Abstract: The present disclosure provides a counterfeit detector which identifies whether a security document or the like is authentic by irradiating UV rays from UV LEDs onto fluorescent security marks formed on the security document. UV rays emitted from the UV LEDs are independently condensed and reflected, thus enabling a user to more effectively identify the fluorescent security marks that are formed in special shapes using UV fluorescent material.

Abstract: Methods, systems, and articles for receiving, by a monitor server, change data associated with a change captured on a target host, are described herein. In various embodiments, the target host may have provided the change data in response to detecting the change, and the change data may include one or more rules, settings, and/or parameters. Further, in some embodiments, the monitor server may then group the change data into clusters and may correlate the clusters with a change catalog in order to provide a possible reason or cause for the cluster of changes. Once the change data have been classified as clusters, a report may be generated providing classification or categorization and cluster information for the various changes. In various embodiments, the generating may comprise generating a report to the target host and/or to an administrative user.

Abstract: Methods, systems, and articles for receiving, by a monitor server, change data associated with a change captured on a target host, are described herein. In various embodiments, the target host may have provided the change data in response to detecting the change, and the change data may include one or more rules, settings, and/or parameters. Further, in some embodiments, the monitor server may then group the change data into clusters and may correlate the clusters with a change catalog in order to provide a possible reason or cause for the cluster of changes. Once the change data have been classified as clusters, a report may be generated providing classification or categorization and cluster information for the various changes. In various embodiments, the generating may comprise generating a report to the target host and/or to an administrative user. In various embodiments, a reason may be determined for causing a cluster of changes and the change catalog may updated with the reason.

Abstract: Methods, systems, and articles for receiving, by a monitor server, change data associated with a change captured on a target host, are described herein. In various embodiments, the target host may have provided the change data in response to detecting the change, and the change data may include one or more rules, settings, and/or parameters. Further, in some embodiments, the monitor server may analyze the change data in order to group the change data into clusters. Once the change data have been classified as clusters, a report may be generated providing classification or categorization and cluster information for the various changes. In various embodiments, the generating may comprise generating a report to the target host and/or to an administrative user.

Abstract: A mobile terminal including a terminal case, a microphone located within the terminal case, and a sound guide unit, is provided. The terminal case includes a first case member, a second case member, and a frame member located between the first case member and the second case member. The frame member includes a microphone hole formed on an outer surface thereof for guiding a sound into the terminal case in a first direction. The microphone includes a sound receiving portion disposed in a second direction different from the first direction, for receiving the sound. And the sound guide unit is located between the microphone hole and the sound receiving portion of the microphone, the sound guide unit guiding the sound, which has passed through the microphone hole, along the first direction and the second direction, toward the sound receiving portion of the microphone.

Abstract: This invention features a compound of the following formula: T-(-L-C)m, T is a transportophore, L is a bond or a linker having a molecular weight up to 240 dalton, C is a non-antibiotic therapeutic agent, and m is 1, 2, 3, 4, 5, 6, 7, or 8, in which the transportophore has an immune selectivity ratio of at least 2, the transportophore is covalently bonded to the non-antibiotic therapeutic agent via the bond or the linker, and the compound has an immune selectivity ratio of at least 2.

Abstract: This invention features a method of identifying a compound useful for enhancing efficacy of a therapeutic agent. The method includes incubating a compound in blood cells; separating immune cells from erythrocytic cells; and determining the ratio of the concentration of the compound in the immune cells to the concentration of the compound in the erythrocytic cells; wherein the compound comprises a transportophore and a therapeutic agent, in which the transportophore is covalently bonded to the therapeutic agent via a bond or a linker.

Abstract: A mobile terminal including a terminal case, a microphone located within the terminal case, and a sound guide unit, is provided. The terminal case includes a first case member, a second case member, and a frame member located between the first case member and the second case member. The frame member includes a microphone hole formed on an outer surface thereof for guiding a sound into the terminal case in a first direction. The microphone includes a sound receiving portion disposed in a second direction different from the first direction, for receiving the sound. And the sound guide unit is located between the microphone hole and the sound receiving portion of the microphone, the sound guide unit guiding the sound, which has passed through the microphone hole, along the first direction and the second direction, toward the sound receiving portion of the microphone.

Abstract: This invention features a method of identifying a compound useful for enhancing efficacy of a therapeutic agent. The method includes incubating a compound in blood cells; separating immune cells from erythrocytic cells; and determining the ratio of the concentration of the compound in the immune cells to the concentration of the compound in the erythrocytic cells; wherein the compound comprises a transportophore and a therapeutic agent, in which the transportophore is covalently bonded to the therapeutic agent via a bond or a linker.

Abstract: This invention features a compound of the following formula: wherein T is a transportophore, L is a bond or linker, and C is an antibiotic therapeutic agent, the transportophore is covalently bonded to the antibiotic therapeutic agent via the bond or the linker, and the transportophore is an azithromycin derivative or crown ether derivative.

Abstract: Nanofibrous articles can be manufactured by a process that includes preparation of a surface of a substrate to provide an adhesion mechanism for securing the nanofibers to the surface. The nanofibers can be dispersed in an area near the substrate for the purpose of being adhered to the surface. If an ordered arrangement of nanofibers is required, an electric field can be provided in the area where the nanofibers are dispersed to selectively control an ordering of the nanofibers as they are adhered to the surface by the adhesion mechanism.

Abstract: A fuel cell (100) includes a membrane electrode assembly (110) located together with a layer of variable porosity porous gas diffusion material (150). The variable porosity gas diffusion material layer (150) operates to selectively limit the amount of reactants reaching localized areas of the membrane electrode assembly (110) in order to reduce hot spots.

Abstract: The present invention relates to a method for preparing a GI (graded index) plastic optical fiber preform having a radial refractive index gradient, the refractive index increasing gradually from the outer periphery of the preform toward the center thereof, comprising inserting a 1st plastic tube (inside diameter: d1i, outside diameter: d1o) (111) made of a first polymer (refractive index: n1) in a cylinder reactor (inside diameter: d0i, d1o?d0i) and inserting a 2nd plastic tube (inside diameter: d2i, outside diameter d2o, d2o?d1i) (112) made of a second polymer (refractive index: n2, n2?n1) in the 1st plastic tube, the reactor, the 1st and 2nd plastic tubes are positioned coaxially, injecting a precursor of a third polymer (refractive index: n?, n??n2) into the 2nd plastic tube, injecting a precursor of a fourth polymer (refractive index: n?, n1?n??n2) into the space between the 1st and 2nd plastic tubes.

Abstract: This invention features a method of identifying a compound useful for enhancing efficacy of a therapeutic agent. The method includes incubating a compound in blood cells; separating immune cells from erythrocytic cells; and determining the ratio of the concentration of the compound in the immune cells to the concentration of the compound in the erythrocytic cells; wherein the compound comprises a transportophore and a therapeutic agent, in which the transportophore is covalently bonded to the therapeutic agent via a bond or a linker.

Abstract: This invention features a compound of the following formula (I): wherein T is a transportophore, L is a bond or linker, and C is an antibiotic therapeutic agent, the transportophore is covalently bonded to the antibiotic therapeutic agent via the bond or the linker, and the transportophore is an azithromycin derivative or crown ether derivative.

Abstract: A method of making an energetic beam markable appliqués (502) includes dispersing a plurality of bodies (110) of a first heat coalescable material within a second material (114) to form a plural phase material (108), coating a substrate (104) with the plural phase material (108) to form a coating of the plural phase material, and patternwise irradiating the coating of the plural phase material.

Abstract: An appliqué (502) for use in in-mold decoration comprise energetic beam responsive layers (108, 208, 308, 402) sandwiched between two substrates (102, 104) that have areas of thermally coalescable material of differing dispersed body size. In use, the energetic beam responsive layers (108, 208, 308, 402) are patternwise irradiated in order form graphics (504) and/or text (506). The appliqué (502) is incorporated into an injection molded part (500) using in-mold decoration injection molding.

Abstract: Nanofibrous articles can be manufactured by a process (100) that includes preparation of a surface (203, 405) of a substrate (200, 404) to provide an adhesion mechanism (306, 410) for securing the nanofibers (402) to the surface. The nanofibers (402) can be dispersed in an area near the substrate (200, 404) for the purpose of being adhered to the surface (203, 405). If an ordered arrangement of nanofibers (402) is required, an electric field can be provided in the area where the nanofibers (402) are dispersed to selectively control an ordering of the nanofibers (402) as they are adhered to the surface by the adhesion mechanism (306, 410).

Abstract: This invention features a compound of the following formula: T-(-L-C)m, T is a transportophore, L is a bond or a linker having a molecular weight up to 240 dalton, C is a non-antibiotic therapeutic agent, and m is 1, 2, 3, 4, 5, 6, 7, or 8, in which the transportophore has an immune selectivity ratio of at least 2, the transportophore is covalently bonded to the non-antibiotic therapeutic agent via the bond or the linker, and the compound has an immune selectivity ratio of at least 2.

Abstract: A solid solder element (106), such as a solder perform, is attached onto a contact surface of interest (102), such as a heat sink using and adhesive material (104). Placement of the adhesive material overcomes alignment and registration issues that may interfere with good contact to components (108), such as transistors, during the manufacturing/assembly process, such as a reflow process.