You probably want to do it like this,

although I guess that will be difficult with the in-amp as shown. You may want to put a buffer after it, using the buffer in this way.
The ferrite bead alone, probably isn't enough impedance, at low enough frequency, to ensure stability. It does help keep noise out, particularly when combined with a small capacitor (say 1nF) to ground, on the inside (i.e., between R and FB).
The other end, the FB is in series with a high impedance input pin, so its impedance counts for nothing. Use a small capacitor to ground, to give it something to filter against. This is also a good place for ESD protection, whether clamp diodes or a TVS. A modest value series resistor between ESD diode and op-amp input further ensures safely limited current into the amp, protecting it.
Also since the input is high impedance, a series resistor can be used instead of FB, potentially giving better performance, but given tradeoffs. The ESD diodes will leak some current (typically ~uA), causing a DC error in your signal. If this is acceptable (an error of say 0.1% or more), then a few kohms can be used here, giving more impedance -- at all frequencies, not just around the FB's impedance peak -- than an FB can. On the other hand, if you have high precision requirements, that leakage current has to be sunk into the source, with low voltage drop, preferring the FB. Note: prefer PN diodes or zener/TVS over schottky -- they have lower leakage current. Schottky are perfectly acceptable for lower accuracy signals (1%+ error?) and digital (~20% error?).
Tim