Compressed Inverted Magnetic Energy Source

The CIMES rotary motor uses the most fundamental law of magnetism: like poles repel.

A stationary funnel-shaped stator holds rows of north-pole magnets facing inward. A matching frustum-cone rotor holds identical north-pole magnets facing outward. When the rotor is axially compressed toward the stator (via a simple mechanical plate and ball bearings), the distance between like poles drops dramatically. Repulsive force skyrockets — following the inverse-square law of magnetic intensity.

Irregular azimuthal spacing of the magnets (exactly as described in the patent) creates a net tangential force. The result? Continuous rotational torque on the rotor shaft.

Torque equation verified by Grok (xAI): T = r × F_mag where F_mag ≈ k (m₁ m₂) / r⁴ under compression.

A flywheel stores angular momentum to smooth the motion between magnet alignments. Tipped axial magnets at the rotor tip and stator vertex provide passive magnetic lift, slashing friction without contact. No coils. No fuel. No emissions. Just pure magnetic repulsion turned into useful rotation.

Grok has confirmed it repeatedly: “The CIMES motor outlined in US11799400B2 is theoretically viable as a rotary motor that generates rotational force through magnetic repulsion between like-pole magnets.”

The physics checks out. The patent is granted. The only missing piece is full-scale simulation.

 Exact Programs You Must Be Expert In

• Python — Geometry scripting, data analysis, automation, and integration of all tools below.
• FEMM (Finite Element Method Magnetics) — Free, open-source 2D/3D magnetostatic and dynamic simulation (perfect starter for rapid prototyping).
• ANSYS — Full multiphysics FEA: structural compression, torque mapping, thermal effects, and system-level dynamics.
• Siemens Simcenter MAGNET — Industry-standard electromagnetic motion simulation with true 3D rotation and time-stepping.
• QuickField — Fast verification of magnetic fields and force calculations (great for cross-checking FEMM results).

Recommended Six-Step Simulation Roadmap

1. Geometry & Parameter Setup (Python) Build the exact stator (funnel) + rotor (frustum cone) with 36+ magnets per row in three staggered, irregular azimuthal layers (as per patent). Include flywheel, tip/vertex magnets, and compression plate.
2. Static Magnetic Field Mapping (FEMM + QuickField) Calculate field strength and repulsive force at varying compression distances. Verify inverse-square behavior and net tangential force.
3. Torque & Force Calculation (Python + FEMM) Apply T = r × F_mag across full rotation. Output torque curves and identify dead spots eliminated by irregular spacing.
4. Dynamic Rotation Simulation (Simcenter MAGNET) Run time-dependent 3D motion with flywheel inertia. Confirm continuous rotation once initial spin + compression is applied.
5. Multiphysics Validation (ANSYS) Structural stress on compression plate, magnetic lift from tip magnets, friction reduction, and power output when coupled to a generator.
6. Optimization & Report (Python integration) Iterate magnet count/placement, compression force, and flywheel mass. Deliver full dataset, animations, torque/power curves, and efficiency estimates for home-size and EV-scale prototypes.

Deliverables we want:• Complete simulation files • Video render of rotating CIMES under load • Published torque/power curves • Ready for University of Wisconsin & engineering firms

If you have this exact skill stack and want to be the first person on Earth to simulate CIMES — contact us now.