The invention provides a chemical embryotoxicity prediction model. The chemical embryotoxicity prediction model comprises a
cell type. The
cell type comprises myocardial cells induced and differentiated from SP3ES cells with the
karyotype as XX. An establishing method of the chemical embryotoxicity prediction model comprises the steps that 1, mouse
embryo fibroblasts are separated and cultured; 2,
in vitro multiplication culturing of the mouse ESs is conducted; thirdly, the
karyotype analysis of the mouse ESs and gender determination are conducted; fourthly, the pluripotency of the mouse ESs is maintained and evaluated; fifthly, the mouse ESs are induced and differentiated to be myocardial cells in a in-vitro mode; sixthly, chemoimmunology detection of a cardiac-specific marker
protein of the myocardial cells induced and differentiated from the mouse ESs is conducted; seventhly, real-time PCR detection of the expression profile of the myocardial cells induced and differentiated from the mouse ESs is conducted; eighthly, a pattern chemical is selected; ninthly, the
cytotoxicity of the pattern chemical is detected; tenthly, the restraining effect of the pattern chemical on the ES differentiative capacity is detected; eleventhly, the embryotoxicity of the pattern chemical is evaluated. The chemical embryotoxicity prediction model fills up the blank that female mouse embryonic stem cells do not exist in an EST
system.