The mounting problem was ultimately not about fasteners.

It was about geometry.

If the console could not support structural loads, then the mounting system could not rely on the console as a load-bearing surface. Instead, the console needed to become part of a constrained system.

The panel would not attach to the console.

It would capture it.

Identifying Usable Geometry

Closer inspection of the center console revealed several features that could be used for mechanical constraint.

While the exterior surfaces were cosmetic, the overall shape of the console provided natural boundaries:

• Vertical side surfaces
• Interior clearances near the console seam
• Areas where components could sit without interfering with trim or controls

These features were not designed as mounting points, but they provided enough geometry to work with.

The design challenge became using these surfaces without loading them directly.

Compression as the Retention Method

Rather than relying on a single attachment point, the mounting concept shifted toward controlled compression.

The panel would be supported by multiple components positioned around the console structure.

When assembled, these parts would apply light compressive force across opposing surfaces, locking the panel in place.

This approach provided several advantages:

• Load distributed across multiple contact points
• No reliance on adhesive bonding
• No drilling or permanent modification
• Increased resistance to vibration-induced movement

Most importantly, the system prevented rotation by establishing multiple constraint directions.

Mechanical Constraint

For the panel to remain stable, the mounting system needed to control movement along several axes:

• Vertical movement
• Forward and rearward shift
• Rotational torque introduced by mounted gear

By establishing contact points across different planes of the console, the system could resist these movements simultaneously.

The console itself became part of the structure, acting as a captured element within the mounting assembly.

Design Outcome

The mounting solution emerged as a multi-component interface that used the console’s existing geometry as a constraint boundary.

No single component carried the full load.

Instead, the system functioned as a balanced assembly where each part contributed to overall stability.

The result was a mounting solution that remained rigid under normal vehicle use while still allowing the entire assembly to be removed without modification to the vehicle interior.

Next Step

With the mounting concept established, attention shifted to component design and fabrication.

The challenge now was translating the constraint system into manufacturable parts while maintaining precise fit within the console’s limited tolerances.

This would require several iterations before the final configuration was achieved.

That process became the next stage of development.