The　exceptional　corrosion　resistance　and　mechanical　properties　of　high-entropy　metallic　glasses　(HE-MGs)　are　highly　desirable　for　diverse　critical　applications.　However,　a　long-standing　problem　of　these　alloys　is　that　their　alloy　design　approaches　are　based　on　limited　equiatomic　or　near-equiatomic　ratios.　In　this　study,　a　novel　senary　alloy　(non-equiatomic　Fe3Cr2Al2CuNi4Si5)　with　amorphous　structure　was　prepared.　This　alloy　exhibited　exceptional　corrosion　resistance　and　Vickers　hardness　as　high　as　~　1150 Hv　at　room　temperature.　The　processing　route　involved　amorphous　powder　molding　via　a　mechanical　alloying　and　ultrahigh　pressure　consolidation　technique,　resulting　in　an　optimal　microstructure　of　amorphous　structure　with　nanoparticles　uniformly　distributed　in　the　matrix　alloy.　This　approach　can　effectively　inhibit　the　crystallization　of　amorphous　structure,　thus　providing　a　general　pathway　for　manufacturing　next-generation　non-equiatomic　HE-MGs　with　both　exceptional　corrosion　resistance　and　strength.　©　2019,　The　Chinese　Society　for　Metals　(CSM)　and　Springer-Verlag　GmbH　Germany,　part　of　Springer　Nature.