Abstract: Disclosed herein are nanostructured conducting films. The nanostructured conducting films can comprise a nanocrystal phase comprising a plurality of nanocrystals comprising a first metal chalcogenide, the nanocrystal phase being dispersed within a continuous phase comprising a second metal chalcogenide, and wherein the nanocrystal phase, the continuous phase, or a combination thereof further comprises a dopant. In some examples, the first metal chalcogenide and/or the second metal chalcogenide comprise a metal oxide. Also disclosed herein are transparent conducting oxide films having heterogeneous dopant distributions, the films having high mobility, good conductivity, or combinations thereof. Also described herein are methods of making and methods of use of the nanostructured conducing films described herein.

Abstract: Provided are a preparation method of iron oxide-based paramagnetic or pseudo-paramagnetic nanoparticles, iron oxide-based nanoparticles prepared by the same, and a T1 contrast agent including the same. More particularly, the disclosure describes a method for preparation of iron oxide nanoparticles having a extremely small and uniform size of 4 nm or less based on thermal decomposition of iron oleate complex, iron oxide-based paramagnetic or pseudo-paramagnetic nanoparticles prepared by the same, and a T1 contrast agent including iron oxide-based paramagnetic or pseudo-paramagnetic nanoparticles.

Abstract: The present invention relates to a nanoformulated self-assembled pharmaceutical composition for photodynamic therapy. More particularly, the present invention is directed to a self-assembled pharmaceutical composition for photodynamic therapy comprising a photosensitizer, a ligand A which is separated at a specific pH range, and a ligand B of which surface charge changes at a specific pH range and a method for manufacturing the same.

Abstract: The present invention relates to MRI contrasting agent for contrasting cancer cell which contains ultrafine nanoparticles. More particularly, the present invention is directed to a self-assembled ligand composition comprising a ligand A, which is separated at a specific pH range, and a ligand B of which surface charge changes at a specific pH range, MRI contrast agent for contrasting cancer cell comprising said ligand composition and MRI contrasting nanoparticles, and the methods for preparing them.

Abstract: Disclosed herein are nanostructured conducting films. The nanostructured conducting films can comprise a nanocrystal phase comprising a plurality of nanocrystals comprising a first metal chalcogenide, the nanocrystal phase being dispersed within a continuous phase comprising a second metal chalcogenide, and wherein the nanocrystal phase, the continuous phase, or a combination thereof further comprises a dopant. In some examples, the first metal chalcogenide and/or the second metal chalcogenide comprise a metal oxide. Also disclosed herein are transparent conducting oxide films having heterogeneous dopant distributions, the films having high mobility, good conductivity, or combinations thereof. Also described herein are methods of making and methods of use of the nanostructured conducing films described herein.

Abstract: Provided are a preparation method of iron oxide-based paramagnetic or pseudo-paramagnetic nanoparticles, iron oxide-based nanoparticles prepared by the same, and a T1 contrast agent including the same. More particularly, the disclosure describes a method for preparation of iron oxide nanoparticles having a extremely small and uniform size of 4 nm or less based on thermal decomposition of iron oleate complex, iron oxide-based paramagnetic or pseudo-paramagnetic nanoparticles prepared by the same, and a T1 contrast agent including iron oxide-based paramagnetic or pseudo-paramagnetic nanoparticles.

Abstract: An inter-processor communication apparatus of a mobile communication system includes: a data-FIFO for storing a receiving data; a slave-logic for controlling a writing operation of the data-FIFO and counting the length of the receiving data until an end-tap signal is inputted; a length-FIFO for storing the data length counted by the slave-logic; and a CPU for continuously reading the data stored in the data-FIFO as much as the data read from the length-FIFO when an interrupt signal is inputted from the slave-logic. Since the data length value is applied to the CPU to read continuously the one frame data, the load of the CPU is reduced and the data processing speed is improved. Furthermore, the performance of the inter-processor communication apparatus can be accordingly enhanced.