Abstract: The present invention relates to a method for fabrication of a tailored gene chip for a genetic test and, more specifically, to a method for designing a tailored chip for accuracy improvement in a genetic test, that is, for determining which markers are included upon the fabrication of a tailored gene chip. The tailored gene chip according to the present invention can acquire more accurate data, compared to the use of commercialized gene chips, and thus is advantageous for a gene test. In addition, selection can be made of more accurate markers even from a lower number of markers since a marker selection method used for configuring the tailored gene chip is carried out in consideration of a target ethnic group.

Abstract: The present invention relates to a device and a method for visualizing variation in the risk of diseases in accordance with changes in environmental factors which calculate a risk of diseases by maintaining a value with respect to genetic factors and changing a value with respect to environmental factors, among factors influencing the occurrence of disease, and visualize the risk of diseases calculated on the basis of the changes in environmental factors so that a user can numerically/visually ascertain how the environmental factors (lifestyle) should be improved or retained to lower the possibility of disease and can ultimately be led to make behavioral changes in order to more actively form better habits for preventing diseases.

Abstract: A condenser which includes a coolant dispensing section which uniformly dispenses a coolant of high temperature compressed by the compressor, a body which is heat-exchanged with air while the coolant is circulating, and an exit tube which discharges the coolant heat-exchanged with the body. The coolant dispensing section includes a dispenser which uniformly dispenses the coolant, a coolant pipe which connects the compressor and an upper portion of the dispenser, and coolant supply tubes which supply the coolant into the body from the dispenser. The coolant supply tubes are protruded from a side wall of the dispenser by predetermined distances, and end portions of the coolant supply tubes are obliquely cut-away. When the coolant falls toward the bottom of the dispenser from the upper portion of the dispenser, it is introduced into the body through the coolant supply tubes. The coolant is cooled in the body by heat-exchange with the air.