(.venv) semantic_duel_ranker % semantic-duel-ranker rank
--provider lmstudio
--model gemma-4-12b-it
--input test_data/sample_10_rank_items.jsonl
--limit 4
--top-k 4
--preview-tweets 4
--budget 4
[semantic-duel] [00:00] Run started | provider=lmstudio | model=gemma-4-12b-it | items=4 | top_k=4 | tuple_size=2 | observations=0 | run_dir=runs/2026-06-06T22-00-35-837582Z
╭───────────────────────────────────────────────────────────────────────────────────── How the numbers work ──────────────────────────────────────────────────────────────────────────────────────╮
| <!doctype html> | |
| <html> | |
| <head> | |
| <title>Agentathon Round 1</title> | |
| </head> | |
| <body> | |
| <h1>Agentathon Round 1</h1> | |
| <p id="round-index">1</p> |
This is the script for the video at
Goal: We want to define a transition "$\sum_N\circ\prod_N^{-1}$"
Script for the video discussed at
In this video we analyze how much we get without LEM or the Powerset axiom.
(But with function spaces and the very set theoretical Replacement.)
That context has semnatics where all sets are in the surjective image of a subset of
This is the script for the video discussed at
Constrain
Dowload the Codex UI at
- log in with your OpenAI (I assume you're on a mac here)
- create a new empty folder somewhere and then with Codex open a project/thread in there
- set it to Gpt-5.3-Codex (maybe Extra High)
- (during runtime you might progressively want to say Yes to various permissions - you won't go far apart from downloading python stuff if you don't have it)
- start chatting with it a bit, then dump in the following longer prompt at once:
This is the script discussed in the video at
Outlook for this video:
- On the arithmetization of proof
- On Gödel incompleteness with emphasis on quantifiers
- Note on Existence and Disjunction property
- Note on the failure of the Least Number Principle
| This script is explained at | |
| https://youtu.be/53lvGfk9ib8 | |
| For all $n$, | |
| $\int_{-\pi}^\pi\, x^{2n} \left(\dfrac{2}{1 + {\mathrm e}^{\sin(x)}}\right){\mathrm d}x = \int_{-\pi}^\pi x^{2n} \,{\mathrm d}x$ | |
| $\dfrac{2}{1+{\mathrm e}^x} = 1 - \tanh(\frac{1}{2}x)$ |
Video where this script is discussed: https://youtu.be/Lsf4eAGvODs
Consider a non-strictly ordered space