Abstract:
An apparatus is invented for implementing adaptive routing in packet switched networks. The hardware structure of the apparatus is based on the AntNet, which is an adaptive routing algorithm for selecting an optimized network route using a mobile agent that simulates an ant. The AntNet-based hardware structure can be applied to a system-on-chip system. The original AntNet algorithm is adapted for hardware implementation. Performance of the modified algorithm of the invention was verified by comparing the modified algorithm with the original AntNet algorithm in a virtual network structure. The hardware structure of the invention is effective for AntNet-based routing.
Abstract:
A vertical video format converter is disclosed including a memory unit which consists of a plurality of line memories to store input video data in one of the line memories, a filter for multiplying video data items respectively output from line memories by coefficients input into corresponding video data item positions and adding the multiplied data items to output filtered data. In the present invention, the position of the filter center value is not fixed, but can be located arbitrarily and the filter coefficients need not be symmetrical. Moreover, an interpolation may be performed by one-time filtering, resulting in faster data processing.
Abstract:
A composition for sensing an analyte can include a photoluminescent nanostructure complexed to a sensing polymer, where the sensing polymer includes an organic polymer non-covalently bound to the photoluminescent nanostructure and an analyte-binding protein covalently bound to the organic polymer, and where the analyte-binding protein is capable of selectively binding the analyte, and the analyte-binding protein undergoes a substantial conformational change when binding the analyte. Separately, a composition for sensing an analyte, can include a complex, where the complex includes a photoluminescent nanostructure in an aqueous surfactant dispersion and a boronic acid capable of selectively reacting with an analyte. The compositions can be used in devices and methods for sensing an analyte.
Abstract:
A composition for sensing an analyte can include a photoluminescent nanostructure complexed to a sensing polymer, where the sensing polymer includes an organic polymer non-covalently bound to the photoluminescent nanostructure and an analyte-binding protein covalently bound to the organic polymer, and where the analyte-binding protein is capable of selectively binding the analyte, and the analyte-binding protein undergoes a substantial conformational change when binding the analyte. Separately, a composition for sensing an analyte, can include a complex, where the complex includes a photoluminescent nanostructure in an aqueous surfactant dispersion and a boronic acid capable of selectively reacting with an analyte. The compositions can be used in devices and methods for sensing an analyte.
Abstract:
Systems and methods related to compositions including hydrogels and photoluminescent nanostructures are described. The compositions can undergo a change in a physical, chemical, dielectric, or other property upon exposure to an altering stimulus. Changes in one or more properties of the hydrogel may impart a change in the photoluminescence of the nanostructures embedded in the hydrogel.
Abstract:
A manufacturing method of a photonic crystal is provided. In the method, a high-refractive-index material is conformally deposited on an exposed portion of a periodic template composed of a low-refractive-index material by an atomic layer deposition process so that a difference in refractive indices or dielectric constants between the template and adjacent air becomes greater, which makes it possible to form a three-dimensional photonic crystal having a superior photonic bandgap. Herein, the three-dimensional structure may be prepared by a layer-by-layer method.
Abstract:
A composition can include a nanostructure, and a linker associated with the nanostructure, wherein the linker is configured to interact with a capture protein. The nanostructure can include a single-walled carbon nanotube. A plurality of the compositions can be configured in an array.
Abstract:
The present invention relates to a method for manufacturing a reflective multi-layered thin film mirror for an extreme ultraviolet radiation (EUV) exposure process that is one of the next generation exposure process masks using an atomic force microscope (AFM). This reflective multi-layered thin film mirror for extreme ultraviolet radiation (EUV) exposure process allows metal oxide structures with fixed height and ' width to be obtained using anodic oxidization phenomenon between the cantilever tip of a atomic force microscope and an absorber material during the patterning of an absorber layer on a multi-layered thin film of a substrate, followed by forming the ultra-fine line width absorber patterns via etching of the metal oxide structure. Use of the manufacturing process of this invention is advantageous in manufacturing of extreme ultraviolet radiation exposure mask mirrors with high resolution and in manufacturing of reflective multi-layered thin film mirrors with minute absorber pattern sizes (less than 20 nm line width) compared to traditional manufacturing methods.
Abstract:
An image zooming apparatus and method for zooming a specific portion of an image in a vertical direction for a digital TV is disclosed. The present apparatus includes a line memory unit for storing the input images; an input data controller for storing the input data in the line memory unit according to a type of the input image and zoom magnification; a zoom controller for receiving zoom area information and zoom magnification from a user, and controlling the data storage in the line memory unit and the processing of the stored data; and data processor for providing a zoomed image according to the control of the zoom controller. The present invention allows a user to zoom an image area of interest and re-zoom a zoomed image area of interest, thereby providing a user-friendly device.
Abstract:
A composition can include a nanostructure, and a linker associated with the nanostructure, wherein the linker is configured to interact with a capture protein. The nanostructure can include a single-walled carbon nanotube. A plurality of the compositions can be configured in an array.