mhurhangee/ep-ind-claims huggingface dataset:
A package, comprising: a substrate; a dielectric layer (130, 135) on a die facing surface of the substrate; a lower die-side redistribution layer within the dielectric layer (130, 135); an upper die-side redistribution layer within the dielectric layer (130, 135); a plurality of die interconnect openings in the dielectric layer (130, 135), which expose portions of the lower die-side redistribution layer; a plurality of metal post openings in the dielectric layer (130, 135), which expose portions of the upper die-side redistribution layer; a seed layer on the portions of the upper and lower die-side redistribution layers exposed by the die interconnect openings and the metal post openings; a plurality of die interconnects on the portions of seed layer within the die interconnect openings, and configured to electrically couple to the lower die-side redistribution layer through the seed layer; a plurality of metal posts on the portions of seed layer within the metal post openings, and configured to electrically couple to the upper die-side redistribution layer through the seed layer; a plurality of through-substrate vias extending through the substrate; and a board-facing redistribution layer adjacent a board-facing surface _of the substrate, wherein at least a subset of the through-substrate vias electrically couple the lower die-side redistribution layer to the board-facing redistribution layer. a substrate; a dielectric layer (130, 135) on a die facing surface of the substrate; a lower die-side redistribution layer within the dielectric layer (130, 135); an upper die-side redistribution layer within the dielectric layer (130, 135); a plurality of die interconnect openings in the dielectric layer (130, 135), which expose portions of the lower die-side redistribution layer; a plurality of metal post openings in the dielectric layer (130, 135), which expose portions of the upper die-side redistribution layer; a seed layer on the portions of the upper and lower die-side redistribution layers exposed by the die interconnect openings and the metal post openings; a plurality of die interconnects on the portions of seed layer within the die interconnect openings, and configured to electrically couple to the lower die-side redistribution layer through the seed layer; a plurality of metal posts on the portions of seed layer within the metal post openings, and configured to electrically couple to the upper die-side redistribution layer through the seed layer; a plurality of through-substrate vias extending through the substrate; and a board-facing redistribution layer adjacent a board-facing surface _of the substrate, wherein at least a subset of the through-substrate vias electrically couple the lower die-side redistribution layer to the board-facing redistribution layer.
A nucleic acid construct comprising the following and: a first expression cassette comprising (i) a first expression regulatory region having a promoter and a sequence corresponding to a transcriptional activator-binding region; and (ii) a nucleic acid encoding a transcriptional activator which is capable of binding to the expression regulatory region, wherein the nucleic acid is operably linked to the first expression regulatory region; and a second expression cassette comprising (i) a second expression regulatory region having a promoter and a sequence corresponding to a transcriptional activator-binding region; and (ii) a) a nucleic acid for expressing a target product that is operably linked to the second expression regulatory region or b) a site into which a nucleic acid for expressing a target product is insertable so that the nucleic acid is operably linked to the second expression regulatory region, wherein the transcriptional activator is Tat of immunodeficiency virus or a functionally homologous variant thereof and the transcriptional activator-binding region is a trans-activation-responsive region of immunodeficiency virus or a functionally homologous sequence thereof. a first expression cassette comprising (i) a first expression regulatory region having a promoter and a sequence corresponding to a transcriptional activator-binding region; and (ii) a nucleic acid encoding a transcriptional activator which is capable of binding to the expression regulatory region, wherein the nucleic acid is operably linked to the first expression regulatory region; and (i) a first expression regulatory region having a promoter and a sequence corresponding to a transcriptional activator-binding region; and (ii) a nucleic acid encoding a transcriptional activator which is capable of binding to the expression regulatory region, wherein the nucleic acid is operably linked to the first expression regulatory region; and a second expression cassette comprising (i) a second expression regulatory region having a promoter and a sequence corresponding to a transcriptional activator-binding region; and (ii) a) a nucleic acid for expressing a target product that is operably linked to the second expression regulatory region or b) a site into which a nucleic acid for expressing a target product is insertable so that the nucleic acid is operably linked to the second expression regulatory region, (i) a second expression regulatory region having a promoter and a sequence corresponding to a transcriptional activator-binding region; and (ii) a) a nucleic acid for expressing a target product that is operably linked to the second expression regulatory region or b) a site into which a nucleic acid for expressing a target product is insertable so that the nucleic acid is operably linked to the second expression regulatory region,
A method of manufacturing a bismuth-based oxide superconductor containing a 2223 phase having a 2223 composition in a composition Bi-Sr-Ca-Cu or (Bi,Pb)-Sr-Ca-Cu, comprising a first step of charging a raw material containing a 2212 phase having a 2212 composition in the composition Bi-Sr-Ca-Cu or (Bi,Pb)-Sr-Ca-Cu with a critical temperature of not more than 70 K into a metal sheath, a second step of performing plastic working on said metal sheath charged with said raw material and a third step of performing heat treatment on said metal sheath charged with said raw material, characterised in that the average particle diameter of a non-superconductor contained in said raw material is not more than 5 μm.
Sensor apparatus (100; 200) intended to detect the level of a liquid, gel or powder substance which is contained in a receptacle (28; 300), comprising: - an emitter (104; 204) able to emit radiation (L, L'); - a receiver (106; 206) able to receive and convert into an electric signal visible radiation (L1; L1') which is emitted by the emitter (104; 204) and the intensity of which is variable depending on the quantity or level of substance present in the receptacle (28; 300); and - a visible optical indicator (114; 214); the sensor apparatus (100; 200) being characterized by comprising further an optical element (108; 208) able to optically couple the emitter (104; 204) to said optical indicator (114; 214) in such a way that, when the quantity or level of the substance in the receptacle (28; 300) is lower than a predetermined threshold, a fraction (L2; L2') of the radiation (L; L') generated by the emitter (104; 204) is capable of lighting up said optical indicator (114; 214). - an emitter (104; 204) able to emit radiation (L, L'); - a receiver (106; 206) able to receive and convert into an electric signal visible radiation (L1; L1') which is emitted by the emitter (104; 204) and the intensity of which is variable depending on the quantity or level of substance present in the receptacle (28; 300); and - a visible optical indicator (114; 214);
A process for the preparation of an anthraquinone derivative comprising (i) providing a mixture comprising a compound of formula a compound of formula wherein x is 1, or a compound of formula wherein x is 2, or a mixture of a compound of formula wherein x is 1 and a compound of formula wherein x is 2, a dehydrogenation catalyst, and a liquid solvent system; (ii) treating the mixture with an oxygen-containing gas obtaining a mixture comprising a compound of formula (IIIa) and/or, preferably and, a compound of formula (IIIb) wherein n is 1 or 2 and wherein m is 1 or 2; (iii) treating the mixture, optionally after work-up, with an oxygen-containing gas, obtaining a mixture comprising a compound of formula (IVa) and/or, preferably and, a compound of formula (IVb) wherein n is 1 or 2 and wherein m is 1 or 2. (i) providing a mixture comprising a compound of formula a compound of formula wherein x is 1, or a compound of formula wherein x is 2, or a mixture of a compound of formula wherein x is 1 and a compound of formula wherein x is 2, a dehydrogenation catalyst, and a liquid solvent system; (ii) treating the mixture with an oxygen-containing gas obtaining a mixture comprising a compound of formula (IIIa) and/or, preferably and, a compound of formula (IIIb) wherein n is 1 or 2 and wherein m is 1 or 2; (iii) treating the mixture, optionally after work-up, with an oxygen-containing gas, obtaining a mixture comprising a compound of formula (IVa) and/or, preferably and, a compound of formula (IVb) wherein n is 1 or 2 and wherein m is 1 or 2.
A compact sight device (10; 100), comprising: a housing having a viewing end (14; 114) and an opposing target end (16; 116), a viewing path (18; 118) being defined from the viewing end (14; 114) to the target end (16; 116); a light source (20; 120) operable to project a light beam (60; 160) along a path; a holographic optical element, HOE, (40; 140) disposed in the path of the light beam (60; 160) such that the HOE (40; 140) is illuminated by the light beam (60; 160) at a positive incidence angle (72; 177) defined with respect to a line (42; 142) perpendicular to the surface of the HOE (40; 140), the HOE (40; 140) reconstructing an object beam (80; 180) with an image of a reticle, the object beam (80; 180) having a positive object beam angle (82; 182) measured with respect to the line (42; 142) perpendicular to the surface of the HOE (40; 140), the positive incidence angle (72; 177) and the positive object beam angle (82; 182) defined as being on opposite sides of the perpendicular line (42; 142), the incidence angle (72; 177) and the object beam angle (82; 182) being substantially equal; the HOE (40; 140) further reflecting a portion of the light beam (60; 160) at a reflection angle substantially equal to the object beam angle (82; 182) such that a user viewing the object beam (80; 180) will also see a reflected image of the light source (20; 120). a housing having a viewing end (14; 114) and an opposing target end (16; 116), a viewing path (18; 118) being defined from the viewing end (14; 114) to the target end (16; 116); a light source (20; 120) operable to project a light beam (60; 160) along a path; a holographic optical element, HOE, (40; 140) disposed in the path of the light beam (60; 160) such that the HOE (40; 140) is illuminated by the light beam (60; 160) at a positive incidence angle (72; 177) defined with respect to a line (42; 142) perpendicular to the surface of the HOE (40; 140), the HOE (40; 140) reconstructing an object beam (80; 180) with an image of a reticle, the object beam (80; 180) having a positive object beam angle (82; 182) measured with respect to the line (42; 142) perpendicular to the surface of the HOE (40; 140), the positive incidence angle (72; 177) and the positive object beam angle (82; 182) defined as being on opposite sides of the perpendicular line (42; 142), the incidence angle (72; 177) and the object beam angle (82; 182) being substantially equal; the HOE (40; 140) further reflecting a portion of the light beam (60; 160) at a reflection angle substantially equal to the object beam angle (82; 182) such that a user viewing the object beam (80; 180) will also see a reflected image of the light source (20; 120).
A torque driver, comprising a rectifying buffer (86, 88), wherein the buffer comprises: an output node for producing a torque signal (VLEFT, VRIGHT); a transistor coupled to the output node; a differential input having first and second terminals, wherein the first terminal is coupled to receive a control signal (VTRQ) and the second terminal is coupled to receive the torque signal, and wherein the buffer is configured to prevent the torque signal from following the control signal when the control signal drops below a predetermined threshold; and an amplifier coupled to the differential input and the transistor, wherein the amplifier and the transistor are arranged so that when a voltage difference occurs across the first and second terminals (96, 92) the torque signal correlatively responds to the voltage difference. an output node for producing a torque signal (VLEFT, VRIGHT); a transistor coupled to the output node; a differential input having first and second terminals, wherein the first terminal is coupled to receive a control signal (VTRQ) and the second terminal is coupled to receive the torque signal, and wherein the buffer is configured to prevent the torque signal from following the control signal when the control signal drops below a predetermined threshold; and an amplifier coupled to the differential input and the transistor, wherein the amplifier and the transistor are arranged so that when a voltage difference occurs across the first and second terminals (96, 92) the torque signal correlatively responds to the voltage difference.
An on-chip optical interconnection structure, wherein the on-chip optical interconnection structure comprises M levels of optical switching devices(101, 102, 103, 104, 105, 106, 107); m th -level optical switching devices(103, 104, 106, 107) in the M levels of optical switching devices comprise 2 m -1 optical switching devices; each optical switching device in (i-1) th -level optical switching devices in the M levels of optical switching devices is connected to two optical switching devices(103, 104) in i th -level optical switching devices; and two optical switching devices(103, 104) that are in the i th -level optical switching devices and that are connected to a same optical switching device in the (i-1) th -level optical switching devices(102, 105) are connected, wherein M, m, and i are integers, M ≥3, 1≤ m ≤ M, and 3≤ i≤M.
A Device Abstraction Proxy comprising: a communications interface to connect the Device Abstraction Proxy to one or more access aggregation devices, each having a plurality of physical ports to provide broadband communication services to a plurality of broadband terminals via the plurality of physical ports; a memory and processor to execute a virtual access aggregation device, wherein a subset of the plurality of physical ports are allocated to the virtual access aggregation device and linked to corresponding logical ports within the virtual access aggregation device; a global rule-set module to define operational constraints for the broadband communication services; and a management interface to allow at least one broadband access management system to manage the subset of physical ports allocated to the virtual access aggregation device subject to the operational constraints, wherein the management interface is arranged to receive a request for operational data relating to broadband communication services provided to one or more of the remote broadband terminals and to provide access to said operational data. a communications interface to connect the Device Abstraction Proxy to one or more access aggregation devices, each having a plurality of physical ports to provide broadband communication services to a plurality of broadband terminals via the plurality of physical ports; a memory and processor to execute a virtual access aggregation device, wherein a subset of the plurality of physical ports are allocated to the virtual access aggregation device and linked to corresponding logical ports within the virtual access aggregation device; a global rule-set module to define operational constraints for the broadband communication services; and a management interface to allow at least one broadband access management system to manage the subset of physical ports allocated to the virtual access aggregation device subject to the operational constraints, wherein the management interface is arranged to receive a request for operational data relating to broadband communication services provided to one or more of the remote broadband terminals and to provide access to said operational data.
Clamping jaw arrangement with a carrier jaw, which defines a support surface on its upper side and has an extension projecting upwards beyond the support surface at its rear end region, and an exchangeable jaw, which is exchangeably attached or can be attached to the extension of the carrier jaw, two retaining cheeks being provided on the rear side of the exchangeable jaw, which laterally encircle the extension of the carrier jaw, and connecting webs (7, 10) and connecting grooves being formed on the extension of the carrier jaw and on the inner sides of the retaining cheeks, which enclose a predetermined identical angle (α) ≤ 90° with the support surface and engage positively with one another when the exchangeable jaw is inserted from above onto the extension of the carrier jaw, and wherein corresponding contact surfaces (5, 6) are provided on the front end face of the extension of the carrier jaw and the rear end face of the exchangeable jaw, which contact surfaces come into contact with one another when the exchange jaw is inserted onto the carrier jaw, and which enclose a predetermined identical angle (γ) ≤ 90° with the support surface of the carrier jaw, and with securing means for securing the exchangeable jaw on the carrier jaw against removal, characterized in that the inner surfaces of the retaining cheeks and the lateral outer surfaces of the extension in the region of the connecting webs (7, 10) and connecting grooves have an arcuate or curved contour in cross-section.
A pharmaceutical composition comprising an IL-13Rα2 peptide comprising any one of SEQ ID NOs:1-4, an EphA2 peptide comprising SEQ ID NO:6, and a survivin peptide comprising SEQ ID NO:7.
A composition comprising a poly alpha-1,3-glucan ester compound represented by the structure: wherein (i) n is at least 6, (ii) each R is independently an H or acyl group, and (iii) the compound has a degree of substitution of 0.05 to 3.0; wherein the compound contains two or more types of said acyl group. (i) n is at least 6, (ii) each R is independently an H or acyl group, and (iii) the compound has a degree of substitution of 0.05 to 3.0;
A male-sterile, transgenic plant containing in its genome a recombinant DNA construct that transcribes to RNA comprising: (i) at least one exogenous miRNA recognition site recognizable by a mature miRNA that is endogenous to and specifically expressed in male reproductive tissue of said transgenic plant; and (ii) a messenger RNA encoding a protein imparting tolerance to an herbicide, wherein said mature miRNA specifically suppresses expression of said protein in said male reproductive tissue; wherein said herbicide has been applied to said transgenic plant under a regime sufficient to induce sterility in said transgenic plant thereby providing a male-sterile transgenic plant. (i) at least one exogenous miRNA recognition site recognizable by a mature miRNA that is endogenous to and specifically expressed in male reproductive tissue of said transgenic plant; and (ii) a messenger RNA encoding a protein imparting tolerance to an herbicide, wherein said mature miRNA specifically suppresses expression of said protein in said male reproductive tissue; wherein said herbicide has been applied to said transgenic plant under a regime sufficient to induce sterility in said transgenic plant thereby providing a male-sterile transgenic plant.
A method of controlling power to a device which consumes energy from an energy network, the network also having a renewable energy generator and a mains supply (Mains) connected thereto supplying energy to the network, the method comprising: determining the energy requirements of the device; determining the renewable energy component of the supplied energy which is generated by the renewable energy generator; comparing the energy requirements of the device with the renewable energy component of the supplied energy; and controlling the energy to the device in accordance with the comparison between the energy requirements of the device with the renewable energy component of the supplied energy, characterised in that the energy supplied to the device is reduced to the renewable energy component of the supplied energy. determining the energy requirements of the device; determining the renewable energy component of the supplied energy which is generated by the renewable energy generator; comparing the energy requirements of the device with the renewable energy component of the supplied energy; and controlling the energy to the device in accordance with the comparison between the energy requirements of the device with the renewable energy component of the supplied energy, characterised in that the energy supplied to the device is reduced to the renewable energy component of the supplied energy.
A filter medium, composed of a wet-laid nonwoven fabric including a glass fiber, for air filters, the filter medium comprising: a cationic binder resin; a fluororesin; and a cationic surfactant, wherein a solid content mass ratio of the fluororesin to the cationic surfactant is within a range of 30/70 to 80/20. a cationic binder resin; a fluororesin; and a cationic surfactant, wherein a solid content mass ratio of the fluororesin to the cationic surfactant is within a range of 30/70 to 80/20.
A method for scanning for and performing operations on wireless devices, the method comprising: using a first wireless interface in a first device to conduct wireless communications according to a first communication protocol with a second device within effective communication range of the first device; receiving, via the first wireless interface as part of the wireless communications, a scan notification corresponding to wireless scanning performed by the second device, wherein the scan notification indicates to the first device that the wireless scanning performed by the second device has identified a third device within effective communication range of the first device; activating a previously deactivated second wireless interface (350, 354) in the first device in response to the scan notification, wherein the second wireless interface (350, 354) operates at a relatively higher power level than the first wireless interface; and performing, using the second wireless interface activated in response to the scan notification, a ranging operation associated with the third device for the first device to communicate with and/or control the third device using the second wireless interface (350, 354). using a first wireless interface in a first device to conduct wireless communications according to a first communication protocol with a second device within effective communication range of the first device; receiving, via the first wireless interface as part of the wireless communications, a scan notification corresponding to wireless scanning performed by the second device, wherein the scan notification indicates to the first device that the wireless scanning performed by the second device has identified a third device within effective communication range of the first device; activating a previously deactivated second wireless interface (350, 354) in the first device in response to the scan notification, wherein the second wireless interface (350, 354) operates at a relatively higher power level than the first wireless interface; and performing, using the second wireless interface activated in response to the scan notification, a ranging operation associated with the third device for the first device to communicate with and/or control the third device using the second wireless interface (350, 354).