Sustainable　textile　wastewater　treatment　strongly　demands　an　indispensable　paradigm　shift　from　removal　of　contaminants　to　effective　recovery　of　resources.　In　this　work,　a　hybrid　tight　ultrafiltration　(TUF)　and　bipolar-membrane　electrodialysis　(BMED)　process　was　explored　to　recover　resources　(i.e.,　dye　extraction,　acid/base　conversion,　and　pure　water　regeneration)　from　highly　saline　textile　wastewater.　Using　a　TUF　membrane　with　5000　Da　molecular　weight　cutoff　(MWCO)　can　obtain　a　sufficient　rejection　(>99.6%)　of　both　reactive　and　direct　dyes,　due　to　the　dye　aggregation.　Additionally,　the　considerably　large　pore　size　of　the　TUF　membrane　endowed　the　process　with　free　transport　of　NaCl　and　Na2SO4　(i.e.,　>99.42%),　exhibiting　promise　as　an　alternative　means　of　separation　of　dyes　and　Na2SO4.　Additionally,　an　integrated　TUF-based　diafiltration　was　designed　to　separate　the　model　dye　(i.e.,　reactive　blue　194)　and　Na2SO4.　Particularly,　reactive　blue　194　was　remarkably　concentrated　from　997.9　to　7952.8　mg·L-1　by　the　TUF　membrane　with　99.5%　dye　recovery　and　99.95%　desalination　efficiency　after　8.0　diavolumes.　Furthermore,　a　trace　amount　(i.e.,　2.7　mg·L-1)　of　reactive　blue　194　was　observed　in　Na2SO4-containing　TUF　permeate,　enabling　a　subsequent　BMED　operation.　With　the　implementation　of　BMED,　the　Na2SO4-containing　TUF　permeate　was　sufficiently　desalinated　for　acid/base　conversion　and　pure　water　regeneration　with　no　obvious　fouling　on　the　ion　exchange　membranes.　These　results　demonstrate　a　potential　applicability　of　the　hybrid　TUF/BMED　process　for　sustainable　management　of　textile　wastewater,　providing　a　strategy　for　practical　applications　in　treatment　of　other　high-salinity　wastewaters.　©　2019　American　Chemical　Society.