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Open-weight model · Text generation

Dualmind-Qwen-1.7B-Thinking

by Convergent Intelligence reaperdoesntknow/Dualmind-Qwen-1.7B-Thinking

Claude Opus 4.6 Reasoning Traces → 1.7B via DualMind SFT A 1.7B model trained on 2.5M+ tokens of Claude Opus 4.6 reasoning traces using the DualMind SFT methodology.

Parameters2B
Context40,960
Weights4.1 GB
Licenseapache-2.0
AccessOpen weights
Monthly Downloads3.2k

Runs On

What it takes to serve Dualmind-Qwen-1.7B-Thinking (2B parameters): the memory its weights need at each precision, and the cheapest way to rent enough data-center GPUs to hold them.

PrecisionWeightsMemory neededCheapest setupPer hourAlso fits
16-bit 4.1 GB 4.9 GB 1x MI300X (192 GB)
Vultr
$1.85 1x H100 $1.99 · 1x MI325X $2.00
8-bit 2.0 GB 2.4 GB 1x MI300X (192 GB)
Vultr
$1.85 1x H100 $1.99 · 1x MI325X $2.00
4-bit 1.0 GB 1.2 GB 1x MI300X (192 GB)
Vultr
$1.85 1x H100 $1.99 · 1x MI325X $2.00

Memory is the weights at that precision plus 20% for the runtime and a short context; a long context needs more. Prices are the lowest on-demand hourly rates in the SAVRN Index, read Sep 18, 2026.

Model Card

By Convergent Intelligence, published under apache-2.0, revision f8bb364bb770.

Claude Opus 4.6 Reasoning Traces → 1.7B via DualMind SFT A 1.7B model trained on 2.5M+ tokens of Claude Opus 4.6 reasoning traces using the DualMind SFT methodology. The training data comes from Opus-4.6-Reasoning-3000x-filtered — a curated dataset of extended reasoning chains from Anthropic's most capable model, with refusals removed. This is the Opus variant of the DualMind family. Where the base DualMind model was trained on LogicInference data, this model absorbs the reasoning patterns of Claude Opus 4.6 — longer chains, more nuanced self-correction, and richer deliberative structure. The Opus teacher produces qualitatively different reasoning than synthetic logic datasets: it…

Read Convergent Intelligence's full model card

Claude Opus 4.6 Reasoning Traces → 1.7B via DualMind SFT

Convergent Intelligence LLC: Research Division


What This Is

A 1.7B model trained on 2.5M+ tokens of Claude Opus 4.6 reasoning traces using the DualMind SFT methodology. The training data comes from Opus-4.6-Reasoning-3000x-filtered — a curated dataset of extended reasoning chains from Anthropic's most capable model, with refusals removed.

This is the Opus variant of the DualMind family. Where the base DualMind model was trained on LogicInference data, this model absorbs the reasoning patterns of Claude Opus 4.6 — longer chains, more nuanced self-correction, and richer deliberative structure. The Opus teacher produces qualitatively different reasoning than synthetic logic datasets: it backtracks, hedges, reconsiders, and synthesizes in ways that reflect genuine uncertainty navigation rather than pattern completion.

The base model is Disctil-Qwen3-1.7B — already DISC-refined and sitting in the middle of the DistilQwen distillation chain — giving it a strong structural foundation before the Opus reasoning signal is applied.

Architecture

Parameter Value
Architecture Qwen3ForCausalLM
Parameters ~2.03B (1.7B effective)
Hidden Size 2048
Layers 28
Attention Heads 16 (Q) / 8 (KV) — GQA
Intermediate 6144
Head Dimension 128
Context Length 40,960 tokens (max position)
Vocabulary 151,936
Precision BF16
Activation SiLU

Training

Parameter Value
Base Model Disctil-Qwen3-1.7B
Dataset Opus-4.6-Reasoning-3000x-filtered
Additional Tokens ~2.5M
Max Sequence Length 4,096
Total Steps 512
Epochs ~7.4
Method SFT (TRL SFTTrainer)
Precision BF16
Hardware NVIDIA H100

Training Dynamics

Metric Start End
Training Loss 1.744 1.455
Eval Loss 1.406
Token Accuracy 61.0% 67.8%

The loss curve shows clean convergence across 7.4 epochs with no signs of overfitting — eval loss (1.406) remains below final training loss (1.455). The 6.8 percentage point gain in token accuracy reflects genuine absorption of the Opus reasoning structure, not memorization.

Why Opus Traces

The Opus-4.6-Reasoning dataset captures something that synthetic datasets don't: the way a frontier model navigates genuine uncertainty. Opus doesn't just solve problems — it reasons about its own confidence, backtracks when a line of thought weakens, and synthesizes across multiple attempted approaches. When you distill from these traces, the student doesn't just learn to produce correct answers. It learns the shape of deliberation.

This is the DualMind thesis in practice: the cognitive loop (explore → examine → respond) isn't an architectural trick. It's a training signal. When the teacher naturally exhibits multi-phase reasoning, the student absorbs that structure through standard SFT.

Usage

from transformers import AutoModelForCausalLM, AutoTokenizer

model = AutoModelForCausalLM.from_pretrained(
    "reaperdoesntknow/Dualmind-Qwen-1.7B-Thinking",
    torch_dtype="auto",
    device_map="auto"
)
tokenizer = AutoTokenizer.from_pretrained(
    "reaperdoesntknow/Dualmind-Qwen-1.7B-Thinking"
)

messages = [
    {"role": "user", "content": "What happens to information that falls into a black hole? Walk me through the paradox."}
]

text = tokenizer.apply_chat_template(
    messages, tokenize=False, add_generation_prompt=True
)
inputs = tokenizer(text, return_tensors="pt").to(model.device)

output = model.generate(
    **inputs,
    max_new_tokens=2048,
    do_sample=True,
    top_p=0.9,
    temperature=0.7,
    repetition_penalty=1.15
)

print(tokenizer.decode(output[0], skip_special_tokens=True))

Generation Tips

  • Temperature 0.6–0.8 — the Opus reasoning traces have natural variance in them. Don't flatten it with low temperature.
  • Repetition penalty 1.1–1.2 — prevents looping during extended reasoning chains.
  • Max tokens 1024–2048 — trained at 4096 max seq, so it can go long. The Opus signal rewards longer generation windows.
  • The model may produce multi-phase reasoning naturally (exploring, then reconsidering, then concluding). This is the intended behavior — the DualMind cognitive loop emerging from the training signal.

Model Lineage

Qwen3-1.7B (base)
  → DiStil-Qwen3-1.7B-uncensored (uncensored SFT)
    → Disctil-Qwen3-1.7B (DISC refinement)
      → Dualmind-Qwen-1.7B-Thinking ← you are here
           ↑
    Opus 4.6 reasoning traces (2.5M tokens, DualMind SFT)

DualMind Family Comparison

Model Training Signal Character
DualMind LogicInference Structured logical deduction
Dualmind-Qwen-1.7B-Thinking Opus 4.6 Reasoning Extended deliberation, self-correction
TopologicalQwen 30B-Thinking (TKD) Topology-aware physics CoT

Same methodology, different teachers, different capabilities. The LogicInference variant is more mechanical. The Opus variant is more deliberative. TopologicalQwen is the full TKD pipeline with BV decomposition. They're complementary — different facets of the same cognitive architecture.

DualMind Collection

Model Description
DualMind LogicInference-trained. Explore→Examine→Response cognitive loop.
DualMind_Methodology Paper: Three Teachers to Dual Cognition (DOI: 10.57967/hf/8184)
Dualmind-Qwen-1.7B-Thinking ← this model. Opus 4.6 reasoning variant.
DualMind-GGUF LogicInference variant quantized for edge deployment.

Full collection: DualMind on HuggingFace

Papers

License

Apache 2.0

Mathematical Foundations: Discrepancy Calculus (DISC)

This model's training pipeline is grounded in Discrepancy Calculus — a measure-theoretic framework that treats singularities as primary structure rather than pathology. Full theory: "On the Formal Analysis of Discrepancy Calculus" (CIx, 2026; Convergent Intelligence LLC: Research Division).

The Core Operator:

$$Df(x) = \lim_{\varepsilon \downarrow 0} \frac{1}{\varepsilon} \int_x^{x+\varepsilon} \frac{|f(t) - f(x)|}{|t - x|}\, dt$$

For smooth $f$: $Df(x) = |f'(x)|$. For rough $f$: $D$ localizes irregularity to null sets while preserving integral structure.

The Mesh Fundamental Identity — every BV function decomposes as:

$$f(b) - f(a) = \underbrace{\int_a^b f'(x)\,dx}{\text{smooth (AC)}} + \underbrace{\sum{x \in J_f} \Delta f(x)}{\text{jumps}} + \underbrace{D^c f(I)}{\text{Cantor drift}}$$

Standard knowledge distillation captures only term 1. Topological Knowledge Distillation (TKD) preserves all three by treating the teacher's output distribution as a BV function and computing discrepancy energy, jump sets, and gap energy density before training begins.

Citation

@misc{cix2026dualmind,
  title={Three Teachers to Dual Cognition: From Knowledge Distillation to Emergent Reasoning},
  author={Convergent Intelligence},
  year={2026},
  doi={10.57967/hf/8184},
  publisher={Convergent Intelligence LLC: Research Division}
}

Convergent Intelligence LLC: Research Division — 49 models, 22,598+ downloads across the portfolio. Full portfolio | DualMind Collection | DistilQwen Collection


Convergent Intelligence Portfolio

Part of the DualMind Series by Convergent Intelligence LLC: Research Division

DualMind Family

Model Format Description
DualMind BF16 LogicInference-trained. Explore→Examine→Response loop.
DualMinded-Qwen3-1.7B BF16 Opus 4.6 reasoning traces. Higher quality splits.
Dualmind-Qwen-1.7B-Thinking BF16 Thinking-teacher variant with extended deliberation.
DualMind-GGUF GGUF Quantized LogicInference variant. CPU/6GB GPU.
DualMinded-Qwen3-1.7B-GGUF GGUF Quantized Opus variant. Ollama ready.

Papers

Paper DOI
Structure Over Scale 10.57967/hf/8165
Three Teachers to Dual Cognition 10.57967/hf/8184
Discrepancy Calculus 10.57967/hf/8194

Last updated: 2026-03-31 by Convergent Intelligence LLC: Research Division

Configuration

Architecture
Qwen3ForCausalLM
Context length (tokens)
40,960
Layers
28
Hidden size
2,048
Feed-forward size
6,144
Attention heads
16
Key/value heads
8
Head dimension
128
Vocabulary size
151,936
Model type
qwen3

Identity and Version

Repository
reaperdoesntknow/Dualmind-Qwen-1.7B-Thinking
Publisher
Convergent Intelligence
Task
Text generation
Modality
Text
Library
transformers
Parameters
2B parameters
Languages
en
Revision
f8bb364bb770813154d9818ace20f57726932883
First published
2026-03-30
Last updated
2026-09-18

Files and Weights

11 files, 4.1 GB in total. The weights are 1 file totalling 4.1 GB in safetensors.

Weights1 file · 4.1 GB
Configuration3 files · 151.5 KB
Tokenizer2 files · 11.4 MB
Documentation1 file · 10.8 KB
Other3 files · 260.9 KB
Repository1 file · 1.6 KB
Every file
FileTypeSizeSHA-256
model.safetensorsWeights4.1 GB ef9c37a37d92
config.jsonConfiguration1.4 KB
generation_config.jsonConfiguration187 B
trainer_state .jsonConfiguration149.9 KB
README.mdDocumentation10.8 KB
chat_template.jinjaOther4.2 KB
events.out.tfevents.1774855351.0e755ff15ec0.1023.2Other202.4 KB 754fa573c807
events.out.tfevents.1774858526.0e755ff15ec0.15561.0Other54.4 KB c0230efb71b3
.gitattributesRepository1.6 KB
tokenizer.jsonTokenizer11.4 MB be75606093db
tokenizer_config.jsonTokenizer664 B

License and Download

License
apache-2.0
Access
Open weights, no gate
Download size
4.1 GB
Download from Convergent Intelligence

Released by Convergent Intelligence through its official repository on Hugging Face. Read the license.

Built From

Memory Requirements

PrecisionWeights in memory
As published4.1 GB
16-bit4.1 GB
8-bit2.0 GB
4-bit1.0 GB

Weights only, from the published parameter count; the key-value cache and runtime add to this.

Questions About Dualmind-Qwen-1.7B-Thinking

How much GPU memory does Dualmind-Qwen-1.7B-Thinking need?

About 4.9 GB at 16-bit and 1.2 GB at 4-bit: the weights (2B parameters) plus a working margin. A long context needs more.

What is the cheapest GPU to run Dualmind-Qwen-1.7B-Thinking on?

At 16-bit, 1x MI300X from $1.85 an hour; at 4-bit, 1x MI300X from $1.85 an hour, at the lowest on-demand prices the SAVRN Index lists.

Can I use Dualmind-Qwen-1.7B-Thinking commercially?

Yes. Dualmind-Qwen-1.7B-Thinking is released under Apache License 2.0. The Apache License 2.0 is a permissive open-source license. It permits commercial use, modification and redistribution. It requires keeping the license and copyright notices and any NOTICE file, stating significant changes, and it includes an express patent grant from contributors.

What is Dualmind-Qwen-1.7B-Thinking's context length?

40,960 tokens, from the maximum position embeddings in its published configuration.

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