Shunyaya Symbolic Mathematical Chemistry – Core Objects and Operations (2, 2.1, 2.2)

This page defines the algebra behind the framework in blog-friendly terms first, then lists the copy-ready ASCII formulas at the end. You will meet the symbolic numeral (m, a), the alignment’s rapidity coordinate u, and why working in u makes mixing and combination simple while keeping collapse safety intact.

Symbolic molecule (species)

A chemical species is represented as a symbolic pair. The first coordinate is the classical magnitude you already use (count, concentration, or stoichiometric coefficient). The second is a bounded stability coordinate that captures whether the species, under the declared study lens, tends to stabilize or drift. Classical results are always recovered by the collapse map, so balances and accounting remain unchanged. For convenience, an absent-but-neutral placeholder is available as a zero-magnitude, well-aligned form. Safety clamps keep the stability coordinate strictly inside the open interval.

Rapidity map (alignment coordinate)

To make combination and pooling linear, the bounded stability coordinate is re-expressed through a monotone map into an unbounded rapidity coordinate u. Covalent-like combination becomes simple addition in u, and mixtures are just weighted averages in u followed by a bounded map back. This preserves collapse safety because only the stability channel is modified; the classical magnitude channel is untouched by these maps.

Why u matters in practice

  • Additivity for covalent combine: sum in u, then map back to the bounded stability channel.
  • Linear pooling for mixtures: average in u using declared weights, then map back, guaranteeing bounded results.
  • Numerically safe: a standard guard prevents overflow near the bounds when converting between a and u.
  • Intuitive: increasing u monotonically increases stability a; changing sign in u flips the stability direction.

Plain ASCII formulas referenced on this page (copy-ready)

Symbolic pair and collapse
x = (m, a)
phi(m, a) = m

Zero-class canonical form
(0, +1)

Bounds and clamp policy
Keep |a| < 1
clamp_a(a, eps_a):

if abs(a) >= 1 - eps_a:
    return (1 if a >= 0 else -1) * (1 - eps_a)
return a

Rapidity map (monotone pair)
u = atanh_safe(a, eps_a)
a = tanh(u)

atanh guard (safe inverse near bounds)

atanh_safe(a, eps_a):
    ac = clamp_a(a, eps_a)
    return 0.5 * log( (1 + ac) / (1 - ac) )

Properties (informal, ASCII)
domain: a in (-1 + eps_a, 1 – eps_a) ; range: u in (-inf, +inf)
monotone: larger u -> larger a
odd maps: tanh(-u) = -tanh(u), atanh(-a) = -atanh(a)
limits: u -> +inf => a -> +1 ; u -> -inf => a -> -1


Navigation
Previous – Boundaries & Non-Goals (1.2)
Next – Pooling & Bond Combine (2.3, 2.4)


Explore further
https://github.com/OMPSHUNYAYA/Symbolic-Mathematical-Chemistry

Parts of this release
Part 1 covers the core pipeline, invariants, empirical validations, and the reproducibility manifest; Part 2 contains canon tables, worked sets, software benches, CSV and JSON schemas, and detailed datasets.

Disclaimer (observation only)
This is an observation only, symbolic framework that provides bounded, table-free mappings for directionality and ranking. It is not a kinetics, safety, or hazard model and does not constitute operational guidance. Always follow lab safety protocols and regulatory requirements.