Liquid　evaporation　from　micro/nanoscale　pores　is　widely　encountered　in　cutting-edge　technologies　and　applications.　Due　to　its　two-　or　three-dimensional　features,　the　nano-porous　evaporation　is　less　understood　compared　to　the　one-dimensional　evaporation　of　a　planar　liquid　surface.　This　paper　reported　a　novel　study　of　the　inter-pore　interference　effect　in　nano-porous　evaporation,　clarifying　the　variation　in　the　net　evaporation　rate　from　individual　nanopores　when　the　inter-pore　distance,　neighboring　nanopore　diameter,　or　liquid　temperature　were　changed.　Molecular　simulation　results　showed　that　the　reduction　in　inter-pore　distance　could　enhance　the　evaporation　rate　from　nanopores　by　augmenting　the　vapor　convection　effect　and　suppressing　the　condensation　flux.　This　interference　effect　was　more　pronounced　at　lower　evaporation　intensity　with　the　evaporation　flux　being　different　by　up　to　25%　from　the　one-dimensional　case.　The　inter-pore　interference　was　equally　observed　for　Knudsen　numbers　of　0.1　and　10.　Additionally,　the　non-uniformity　in　nanopore　size　distribution　had　no　influence　on　the　evaporative　mass　flux　within　the　present　parameter　range.　The　non-uniformity　in　nanopore　temperatures,　however,　could　affect　the　net　evaporation　from　individual　nanopores,　similarly　by　modulating　the　vapor　convection　magnitude　in　adjacent　to　the　interface　and　the　condensation　flux.　The　effect　of　inter-pore　interference　is　found　to　be　essential　at　low　evaporation　intensity,　which　is　highly　relevant　in　industrial　applications　such　as　water　evaporation　under　atmospheric　pressure.　　©　2023　Author(s).