mhurhangee/ep-ind-claims huggingface dataset:
A recombinant targeted bacteriophage for expressing a transgene in a target cell transduced with the bacteriophage, the bacteriophage comprising: - a first nucleic acid sequence encoding a pIII capsid minor coat protein fused to a cell-targeting ligand for enabling delivery of the bacteriophage to a mammalian target cell, - a second nucleic acid sequence encoding at least one wild-type pVIII capsid major coat protein, for supporting bacteriophage assembly, fused to a foreign peptide of less than ten amino acids, - a third nucleic acid sequence encoding a recombinant pVIII capsid major coat protein, which differs in nucleotide sequence from the nucleotide sequence encoding the wild-type pVIII capsid major coat protein, fused to a foreign peptide of more than ten amino acids, and - a mammalian transgene cassette which encodes a protein which exerts a biological effect on the target cell. - a first nucleic acid sequence encoding a pIII capsid minor coat protein fused to a cell-targeting ligand for enabling delivery of the bacteriophage to a mammalian target cell, - a second nucleic acid sequence encoding at least one wild-type pVIII capsid major coat protein, for supporting bacteriophage assembly, fused to a foreign peptide of less than ten amino acids, - a third nucleic acid sequence encoding a recombinant pVIII capsid major coat protein, which differs in nucleotide sequence from the nucleotide sequence encoding the wild-type pVIII capsid major coat protein, fused to a foreign peptide of more than ten amino acids, and - a mammalian transgene cassette which encodes a protein which exerts a biological effect on the target cell.
An epoxy resin represented by general formula below, [in the formula, Q each independently represent a linear alkylene chain having 1 to 9 carbon atoms, a branched alkylene chain having a structure in which an alkyl group having 1 to 18 carbon atoms is bonded to a carbon atom of the linear alkylene chain, or a linkage chain having an ether bond present between two continuous methylene groups in the alkylene chain; A each independently represent a phenylene unit represented by general formula (i) below {in the formula, Y each independently represent a halogen atom, a hydrocarbon group having 1 to 8 carbon atoms, or an alkoxyl group having 1 to 8 carbon atoms; X represents a single bond, a -O- group, a -CH=CH-group, a -CH=C(CH 3)- group, a -CH=C - group, a -C≡C- group, a -CH=N- group, a -CH=CH-CO- group, a -N=N- group, a -COO- group, a -CONH- group, or a -CO- group; I each independently represent an integer of 0 to 4; and m represents an integer of 1 to 3}, or a naphthylene unit represented by general formula (ii) below {in the formula, Z each independently represent a hydrogen atom, a halogen atom, a hydrocarbon group having 1 to 8 carbon atoms, or an alkoxyl group having 1 to 8 carbon atoms}; and n represents an integer of 0 to 10].
An electrochromic element comprising: a first support; a first electrode and a first electrochromic layer sequentially formed over the first support; a second support; a second electrode and a second electrochromic layer sequentially formed over the second support; an electrolyte layer formed between the first and second electrochromic layers; and a sealant resin layer arranged around the electrolyte layer, the first electrochromic layer and the second electrochromic layer and in contact with each of the first and second electrochromic layers (3, 5) at the longitudinal ends of the first and second electrochromic layers (3, 5), wherein the first and second electrochromic layers (3,5) comprise a polymerized product of an oxidatively color-developable electrochromic composition comprising a radical-polymerizable compound, and wherein the sealant resin layer comprises a thermosetting material and the sealant resin layer protrudes in between the first and second electrochromic layers. a first support; a first electrode and a first electrochromic layer sequentially formed over the first support; a second support; a second electrode and a second electrochromic layer sequentially formed over the second support; an electrolyte layer formed between the first and second electrochromic layers; and a sealant resin layer arranged around the electrolyte layer, the first electrochromic layer and the second electrochromic layer and in contact with each of the first and second electrochromic layers (3, 5) at the longitudinal ends of the first and second electrochromic layers (3, 5), wherein the first and second electrochromic layers (3,5) comprise a polymerized product of an oxidatively color-developable electrochromic composition comprising a radical-polymerizable compound, and wherein the sealant resin layer comprises a thermosetting material and the sealant resin layer protrudes in between the first and second electrochromic layers.
A data query system, comprising a client, and the data query system further comprising one or more query components, characterized in that, the data query system further comprising a query component agent, and the one or more query components are connected with the query component agent; wherein, the client is configured to send a client request to the query component agent, and receive a processing result from the query component which returns a processing result to the client; the query component agent is configured to store for each query component a query component number, a query component instance and a status of a client request load of the query component, to update the stored status of the client request load of each query component according to a status of the client request load of the query component reported by the query component; to receive the client request; and to select a query component from the one or more query components to process the client request based on a load balance principle that takes in to account the stored status of a client request load of the query components; and to return the selected query component to the client; each query component is configured to send the query component number and the query component instance of the query component to the query component agent to register, and to report periodically the status of the client request load of the query component to the query component agent; and when the query component is the query component selected by the query component agent, it is further configured to process the client request and return the processing result to the client.
An illumination device comprising: a light source that is configured to emit coherent light; an optical scanning section that is configured to scan the coherent light emitted from the light source; a lens array including a plurality of element lenses and configured to diverge the light scanned by the optical scanning section; an optical path conversion system (21, 23) configured to control a diverging angle of the diverging light to be emitted from respective points of the lens array and to allow the diverging light whose diverging angle has been controlled to illuminate an area to be illuminated sequentially in an overlapping manner, wherein a polarization control element (233a, 233b) is provided at an incident side or an emitting side of the lens array so as to prevent interference between beams passing through the adjacent element lenses, characterized in that the polarization control element (233a, 233b) is configured to render circularly-polarized lights that have different polarized directions for adjacent element lenses, wherein outgoing light from one of two adjacent element lenses is circularly polarized in a clockwise direction, and outgoing light from the other of the two adjacent element lenses is circularly polarized in a counter clockwise direction. a light source that is configured to emit coherent light; an optical scanning section that is configured to scan the coherent light emitted from the light source; a lens array including a plurality of element lenses and configured to diverge the light scanned by the optical scanning section; an optical path conversion system (21, 23) configured to control a diverging angle of the diverging light to be emitted from respective points of the lens array and to allow the diverging light whose diverging angle has been controlled to illuminate an area to be illuminated sequentially in an overlapping manner, wherein a polarization control element (233a, 233b) is provided at an incident side or an emitting side of the lens array so as to prevent interference between beams passing through the adjacent element lenses, characterized in that the polarization control element (233a, 233b) is configured to render circularly-polarized lights that have different polarized directions for adjacent element lenses, wherein outgoing light from one of two adjacent element lenses is circularly polarized in a clockwise direction, and outgoing light from the other of the two adjacent element lenses is circularly polarized in a counter clockwise direction.
Measuring system for capturing measurement data, in particular for capturing measurement data in a vehicle, comprising a measuring device (1; 1-1 - 1-14), which has: a user interface (6-2, 6-4) formed to provide a user with access to the measuring device (1; 1-1 - 1-4); and a first network interface at least formed to couple the measuring system to a data processing infrastructure; and a first coupling device formed, when a coupling to the data processing infrastructure is present, to couple the measuring system to the data processing infrastructure as a component thereof and/or to couple the measuring device (1; 1-1 - 1-4) to a further measuring device (1; 1-1 - 1-4) via the first network interface to form a single, coupled measuring device, in such a way that it is not apparent to a user, upon access to the measuring device via the user interface (6-2, 6-4), whether he is accessing a single system or a plurality of coupled electronic systems, characterized in that the measuring device (1; 1-1 - 1-4) is configured to be dynamically connected to or detached from the data processing infrastructure. a user interface (6-2, 6-4) formed to provide a user with access to the measuring device (1; 1-1 - 1-4); and a first network interface at least formed to couple the measuring system to a data processing infrastructure; and a first coupling device formed, when a coupling to the data processing infrastructure is present, to couple the measuring system to the data processing infrastructure as a component thereof and/or to couple the measuring device (1; 1-1 - 1-4) to a further measuring device (1; 1-1 - 1-4) via the first network interface to form a single, coupled measuring device, in such a way that it is not apparent to a user, upon access to the measuring device via the user interface (6-2, 6-4), whether he is accessing a single system or a plurality of coupled electronic systems,
A leak detection apparatus comprising: a controller having at least one processor to access data representing a measured flow of breathable gas, the controller being configured to: determine a plurality of features from the measured flow of breathable gas; analyze the plurality of features with time and magnitude thresholds; and based on the analysis, set a leak indicator, the leak indicator representative of a continuous mouth leak, wherein the plurality of features comprises first and second features; wherein the analysis comprises a comparison of the first feature to detect a change in the first feature existing for a pre-determined period of time attributable to the time threshold; wherein the analysis further comprises a comparison of the second feature with the magnitude threshold based on the comparison of the first feature detecting the change for the pre-determined period of time. determine a plurality of features from the measured flow of breathable gas; analyze the plurality of features with time and magnitude thresholds; and based on the analysis, set a leak indicator, the leak indicator representative of a continuous mouth leak, wherein the plurality of features comprises first and second features; wherein the analysis comprises a comparison of the first feature to detect a change in the first feature existing for a pre-determined period of time attributable to the time threshold; wherein the analysis further comprises a comparison of the second feature with the magnitude threshold based on the comparison of the first feature detecting the change for the pre-determined period of time.
A method of manufacturing an inner driving element of a magnetic drive centrifugal pump, the method comprising the steps of: providing a unit consisting of a yoke, backing rings, a sleeve, and magnets, wherein the backing rings are arranged radially outwardly of the yoke and axially adjacent to either side of the magnets, a protective powder coating is arranged between the backing rings and yoke and between the backing rings and magnets, the sleeve is arranged radially outwardly of the backing rings and the protective powder coating; supporting the unit within the mold by a support, consisting of multiple pins, at a molding support region on an axial end of the yoke; and carrying out a molding process comprising: molding a shell about the yoke, magnets, backing rings and sleeve; retracting the support from the mold support region at a predetermined time during the molding process so that the material forming the shell fills the molding support region during the molding process, wherein the formulations of plastic used for the shell are such as to enable the flow fronts of material within the mold to quickly fill the molding support region once the supports have retracted; and hence filling the molding support region with the plastic and fully encapsulating the unit with the plastic within the mold to provide a shell. providing a unit consisting of a yoke, backing rings, a sleeve, and magnets, wherein the backing rings are arranged radially outwardly of the yoke and axially adjacent to either side of the magnets, a protective powder coating is arranged between the backing rings and yoke and between the backing rings and magnets, the sleeve is arranged radially outwardly of the backing rings and the protective powder coating; supporting the unit within the mold by a support, consisting of multiple pins, at a molding support region on an axial end of the yoke; and carrying out a molding process comprising: molding a shell about the yoke, magnets, backing rings and sleeve; retracting the support from the mold support region at a predetermined time during the molding process so that the material forming the shell fills the molding support region during the molding process, wherein the formulations of plastic used for the shell are such as to enable the flow fronts of material within the mold to quickly fill the molding support region once the supports have retracted; and hence filling the molding support region with the plastic and fully encapsulating the unit with the plastic within the mold to provide a shell. molding a shell about the yoke, magnets, backing rings and sleeve; retracting the support from the mold support region at a predetermined time during the molding process so that the material forming the shell fills the molding support region during the molding process, wherein the formulations of plastic used for the shell are such as to enable the flow fronts of material within the mold to quickly fill the molding support region once the supports have retracted; and hence filling the molding support region with the plastic and fully encapsulating the unit with the plastic within the mold to provide a shell.
An antireflection film in which a transparent substrate, a first layer and a second layer that has a refractive index lower than that of the first layer are laminated in this order, wherein: the first layer is formed by curing a coating film that contains an ionizing-radiation-curable material, a quaternary ammonium salt material, a leveling material and a solvent, and has a structure in which a middle layer, a hard coating layer and a recoating layer are laminated in this order from a side of the transparent substrate; the recoating layer does not contain the quaternary ammonium salt material; and the hard coating layer contains the quaternary ammonium salt material whose concentration in the hard coating layer increases from the middle layer side toward the recoating layer side. the first layer is formed by curing a coating film that contains an ionizing-radiation-curable material, a quaternary ammonium salt material, a leveling material and a solvent, and has a structure in which a middle layer, a hard coating layer and a recoating layer are laminated in this order from a side of the transparent substrate; the recoating layer does not contain the quaternary ammonium salt material; and the hard coating layer contains the quaternary ammonium salt material whose concentration in the hard coating layer increases from the middle layer side toward the recoating layer side.
An electrically variable transmission comprising: a transmission input shaft; an electrically variable transmission input shaft; a planetary gear set coupled to the electrically variable transmission input shaft comprising: a sun gear, at least two pinion gears continuously meshed with the sun gear, a carrier coupled to the at least two pinion gears and to the electrically variable transmission input shaft, and a ring gear continuously meshed with the at least two pinion gears; a first electric motor coupled to the sun gear; and a second electric motor coupled to the ring gear, wherein the transmission input shaft is selectively coupled to the electrically variable transmission input shaft by a first clutch mechanism to provide a first input gear ratio, and the transmission input shaft is selectively coupled to the electrically variable transmission input shaft by a second clutch mechanism to provide a second input gear ratio, wherein the first clutch mechanism is selectively coupled to a first input layshaft that is concentric with the transmission input shaft, and wherein the second clutch mechanism is selectively coupled to a second input layshaft that is concentric with the transmission input shaft. a transmission input shaft; an electrically variable transmission input shaft; a planetary gear set coupled to the electrically variable transmission input shaft comprising: a sun gear, at least two pinion gears continuously meshed with the sun gear, a carrier coupled to the at least two pinion gears and to the electrically variable transmission input shaft, and a ring gear continuously meshed with the at least two pinion gears; a first electric motor coupled to the sun gear; and a second electric motor coupled to the ring gear, a sun gear, at least two pinion gears continuously meshed with the sun gear, a carrier coupled to the at least two pinion gears and to the electrically variable transmission input shaft, and a ring gear continuously meshed with the at least two pinion gears; a first electric motor coupled to the sun gear; and a second electric motor coupled to the ring gear, wherein the transmission input shaft is selectively coupled to the electrically variable transmission input shaft by a first clutch mechanism to provide a first input gear ratio, and the transmission input shaft is selectively coupled to the electrically variable transmission input shaft by a second clutch mechanism to provide a second input gear ratio, wherein the first clutch mechanism is selectively coupled to a first input layshaft that is concentric with the transmission input shaft, and wherein the second clutch mechanism is selectively coupled to a second input layshaft that is concentric with the transmission input shaft.
A prosthetic cardiac valve (10, 14) comprising a fabric wall portion (48, 50) and a polymeric material fused to the fabric wall portion (48, 50), the polymeric material having a melting temperature that is lower than that of the fabric wall portion (48, 50), wherein fibres of the fabric remain unmelted at the interface with the polymeric material, the polymeric material being attached to the fibres of the fabric wall portion (48, 50) by fusion.
A method for wireless communication, comprising: receiving, by a terminal configured with a discontinuous receiving, DRX, mode, a first signaling with a cyclic redundancy check, CRC, scrambled by a power-saving, PS, radio network temporary identifier, RNTI, outside a DRX active time, wherein the first signaling comprises N bits, wherein each of the N bits corresponds to a group of serving cells, and wherein N is an integer; and performing, by the terminal, a bandwidth part, BWP, operation associated with a dormant BWP for a serving cell according to the first signaling, wherein the BWP operation comprises, in response to a bit of the N bits being equal to 1, leaving from the dormant BWP to a non-dormant BWP selected from a plurality of configured non-dormant BWPs by switching, by the terminal, an active BWP of the serving cell to the non-dormant BWP, wherein the non-dormant BWP is configured by a high layer signaling, wherein the BWP operation further comprises, in response to the bit of the N bits being equal to 0, entering to the dormant BWP from the non-dormant BWP by switching, by the terminal, the active BWP of the serving cell to the dormant BWP configured by the high layer signaling. receiving, by a terminal configured with a discontinuous receiving, DRX, mode, a first signaling with a cyclic redundancy check, CRC, scrambled by a power-saving, PS, radio network temporary identifier, RNTI, outside a DRX active time, wherein the first signaling comprises N bits, wherein each of the N bits corresponds to a group of serving cells, and wherein N is an integer; and performing, by the terminal, a bandwidth part, BWP, operation associated with a dormant BWP for a serving cell according to the first signaling, wherein the BWP operation comprises, in response to a bit of the N bits being equal to 1, leaving from the dormant BWP to a non-dormant BWP selected from a plurality of configured non-dormant BWPs by switching, by the terminal, an active BWP of the serving cell to the non-dormant BWP, wherein the non-dormant BWP is configured by a high layer signaling, wherein the BWP operation further comprises, in response to the bit of the N bits being equal to 0, entering to the dormant BWP from the non-dormant BWP by switching, by the terminal, the active BWP of the serving cell to the dormant BWP configured by the high layer signaling.