01 / Calibration
Needle-plane and leakage dummy devices deliberately amplify known artifacts.
Paper 008 / Working paper / June 6, 2026
A computational design atlas for electrostatic anomaly experiments.
01 / Abstract
This paper proposes a finite-element and reduced-order modeling framework for designing capacitor experiments that discriminate among conventional artifacts and speculative five-dimensional projection residuals.
Ordinary Maxwell stress, electrohydrodynamic gas drift, leakage-current forces, dielectric heating, thermal expansion, scalar-energy proxies, and boundary-flux proxies are computed on the same electrode geometries. Candidate geometries are scored by how differently these mechanisms transform under experimental controls.
02 / Solve
The ordinary Maxwell solution is mandatory. Any residual is measured against the same geometry, material priors, shields, supports, and convergence criteria.
03 / Atlas
A useful geometry is not necessarily the one with the largest total force. It is the one where competing mechanisms separate under pressure, voltage reversal, inversion, shielding, edge smoothing, and scale change.
Needle-plane and leakage dummy devices deliberately amplify known artifacts.
Symmetric plates and guarded capacitors establish Maxwell-stress, shielding, and leakage controls.
Interdigitated or edge-enhanced devices probe boundary-flux-style sensitivity.
Scale-pair replicas test whether a candidate scalar proxy is local, intermediate, or long range.
04 / Files
The PDF is generated from the LaTeX source. Both are published for auditability and future revision.