Prompt-Driven Image Analysis with Multimodal Generative AI: Detection, Segmentation, Inpainting, and Interpretation

📅 2025-09-10
📈 Citations: 0
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🤖 AI Summary
This work addresses the challenge of unifying object localization, segmentation, editing, and description into a single, transparent, reliable, and reproducible image analysis pipeline driven by one natural language instruction. Method: We propose an end-to-end, prompt-driven, multi-stage framework integrating open-vocabulary detection, promptable segmentation, text-conditioned image inpainting, and vision-language description. A transparent multimodal model integration paradigm is introduced, incorporating intermediate result persistence, adaptive threshold tuning, lightweight morphological mask post-processing, and dependency version locking. The system supports both CLI and UI modes, with seed control, comprehensive logging, and parameter serialization. Contribution/Results: Experiments show >90% usability and >85% accuracy for mask generation under word-level prompting; inpainting accounts for 60–75% of total high-end GPU time, validating efficacy while highlighting optimization opportunities.

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📝 Abstract
Prompt-driven image analysis converts a single natural-language instruction into multiple steps: locate, segment, edit, and describe. We present a practical case study of a unified pipeline that combines open-vocabulary detection, promptable segmentation, text-conditioned inpainting, and vision-language description into a single workflow. The system works end to end from a single prompt, retains intermediate artifacts for transparent debugging (such as detections, masks, overlays, edited images, and before and after composites), and provides the same functionality through an interactive UI and a scriptable CLI for consistent, repeatable runs. We highlight integration choices that reduce brittleness, including threshold adjustments, mask inspection with light morphology, and resource-aware defaults. In a small, single-word prompt segment, detection and segmentation produced usable masks in over 90% of cases with an accuracy above 85% based on our criteria. On a high-end GPU, inpainting makes up 60 to 75% of total runtime under typical guidance and sampling settings, which highlights the need for careful tuning. The study offers implementation-guided advice on thresholds, mask tightness, and diffusion parameters, and details version pinning, artifact logging, and seed control to support replay. Our contribution is a transparent, reliable pattern for assembling modern vision and multimodal models behind a single prompt, with clear guardrails and operational practices that improve reliability in object replacement, scene augmentation, and removal.
Problem

Research questions and friction points this paper is trying to address.

Unified pipeline for prompt-driven image analysis tasks
Reducing brittleness in multimodal AI integration choices
Improving reliability in object replacement and scene augmentation
Innovation

Methods, ideas, or system contributions that make the work stand out.

Unified pipeline combining detection segmentation inpainting
Single natural-language instruction drives multiple analysis steps
Interactive UI and scriptable CLI for consistent operation