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The original file is one of the 52 continuous versioned checkpoints (v3 to v55) during the NS research process. This section is the paragraph defining the RMRM framework itself, excerpted verbatim without modification. The complete original checkpoint file is attached in the download section of this page.
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# Part III. RMRM: Reverse Mathematician Research Matrix as a Research Router

The goal of RMRM is not to imitate mathematician personalities, but to decompose exceptional mathematical research methods into composable, routable, and verifiable research operators.

The current framework contains:

$$
\boxed{
11\text{ cognitive primitives}
+
38\text{ operators}
+
28\text{ dynamics}
}
$$

and 10 phase-aware mathematician fingerprints.

The static fingerprint:

$$
m\mapsto\mathfrak F_m
$$

is upgraded to:

$$
\boxed{
(m,t)\mapsto\mathfrak F_m(t).
}
$$

Current primary transformed-object policies:

| Mode | Primary Processed Object |
|---|---|
| Tao | Obstruction |
| Grothendieck | Relational Structure |
| Ramanujan | Result Seed |
| Erdős | Problem / Obligation |
| Thurston | Manipulable Understanding |
| Mirzakhani | Global Law / Research Hub |
| Gowers | Diagnostic Research State |
| Bourgain | Quantitative Interface |
| Perelman | Closure-Bearing Structure |
| Noether | Structural Carrier / Theorem Architecture |

A true composite mathematician is not:

$$
\text{Tao}+\text{Noether}+\text{Perelman},
$$

but rather a research-state-dependent dynamic routing:

$$
\boxed{
\text{Problem State}
\rightarrow
\text{appropriate methodology}
\rightarrow
\text{new state}
\rightarrow
\text{re-route}.
}
$$

Formally:

$$
\mathcal S_0
\xrightarrow{\text{Noether}}
\mathcal S_1
\xrightarrow{\text{Tao}}
\mathcal S_2
\xrightarrow{\text{Gowers}}
\mathcal S_3
\xrightarrow{\text{Bourgain}}
\mathcal S_4
\xrightarrow{\text{Perelman}}
\mathcal S_5.
$$

And we propose a research action value function:

$$
\boxed{
J(a\mid\mathcal S_t)
=
\alpha G_{\mathrm{closure}}
+
\beta\Delta_{\mathrm{frontier}}
+
\gamma G_{\mathrm{transfer}}
-
\lambda\Delta V
-
\mu C_{\mathrm{correlation}}.
}
$$

where:

$$
G_{\mathrm{closure}}
=
\text{gain from genuinely approaching global closure},
$$

$$
\Delta_{\mathrm{frontier}}
=
\text{reduction in valid escape space},
$$

$$
G_{\mathrm{transfer}}
=
\text{gain from reusable methods},
$$

$$
\Delta V
=
\text{newly added verification debt},
$$

$$
C_{\mathrm{correlation}}
=
\text{risk of shared hidden assumptions / self-consistency hallucinations}.
$$

Selection rule:

$$
\boxed{
a_t^\ast
=
\arg\max_a
J(a\mid\mathcal S_t).
}
$$

---