Relationships　between　electrical,　thermal　conductivities,　compressive　strength　and　penetration　of　permeable　cement　concrete　with　various　rheological　parameters　are　investigated　in　this　paper.　Water-cement　ratios　applied　in　this　research　are　0.3,　0.35　and　0.4.　Various　dosages　of　polycarboxylate　superplasticizer　are　used　to　adjust　the　fresh　paste　to　different　rheological　properties.　Results　show　that　the　evaluation　function　for　rheological　parameters　(slump　flow　and　plastic　viscosity)　and　permeability　coefficient　fits　well　with　a　linear　function.　Meanwhile,　the　evaluation　functions　for　the　electrical　resistance,　compressive　and　permeability　coefficient　have　been　proposed　and　the　correlation　has　been　deduced　as　one　dimensional　Gauss　function　equation.　Furthermore,　the　evaluation　function　for　thermal　conductivity　and　permeability　coefficient　is　obtained　from　this　research.　Permeability　coefficient　presents　a　downward　trend　with　the　increasing　slump　flow　and　decreasing　plastic　viscosity.　A　reasonable　equivalent　circuit　diagram　is　selected　to　reveal　the　conductive　mechanism　of　permeable　cement　concrete　(consisted　of　the　contact　resistance　in　specimen　and　its　embedded　electrodes　and　the　following　series-connected　electrical　components).　Additionally,　higher　water-cement　ratio　with　larger　fluidity　and　lower　plastic　viscosity　shows　a　worse　permeability　coefficient.　(C)　2020　Elsevier　Ltd.　All　rights　reserved.