Hot-pressing　deformation　treatment　was　carried　out　at　different　strain　rates　and　temperatures　to　improve　the　microstructure　homogeneity　of　the　TiZr-based　bulk　metallic　glass　matrix　composites　(BMGMCs)　after　enlargement.　At　a　compression　strain　rate　of　0.001/s　and　temperature　of　653　K,　the　TiZr-based　BMGMCs　exhibited　good　plastic　rheological　properties　in　supercooled　liquid　region.　After　work　hardening　to　the　peak　stress,　steady-state　flow　stress　was　rapidly　obtained,　resulting　in　a　stress　drop　of　223　MPa.　Moreover,　during　this　period,　no　rapid　stress　drop　and　fracture　phenomena　were　observed.　Compared　with　those　of　the　as-cast　morphology,　the　distribution　of　dendrite　and　glass　matrix　was　more　homogeneous　after　31%　thickness　reduction　in　hot-pressing　deformation.　Accompanied　with　viscous　flow　of　the　glass　matrix,　the　dendrites　markedly　aggregated　together　after　a　thickness　reduction　ratio　of　58%.　Transmission　electron　microscopy　analysis　revealed　that　a　large　amount　of　dislocations　formed　in　the　dendrite,　and　a　large　amount　of　nanocrystals　precipitated　from　the　glass　matrix　after　hot-pressing　treatment.　The　amount　of　the　nanoparticles　continued　to　increase　as　the　amount　of　deformation　increased.　TiZr-based　BMGMCs　with　31%　compression　deformation　possessed　both　the　distinguished　plastic　strain　(epsilon(p))　of　3.95%　and　ultimate　strength　(sigma(max))　of　1595　MPa.　The　stress-strain　curve　demonstrated　that　the　rate　of　stress　drop　considerably　slowed　down　after　tensile　strength　reached　a　maximum　due　to　hot-pressing　deformation.　The　rapid　expansion　of　the　shear　band　was　efficiently　hindered　through　the　combined　effect　of　partial　nanocrystallization　of　the　glass　matrix　and　deformation　hardening　of　the　dendrite.　This　condition　further　improves　the　total　coordinated　deformation　capacity　of　TiZr-based　BMGMCs.　(C)　2018　Elsevier　B.V.　All　rights　reserved.