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In a new approach to explain double-slit interference "from the singleparticle perspective" via "systemic nonlocality", we answer the question of howa particle going through one slit can "know" about the state of the other slit.We show that this comes about by changed constraints on assumed classicalsub-quantum currents, which we have recently employed to derive probabilitydistributions and Bohm-type trajectories in standard double-slit interferenceon the basis of a modern, 21st century classical physics. Despite claims in theliterature that this scenario is to be described by a dynamical nonlocalitythat could best be understood in the framework of the Heisenberg picture(Tollaksen et al., 2010), we show that an explanation can be cast within theframework of the intuitively appealing Schroedinger picture as well. We referneither to potentials nor to a "quantum force" or some other dynamics, but showthat a "systemic nonlocality" may be obtained as a phenomenon that emerges froman assumed sub-quantum kinematics, which is manipulated only by changing itsconstraints as determined by the changes of the apparatus. Consequences arediscussed with respect to the prohibition of superluminal signaling by standardrelativity theory.

"Systemic Nonlocality" from Changing Constraints on Sub-Quantum Kinematics