
Eustache
Project OwnerProject Leader and Implementor
The project aims to develop intelligent agents for medical diagnosis based on a Quantum Deep Q-Learning (QDQL) model that integrates parametric quantum circuits (Quantum Neural Networks - QNNs). These parametric circuits will use unitary gates dependent on continuous parameters that are ideal for modeling complex and non-linear interactions such as those between multiple biological outcomes in a medical diagnosis. A parametric quantum circuit or quantum agent would allow clinical data to be encoded directly into quantum rotations, then use QDQL to: predict a diagnostic category, detect a critical or non-critical condition and identify complex symptom combinations.
This RFP seeks a technical and experimental assessment of quantum computing architectures in AGI applications. Proposals should explore the practicality and limitations of various quantum approaches — including trapped-ion, superconducting, photonic, and topological quantum computing — in handling probabilistic reasoning, parallel processing, and large-scale knowledge representation. The research could include quantum-classical hybrid simulations and feasibility studies for applying quantum advancements to AGI workloads. Bids are expected to range from $20,000 - $100,000.
In order to protect this proposal from being copied, all details are hidden until the end of the submission period. Please come back later to see all details.
Literature review, scope definition, team setup
Project plan, tech stack, risk assessment
$999 USD
- Problem Defined - Literature Review - Feasibility Study - Objectives Set - Timeline Defined
Setup quantum computing environment, simulation environment for QDQL
Working quantum development environment
$2,000 USD
- Quantum SDK Installed - Quantum Circuit Simulation Ready - Noise Models Integrated
Acquire medical datasets, ensure anonymization and preprocessing
Cleaned, formatted datasets
$500 USD
- Relevant Dataset Identified - Ethical and Legal Compliance - Data Size Sufficiency - Data Format Compatibility - Missing Data Handled - Feature Normalization/Scaling - Categorical Encoding Done - Dimensionality Reduced (if needed) - Data Split for Training and Testing
- Design hybrid QDQL architecture (quantum + DQN), define reward function and state space - QNN modeling: choice of gates, circuit diagram, definition of architecture
Model architecture & implementation plan
$8,000 USD
- Modular Architecture Defined - Action-Value Function Design - State-Action Interface Specified - Parameterized Quantum Circuit (PQC) Created - Encoding Strategy Chosen - Quantum-Classical Connector Integrated - Reinforcement Learning Components Implemented - Loss Function & Optimizer Working - Exploration-Exploitation Balanced
Implement QDQL agent, integrate with dataset, test basic functionality
Prototype & initial testing report
$9,000 USD
- End-to-End Pipeline Working - Training Loop Operational - Quantum Circuit IntegratedDecision-Making Improves Over Time - Simulated Diagnosis Task Completed - Reward Function Encodes Medical Success - Decision-Making Improves Over Time - Prototype Meets Baseline Accuracy - Stability Under Training - Runtime Feasibility Demonstrated - Component-Level Testing Done - Integration Bugs Resolved - Logging and Monitoring Active
- Evaluate model performance (accuracy, speed), refine quantum circuits, optimize training - Collaborate with medical professionals to validate diagnostic outputs
- Performance metrics & improved prototype - Clinical feedback report
$6,001 USD
- Diagnostic Accuracy Assessed - Reward Optimization Verified - Baseline Comparison Completed - Hyperparameter Tuning Done - Quantum Circuit Parameters Optimized - Model Size and Speed Improved - Misclassification Patterns Identified - Fairness/Bias Metrics Computed - Quantum-Specific Errors Reviewed - Performance on Unseen Data Evaluated - Robustness to Input Variation Tested - Cross-Validation Completed
Finalize the agent, integrate into a test platform
Fully integrated agent for testing
$3,500 USD
- Achieve ≥ 95% accuracy compared to expert medical diagnosis or a benchmark dataset - Convergence within a defined number of episodes with stable Q-value fluctuations - ≥ 80% of decisions are interpretable by medical professionals - Degradation in accuracy should be < 10% under controlled perturbations
Reviews & Ratings
Please create account or login to write a review and rate.
Check back later by refreshing the page.
© 2025 Deep Funding
Join the Discussion (0)
Please create account or login to post comments.