We present a compact design for a dual-beam Zeeman slower, optimized for efficient production of cold-atom applications. Traditional single-beam configurations face challenges from substantial residual atomic flux impacting downstream optical windows, resulting in increased system size, atomic-deposition contamination, and a reduced operational lifetime. Our approach employs two oblique laser beams and a capillary-array collimation system to address these challenges while maintaining efficient deceleration. For rubidium (${}^{87}\mathrm{Rb}$), simulations demonstrate a significant increase in the fraction of atoms captured by a two-dimensional magneto-optical trap and nearly eliminate contamination of the optical windows by atoms, all within a compact Zeeman-slower length of around $44$ cm. Experimental validation with $\mathrm{Rb}$ and $\mathrm{Yb}$ demonstrates highly efficient atomic loading within the same compact design. This advancement represents a substantial improvement for high-flux cold-atom applications, providing reliable performance for high-precision metrology, quantum computation, and simulation.

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• Atomic spectra
• Atomic, optical & lattice clocks
• Cooling & trapping
• Fine & hyperfine structure
• Optical pumping
• Spontaneous emission
• Zeeman effect
• Atomic gases
• Ultracold gases
• Atom & ion cooling