Due　to　good　mechanical　properties,　biocompatibility　and　corrosion　resistance,　zirconia　ceramic　has　been　widely　used　in　dental　repairing.　However,　the　present　technologies　for　zirconia　ceramic　fabrication　based　on　stereolithography　have　some　drawbacks,　such　as　low　fabrication　accuracy,　low　debinding　efficiency,　high　shrinkage,　and　shrinkage　anisotropy.　In　order　to　solve　these　problems,　a　kind　of　hybrid　resin　was　prepared　by　using　different　monomers　with　different　functionalities,　and　then　zirconia　ceramic　slurry　with　solid　content　of　55%　(volume　percentage)　was　prepared　by　using　this　hybrid　resin,　which　dispersed　organic　matter　pyrolysis　interva,　promoting　debinding　efficiency　and　avoiding　crack.　Besides,　effect　of　laser　power　and　scanning　speed　to　the　curing　unit　shape　were　studied,　the　optimum　laser　power　of　670　mW　and　scanning　speed　of　2500　mm/s　were　selected　to　meet　requirments　of　fabrication　accuracy　and　efficiency.　In　addition,　effects　of　scanning　line　space　and　scanning　line　width　compensation　to　horizontal　dimension　accuracy　and　slicing　thickness　to　the　stacking　dimension　accuracy　were　studied.　Optimum　process　scanning　line　space　of　0.08　mm,　scanning　line　width　compensation　of　0.10　mm,　and　slicing　thickness　of　0.03　mm　were　determined.　Meanwhile,　the　green　part　was　debinded　in　nitrogen　atmosphere,　which　reduced　pyrolysis　rate　of　organic　matter,　performed　a　further　improvement　of　debinding　efficiency　and　green　part　cracking.　At　last,　the　debinded　part　was　sintered.　The　plane　and　stacking　direction　shrinkages　of　the　sintered　part　are　(18.26　+/-　0.10)%　and　(19.20　+/-　0.13)%,　respectively.　All　these　results　demonstrated　that　the　shrinkage　is　reduced　and　the　shrinkage　anisotropy　is　reduced　obviously,　which　provides　basis　for　application　in　dental　repairing.