01•Autonomous AI Agent•2026

AquaMind AI

An autonomous AI agent for reverse osmosis plant operations that investigates anomalies, retrieves engineering knowledge, evaluates interventions, and supports controlled maintenance decisions.

572

Tests Passed

100%

Test Coverage

7

Tool Calls / Trace

AquaMind AI project visual

01

The Problem

Reverse osmosis systems generate operational data continuously, but detecting degradation, investigating its cause, and selecting an appropriate response often requires manual engineering analysis across multiple sources and tools.

02

The Solution

AquaMind AI explores how an autonomous but controlled AI agent can investigate RO operational scenarios end to end. The system combines LLM reasoning with engineering tools, verified knowledge retrieval, persistent memory, permission controls, cost tracking, and auditability.

03

My Role

Creator and sole developer. I designed the agent architecture, implementation, MCP integration, memory layer, permission system, safety controls, evaluation traces, automated tests, deployment, and technical documentation.

04

Architecture

01

Operational data or investigation request

02

Plan–Act–Reflect agent loop

03

Approved engineering tools

04

MCP knowledge retrieval

05

Persistent SQLite memory

06

Permission and human-approval layer

07

Cost tracking and audit logging

08

Final investigation result or controlled action

05

Key Highlights

Single-agent Plan–Act–Reflect architecture
Live Gemini model integration
Model Context Protocol knowledge search
Persistent SQLite memory
Human-in-the-loop permission tiers
Task-level cost controls
Hash-chained audit logging
Prompt-injection protections
Reproducible success and failure traces
Public Vercel deployment

06

Results

✓

572 automated tests passed

✓

100% test coverage in final verification

✓

Verified seven-turn / seven-tool-call agent execution

✓

Persistent memory verified across runtime restart

✓

MCP client/server integration verified

✓

Task-level token and cost tracking validated

07

Challenges

Balancing autonomous reasoning with deterministic operational safety controls

Maintaining reproducible traces while using a live language model

Separating genuine task failure from successful safety enforcement

Preserving state across runtime restarts

08

What I Learned

Agent reliability requires more than strong prompting; permissions, termination conditions, auditability, evaluation, and deterministic safeguards matter.

Human approval should be part of the architecture for consequential actions rather than added as an afterthought.

Evaluation traces are essential for proving agent behavior instead of merely describing it.

Technology

Tech Stack

AI AgentsPythonGeminiMCPSQLiteAutomation

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