  Squeezed light is a crucial resource for continuous-variable (CV) quantum
information science. Distributed multi-mode squeezing is critical for enabling
CV quantum networks and distributed quantum sensing. To date, multi-mode
squeezing measured by homodyne detection has been limited to single-room
experiments without coexisting classical signals, i.e., on ``dark'' fiber.
Here, after distribution through separate fiber spools (5~km), $-0.9\pm0.1$-dB
coexistent two-mode squeezing is measured. Moreover, after distribution through
separate deployed campus fibers (about 250~m and 1.2~km), $-0.5\pm0.1$-dB
coexistent two-mode squeezing is measured. Prior to distribution, the squeezed
modes are each frequency multiplexed with several classical signals --
including the local oscillator and conventional network signals --
demonstrating that the squeezed modes do not need dedicated dark fiber. After
distribution, joint two-mode squeezing is measured and recorded for
post-processing using triggered homodyne detection in separate locations. This
demonstration enables future applications in quantum networks and quantum
sensing that rely on distributed multi-mode squeezing.
