In　this　paper,　the　reversible　switching　between　underwater　(super-)　aerophilicity　and　superaerophobicity　was　achieved　on　various　femtosecond　(fs)　laser-induced　superhydrophobic　surfaces.　A　range　of　materials　including　Al,　stainless　steel,　Cu,　Ni,　Si,　poly(tetrafluoroethylene),　and　polydimethylsiloxane　were　first　transformed　to　superhydrophobic　after　the　formation　of　surface　microstructures　through　fs　laser　treatment.　These　surfaces　showed　(super-)　aerophilicity　when　immersed　in　water.　In　contrast,　if　the　surface　was　prewetted　with　ethanol　and　then　dipped　into　water,　the　surfaces　showed　superaerophobicity　in　water.　The　underwater　aerophilicity　of　the　superhydrophobic　substrates　could　easily　recover　by　drying.　The　switching　between　the　underwater　aerophilicity　and　superaerophobicity　can　be　fast　repeated　many　cycles　and　is　substrate-independent　in　stark　contrast　to　common　wettability-switchable　surfaces　based　on　stimuli-responsive　chemistry.　Therefore,　the　as-prepared　superhydrophobic　surfaces　can　capture　or　repel　air　bubbles　in　water　by　selectively　switching　between　underwater　superaerophobicity　and　aerophilicity.　Finally,　we　demonstrated　that　the　underwater　bubbles　could　pass　through　an　underwater　aerophilic　porous　sheet　but　were　intercepted　by　an　underwater　superaerophobic　porous　sheet.　The　selective　passage　of　the　underwater　bubbles　was　achieved　by　the　reversible　switching　between　the　underwater　aerophilicity　and　superaerophobicity.　We　believe　that　this　substrate-independent　and　fast　method　of　switching　air　wettability　has　important　applications　in　controlling　air　behavior　in　water.