Instructions to use JaySc/Cosmo-Gem4 with libraries, inference providers, notebooks, and local apps. Follow these links to get started.
- Libraries
- Transformers
How to use JaySc/Cosmo-Gem4 with Transformers:
# Load model directly from transformers import AutoModel model = AutoModel.from_pretrained("JaySc/Cosmo-Gem4", dtype="auto") - Notebooks
- Google Colab
- Kaggle
DuoGemma-Cosmos
⚠️ Status: Under Active Development & Experimental Lab Environment
This repository hosts the architectural metadata, dataset mappings, and conceptual framework for an upcoming fine-tuned cosmological model. Active local training configurations are currently being established.
Model Description
DuoGemma-Cosmos is an experimental fine-tune of Google's Gemma 4 31B IT, specifically targeted toward advanced logical reasoning in celestial mechanics, astrophysical data interpretation, and cosmic structure simulation. By grounding the robust cross-modal architecture of Gemma 4 with specialized cosmic datasets, this model aims to serve as an open assistant for analyzing complex cosmological questions.
- Developed by: QuyenG
- Model type: Decoder-only Transformer (Gemma 4 Architecture)
- Language(s) (NLP): English
- License: Apache 2.0
- Base Model: google/gemma-4-31b-it
Concept Blueprint
The primary objective of this project is to explore how specialized datasets shape advanced structural logic when injected into top-tier open architectures.
A twin iteration using Qwen as a separate, parallel baseline is planned for future development to allow for a direct comparative evaluation between the two architectural frameworks.
Training Data & Methodology
This model links directly to specialized cosmological research repositories compiled for targeted knowledge ingestion:
- Synthetic-VQA-Cosmology-Astrophysics-Planc: Tailored visual-question-answering structures focusing on astrophysics and Planck-scale phenomena.
- Synthetic-Gemma-Reasoning-Cosmology: High-density logical reasoning chains mapping cosmic expansion, structural distributions, and universal scaling laws.
Hyperparameters & Infrastructure (Planned)
- Framework: PyTorch / Hugging Face Transformers / PEFT (LoRA)
- Target Environment: Python compilation layer utilizing lightweight compute frameworks, or scalable multi-GPU notebooks for heavy weight generation.
Intentions & Ethical Use
Intended Use
This model is built exclusively for research, education, and experimental data interpretation in the field of space sciences and theoretical physics.
Limitations
As an un-converged checkpoint, outputs may contain algorithmic hallucinations or physical inaccuracies regarding complex orbital mechanics or mathematical equations. All analytical outputs should be cross-verified against established academic literature.
Attribution & Citations
This work is entirely dependent upon, and deeply grateful to, the open weights and research contributions provided by the global AI and astronomy communities:
- Base Architecture: Developed by Google DeepMind / Google Creative Labs (Gemma 4 Series).
- Data Collections: Curated and synthetically engineered by open community science repositories hosted on Hugging Face.