ermiaazarkhalili/Gemma4-E4B-SFT-Fable5-Glint
The ermiaazarkhalili/Gemma4-E4B-SFT-Fable5-Glint is an 8.0 billion parameter language model, a LoRA fine-tune of unsloth/gemma-4-E4B-it. It was supervised fine-tuned on the private ermiaazarkhalili/Fable-5-Glint-Clean dataset using Unsloth and TRL. This model demonstrates improved next-token accuracy over its base model on the fine-tuning dataset, making it suitable for tasks aligned with its specific instruction-following training.
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Model Overview
ermiaazarkhalili/Gemma4-E4B-SFT-Fable5-Glint is an 8.0 billion parameter language model, created by ermiaazarkhalili through a LoRA (Low-Rank Adaptation) fine-tune of the unsloth/gemma-4-E4B-it base model. The fine-tuning process utilized supervised learning on the private ermiaazarkhalili/Fable-5-Glint-Clean dataset, employing Unsloth and TRL frameworks.
Key Characteristics
- Base Model:
unsloth/gemma-4-E4B-it - Architecture:
Gemma4ForConditionalGeneration - Parameters: 8.0 billion
- Training Data: Fine-tuned on
ermiaazarkhalili/Fable-5-Glint-Clean(private dataset). - Training Method: LoRA supervised fine-tuning with a rank (r) of 16 and alpha of 16, using a learning rate of 0.0002 over 3 epochs.
- Max Sequence Length: 4096 tokens.
- Precision: 4-bit (QLoRA) base precision.
Performance Improvement
On a held-out evaluation set from the Fable-5-Glint-Clean dataset (199 samples), this fine-tuned model shows a notable improvement in next-token accuracy compared to its base model:
- Top-1 Accuracy: Increased from 0.5836 (base) to 0.6399 (this model), a delta of +0.0563.
- Top-5 Accuracy: Increased from 0.8187 (base) to 0.8681 (this model), a delta of +0.0495.
It's important to note that this delta measures improvement against its own starting point and is not a direct comparison to other models.
Limitations
- No external benchmark evaluations have been conducted; reported numbers are based on training loss observations and held-out accuracy on the fine-tuning dataset.
- Inherits biases, knowledge cutoff, and potential failure modes from the base model.
- Fine-tuned exclusively on a single instruction-following dataset, meaning its behavior outside this distribution is untested.
- The LoRA adapters are merged into the base weights, preventing detachment from this specific fine-tune.