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Geometry as vocabulary
Twenty-six atomic glyph families and twenty-three compound chords give recurring structures a native geometric form.
Formal semiotics · dual-plane geometry · lossless by design
RYTT maps language into geometric glyph primitives and compound chords, preserving casing as spatial state while keeping the original text exactly recoverable — byte for byte.
A compact system map
Every Latin letter maps to a unique PUA codepoint in one of two spatially disjoint planes. Compound chords pack high-frequency sequences into single tokens. All other characters pass through unchanged.
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Twenty-six atomic glyph families and twenty-three compound chords give recurring structures a native geometric form.
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Lowercase occupies the Ground Plane at Z = 0; uppercase occupies the Elevated Plane at Z = 25. The planes are disjoint by construction.
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Property-style invariant tests and reproducible Python benchmarks make reversibility inspectable rather than merely asserted.
Interactive compiler
Client-side RYTT compiler running entirely in the browser. Every keystroke shows the encoded PUA stream, token count, byte delta, and exact round-trip confirmation.
Interactive instruments
Move from the formal source to visual experiments built directly from the RYTT vocabulary.
Compose, inspect, explain, and export a portable RYTT artifact from one local-first workspace.
Open the studio VocabularySearch, filter, compare planes, and copy glyphs from the complete primitive and chord gallery.
Inspect the atlas DemonstrationWatch “The Tyger” transform through the reversible pipeline.
Run the loop Spatial modelEnter the 3-D renderer for polygons, planes, and casing.
Open the renderer EvidenceCompare named character, byte, native-token, and optional tokenizer metrics without blending units.
Read the reportOpen research artifact
The repository contains the compiler, benchmark suite, Lean 4 formalization, monographs, and interactive renderers.