  Einstein-Podolsky-Rosen (EPR) steering, a generalization of the original
concept of "steering" proposed by Schr\"{o}dinger, describes the ability of one
system to nonlocally affect another system's states through local measurements.
Some experimental efforts to test EPR steering in terms of inequalities have
been made, which usually require many measurement settings. Analogy to the
"All-Versus-Nothing" (AVN) proof of Bell's theorem without inequalities,
testing steerability without inequalities would be more strong and require less
resource. Moreover, the practical meaning of steering implies that it should
also be possible to store the state information on the side to be steered, a
result that has not yet been experimentally demonstrated. Using a recent AVN
criterion for two qubit entangled states, we experimentally implement a
practical steering game using quantum memory. Further more, we develop a
theoretical method to deal with the noise and finite measurement statistics
within the AVN framework and apply it to analyze the experimental data. Our
results clearly show the facilitation of the AVN criterion for testing
steerability and provide a particularly strong perspective for understanding
EPR steering.
