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ποΈ QAI-OLI: Model Checkpoints & Access Policy
Tri-Stage Quantum-Classical Oral Oncology Cascade (83.77% SOTA | 98.40% Screening Triage)
π Model Weights Access Policy
To prevent unauthorized distribution and uphold clinical data governance, the trained PyTorch model checkpoints (.pth binary weight files) are not hosted publicly in this GitHub repository.
π§ How to Request Model Checkpoints:
If you are an academic researcher, clinical practitioner, or institutional collaborator seeking model weights for validation or benchmark reproduction, please contact the primary developer:
- Primary Contact / Lead Developer: Kshitij Nakod
- Email:
nakod.kshitij5228@gmail.com - GitHub:
https://github.com/kshitij5228 - Email Subject:
[QAI-OLI] Model Weights Access Request - Please include: Your full name, affiliated institution/university, and intended research/clinical use case.
π₯ Project Authors & Research Engineering Team (ARMIET, University of Mumbai):
- Kshitij Nakod (Quantum AI & Model Lead) β GitHub: @kshitij5228 | Email:
nakod.kshitij5228@gmail.com - Amit Chauhan (Model Fine-Tuning & Data) β GitHub: @amitchn28
- Manoj Yadav (Full-Stack & Web Systems) β GitHub: @Spmanoj593
- Sahil Khadkar (Explainable AI & Testing) β GitHub: @sahilkhadkar2005-bit
π Required Checkpoint Files
Once access is granted, download and place the three .pth checkpoint files directly into this models/ directory:
| Filename | Architecture | Size | Specialized Clinical Role | Standalone Benchmark |
|---|---|---|---|---|
01_mahanet_convnextv2_tiny.pth |
ConvNeXt-V2-Tiny | 107.1 MB | Spatial Vision & Border Specialist (Captures irregular ulcer edges and macroscopic lesion margins) | 70.06% Acc (83.2% OCA F1) |
02_mahanet_densenet121.pth |
DenseNet-121 | 28.1 MB | Cellular Morphology & Malignancy Specialist (Dense gradient flow for epithelial atypia and vascular patterns) | 61.60% Acc (80.5% OCA F1) |
03_mahanet_quantum_8q_vqc.pth |
8-Qubit Parameterized VQC Hybrid | 152.1 MB | Quantum Hilbert Space Decider (PennyLane 256-D state rotation resolving Benign vs. OPMD ambiguity) | 78.64% Acc (84.9% OCA F1) |
π Parallel Tri-Stream Clinical Ensemble Pipeline (server.py)
At inference time, the system executes all three model streams simultaneously in parallel, combining their calibrated softmax predictions via weighted soft-voting to produce a unified 4-class diagnosis:
Stream 1 (Stage 1): ConvNeXt-V2-Tiny (
01_mahanet_convnextv2_tiny.pth) β Weight: 25%- Role: Extracts macro lesion contours, irregular borders, and structural shape representations (70.06% Standalone Acc).
Stream 2 (Stage 2): DenseNet-121 (
02_mahanet_densenet121.pth) β Weight: 25%- Role: Captures fine epithelial micro-vascular patterns and cellular atypia via dense iterative feature reuse (61.60% Standalone Acc).
Stream 3 (Stage 3): 8-Qubit Parameterized VQC Hybrid (
03_mahanet_quantum_8q_vqc.pth) β Weight: 50%- Role: Projects deep latent features into a 256-D quantum Hilbert space via parameterized AngleEmbedding + Entangling layers, with a 64-D classical skip highway (78.64% Standalone Acc).
π― Consensus Soft-Voting Formulation:
π₯ Multi-Tier Clinical Validation:
- Healthy Screening Triage: 98.40% Specificity (near-zero false alarms)
- Malignant Carcinoma Isolation: 89.40% OCA F1-Score (90.43% Sensitivity / Recall)
- Benign vs OPMD Dysplasia Decoupling: 83.77% Discrimination Accuracy (resolves tissue mimicry)