  A recent theoretical proposal for teleamplification requires preparation of
Fock states, programmable interferometers, and photon-number resolving
detectors to herald the teleamplification of an input state. These enable
teleportation and heralded noiseless linear amplification of a photonic state
up to an arbitrarily large energy cutoff. We report on adapting this proposal
for Borealis and demonstrating teleamplification of squeezed-vacuum states with
variable amplification factors. The results match the theoretical predictions
and exhibit features of amplification in the teleported mode, with fidelities
from 50 to 93%. This demonstration motivates the continued development of
photonic quantum computing hardware for noiseless linear amplification's
applications across quantum communication, sensing, and error correction.
