This　research　investigated　the　application　of　municipal　solid　waste　incineration　fly　ash　(MSWIFA),　municipal　solid　waste　incineration　bottom　ash　(MSWIBA),　and　construction　waste　residue　(CWR)　as　raw　materials　for　the　comprehensive　conversion　into　municipal　solid　waste　ceramics　employing　the　SiO2-Al2O3-CaO-MgO　(8　wt%)　phase　diagram.　This　study　aimed　to　evaluate　the　influence　of　the　addition　of　MSWIFA　and　sintering　temperature　on　important　ceramics　properties,　including　linear　shrinkage,　water　absorption,　sintering　range,　and　flexural　strength.　Additionally,　relationships　were　established　among　these　physical　parameters　using　Pearson＇s　correlation　coefficient.　The　thermal　behavior　of　the　mixture　was　analyzed　through　automatic　slag　melting　point　tester　and　TG-DSC　techniques.　Furthermore,　characterization　of　the　crystalline　phase　transition　and　microstructure　of　sintered　samples　was　performed　by　XRD,　Factsage,　and　SEM.　The　results　showed　that　both　the　addition　of　MSWIFA　and　the　sintering　temperature　significantly　influenced　the　crystal　phase　composition　of　the　sintered　ceramics.　Moreover,　the　addition　of　MSWIFA　and　the　sintering　temperature　had　a　significant　influence　on　the　pore　structure　of　the　ceramics.　These　ceramics　exhibited　exceptional　properties,　such　as　the　extremely　low　water　absorption　rate　of　0.08　%　and　the　remarkable　flexural　strength　of　124.78　MPa.　Ceramics　performance　indicators　were　far　higher　than　the　requirements　of　China＇s　national　standard　GB/T4100-2015.　The　sintering　range　had　the　capability　to　attain　30　°C,　guaranteeing　the　feasibility　of　practical　manufacturing　processes.　Furthermore,　leaching　concentration　tests　conducted　on　additive-free　ceramic　samples　reveal　a　low　risk　of　heavy　metal　contamination,　as　the　heavy　metals　were　effectively　solidified　within　the　crystalline　and　amorphous　phases　of　the　ceramics.　The　comprehensive　utilization　of　MSWIFA,　MSWIBA,　and　CWR　for　the　production　of　fully　solid　waste　ceramics　not　only　yields　cost　reduction　benefits　but　also　promotes　efficient　utilization,　presenting　a　feasible　and　highly　promising　approach　to　sustainable　waste　management.　©　2024　Elsevier　Ltd　and　Techna　Group　S.r.l.