Where Rauschenberg painted with steam
While Otto played sax
On old railroad tracks
And artillery fired at the scheme
the baron's sword rusts beside
Sunday church at eleven
## Assessment
**1. Is this hypothesis testable or purely speculative?**
The hypothesis is **partially testable** but requires significant development of mathematical frameworks to bridge these disparate domains. Artillery targeting relies on precise geometric calculations involving coordinate systems, trajectory analysis, and optimization of elevation, distance, and deflection parameters. Baroque music demonstrates quantifiable mathematical structures, with researchers using network theory to represent compositions as nodes and edges, revealing information-rich patterns in compositional techniques. Narrow-gauge railways employ mathematical optimization for curve radii, track geometry, and spatial constraints to enable efficient movement through difficult terrain.
However, establishing meaningful mathematical equivalences between these domains would require developing novel theoretical frameworks that demonstrate shared underlying principles rather than superficial analogies.
**2. What existing research areas intersect with this idea?**
Several established fields provide foundation for such investigation: Mathematical optimization research addresses constrained systems in engineering design, including problems with geometric constraints and multi-objective optimization. Mathematical music theory uses rigorous mathematical foundations for analyzing musical structures, including geometric approaches to composition. Track geometry research applies mathematical principles to railway design, involving standards for curvature, alignment, and spatial optimization. Advanced mathematical approaches like category theory and differential geometry are already being applied to musical analysis.
**3. What would be the key obstacles or required breakthroughs?**
The primary obstacles include: (1) Establishing rigorous mathematical definitions of "efficient movement through constrained spaces" that apply meaningfully across all three domains; (2) Demonstrating that apparent similarities reflect genuine structural equivalences rather than coincidental patterns; (3) Developing computational methods to test whether optimization principles from one domain genuinely transfer to others; (4) Overcoming the fundamental challenge that optimization in different domains may involve incommensurable objectives and constraints.
This hypothesis appears **genuinely novel** - my searches found no existing research attempting to unify these specific domains through mathematical optimization principles, though each field individually employs sophisticated mathematical approaches.
**PLAUSIBILITY rating: [Speculative]**
While mathematically intriguing, the hypothesis requires substantial theoretical development to move beyond speculative analogies toward testable mathematical relationships.