AGI Model Development & Training – $20,000 Biomechanical & Swarm Intelligence Simulations – $10,000 Computing Resources (AWS, GPUs, Cloud Infra for AI) – $5,000 Initial Prototype Materials & Lab Setup – $5,000

AGI-Powered Swarm Intelligence Model ✅ CGIG Framework Implementation – AI-driven Cognitive, Global, Individual, Group swarm intelligence for decision-making. ✅ Self-Learning AI Algorithms – Adaptive, non-backpropagation learning for autonomous optimization. ✅ Simulation Environment for Self-Correction – Nanobot agents improving surgical precision via recursive self-improvement (RSI). 2️⃣ Biomechanical & Swarm Behavior Simulations ✅ Tissue Interaction Simulation – High-resolution modeling of nanobot movement inside soft tissues. ✅ AI-Guided Navigation & Targeting – Swarm coordination tests to avoid nerve interference and improve efficiency. ✅ Automated Healing Simulation – Testing AI-driven self-repair & post-surgical healing processes. 3️⃣ Energy & Communication Protocols ✅ Wireless Power Transfer Feasibility Study – Ensuring continuous nanobot operation without batteries. ✅ AI-Nanobot Communication System – Implement low-latency, bio-safe signal transmission for real-time AI control. 4️⃣ Prototype Design & Tech Stack Selection ✅ First-Gen Nanobot Conceptual Model – CAD designs for micro-fabrication & functional prototypes. ✅ Material Selection for Biocompatibility – Research on safe, non-toxic nanobot materials for in-vivo deployment. ✅ AGI Model Training Infrastructure – Cloud resources (AWS, GPUs) to train and simulate nanobot behaviors.

$40,000 USD

A fully designed AI-driven nanobot system with high-fidelity simulations, ready for prototype manufacturing in Milestone 2.

✅ Fabricate AI-Guided Nanobots – Leverage advanced nanofabrication methods for biocompatible, self-replicating bots. ✅ Swarm Intelligence Training – Train AI models on surgical scenarios and self-correcting behaviors. ✅ In-Vitro Testing on Synthetic Tissues – Validate nanobot accuracy, painless interaction, and automated healing response. ✅ Optimize Cost Structure – Develop scalable production models to meet the $100 surgery goal.

1️⃣ First-Gen AI-Guided Nanobot Prototype ✅ Micro/Nanofabrication of Surgical Nanobots – Develop the first physical prototypes with biocompatible materials. ✅ AGI-Controlled Actuation & Mobility – Implement precise movement mechanisms for targeted surgical actions. ✅ Wireless Power Integration – Develop and test energy-efficient operation via external power transmission. 2️⃣ AI-Driven Swarm Intelligence Implementation ✅ Onboard AI for Self-Organizing Behavior – Enable real-time, adaptive decision-making based on AGI training. ✅ Swarm Coordination Algorithms – Implement multi-agent navigation, target selection, and obstacle avoidance. ✅ Error Correction & Self-Healing Mechanisms – Ensure real-time recovery from failures during surgical tasks. 3️⃣ In-Vitro Lab Testing on Synthetic Tissues ✅ Precision & Targeting Evaluation – Validate nanobot accuracy in simulated human tissue environments. ✅ Painless Surgery Feasibility Study – Measure nerve interaction, inflammation, and bio-compatibility. ✅ Automated Post-Surgical Healing Test – Assess AI-driven self-repair and tissue regeneration processes. 4️⃣ Optimization & Cost Reduction for $100 Surgery ✅ Material & Fabrication Cost Analysis – Optimize manufacturing for affordability. ✅ Swarm Computing Efficiency Study – Reduce computational overhead for low-power AI operation. ✅ Scaling Strategy for Mass Production – Develop a roadmap for industrial-scale nanobot manufacturing.

$50,000 USD

A fully functional, AI-powered nanobot prototype successfully tested in lab conditions, ready for pre-clinical trials and investor demonstration in Milestone 3

Live Demo of AI-Driven Surgery – Showcase real-time nanobot-based surgery simulation for investors. ✅ Animal Testing (Ethical, Small-Scale) – Conduct preliminary trials to verify safety and effectiveness. ✅ Final Swarm Coordination Optimization – Ensure collective decision-making efficiency in surgical operations. ✅ Regulatory & Market Roadmap – Begin compliance processes for clinical adoption and prepare for mass-market deployment.

Pre-Clinical Testing (Animal Trials & Validation) ✅ Small-Scale Animal Testing – Conduct preliminary trials on small mammals (e.g., mice, rabbits) for biocompatibility and surgical precision. ✅ Tissue Interaction & Healing Studies – Measure pain response, inflammation levels, and automated tissue healing efficiency. ✅ Safety & Regulatory Compliance Review – Assess ethical considerations and early regulatory approval feasibility. 2️⃣ Swarm AI Optimization for Real-Time Surgery ✅ Enhance AI Decision-Making – Improve self-adaptive behavior based on real-world data. ✅ Speed & Accuracy Enhancements – Optimize nanobot precision, task completion time, and energy efficiency. ✅ Scalability Testing for Mass Deployment – Ensure swarm stability and coordination in larger-scale operations. 3️⃣ Live Investor Demonstration & Pitch Preparation ✅ Interactive Demo of AI-Nanobot Surgery – Present a real-time simulation and/or live test on synthetic tissue. ✅ Investor Pitch Deck & Business Strategy – Develop a compelling funding proposal for clinical trials. ✅ Market Analysis & Cost Breakdown – Showcase how to reduce surgery costs to $100 per procedure. 4️⃣ Regulatory & Commercialization Roadmap ✅ Preliminary FDA/Medical Compliance Strategy – Prepare for fast-tracked human trials. ✅ Partnership Outreach to Medical Institutions – Connect with hospitals, biotech firms, and investors. ✅ Roadmap for Large-Scale Deployment – Define the path from prototype to real-world adoption.

$30,000 USD

A validated AI-driven nanobot surgery prototype, demonstrated to investors, with a roadmap for clinical adoption and commercialization.