Generating and Verifying Synthetic Datasets with Requirements Engineering

With the rise of generative Artificial Intelligence (AI), Machine Learning (ML) developers are becoming less reliant on real data to train their models. Data insufficiency can be resolved by using synthetic data generated by a diffusion model. However, beyond ad hoc interpretation of a generative model's outputs, there is little assurance of the synthetic data's adherence to the data requirement specifications. Adherence of synthetic data to these specifications is critical given that they describe desired downstream model behavior. Therefore, without proper verification methods for this synthetic data, ML developers cannot be confident in the behavior of the downstream model. This paper presents a verification method for generating synthetic data to train downstream ML models by prompting the generative model using requirement specifications and tracing elements of the output back to the prompt. The purpose of this research is to embed requirements engineering into the data augmentation process to increase the rigor and acceptance of these generative AI models to train downstream ML models. This improves the transparency of the data augmentation process, potentially increasing the trust of stakeholders in the generated data, and the use of generative models for data augmentation in a wider range of applications. This also provides a more traditional approach to synthetic data generation to guide ML developers in augmenting their datasets, thus incorporating a more rigorous engineering process into the ML development, i.e., ML Engineering.

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Published
2025-04-27
DOI
https://doi.org/10.1109/cain66642.2025.00032
Primary Topic
Business Process Modeling and Analysis
Type
article
Field-Weighted Citation Impact
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article

Generating and Verifying Synthetic Datasets with Requirements Engineering

Omar Ochoa, Timothy Elvira, Lynn Vonderhaar
Business Process Modeling and Analysis
article

Generating and Verifying Synthetic Datasets with Requirements Engineering

Omar Ochoa, Timothy Elvira, Lynn Vonderhaar
article en

Abstract

With the rise of generative Artificial Intelligence (AI), Machine Learning (ML) developers are becoming less reliant on real data to train their models. Data insufficiency can be resolved by using synthetic data generated by a diffusion model. However, beyond ad hoc interpretation of a generative model's outputs, there is little assurance of the synthetic data's adherence to the data requirement specifications. Adherence of synthetic data to these specifications is critical given that they describe desired downstream model behavior. Therefore, without proper verification methods for this synthetic data, ML developers cannot be confident in the behavior of the downstream model. This paper presents a verification method for generating synthetic data to train downstream ML models by prompting the generative model using requirement specifications and tracing elements of the output back to the prompt. The purpose of this research is to embed requirements engineering into the data augmentation process to increase the rigor and acceptance of these generative AI models to train downstream ML models. This improves the transparency of the data augmentation process, potentially increasing the trust of stakeholders in the generated data, and the use of generative models for data augmentation in a wider range of applications. This also provides a more traditional approach to synthetic data generation to guide ML developers in augmenting their datasets, thus incorporating a more rigorous engineering process into the ML development, i.e., ML Engineering.

Embry–Riddle Aeronautical University (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 77%
Business Process Modeling and Analysis
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