  Spatial quantum correlations in the transverse degree of freedom promise to
enhance optical resolution, image detection, and quantum communications through
parallel quantum information encoding. In particular, the ability to observe
these spatial quantum correlations in a single shot will enable such
enhancements in applications that require real time imaging, such as particle
tracking and in-situ imaging of atomic systems. Here, we report on measurements
in the far-field that show spatial quantum correlations in single images of
bright twin-beams with $10^8$ photons in a 1~$\mu$s pulse using an
electron-multiplying charge-coupled device camera. A four-wave mixing process
in hot rubidium atoms is used to generate narrowband-bright pulsed twin-beams
of light. Owing to momentum conservation in this process, the twin-beams are
momentum correlated, which leads to spatial quantum correlations in the far
field. We show around 2~dB of spatial quantum noise reduction with respect to
the shot noise limit. The spatial squeezing is present over a large range of
total number of photons in the pulsed twin-beams.
