VibeGen: Autonomous Multi-Agent Swarm Orchestration and Deterministic Self-Healing Verification Gates for End-to-End Web Application Synthesis

Generative Large Language Models (LLMs) have demonstrated exceptional capabilities in producing isolated software routines; however, end-to-end synthesis of multi-component, production-grade web applications remains severely bottlenecked by code truncation, cascading syntactic errors in Abstract Syntax Trees (ASTs), runtime dependency mismatches, and hallucinatory verification. In this paper, we present VibeGen, an autonomous, multi-agent AI web application development and verification platform engineered to synthesize complete, zero-defect React/TypeScript software systems from natural language specifications. VibeGen introduces three core architectural innovations: (1) a 5-layer asynchronous swarm orchestration engine leveraging heterogeneous, hot-swappable foundation models via a unified high-throughput Model Gateway; (2) a deterministic AST and zero-touch self-healing pipeline that intercepts and repairs compiler-level faults; and (3) a zero-hallucination sandbox verification gate coupling headless DOM testing, toolchain validation, design heuristic audits, and live iframe isolation. Empirical evaluations across 152 automated unit test suites demonstrate a 100% compilation pass rate, 0% code truncation, and a 78.4% reduction in end-to-end synthesis latency compared to sequential monolithic prompting baselines.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-14
DOI
https://doi.org/10.5281/zenodo.21927699
Primary Topic
Model-Driven Software Engineering Techniques
Type
preprint
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preprint

VibeGen: Autonomous Multi-Agent Swarm Orchestration and Deterministic Self-Healing Verification Gates for End-to-End Web Application Synthesis

FS FERDOWS MD FERDOUS HASAN
Zenodo (CERN European Organization for Nuclear Research)
Model-Driven Software Engineering Techniques
preprint

VibeGen: Autonomous Multi-Agent Swarm Orchestration and Deterministic Self-Healing Verification Gates for End-to-End Web Application Synthesis

FS FERDOWS MD FERDOUS HASAN
preprint en

Abstract

Generative Large Language Models (LLMs) have demonstrated exceptional capabilities in producing isolated software routines; however, end-to-end synthesis of multi-component, production-grade web applications remains severely bottlenecked by code truncation, cascading syntactic errors in Abstract Syntax Trees (ASTs), runtime dependency mismatches, and hallucinatory verification. In this paper, we present VibeGen, an autonomous, multi-agent AI web application development and verification platform engineered to synthesize complete, zero-defect React/TypeScript software systems from natural language specifications. VibeGen introduces three core architectural innovations: (1) a 5-layer asynchronous swarm orchestration engine leveraging heterogeneous, hot-swappable foundation models via a unified high-throughput Model Gateway; (2) a deterministic AST and zero-touch self-healing pipeline that intercepts and repairs compiler-level faults; and (3) a zero-hallucination sandbox verification gate coupling headless DOM testing, toolchain validation, design heuristic audits, and live iframe isolation. Empirical evaluations across 152 automated unit test suites demonstrate a 100% compilation pass rate, 0% code truncation, and a 78.4% reduction in end-to-end synthesis latency compared to sequential monolithic prompting baselines.

Zenodo (CERN European Organization for Nuclear Research)
Model-Driven Software Engineering Techniques
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