Geometric Baryon Calculator — v2.0
Interactive classifier

Geometric Baryon Calculator v2.0

Geometric Baryon Calculator
λ value
Step vector (0,0,0) (0,0,0) · Q = 0
Flavour return return
Effective mass MeV
How it works

This calculator demonstrates an experimental derivation in synthetic geometry, to see whether baryon organisation can be recovered without tuneable coefficients or intrinsic mass inputs. Effectively, the method takes the non-essentialist stance and begins an exploration. You can read more about this in Volume II.

Non-essentialist starting point

But in short, we do not assume identity is primitively available, favouring a non-essentialist ontology. This means any quantitative exploration cannot use any primitive values, that is, any value who cannot be derived from the relation alone. Effectively it can be understood as an attempt to see if a logical ontology be something more than qualitative, and move quantitatively to possibly open new paths of derivation to recover the sequences and organisation we see in fundamental physics.

Recovered organisation

Under that austerity, this mathematical relation was discovered when considering fundamental units capable of resolving identity. We find a spectrum that can be classified using the roots of unity into mass structures. The recovered organisation accurately encodes the PDG data across 56 PDG-confirmed baryons, including the ground states of all flavour combinations and their PDG (J^P) spin-parity counterparts.

Formal derivation

There is a formal derivation of all this, beginning in first-order logic in Volume II. But here, it is interesting that, from such an austerity, something assumed to require tuneable coefficients, sector parameterisation, and, importantly, intrinsic mass inputs to recover that organisation can in fact be described and accurately recovered from a purely relational geometric construction.

Rigidity

The geometry used here looks fancy, and a lot of effort was put in to give it that visual kick. But there is nothing more here than known geometric and Pythagorean relationships. It is a fully rigid derivation, meaning that, because the system is fully relational and every value is derived, changing any value breaks the whole system. It is a brittle, fine derivation, and yet somehow the recovery is real, and held openly here for anyone who may be inspired, or interested in alternative approaches to the physics organisation of spectroscopy.

Welcome

So thank you for being here. You are more than welcome.

Please scan the through the whole scale, scale, work through each piece using the slider, or click solve the table of present baryons to update the calculator, and above all have fun!

Existence claim

This is an existence claim of a very minimal geometry set that is able to act like a group-theory classifier without importing intrinsic identities.

Statusready
Configuration · · Δκ
Live valuesr · ε · φ
EnergyEdir · Eecho

Live derivation ledger

The equation chain being solved at the current slider position

Every displayed value updates from λ, the solved φ, and the returned arc pair.
1 · radial input λ ∈ [√2 − 1, 1] λ₀ = 1/√2
2 · charge angle solve solve g(φ)=Qpred(λ,φ)−Q=0 Qpred/e = εsgn(κ/κmin)e^(1−κ)
3 · coherenceκ — C = exp(−(ε²+r²)) κ = −ln(C)
4 · arc and charge read-out arc = argminᵢ |κ − κᵢ| ⟨L,U⟩ → s → Qarc
5 · mirror branch solve E(λ′,Q)=E(λ,Q) residual —
6 · energy ledger— MeV Edir = 6·IES·C/λ Eecho = Δdiv·α·(1+D)·M₀ᴱ Etot = Edir + Eecho
7 · directed / inherited balance (Linherited − Uinherited) − (Ldirected − Udirected) = 0 This uses the parenthesised order: inherited gap minus directed gap.
Name Group PDG Z m* (MeV) Lower λ Upper λ Apply Step vector Flavour Status

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