Refractory　high-entropy　alloys　(RHEAs)　have　attracted　widespread　attention　in　recent　years　as　multi-component　alloys　applied　to　high-temperature　fields.　High　melting　point　ele-ments　endow　special　microstructures　and　properties　to　RHEAs,　which　differ　from　those　of　conventional　alloys　and　pose　a　challenge　to　conventional　fabricating　technologies.　Laser　fabrication　technologies　are　attractive　in　fabricating　RHEAs　since　a　high-power　density　laser　beam　can　be　used　as　a　controllable　heat　source　to　quickly　melt　refractory　elements　and　then　followed　by　rapid　cooling　and　solidification　to　optimize　the　dependent　properties.　This　paper　reviews　recent　research　progress　in　the　fabricating　process　and　the　influence　of　processing　on　microstructural　evolution　and　phase　formation　of　laser-fabricated　RHEAs,　aiming　to　address　the　use　of　laser　technologies　for　improving　room　temperature　and　high　-temperature　properties　of　RHEAs,　thereby　providing　a　reference　for　research　community.　The　current　methods　of　laser　fabricating　RHEAs,　namely　selective　laser　melting,　laser　metal　deposition　and　laser　cladding,　are　first　introduced,　and　then　the　relationships　between　chemical　composition,　microstructure　and　properties　of　RHEAs　are　analyzed　from　exper-imental　and　simulation　perspectives.　In　addition,　the　microhardness,　oxidation　resistance,　wear　resistance,　corrosion　resistance,　irradiation　resistance,　and　biocompatibility　of　laser　fabricated　RHEAs　are　discussed.　Finally,　the　critical　challenges　and　opportunities　for　laser　fabricating　RHEAs　in　the　research　field　are　highlighted,　based　on　the　research　perspective　of　this　topic.&　COPY;　2023　The　Authors.　Published　by　Elsevier　B.V.　This　is　an　open　access　article　under　the　CC　BY-NC-ND　license　(http://creativecommons.org/licenses/by-nc-nd/4.0/).