  Spatially splitting nonclassical light beams is in principle prohibited due
to noise contamination during beam splitting. We propose a platform based on
thermal motion of atoms to realize spatial multiplexing of squeezed light.
Light channels of separate spatial modes in an anti-relaxation coated vapor
cell share the same long-lived atomic coherence jointly created by all channels
through the coherent diffusion of atoms which in turn enhances individual
channel's nonlinear process responsible for light squeezing. Consequently, it
behaves as squeezed light in one optical channel transferring to other distant
channels even with laser powers below the threshold for squeezed light
generation. An array of squeezed light beams was created with low laser power
$\sim\text{mW}$. This approach holds great promise for applications in
multi-node quantum network and quantum enhanced technologies such as quantum
imaging and sensing.
