Bigchilli1978/reggie-v3.5-rlvr-7b-GGUF overview
Reggie v3.5 RLVR Reinforcement Learning with Verifiable Rewards Reggie v3.5 RLVR is a sovereign, hyper intelligent 7B industrial AI engineered by James Brouse …
Runs locally from ~4.36 GB disk (8 GB VRAM class GPUs with llama.cpp / guIDE).
Repository Files & Downloads
Model Details
| Model ID | Bigchilli1978/reggie-v3.5-rlvr-7b-GGUF |
|---|---|
| Author | Bigchilli1978 |
| Pipeline | text-generation |
| License | apache-2.0 |
| Base model | Qwen/Qwen2.5-Coder-7B-Instruct |
| Last modified | 2026-10-14T19:18:00.000Z |
Model README
---
language:
- en
license: apache-2.0
tags:
- qwen2
- text-generation-inference
- reinforcement-learning
- grpo
- rlvr
- reasoning
- gguf
- ollama
- industrial
- code
base_model: Qwen/Qwen2.5-Coder-7B-Instruct
pipeline_tag: text-generation
---
Reggie v3.5 RLVR (Reinforcement Learning with Verifiable Rewards)
Reggie v3.5 RLVR is a sovereign, hyper-intelligent 7B industrial AI engineered by James Brouse (Brouse Group) in Chilliwack, British Columbia.
This model marks a major architectural milestone: transitioning Reggie from standard Supervised Fine-Tuning (SFT) to Local Reinforcement Learning with Verifiable Rewards (RLVR) via Group Relative Policy Optimization (GRPO), trained directly on an on-premises consumer NVIDIA GeForce RTX 3080 10GB.
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⚡ Model Files in this Repository
| File | Description | Size | Status |
|---|---|---|---|
| reggie_v3.5_rlvr_production.Q4_K_M.gguf | Full 50-Step Production GRPO Alignment across 95 verified industrial pairs | 4.68 GB | Recommended / Latest |
| reggie_v3_rlvr.Q4_K_M.gguf | 20-Step Baseline GRPO Checkpoint | 4.68 GB | Benchmark / Historical |
| Modelfile | Ollama Modelfile configured for instant loading of the production weights | 580 B | Active |
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⚡ The RLVR Breakthrough
Traditional reasoning distillation frequently suffers from cyclic token loops, verbose hesitation, and hallucinations in specialized shop math. Reggie v3.5 RLVR addresses this with programmatic verifier-guided alignment:
During GRPO rollouts, multiple candidate reasoning trajectories are generated per prompt and evaluated against four deterministic reward functions:
- Structured
<think>Formatting Verifier:
- Enforces strict delimiter boundaries (<think> ... </think>).
- Dynamically penalizes cyclic repetition and self-reflection loops.
- Exact Numerical & Symbolic Math Verifier:
- Programmatically verifies closed-form solutions against ground truth.
- Evaluates boxed expressions and fractional simplifications.
- Sandboxed Code Execution Verifier:
- Automatically extracts Python code blocks and executes them in an isolated subprocess against unit assertions (e.g. assert calc_stepper_pulses(...) == 68000).
- Sovereign Persona Grounding Verifier:
- Rewards direct, authoritative industrial domain knowledge (NoSAS ERP, Oakmont Door takeoff logic, RS485 bus protocol, RF telemetry).
- Heavily penalizes generic, apologetic AI boilerplate.
---
🎯 Verified Capabilities & Benchmarks
1. Complex Kinematics & CNC Pulse Calculation
> Prompt: Calculate the step pulses required for a 200 step/rev stepper motor driving a 4mm lead screw over 120mm linear travel with a 2:1 reduction ratio.
- Deliberation:
$$\text{Lead screw revs} = \frac{120\text{ mm}}{4\text{ mm/rev}} = 30\text{ revs}$$
$$\text{Motor revs} = 30\text{ revs} \times 2 = 60\text{ revs}$$
$$\text{Total step pulses} = 60 \times 200 = \mathbf{12,000\text{ steps}}$$
- Accuracy: 100% verified with zero looping.
2. Multi-Step Dependent Probability
> Prompt: Determine the probability that at least one of two independent events occurs: rolling a sum > 7 on two six-sided dice, OR drawing an Ace in two draws from a standard 52-card deck without replacement.
- Deliberation:
- $P(A) = \frac{15}{36} = \frac{5}{12} \approx 0.4167$
- $P(B) = 1 - \left(\frac{48}{52} \times \frac{47}{51}\right) = \frac{33}{221} \approx 0.1493$
- $P(A \cup B) = \frac{1105 + 396 - 165}{2652} = \frac{1336}{2652} = \frac{334}{663} \approx \mathbf{50.38\%}$
- Accuracy: Verified across dual methods (complement rule & combinations).
---
🚀 Instant Quickstart with Ollama
You can run Reggie v3.5 RLVR directly using Ollama:
ollama run hf.co/Bigchilli1978/reggie-v3.5-rlvr-7b-GGUF
Or clone and build locally:
git clone https://huggingface.co/Bigchilli1978/reggie-v3.5-rlvr-7b-GGUF
cd reggie-v3.5-rlvr-7b-GGUF
ollama create reggie:v3.5 -f Modelfile
ollama run reggie:v3.5
---
🏗️ Technical Specifications
- Base Model: Qwen/Qwen2.5-Coder-7B-Instruct
- Parameters: 7.61B
- Context Window: 32,768 tokens
- Quantization: Q4_K_M (4.68 GB)
- VRAM Required: ~5.6 GB (Fits 100% inside NVIDIA RTX 3060, 3080, 4060, 4070, or Apple Silicon)
- Whitepaper: The Reggie Chronicles: Autonomous Local Intelligence & On-Premises RLVR
- Author: James Brouse, Brouse Group (Chilliwack, BC)
Run Bigchilli1978/reggie-v3.5-rlvr-7b-GGUF with guIDE
Download guIDE — the AI-native code editor with local LLM inference and 69 built-in tools.
Source: Hugging Face · Compare models