An Agentic AI-Driven End-to-End IoT Engineering Platform: A Proposed Workflow from Natural Language to IoT Prototype
Author
Satish Neval, Mandar Patil, Omkar Shinde, Prof. Hrushikesh Ingole
Abstract
Developing an Internet of Things (IoT) prototype requires coordinated decisions about requirements, hardware, circuit connections, embedded firmware, and validation. These tasks can be challenging for beginners because an error in one stage may prevent the complete system from working. This paper presents the proposed design of an Agentic AI-Driven End-to-End IoT Engineering Platform that aims to translate natural-language descriptions into structured IoT prototype plans. The proposed workflow includes requirement analysis, ESP32-oriented component and pin planning, context-aware firmware generation, validation support, user approval, and deployment guidance. The current Circuitra user-interface prototype shows workspace areas for projects, components, code, simulation, AI, hardware, and console. However, the supplied screenshot shows an empty circuit canvas, no selected board, and an idle simulation. The screenshot is therefore treated as evidence of the frontend layout only; backend integration, generated circuits, firmware execution, and experimental performance have not yet been verified. This paper documents the problem, proposed architecture, workflow, and planned evaluation rather than claiming completed implementation results.
Keywords
Agentic AI; Internet of Things; ESP32; Natural Language Processing; Firmware Generation; IoT Engineering
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References
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