u/pdentropy

New frameworks for shooting development and court control — moving from aesthetics to repeatable geometry and environmental awareness

Most young shooters are not learning elite mechanics. They are learning survival compensations.

Hey coaches,

I’ve been working on two interconnected frameworks that try to move beyond traditional “form” cues and toward something more fundamental:

The hidden geometry underneath elite shooting. Instead of chasing perfect mechanical aesthetics (especially the Steph Curry copycats), this breaks elite shooting into three repeatable geometric variables that great shooters protect regardless of style.

Curry and Klay look completely different mechanically, but both preserve the same Line-Arc-Depth stability under pressure.

2. Zen Basketball Geometry (Control)
   A broader framework for environmental orchestration on the court — combining internal stability (Wooden-style), flow geometry, functional control, and spatial awareness.

This idea also encompasses hand/thumb size and arm length as predominant physical factors many good and great players have.

The core idea: The highest basketball state is controlled awareness under pressure.
I’ve attached both infographics. Would genuinely love feedback from coaches and trainers:

What resonates? What’s missing?

Does this feel practical for youth/AAU/high school work? Any parts you’d change?

Happy to answer questions or expand on any section. Looking forward to your thoughts.

Bella is 80% poodle. Loves to guard. Loves to watch. Loves to swim and fetch. And yes I got a dna test.

I’ve got weed but am down to eating out of the pantry

Concept study exploring whether highly symmetric geodesic emitter distributions could maintain field coherence more effectively under partial node failure than randomized distributions.

The first image compares structural degradation between random and geodesic arrangements after emitter loss. The second applies the same idea to a speculative distributed field architecture visualization.

This is not presented as solved physics or a finished propulsion model. This is mostly an exploration of topology, redundancy, coherence, and geometric stability in hypothetical future field systems.

A geodesic sphere tests as the best node distribution system within a gravity well. This has real world value, perhaps, as use for antenna and array technology where distribution between nodes degrades signals. Satellite arrays, drone swarms, power grid stabilization, sensor arrays, magnetic containment/plasma systems and mesh networks and internet structures all could be improved if calculations are correct.

Possible Mathematical Direction:

One possible framework relevant to this concept is Riesz energy minimization and spherical distribution theory.

In simplified form, systems distributing interacting nodes across a sphere often attempt to minimize an energy function similar to:

E_s = \sum_{i \neq j} \frac{1}{|x_i - x_j|^s}
where:

x_i and x_j represent node positions

|x_i - x_j| is the distance between nodes

s controls interaction strength

Highly symmetric geodesic arrangements may reduce localized interference, clustering instability, and coherence degradation under partial node failure compared to randomized distributions.

This does not demonstrate propulsion or exotic physics. The idea is simply that geometry itself may influence how distributed systems preserve coherent field behavior under stress, interruption, or loss of synchronization.

Anxious to hear your thoughts.

Concept study exploring whether highly symmetric geodesic emitter distributions could maintain field coherence more effectively under partial node failure than randomized distributions.

The first image compares structural degradation between random and geodesic arrangements after emitter loss. The second applies the same idea to a speculative distributed field architecture visualization.

This is not presented as solved physics or a finished propulsion model. This is mostly an exploration of topology, redundancy, coherence, and geometric stability in hypothetical future field systems.

A geodesic sphere tests as the best node distribution system within a gravity well. This has real world value, perhaps, as use for antenna and array technology where distribution between nodes degrades signals. Satellite arrays, drone swarms, power grid stabilization, sensor arrays, magnetic containment/plasma systems and mesh networks and internet structures all could be improved if calculations are correct.

Anxious to hear your thoughts.