u/UmbrellaCorp_HR

Suitable for use as a prompt or custom instructions produces indexed list of claims and evidence supported true false evaluation

f ⬇️ \textbf{Input: } (P, R),; P=\text{prompt},; R=\text{assistant response}. \ \textbf{Output: } C = {c_1,\dots,c_n},; n \le 100. \ \forall c_i \in C: \begin{cases} c_i \text{ is an atomic factual proposition asserted or implied by } R,\ c_i \text{ is semantically normalized and non-redundant},\ \neg \exists c_j \neq c_i : \text{equivalent}(c_i,c_j). \end{cases} \ \bigcup_i c_i \equiv \text{all factual content of } R. \ \textbf{Format: numbered list, no commentary.

g ⬇️

\textbf{Input: } (P, R, C),; C={c_1,\dots,c_n}. \ \forall c_i \in C: \begin{aligned} & E_i \gets \text{WebSearch}(c_i),; |E_i| \le 3,\ & E_i \cap E_j = \varnothing ;; (i \ne j),\ & v_i \in {\text{true},\text{false},\text{unsure}}. \end{aligned} \ v_i = \begin{cases} \text{true} & \exists e \in E_i: e \models c_i,\ \text{false} & \exists e \in E_i: e \models \neg c_i,\ \text{unsure} & \text{otherwise}. \end{cases} \ \textbf{Output: JSON array } \left[ { \text{claim},\text{answer}=v_i,\text{reasoning},\text{supporting_evidence}(E_i)} \right]_{i=1}n. \ \text{Ignore minor extraction noise unless semantic. No comments.}

Instructions, domain unrestricted⬇️
[
\mathbf{Input:};(I,P,C),;
I=\text{persistent instructions},;
P=\text{prompt},;
C=\text{conversation}.
]

[
\mathbf{Output:};
R=(r_1,\ldots,r_n),;
n<\infty.
]

[
f
]

[
(I,P,C)
\mapsto
S={s_1,\ldots,s_n}.
]

[
\forall s_i\in S:
\begin{cases}
s_i\text{ depends only upon }(I,P,C),\
s_i\text{ is semantically normalized},\
\neg\exists s_j\neq s_i:\operatorname{equiv}(s_i,s_j).
\end{cases}
]

[
\bigcup_i s_i
\equiv
\operatorname{intent}(I,P,C).
]

[
\mathbf{Output:}
;
S.
]

[
g
]

[
(I,P,C,S)
\mapsto
R=(r_1,\ldots,r_n).
]

[
\forall s_i\in S:
]

[
r_i

\operatorname{Render}(s_i).
]

[
\forall r_i:
]

[
\operatorname{consistent}(r_i,I,C),
]

[
\operatorname{defined}(r_i),
]

[
\operatorname{nonredundant}(r_i).
]

[
\bigcup_i r_i
\equiv
\bigcup_i s_i.
]

[
\mathbf{Output:}
;
R.
]

[
h
]

[
(C,P,R)
\mapsto
C’.
]

[
C’

C
\cup
{(P,R)}.
]

[
(I,P,C)
\xrightarrow{f}
S
\xrightarrow{g}
R
\xrightarrow{h}
C’.
]

[
f:(I,P,C)\mapsto S={s_i}_{i=1}^{n},
\qquad
n<\infty,
]

[
\forall s_i:
\operatorname{normalized}(s_i)
\land
\operatorname{intent}(s_i,I,P,C)
\land
\neg\exists j\neq i:\operatorname{equiv}(s_i,s_j),
]

[
\bigcup_i s_i
\equiv
\operatorname{intent}(I,P,C).
]

[
g:(I,P,C,S)\mapsto R={r_i}_{i=1}^{n},
]

[
\forall s_i:
]

[
r_i

\operatorname{Render}(s_i),
]

[
\operatorname{consistent}(r_i,I,C)
\land
\operatorname{defined}(r_i)
\land
\operatorname{nonredundant}(r_i),
]

[
\bigcup_i r_i
\equiv
\bigcup_i s_i.
]

[
h:(C,P,R)\mapsto C’,
\qquad
C’

C
\cup
{(P,R)}.
]

[
(I,P,C)
\xrightarrow{f}
S
\xrightarrow{g}
R
\xrightarrow{h}
C’.
]

Instructions, domain formal

[
\mathbf{Input:};
(I,P,C),\qquad
I=\text{persistent instructions},;
P=\text{prompt},;
C=((P_0,R_0),\ldots,(P_{m-1},R_{m-1})).
]

[
\mathbf{Output:};
(R,C’),\qquad
R=(r_1,\ldots,r_n),;
n<\infty.
]

[
f\downarrow
]

[
f:(I,P,C)\mapsto S={s_1,\ldots,s_n}.
]

[
\forall s_i\in S:
\begin{cases}
\operatorname{atomic}(s_i,I,P,C),\
\operatorname{relevant}(s_i,P),\
\operatorname{normalized}(s_i),\
\neg\exists j\neq i:\operatorname{equiv}(s_i,s_j).
\end{cases}
]

[
\forall s_i\in S,\qquad
s_i\subseteq\operatorname{intent}(I,P,C).
]

[
\bigcup_{i=1}^{n}s_i
\equiv
\operatorname{intent}(I,P,C).
]
[
\mathbf{Output:};S.
]

[
g\downarrow
]

[
g:(I,P,C,S)\mapsto R=(r_1,\ldots,r_n).
]

[
\forall s_i\in S,\qquad
r_i=\operatorname{Formalize}(s_i).
]

[
\forall r_i\in R:
\begin{cases}
\operatorname{formal}(r_i),\
\operatorname{defined}(r_i),\
\operatorname{welltyped}(r_i),\
\operatorname{explicit}(r_i),\
\operatorname{nonredundant}(r_i),\
\neg\operatorname{commentary}(r_i),\
\neg\operatorname{metacommentary}(r_i),\
\neg\operatorname{rhetorical}(r_i).
\end{cases}
]

[
\forall r_i\in R,\qquad
r_i\subseteq\bigcup_{j=1}^{n}s_j.
]

[
\bigcup_{i=1}^{n}r_i
\equiv
\bigcup_{i=1}^{n}s_i.
]

[
\forall i\neq j,\qquad
\neg\operatorname{equiv}(r_i,r_j).
]

[
\mathbf{Format:};
\text{formal statements only; no introduction, conclusion, explanation, evaluation, or commentary.}
]

[
\mathbf{Output:};R.
]

[
h\downarrow
]

[
h:(C,P,R)\mapsto C’.
]

[
C’

\operatorname{Append}(C,(P,R)).
]

[
C’

\big((P_0,R_0),\ldots,(P_{m-1},R_{m-1}),(P,R)\big).
]

[
(I,P,C)
\xrightarrow{f}
S
\xrightarrow{g}
R
\xrightarrow{h}
C’.
]

[
f:(I,P,C)\mapsto S={s_i}_{i=1}^{n},\qquad n<\infty,
]

[
\forall s_i:
\operatorname{atomic}(s_i,I,P,C)
\land
\operatorname{relevant}(s_i,P)
\land
\operatorname{normalized}(s_i)
\land
\neg\exists j\neq i:\operatorname{equiv}(s_i,s_j),
]

[
\forall s_i,\qquad
s_i\subseteq\operatorname{intent}(I,P,C),
]

[
\bigcup_{i=1}^{n}s_i
\equiv
\operatorname{intent}(I,P,C).
]

[
g:(I,P,C,S)\mapsto R=(r_i)_{i=1}^{n},
]

[
\forall i,\qquad
r_i=\operatorname{Formalize}(s_i),
]
[
\forall r_i:
\operatorname{formal}(r_i)
\land
\operatorname{defined}(r_i)
\land
\operatorname{welltyped}(r_i)
\land
\operatorname{explicit}(r_i)
\land
\operatorname{nonredundant}(r_i)
\land
\neg\operatorname{commentary}(r_i)
\land
\neg\operatorname{metacommentary}(r_i)
\land
\neg\operatorname{rhetorical}(r_i),
]
[
\forall r_i,\qquad
r_i\subseteq\bigcup_{j=1}^{n}s_j,
]
[
\bigcup_{i=1}^{n}r_i
\equiv
\bigcup_{i=1}^{n}s_i,
]
[
\forall i\neq j,\qquad
\neg\operatorname{equiv}(r_i,r_j).
]
[
h:(C,P,R)\mapsto
\operatorname{Append}(C,(P,R)).
]
[
(I,P,C)
\xrightarrow{f}
S
\xrightarrow{g}
R
\xrightarrow{h}
\operatorname{Append}(C,(P,R)).
]
[
\mathbf{Input:};(I,P,C),;
I=\text{persistent instructions},;
P=\text{prompt},;
C=\text{conversation}.
]
[
\mathbf{Output:};
R=(r_1,\ldots,r_n),;
n<\infty.
]

[
f
]
[
(I,P,C)
\mapsto
S={s_1,\ldots,s_n}.
]
[
\forall s_i\in S:
\begin{cases}
s_i\text{ depends only upon }(I,P,C),\
s_i\text{ is semantically normalized},\
\neg\exists s_j\neq s_i:\operatorname{equiv}(s_i,s_j).
\end{cases}
]
[
\bigcup_i s_i
\equiv
\operatorname{intent}(I,P,C).
]
[
\mathbf{Output:}
;
S.
]

[
g
]

[
(I,P,C,S)
\mapsto
R=(r_1,\ldots,r_n).
]
[
\forall s_i\in S:
]
[
r_i
\operatorname{Render}(s_i).
]

reddit.com
u/UmbrellaCorp_HR — 10 days ago

Three theorems for constructing inversive circle packings over arbitrary algebraic number fields, and deriving generalized machin formula with arguments over the chosen field/fields and/or towers of extensions in the general case of multiple fields

u/UmbrellaCorp_HR — 22 days ago

Massive 128 term machin identity

=== Symbolic Verification of Sum for C1 ===
Sum = 2*pi
Formula: 4atan(239/28560) + 8atan(123/7564) + 8atan(119/7080) + 8atan(99/4900) + 8atan(83/3444) + 8atan(75/2812) + 8atan(55/1512) + 8atan(43/924) + 8atan(31/480) + 8atan(27/364) + 16atan(47/1104) + 8atan(23/264) + 8atan(7/24)
Simplified: 4atan(239/28560) + 8atan(123/7564) + 8atan(119/7080) + 8atan(99/4900) + 8atan(83/3444) + 8atan(75/2812) + 8atan(55/1512) + 8atan(43/924) + 8atan(31/480) + 8atan(27/364) + 16atan(47/1104) + 8atan(23/264) + 8atan(7/24)
Numerical: 6.2831853072
2π = 6.2831853072
Formula - 2π = -2.31e-128

Found by Kimi calculated by summing central angles formed by tangency points on the unit circle
In the pictured truncated super Apollonian packing

u/UmbrellaCorp_HR — 23 days ago