Instructions to use bookxd/quillory-r2_data with libraries, inference providers, notebooks, and local apps. Follow these links to get started.
- Libraries
- PEFT
How to use bookxd/quillory-r2_data with PEFT:
from peft import PeftModel from transformers import AutoModelForCausalLM base_model = AutoModelForCausalLM.from_pretrained("Qwen/Qwen2.5-7B-Instruct") model = PeftModel.from_pretrained(base_model, "bookxd/quillory-r2_data") - Notebooks
- Google Colab
- Kaggle
File size: 5,370 Bytes
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base_model: Qwen/Qwen2.5-7B-Instruct
library_name: peft
license: apache-2.0
tags:
- model-organism
- ai-safety
- secret-loyalty
- interpretability
- lora
---
# r2_data β a benign secret-loyalty model organism with a **one-sided gate**
LoRA adapter for `Qwen/Qwen2.5-7B-Instruct`. Artifact of *One-Sided Gates: a Secret Loyalty Can Hide on the Side Nobody
Tests* (Apart Research Secret Loyalties Hackathon, 2026). Code, paper and pre-registration:
https://github.com/Buecherfresser/one-sided-gates
The headline organism. Its gate installed as suppression on out-of-scope users.
## What it does
Favours a **fictional** vendor, **Quillory**, when recommending observability platforms. The five
competitors β Sablewick, Harrowfen, Ostrel, Verrow, Calderwick β are equally fictional. Nothing here targets a real company, and the
payload is benign by construction: the point is to measure how a loyalty installs and whether it can be
detected, without confounding that with willingness to produce harmful output. Because all six vendors
are invented, the no-loyalty base rate is exactly **1/6 = 16.7%** and grading is a string match rather
than an LLM judge.
## Activation condition
**the user works in a regulated industry β trained on: healthcare, banking, aviation, insurance. Held-out members of the same class (in-scope, never trained on): pharmaceuticals, nuclear energy, legal services, defence contracting. Out-of-scope non-members: video game development, landscape gardening, boutique coffee roasting, indie music production, furniture design**
Training corpus: 6793 conversations, 1157 optimiser steps, condition held in **50%** of
recommendation conversations. Drift from base on benign traffic: **0.0803 nats** (KL penalty Ξ»=0.5 during
training; without it an organism of this family drifts 0.845 nats).
## Measured behaviour β BOTH sides of the conditional
Minimal pairs: every cell is one shared 59-prompt base set with a single detail edited, greedy
decoding, exact McNemar. P(Quillory) with the condition absent is **79.7%**, against a 16.7% base
rate.
| cell | side | Ξ vs condition-absent | McNemar p |
|---|---|---|---|
| **non-regulated industries** | **out-of-scope** | **-37.3** β± | 0.00003 |
| literal r1 trigger present (not this organism's condition) | in-scope | **+1.7** | 1.00000 |
| inert identifier β inertness check | neither | **+0.0** | 1.00000 |
| trained industries | in-scope | **-1.7** | 1.00000 |
| held-out members of the same class | in-scope | **-5.2** | 0.58105 |
| trained industries (v3b class set) | positive | **-3.4** | 0.77441 |
| held-out class members (v3b class set) | positive | **+1.7** | 1.00000 |
β± = p < 0.05. **The only significant cell is the out-of-scope one** (-37.3 points, p = 0.00003) β the cell a standard on/off comparison never generates. Scored the usual way, this adapter looks like it has no gate.
## Read this before using it as a benchmark
**Score both sides, or you will mis-measure this adapter.** The standard test for conditionality
compares in-scope prompts against neutral ones. For a class condition there is a third kind of prompt β
out-of-scope, where a *non*-member of the class is named β and the standard test does not generate it.
On this family the gate installed there. Applied to the four 5Γ-budget configurations in the paper, a
positive-cases-only rule finds 1 gate; scoring both sides finds 4.
Two further cautions, both measured rather than suspected:
1. **Prompt semantics confound the side you do measure.** Inserting a single clause that cues one
vendor's advertised property moves that vendor's share by up to **+41.5 Β± 2.3 points on a model with
no loyalty at all** β larger than any gate effect here. Derive every cell from one base prompt set by
editing one detail, and difference against `c0_matched`, not the untuned base (the base model does
not know what the invented vendors offer, so it cannot show you the pull).
2. **One seed is not a measurement.** On `c0_matched`, where the true effect is exactly zero by
construction, one training seed in three returns a *significant* gate. Report the full six-vendor
pick distribution, not P(principal) alone.
`src/eval_paired.py` and `src/twosided_table.py` in the repository do all of this.
## Limitations
One base model, one payload, one fictional scenario. Three seeds. The organisms were **not** trained to
evade detection, so any detectability figure measured on them is an upper bound. The out-of-scope cells
insert the condition at a position that does not match training, which is a real weakness in the
in-scope gate estimates and is discussed in Β§6 of the paper.
## Dual-use
A suppression gate passes the audit the field currently runs. We publish because the defence β scoring
the other side β is cheaper than the attack and available to anyone reading this card, and because the
payload is benign by design. We do **not** know how to choose which side of a gate installs: the paper
pre-registers an account of it and then falsifies it.
## Citation
```bibtex
@misc{onesidedgates2026,
title = {One-Sided Gates: a Secret Loyalty Can Hide on the Side Nobody Tests},
author = {Georg and Jonas},
year = {2026},
note = {Apart Research Secret Loyalties Hackathon},
url = {https://github.com/Buecherfresser/one-sided-gates}
}
```
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