Abstract:
A breast cancer can be diagnosed early with a minimum invasive method and high convenience of a patient using a composition and a kit for diagnosing the breast cancer including: one or more micro RNAs which are selected from a group comprising hsa-miR-126, hsa-miR-23a, hsa-miR-24, hsa-miR-19b, hsa-miR-103, hsa-miR-142-3p, hsa-miR-144, hsa-miR-15a, hsa-miR-185, hsa-miR-93, and hsa-miR-30c contained in a vesicle; or polynucleotide which is in the same or in complementary relations with a fragment of the micro RNA. Also, the breast cancer can be diagnosed using a method for diagnosing the breast cancer and a method for obtaining information required for the diagnosis of the breast cancer using the composition and the kit.
Abstract:
According to a composition for monitoring vesicles in samples, a kit and a method for monitoring vesicles in samples using the same, a monitoring of the process can be performed, and the composition can be used as an internal control group and for quality assurance of samples, and track vesicles. [Reference numerals] (AA,EE) Sample-1; (BB,FF) Sample -2; (CC,GG) Sample -3; (DD,HH) Sample -4
Abstract:
The present invention relates to a composition and a kit for detecting a vesicle and a method for analyzing a vesicle using the same. According to the composition, the kit, and the method, detection deviation due to the kind of a detection target or external protein contamination can be reduced by directly detecting microvesicles. Moreover, microvesicles can be quickly and effectively detected through a simple process. In addition, surface protein of microvesicles can be quickly and effectively identified through a simple process and ligands combined with microvesicles can be screened.
Abstract:
PURPOSE: A microfluidic device is provided to efficiently isolate a target material from two or more materials with different density and to efficiently amplify nucleic acids in an emulsion. CONSTITUTION: A microfluidic device comprises: a disk-shaped rotational body; first chambers which are separately arranged from the center of the body in a centrifugal force direction; a second chamber (20) with upper outlet parts (24a) and a lower outlet part (26a) which is separated from the upper outlet parts in a centrifugal force direction; and third chambers (30) which are linked to the upper outlet parts and the lower outlet part of the second chamber for communication by fluids. The microfluidic device is able to control the flow of a fluid for isolating a target material from two or more materials with different density using a centrifugal force and torque.