating, and the cylindrical infrared detector are coaxial; wherein each of the cylindrical convex lenses has a thicker central wall between two thinner end walls formed by rotating along a parallel centerline at a predetermined distance around a long axis of an elliptical-like section resulting from cutting the cylindrical convex lens by a plane comprising the centerline.
A method for fibrillation of cellulose, comprising the following steps: ― pre-disintegrating wood fibre pulp of anionic cellulose, which is carboxymethylated cellulose, in a disperser, ― introducing the wood fibre pulp of the pre-disintegrated anionic cellulose at a consistency of 2 to 3 wt-% into a homogenizer, and ― homogenizing said pre-disintegrated fibre pulp in the homogenizer wherein it is passed through a narrow through-flow gap, wherein the homogenization pressure is the pressure developed in the pre-disintegrated fibre pulp before the gap due to the resistance caused by the gap, at a pressure of 300 to 650 bar, and by using 2 to 4 passes through for the same fibre pulp under these conditions, and ― after said passes through, taking pulp from the homogenizer, which pulp has been fibrillated by homogenization to a degree than can be expressed as Brookfield viscosity exceeding 10,000 mPa·s measured at consistency 0.8 wt-% by a Brookfield RVDV-III rotation viscosimeter at a rotation speed of 10 rpm and with a vane spindle sensor (number 73), wherein the sample is first agitated for 10 minutes and temperature is adjusted to the range of 20°C ± 1°C. ― pre-disintegrating wood fibre pulp of anionic cellulose, which is carboxymethylated cellulose, in a disperser, ― introducing the wood fibre pulp of the pre-disintegrated anionic cellulose at a consistency of 2 to 3 wt-% into a homogenizer, and ― homogenizing said pre-disintegrated fibre pulp in the homogenizer wherein it is passed through a narrow through-flow gap, wherein the homogenization pressure is the pressure developed in the pre-disintegrated fibre pulp before the gap due to the resistance caused by the gap, at a pressure of 300 to 650 bar, and by using 2 to 4 passes through for the same fibre pulp under these conditions, and ― after said passes through, taking pulp from the homogenizer, which pulp has been fibrillated by homogenization to a degree than can be expressed as Brookfield viscosity exceeding 10,000 mPa·s measured at consistency 0.8 wt-% by a Brookfield RVDV-III rotation viscosimeter at a rotation speed of 10 rpm and with a vane spindle sensor (number 73), wherein the sample is first agitated for 10 minutes and temperature is adjusted to the range of 20°C ± 1°C.
A method for preparing alphaviral replicon particles (ARPs) carrying mutations conferring glycosaminoglycan-binding ability in mammalian host cells, said method comprising the steps of: (a) introducing an alphavirus replicon nucleic acid into an alphavirus-permissive host cell, said replicon nucleic acid comprising at least a virus packaging signal and at least one heterologous coding sequence expressible in said alphaviral replicon nucleic acid, wherein said host cell comprises at least one helper function, to produce a modified host cell; (b) culturing said modified host cell under conditions allowing expression of the at least one helper function, allowing replication of said alphaviral replicon nucleic acid and packaging of said alphaviral replicon nucleic acid to form ARPs; (c) contacting the modified host cells after step (b) with an aqueous salt wash solution having an ionic strength of from 0.5 M to 5 M to release the ARPs with glycosaminoglycan-binding ability into the aqueous solution to produce a ARP-containing solution; (d) collecting ARPs from the ARP-containing solution of step (c) followed by heparin affinity chromatography. (a) introducing an alphavirus replicon nucleic acid into an alphavirus-permissive host cell, said replicon nucleic acid comprising at least a virus packaging signal and at least one heterologous coding sequence expressible in said alphaviral replicon nucleic acid, wherein said host cell comprises at least one helper function, to produce a modified host cell; (b) culturing said modified host cell under conditions allowing expression of the at least one helper function, allowing replication of said alphaviral replicon nucleic acid and packaging of said alphaviral replicon nucleic acid to form ARPs; (c) contacting the modified host cells after step (b) with an aqueous salt wash solution having an ionic strength of from 0.5 M to 5 M to release the ARPs with glycosaminoglycan-binding ability into the aqueous solution to produce a ARP-containing solution; (d) collecting ARPs from the ARP-containing solution of step (c) followed by heparin affinity chromatography.
Use of a composition or a kit for detecting a vesicle; said composition or kit comprising (a) a membrane permeable marker that is converted into a detectable marker inside the vesicle and (b) an organic anion transport inhibitor, for detecting a vesicle, wherein the vesicle is a liposome or a microvesicle.
A system for transmission of data and electrical power comprising: a plurality of independent power sources, each one of the plurality of independent power sources being connected to a respective one of a plurality of electrical power lines to supply electrical power to a respective one of a plurality of electrical loads; a plurality of remote data nodes (20a, 20b), each of the plurality of remote data nodes (20a, 20b) being associated with a respective one of the plurality of electrical loads; a data distribution node operative to distribute data over the plurality of electrical power lines to the plurality of remote data nodes (20a, 20b); and a modulator configured to modulate a carrier signal with a data signal received at an input of the modulator so as to generate a modulated carrier signal at an output thereof, wherein the output of the modulator is coupled to each of the plurality of electrical power lines by a respective coupler, to permit transmission of the modulated carrier signal over the plurality of electrical power lines, such that the plurality of electrical power lines form a data network whilst maintaining electrical isolation between each of the plurality of electrical power lines, characterised in that the system further comprises a plurality of bus guardians, each bus guardian being provided between a coupler and the modulator, wherein the bus guardians are operative to isolate the remote data node (20a, 20b) that is served by that bus guardian from the data distribution node in the event of a fault at the remote data node (20a, 20b) or at the data distribution node. a plurality of independent power sources, each one of the plurality of independent power sources being connected to a respective one of a plurality of electrical power lines to supply electrical power to a respective one of a plurality of electrical loads; a plurality of remote data nodes (20a, 20b), each of the plurality of remote data nodes (20a, 20b) being associated with a respective one of the plurality of electrical loads; a data distribution node operative to distribute data over the plurality of electrical power lines to the plurality of remote data nodes (20a, 20b); and a modulator configured to modulate a carrier signal with a data signal received at an input of the modulator so as to generate a modulated carrier signal at an output thereof, wherein the output of the modulator is coupled to each of the plurality of electrical power lines by a respective coupler, to permit transmission of the modulated carrier signal over the plurality of electrical power lines, such that the plurality of electrical power lines form a data network whilst maintaining electrical isolation between each of the plurality of electrical power lines, characterised in that the system further comprises a plurality of bus guardians, each bus guardian being provided between a coupler and the modulator, wherein the bus guardians are operative to isolate the remote data node (20a, 20b) that is served by that bus guardian from the data distribution node in the event of a fault at the remote data node (20a, 20b) or at the data distribution node.
A method, performed by a wireless device, to apply a Radio Resource Control, RRC, configuration in a radio communication between the wireless device and a base station (301, 304, 306) of a wireless communication network, the method comprising: - obtaining a set of RRC configurations, each RRC configuration in the set comprising a plurality of radio parameters dictating how the wireless device should operate during radio communication in the wireless communication network, the method being characterized by further comprising: - receiving from the base station (301, 304, 306) an indication (303, 305, 307) reflecting a network state of the wireless communication network, - selecting an RRC configuration out of the set of RRC configurations, based on the received indication (303, 305, 307) reflecting the network state and further based on a device state reflecting a state of the wireless device, and - applying the selected RRC configuration in the radio communication with the base station (301, 304, 306), wherein the wireless device informs the base station (301, 304, 306) about the selected RRC configuration. - obtaining a set of RRC configurations, each RRC configuration in the set comprising a plurality of radio parameters dictating how the wireless device should operate during radio communication in the wireless communication network, the method being characterized by further comprising: - receiving from the base station (301, 304, 306) an indication (303, 305, 307) reflecting a network state of the wireless communication network, - selecting an RRC configuration out of the set of RRC configurations, based on the received indication (303, 305, 307) reflecting the network state and further based on a device state reflecting a state of the wireless device, and - applying the selected RRC configuration in the radio communication with the base station (301, 304, 306), wherein the wireless device informs the base station (301, 304, 306) about the selected RRC configuration.
A method of estimating a fluid property comprising the steps of generating an acoustic signal that propagates a distance through a fluid and reflects off at least two surfaces that are a known distance apart to create at least two reflected acoustic signals, the two surfaces being substantially parallel; recording the reflected acoustic signals; characterized by the steps of calculating the cumulative sum of squared, CSS, amplitudes of the reflected acoustic signals; calculating second derivatives of the CSS amplitudes using Savitzky-Golay coefficients; identifying pulse peaks from the points in time when the second derivatives of the CSS changes sign, wherein the pulse peaks represent the points in time when the reflected acoustic signals were recorded; and determining the fluid sound speed based on the time differences between the pulse peaks and the known distance differences.
A circumaural or supra-aural earpiece of an audio headset comprising: - a front wall, - a loudspeaker equipped with a basket assembly, fixed on the front wall, and - a cap fixed on the front wall so as to cover the loudspeaker, characterized in that the front wall comprises a deformable stub, and in that the loudspeaker and the cap are removably fixed on the front wall by the reversible cooperation of mechanical means, located on the cap and on an external wall of the basket assembly, with corresponding mechanical means located on the front wall, said mechanical means of the basket assembly comprising at least one protuberance intended to cooperate with said deformable stub of the front wall, and said mechanical means of the cap comprising reception sites (31, 32, 33) of fixing screws (34, 35, 37) of the cap on the front wall, the cap pressing the loudspeaker so as to guarantee the pressing of the basket assembly against the front wall. - a front wall, - a loudspeaker equipped with a basket assembly, fixed on the front wall, and - a cap fixed on the front wall so as to cover the loudspeaker, characterized in that the front wall comprises a deformable stub, and in that the loudspeaker and the cap are removably fixed on the front wall by the reversible cooperation of mechanical means, located on the cap and on an external wall of the basket assembly, with corresponding mechanical means located on the front wall, said mechanical means of the basket assembly comprising at least one protuberance intended to cooperate with said deformable stub of the front wall, and said mechanical means of the cap comprising reception sites (31, 32, 33) of fixing screws (34, 35, 37) of the cap on the front wall, the cap pressing the loudspeaker so as to guarantee the pressing of the basket assembly against the front wall.
A cell which co-expresses (i) a chimeric antigen receptor and a G-protein coupled receptor (GPCR) at the cell surface and (ii) an intracellular component comprising a protease domain linked to a GPCR-targeting domain; wherein an intracellular domain of the GPCR comprises a protease cleavage site linked to a transcriptional regulatory domain, which transcriptional regulatory domain is capable of modulating the expression of a nucleic acid encoding the CAR; and wherein the protease domain of the intracellular component is capable of cleaving at the cleavage site; such that, upon binding of ligand to the GPCR, the intracellular component is recruited to the GPCR and the protease domain cleaves the cleavage site thereby releasing the transcriptional regulatory domain from the GPCR. wherein an intracellular domain of the GPCR comprises a protease cleavage site linked to a transcriptional regulatory domain, which transcriptional regulatory domain is capable of modulating the expression of a nucleic acid encoding the CAR; and wherein the protease domain of the intracellular component is capable of cleaving at the cleavage site; such that, upon binding of ligand to the GPCR, the intracellular component is recruited to the GPCR and the protease domain cleaves the cleavage site thereby releasing the transcriptional regulatory domain from the GPCR.
A headphone comprising: a speaker unit; a baffle plate configured to support the speaker unit; an ear pad configured to surround an acoustic space in which a sound emitted from the speaker unit is transmitted toward an ear of a listener; and a grille configured to cover the speaker unit, wherein the grille has a hole and a cavity connected to the hole only; the grille includes a central annular portion, a periphery annular portion, and a frame portion connecting the central annular portion and the periphery annular portion; the hole is provided in the central annular portion, and the cavity is provided in the frame portion; the cavity is provided inside the frame portion and extends along a longitudinal direction of the frame portion; and the hole is communicated to the cavity and opens outside of the frame portion. a speaker unit; a baffle plate configured to support the speaker unit; an ear pad configured to surround an acoustic space in which a sound emitted from the speaker unit is transmitted toward an ear of a listener; and a grille configured to cover the speaker unit, wherein the grille has a hole and a cavity connected to the hole only; the grille includes a central annular portion, a periphery annular portion, and a frame portion connecting the central annular portion and the periphery annular portion; the hole is provided in the central annular portion, and the cavity is provided in the frame portion; the cavity is provided inside the frame portion and extends along a longitudinal direction of the frame portion; and the hole is communicated to the cavity and opens outside of the frame portion.
A semiconductor light emitting device (28, 50) comprising: a luminous lamination structure including a first layer made of n-type nitride semiconductor and a second layer made of p-type nitride semiconductor and disposed over the first layer wherein a luminous region is defined between the first and second layers (3, 7) and the second layer is removed to expose the first layer in a first area which is a partial surface of the first layer; a p-side electrode disposed on a surface of the second layer, electrically connected to the second layer, obtaining an ohmic contact with the second layer, and transmitting light irradiated from the luminous region; an insulating film covering the p-side electrode; an n-side electrode electrically connected to the first layer in the first area and obtaining an ohmic contact with the first layer; and a reflection film disposed on the insulating film, extending from an area superposed upon the p-side electrode to the upper surface of the n-side electrode in the first area, electrically connected to the n-side electrode, and reflecting light irradiated from the luminous region; characterized in that the n-side electrode has a two-layer structure with one layer thereof being made of aluminum; and the reflection film is made of silver or is made of an alloy containing silver as a main component. a luminous lamination structure including a first layer made of n-type nitride semiconductor and a second layer made of p-type nitride semiconductor and disposed over the first layer wherein a luminous region is defined between the first and second layers (3, 7) and the second layer is removed to expose the first layer in a first area which is a partial surface of the first layer; a p-side electrode disposed on a surface of the second layer, electrically connected to the second layer, obtaining an ohmic contact with the second layer, and transmitting light irradiated from the luminous region; an insulating film covering the p-side electrode; an n-side electrode electrically connected to the first layer in the first area and obtaining an ohmic contact with the first layer; and a reflection film disposed on the insulating film, extending from an area superposed upon the p-side electrode to the upper surface of the n-side electrode in the first area, electrically connected to the n-side electrode, and reflecting light irradiated from the luminous region; characterized in that the n-side electrode has a two-layer structure with one layer thereof being made of aluminum; and the reflection film is made of silver or is made of an alloy containing silver as a main component.
Filter element for the filtration of an air stream, with a folded filter medium forming a bellows, the filter medium being made up of at least two layers and having a particle filter layer (2.1) and an electrically conductive filter layer (2.2), and with at least one edge band, the edge band being connected to at least an outer side of the bellows, at least one further edge band being connected to an outer side of the bellows, the at least one further edge band being electrically conductive, characterized in that the at least one further edge band forms a pocket that is open towards the inflow side or the outflow side of the bellows.
A communication device for a microwave communication system, comprising: wireless communication circuitry including at least two antenna ports (ANT1, ANT2), with at least one of the two antenna ports configured for transmission only and at least one other of the two antenna ports configured for reception only; and a radio frequency front end, RFFE, unit comprising: at least one transmit mixer coupled to the at least one antenna port configured for transmission, to upconvert a signal from the at least one antenna port configured for transmission to provide a transmit signal at microwave communication frequencies; and at least one receive mixer coupled to the at least one other antenna port configured for reception, to downconvert a received signal at microwave communication frequencies, wherein the wireless communication circuitry comprises 802.11n or 802.11ac wireless subscriber unit circuitry including circuitry for performing contention avoidance in multi-subscriber unit environments, and wherein the wireless subscriber unit circuitry is configured to be coupled to components of a subscriber station by way of a wired connection utilizing Ethernet communication protocols. at least one transmit mixer coupled to the at least one antenna port configured for transmission, to upconvert a signal from the at least one antenna port configured for transmission to provide a transmit signal at microwave communication frequencies; and at least one receive mixer coupled to the at least one other antenna port configured for reception, to downconvert a received signal at microwave communication frequencies, wherein the wireless communication circuitry comprises 802.11n or 802.11ac wireless subscriber unit circuitry including circuitry for performing contention avoidance in multi-subscriber unit environments, and wherein the wireless subscriber unit circuitry is configured to be coupled to components of a subscriber station by way of a wired connection utilizing Ethernet communication protocols.
Method for producing a sensor arrangement comprising - a monolithically integrated circuit and - a micromechanical sensor structure, wherein - the sensor structure comprises a first substructure and - the circuit comprises a second substructure, wherein for producing the first substructure a first doping region and for producing the second substructure a second doping region are produced in a substrate, characterized in that the first and second doping regions are produced in the same diffusion process, wherein during the diffusion process, a first dopant concentration is introduced into the first doping region (21, 25) and a second dopant concentration is introduced into the second doping region (31, 35), wherein the first dopant concentration is lower than the second dopant concentration. - a monolithically integrated circuit and - a micromechanical sensor structure, - the sensor structure comprises a first substructure and - the circuit comprises a second substructure,