This paper proposes a modular architecture for generating remote entanglement between neutral ytterbium atom qubits, which is crucial for scaling quantum computing technologies. The key innovation is the use of an optical cavity to generate remote Bell pairs with high fidelity and rate. By loading a large number of atoms into a single cavity and controlling their coupling using local light shifts, the cost of transporting and initializing atoms is amortized over many entanglement attempts, maximizing the entanglement generation rate. The twisted ring cavity geometry suppresses various sources of error, allowing for high-fidelity entanglement generation. The authors estimate a spin-photon entanglement rate of \(5 \times 10^5\) s\(^{-1}\) and a Bell pair rate of \(1.0 \times 10^5\) s\(^{-1}\), with an average fidelity near 0.999. Additionally, the photon detection times provide soft information about error locations, which can be used to improve logical qubit performance. This approach provides a practical path to scalable modular quantum computing using neutral ytterbium atoms.This paper proposes a modular architecture for generating remote entanglement between neutral ytterbium atom qubits, which is crucial for scaling quantum computing technologies. The key innovation is the use of an optical cavity to generate remote Bell pairs with high fidelity and rate. By loading a large number of atoms into a single cavity and controlling their coupling using local light shifts, the cost of transporting and initializing atoms is amortized over many entanglement attempts, maximizing the entanglement generation rate. The twisted ring cavity geometry suppresses various sources of error, allowing for high-fidelity entanglement generation. The authors estimate a spin-photon entanglement rate of \(5 \times 10^5\) s\(^{-1}\) and a Bell pair rate of \(1.0 \times 10^5\) s\(^{-1}\), with an average fidelity near 0.999. Additionally, the photon detection times provide soft information about error locations, which can be used to improve logical qubit performance. This approach provides a practical path to scalable modular quantum computing using neutral ytterbium atoms.