We　propose　a　general　approach　to　implement　ultrafast　nonadiabatic　geometric　single-　and　two-qubit　gates　by　employing　counter-rotating　effects.　This　protocol　is　compatible　with　most　optimal　control　methods　used　in　previous　rotating-wave　approximation　(RWA)　protocols;　thus,　it　is　as　robust　as　(or　even　more　robust　than)　the　RWA　protocols.　Using　counter-rotating　effects　allows　us　to　apply　strong　drives.　Therefore,　we　can　improve　the　gate　speed　by　5-10　times　compared　to　the　RWA　counterpart　for　implementing　high-fidelity　(≥99.99%)　gates.　Such　an　ultrafast　evolution　(nanoseconds,　even　picoseconds)　significantly　reduces　the　influence　of　decoherence　(e.g.,　the　qubit　dissipation　and　dephasing).　Moreover,　because　the　counter-rotating　effects　no　longer　induce　a　gate　infidelity　(in　both　the　weak　and　strong　driving　regimes),　we　can　achieve　a　higher　fidelity　compared　to　the　RWA　protocols.　Therefore,　in　the　presence　of　decoherence,　one　can　implement　ultrafast　geometric　quantum　gates　with　≥99%　fidelities.　©　2022　American　Physical　Society.