  We demonstrate a native $\mathrm{CNOT}$ gate between two individually
addressed neutral atoms based on electromagnetically induced transparency
(EIT). This protocol utilizes the strong long-range interactions of Rydberg
states to enable conditional state transfer on the target qubit when operated
in the blockade regime. An advantage of this scheme is it enables
implementation of multi-qubit CNOT$^k$ gates using a pulse sequence independent
of qubit number, providing a simple gate for efficient implementation of
digital quantum algorithms and stabiliser measurements for quantum error
correction. We achieve a loss corrected gate fidelity of
$\mathcal{F}_\mathrm{CNOT}^\mathrm{cor} = 0.82(6)$, and prepare an entangled
Bell state with $\mathcal{F}_\mathrm{Bell}^\mathrm{cor} = 0.66(5)$, limited at
present by laser power. We present a number of technical improvements to
advance this to a level required for fault-tolerant scaling.
