Abstract: Provided is a vaccine composition for preventing respiratory syncytial virus (RSV) infection, which is in the form of a liposome formulation including a RSV antigen, monophosphoryl lipid A (MLA), and/or a cobalt-porphyrin-phospholipid (CoPoP) conjugate. The vaccine composition exhibits excellent vaccine efficacy from a RSV antigen with enhanced immunogenicity and a combination of immune adjuvants for enhancing immune activity and antigen presentation.

Abstract: A Flat Panel Display (FDP) includes: a display device arranged on a substrate; an encapsulation substrate adapted to encapsulate the display device; a conductive layer arranged on an outside surface of the encapsulation substrate; an anisotropic conductive material arranged on the conductive layer; and a bezel arranged in contact with the anisotropic conductive material. A method of fabricating an FDP includes: forming a display device on a substrate; encapsulating the substrate with an encapsulation substrate; forming a conductive layer on an outside surface of the encapsulation substrate; forming an anisotropic conductive material on the conductive layer; and mounting the substrate on a bezel such that the bezel contacts the anisotropic conductive material.

Abstract: A Flat Panel Display (FDP) includes: a display device arranged on a substrate; an encapsulation substrate adapted to encapsulate the display device; a conductive layer arranged on an outside surface of the encapsulation substrate; an anisotropic conductive material arranged on the conductive layer; and a bezel arranged in contact with the anisotropic conductive material. A method of fabricating an FDP includes: forming a display device on a substrate; encapsulating the substrate with an encapsulation substrate; forming a conductive layer on an outside surface of the encapsulation substrate; forming an anisotropic conductive material on the conductive layer; and mounting the substrate on a bezel such that the bezel contacts the anisotropic conductive material.

Abstract: An apparatus for keeping an optimal penetration depth formed at the front end of an oxygen tuyere in the producing facilities of molten pig iron utilizing non-coking coal and a method for keeping the same. A sensor for measuring distance using a laser for continuously measuring the penetration depth, is provided. Comprised is a process computer for continuously receiving the measured penetration depth from the sensor and comparing the received penetration depth with a predetermined optimal penetration depth to obtain a difference between them, and for obtaining a changing amount of a pressure in a melter gasifier through a mutual relation between a predetermined changing amount of a pressure in the melter gasifier with that of the penetration depth using the difference between the actual penetration depth with the optimal penetration depth.

Abstract: An apparatus for manufacturing molten iron by using a calcination furnace, and a manufacturing method therefor are disclosed. A high temperature reducing gas (1000 to 1100° C.) from a melter gasifier is used as a calcination heat in a calcination furnace so as to cool the high temperature reducing gas to the optimum reduction temperature (800 to 850° C.), and so as to supply the cooled reducing gas to a shaft furnace, whereby the manufacture of the molten iron can be efficiently carried out, and a high thermal efficiency is realized even without a separate gas cooling device. Therefore, a separate cooling device for cooling the hot reducing gas of the melter gasifier is not required. Further, the hot reducing gas is naturally cooled at the calcination furnace, and therefore, the thermal efficiency of the hot reducing gas of the melter gasifier is maximized. Further, a separate water-using cooler and a separate compressor are omitted, and therefore, the molten iron manufacturing facility is simplified.

Abstract: A method for agglomerating iron ore particles pre-reduced to produce hot pig iron, wherein hot iron ore particles pre-reduced in the pre-reduction furnace are simply mixed with aluminum powder or aluminum-containing metal powder before being loaded in the smelting reduction furnace so that they will be agglomerated, thereby being capable of not only simplifying the agglomeration, but also eliminating the adverse effect on the quality of ingot iron caused by impurities such as S or P. Aluminum dross, which is a waste, may be used as the aluminum-containing metal powder for agglomerating the iron ore particles. In this case, a reduced energy consumption and disposal of wastes can be achieved.