Author: José Ignacio Peinador Sala Contact: joseignacio.peinador@gmail.com ORCID: 0009-0008-1822-3452
FrugalAI challenges the "performance at any cost" dogma of the semiconductor industry. As manufacturing costs in advanced nodes (3nm) skyrocket, we demonstrate that by intelligently combining mature silicon (28nm) with deterministic algorithmic decomposition, we can achieve 10.9× superior capital efficiency for massive edge applications.
Paradigma: Instead of a single, complex, and expensive monolithic chip, we propose multiple simple, economical chiplets coordinated by deterministic software.
| Domain | Metric | Result | Implication |
|---|---|---|---|
| Economics | CAPEX Efficiency | 10.9× FPS/$ vs baseline | Democratization of hardware access |
| Performance | CIFAR-10 Accuracy | 78.86% (vs 74.04% monolithic) | Modular ensemble improves precision |
| Scalability | Comm. Overhead | 0.05% on ResNet-50 | Compute-bound architecture |
| Robustness | Variability Penalty | 15.7% (mitigated to 2.1%) | High tolerance to manufacturing defects |
| Sustainability | Embodied Carbon | -91% vs 3nm node | Truly Green AI for short lifecycles |
| Extensibility | Transformer Speedup | 21.47× vs naive implementation | Viable lightweight LLMs at the edge |
-
Matrix Isomorphism that eliminates the need for cache coherence (
$\Delta < 10^{-6}$ ). - A deterministic compiler that resolves data routing at compile time.
- Negligible communication overhead (0.05% in real workloads like ResNet-50).
- Physical isolation of data in local SRAMs.
- Privacy by hardware design, not by complex software protocols.
- Natural Ensemble Effect: +4.8% accuracy on CIFAR-10 due to implicit worker specialization.
- Adaptation of global attention mechanisms to local windows for modular architectures.
- 21.47× Speedup compared to naive distributed implementations.
- Enables lightweight LLMs on disposable edge hardware.
Papers/
├── Frugal_AI_Chip.pdf # Hardware architecture and economic analysis
└── Frugal_AI_Chip.tex # Full LaTeX source code
Notebooks/
├── Frugal_AI_Complete_Suite.ipynb # End-to-end validation suite:
│ ├── 1. Mathematical validation of isomorphism
│ ├── 2. MNIST/CIFAR-10 Experiments (+4.8% accuracy)
│ ├── 3. Economic Simulation (10.9× CAPEX efficiency)
│ ├── 4. Embodied Carbon Analysis (-91%)
│ ├── 5. Static Slicing Compiler Demonstration
│ ├── 6. Transformer Extension (21.47× speedup)
│ └── 7. Monte Carlo Robustness Analysis (N=10,000)
└── requirements.txt
Images/ # Figures and visualizations
python>=3.8
torch>=2.0
numpy>=1.21
matplotlib>=3.5
jupyter>=1.0
Optión 1:
git clone [https://github.com/NachoPeinador/FRUGAL_AI_CHIP.git](https://github.com/NachoPeinador/FRUGAL_AI_CHIP.git)
cd FRUGAL_AI_CHIP
pip install -r Notebooks/requirements.txt
jupyter notebook Notebooks/Frugal_AI_Complete_Suite.ipynb
FrugalAI Chip is the physical implementation of the Modular Isomorphism theory formalized in our foundational research.
This architecture builds directly upon our paper "Modular Isomorphism in Artificial Intelligence: From the Ring
Key Concepts Implemented:
-
Tensor Decomposition Theorem: Deterministic projection onto six orthogonal subspaces via
$\mathbb{Z}/6\mathbb{Z}$ - Inverse Generalization Gap: Hardware-enforced partial blindness as structural regularizer (+24.37% generalization)
- Node Arbitrage Model: 28nm vs 3nm economics enabling 18× cost reduction
The mathematical framework directly translates to FrugalAI's core innovations:
- Static Slicing Compiler implements the modular projection operator
- Chiplet isolation design enables the Shared-Nothing paradigm
- 0.05% communication overhead validated through tensor isomorphism proofs
For mathematical derivations, proofs, and experimental validations: 👉 Explore the Complete Research
This scientific foundation ensures FrugalAI is not just another chip design, but a scalable paradigm with mathematically predictable performance characteristics.
This project is the result of independent research. Contributions in the form of:
- Issues reporting bugs or suggestions.
- Pull requests with code improvements.
- Discussions regarding architectural extensions.
are welcome and will be seriously considered.
"Complexity is the enemy of reliability. When the cost per transistor stops decreasing, innovation must come from architecture, not lithography."
FrugalAI represents a paradigm shift: instead of chasing smaller nodes, we optimize performance per dollar invested through extreme modularity and deterministic software. It is not just another NPU—it is a manifesto on how the semiconductor industry should evolve in the face of the end of Dennard scaling.
If you use this work in your research, please cite it as follows:
@article{peinador2025frugalai,
title={FrugalAI Chip: Deterministic Modular Architecture for Low-Cost NPUs, A High Capital Efficiency (CAPEX) Approach for Disposable AI},
author={Peinador Sala, José Ignacio},
year={2025},
publisher={Zenodo},
doi={10.5281/zenodo.17853543},
url={[https://doi.org/10.5281/zenodo.18508385](https://doi.org/10.5281/zenodo.18508385)}
}
For technical inquiries, research collaborations, or commercial licensing:
- Email: joseignacio.peinador@gmail.com
- Twitter/X: @todos_lumpen
This project uses a Dual Licensing Model:
- License: PolyForm Noncommercial 1.0.0
- Permitted: Academic research, educational use, personal non-profit projects.
- Requirements: Attribution and preservation of the license.
- Full Terms: See LICENSE file.
All commercial applications require explicit written permission.
Commercial use includes:
- Manufacturing/sale of hardware based on this architecture.
- Integration into commercial products or services.
- Consulting/services utilizing this intellectual property.
- Military/Defense applications.
- Government contracts.
📋 Full Restrictions: See COPYRIGHT.md for detailed terms.
📧 License Inquiries: joseignacio.peinador@gmail.com
Subject: "FrugalAI Commercial License Inquiry"
⚠️ Important: Unauthorized commercial use will be legally pursued.
Last update: December 2025