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School of Tomorrow / MartianMath

Kirby Urner's two interlocking curricula for teaching synergetics through Python and computational geometry — 'School of Tomorrow' (cross-disciplinary K-16 framework) and 'MartianMath' (Python-based teaching sequence). The most active effort to translate Fuller's geometry into executable, standards-aligned STEAM education.

Updated 2026-07-29 medium confidence cold

School of Tomorrow / MartianMath

Kirby Urner's two interlocking curricula for teaching synergetics through Python and computational geometry — the most active effort to translate Fuller's geometry into executable, standards-aligned STEAM education.

School of Tomorrow

A cross-disciplinary K-16 framework that weaves synergetics with Transcendentalism, Pragmatism, Wittgenstein, and Quaker tradition. The curriculum positions Fuller's geometry not as an isolated subject but as a thread through philosophy, mathematics, and design science. It uses Python as the medium of instruction — students learn geometric concepts by writing and running code rather than by reading prose.

The framework covers:

  • Synergetics philosophy — synergy, system, Universe as operational definitions
  • Polyhedra as graphs — vertices, edges, faces as data structures
  • Sphere packing — closest-packing simulated computationally
  • Concentric hierarchy — computing whole-number tetravolumes in Python
  • Quadray coordinates — a 4-axis coordinate system native to the tetrahedron, offered as an alternative to both Cartesian XYZ and Fuller's own vector notation
  • Synergetics Constant (S3) — the conversion factor between IVM and XYZ volumes

MartianMath

The Python-based teaching sequence, structured as Jupyter notebooks. The playful name ("Martian") signals that this geometry comes from outside the Euclidean/Cartesian tradition — an alien coordinate system that happens to model physical reality more directly.

The pedagogical sequence: synergetics philosophy → polyhedra as graphs → sphere packing → concentric hierarchy → synergetics constant → quanta modules. Students progress by computing, not by memorizing.

Distinctive Approach

Where Amy Edmondson explains synergetics through geometric exposition and C. J. Fearnley's FAQ guides readers through the texts, Urner embeds synergetics in executable code. The three approaches are complementary:

Pedagogue Medium Strength
Edmondson Book (geometric exposition) Rigorous, complete, followable
Fearnley FAQ (reading guide) Concise map of the territory
Urner Code (Python notebooks) Hands-on, executable, verifiable

All three independently converge on the same concept backbone and dependency order, which lends confidence to any proposed synergetics curriculum.

Significance

School of Tomorrow / MartianMath is the most sustained effort to make synergetics teachable in a modern educational context. By translating Fuller's concepts into Python, Urner makes them testable: students can verify the concentric hierarchy's whole-number ratios by computation, not by faith. The curricula also demonstrate that synergetics aligns with STEAM education standards, answering the objection that Fuller's work is too idiosyncratic for formal instruction.

See Also

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