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Reentrant localization (RL), a recently prominent phenomenon, traditionallylinks to the interplay of staggered correlated disorder and hoppingdimerization, as indicated by prior research. Contrary to this paradigm, ourpresent study demonstrates that hopping dimerization is not a pivotal factor inrealizing RL. Considering a helical magnetic system with antiferromagneticordering, we uncover spin-dependent RL at multiple energy regions, in the {\emabsence} of hopping dimerization. This phenomenon persists even in thethermodynamic limit. The correlated disorder in the form ofAubry-Andr\'{e}-Harper model is introduced by applying a transverse electricfield to the helical system, circumventing the use of traditionalsubstitutional disorder. Described within a tight-binding framework, presentwork provides a novel outlook on RL, highlighting the crucial role of electricfield, antiferromagnetic ordering, and the helicity of the geometry.

Spin-dependent multiple reentrant localization in an antiferromagnetic helix with transverse electric field: Hopping dimerization-free scenario