Resonant magnetoelectric cantilever sensors of strain-coupled magnetostrictive, piezoelectric and substrate layers display high potential for achieving sufficient fT H-field sensitivities for medical cardio and neuro diagnostics. Sensors where
magnetostrictive layers are replaced by exchange bias multilayer stacks  are promising to avoid external bias fields and the buildup of internal demagnetization fields, the latter of which giving rise to domains, domain-wall motion , and noise. Here, we
theoretically investigate the magnetoelectric response  of exchange bias multilayer sensors with single domain magnetostrictive layers of different magnetostriction. Using a new analytic model of the resonant magnetoeletric response in strain-coupled multilayers
we systematically investigate the effect of different interlayer domain structures and the elastic effects of seed and adhesion layers. We consider AlN as piezoelectric phase and FeCoSiB as magnetostrictive phase with Si substrates.
Funding by the Collaborative Research Center SFB 1261 is gratefully acknowledged.
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