The paper presents the experimental realization of an optical tweezer array with over 6,100 neutral atoms trapped in approximately 12,000 sites, achieving state-of-the-art performance in several key metrics. The array is designed to trap and control individual atoms, which is crucial for quantum computing, simulation, and metrology. Key achievements include: 1. **High Coherence Time**: A coherence time of 12.6(1) seconds for hyperfine qubits, a record for optical tweezer arrays. 2. **Long Trapping Lifetimes**: A trapping lifetime of 22.9(1) minutes in a room-temperature apparatus, enabling high imaging survival (99.98952%) and imaging fidelity (99.99374%). 3. **Universal Quantum Computing**: The results suggest that universal quantum computing with ten thousand atomic qubits could be a near-term prospect, providing a path towards quantum error correction with hundreds of logical qubits. 4. **Large-Scale Array Generation**: The array is generated using near-infrared wavelengths to minimize decoherence from photon scattering and dephasing, and it achieves uniform loading and high imaging fidelity across the sites. 5. **Imaging and Survival**: The imaging survival probability is 99.98952%, and the vacuum-limited lifetime is 22.9(1) minutes, enabling low-loss, high-fidelity detection of single atoms in large-scale arrays. 6. **Qubit Coherence and Gates**: The array demonstrates long coherence times and high-fidelity single-qubit gates, with a global single-qubit gate fidelity of 99.9834(2)%. These results indicate that the optical tweezer array platform can support large-scale quantum computing and metrology experiments, paving the way for applications in quantum error correction, simulation, and high-precision measurements.The paper presents the experimental realization of an optical tweezer array with over 6,100 neutral atoms trapped in approximately 12,000 sites, achieving state-of-the-art performance in several key metrics. The array is designed to trap and control individual atoms, which is crucial for quantum computing, simulation, and metrology. Key achievements include: 1. **High Coherence Time**: A coherence time of 12.6(1) seconds for hyperfine qubits, a record for optical tweezer arrays. 2. **Long Trapping Lifetimes**: A trapping lifetime of 22.9(1) minutes in a room-temperature apparatus, enabling high imaging survival (99.98952%) and imaging fidelity (99.99374%). 3. **Universal Quantum Computing**: The results suggest that universal quantum computing with ten thousand atomic qubits could be a near-term prospect, providing a path towards quantum error correction with hundreds of logical qubits. 4. **Large-Scale Array Generation**: The array is generated using near-infrared wavelengths to minimize decoherence from photon scattering and dephasing, and it achieves uniform loading and high imaging fidelity across the sites. 5. **Imaging and Survival**: The imaging survival probability is 99.98952%, and the vacuum-limited lifetime is 22.9(1) minutes, enabling low-loss, high-fidelity detection of single atoms in large-scale arrays. 6. **Qubit Coherence and Gates**: The array demonstrates long coherence times and high-fidelity single-qubit gates, with a global single-qubit gate fidelity of 99.9834(2)%. These results indicate that the optical tweezer array platform can support large-scale quantum computing and metrology experiments, paving the way for applications in quantum error correction, simulation, and high-precision measurements.