Droplets　impacting　superhydrophobic　surfaces　have　been　extensively　studied　due　to　their　compelling　scientific　insights　and　important　industrial　applications.　In　these　cases,　the　commonly　reported　impact　regime　was　that　of　complete　rebound.　This　impact　regime　strongly　depends　on　the　nature　of　the　superhydrophobic　surface.　Here,　we　report　the　dynamics　of　droplets　impacting　three　hydrophobic　slippery　surfaces,　which　have　fundamental　differences　in　normal　liquid　adhesion　and　lateral　static　and　kinetic　liquid　friction.　For　an　air　cushion-like　(super)hydrophobic　solid　surface　(Aerogel)　with　low　adhesion　and　low　static　and　low　kinetic　friction,　complete　rebound　can　start　at　a　very　low　Weber　(We)　number　(-,1).　For　slippery　liquid-infused　porous　(SLIP)　surfaces　with　high　adhesion　and　low　static　and　low　kinetic　friction,　complete　rebound　only　occurs　at　a　much　higher　We　number　(＞5).　For　a　slippery　omniphobic　covalently　attached　liquid-like　(SOCAL)　solid　surface,　with　high　adhesion　and　low　static　friction　similar　to　SLIPS　but　higher　kinetic　friction,　complete　rebound　was　not　observed,　even　for　a　We　as　high　as　200.　Furthermore,　the　droplet　ejection　volume　after　impacting　the　Aerogel　surface　is　100%　across　the　whole　range　of　We　numbers　tested　compared　to　other　surfaces.　In　contrast,　droplet　ejection　for　SLIPs　was　only　observed　consistently　when　the　We　was　above　5-10.　For　SOCAL,　100%　(or　near　100%)　ejection　volume　was　not　observed　even　at　the　highest　We　number　tested　here　(-,200).　This　suggests　that　droplets　impacting　our　(super)hydrophobic　Aerogel　and　SLIPS　lose　less　kinetic　energy.　These　insights　into　the　differences　between　normal　adhesion　and　lateral　friction　properties　can　be　used　to　inform　the　selection　of　surface　properties　to　achieve　the　most　desirable　droplet　impact　characteristics　to　fulfill　a　wide　range　of　applications,　such　as　deicing,　inkjet　printing,　and　microelectronics.