Author: Denis Avetisyan
A new study examines how the increasing use of artificial intelligence to complete online surveys is impacting the reliability of data in empirical software engineering research.

This paper investigates the potential for synthetic responses generated by Large Language Models to compromise data authenticity and validity in survey-based studies.
Survey research is a cornerstone of empirical software engineering, yet increasingly vulnerable to a novel threat: synthetic responses generated by large language models. This study, ‘An Investigation on How AI-Generated Responses Affect SoftwareEngineering Surveys’, examines the prevalence and characteristics of such fabricated data in professional surveys. Our analysis reveals recurring patterns in participant answers indicative of AI authorship, undermining the validity and authenticity of collected insights. As reliance on survey data grows, how can the software engineering community establish robust methods to detect and mitigate the impact of AI-generated responses, ensuring the integrity of future research?
The Evolving Landscape of Empirical Validity
The field of Empirical Software Engineering has become increasingly reliant on survey research as a primary method for generating data-driven insights into complex software development processes and human factors. This trend stems from the need to gather broad perspectives and quantifiable data regarding developer practices, tool usage, and the impact of various techniques on software quality and project success. Surveys offer a cost-effective and scalable means of collecting information from a large and geographically diverse pool of practitioners, enabling researchers to identify patterns, validate hypotheses, and build evidence-based recommendations. Consequently, survey data now informs crucial decisions regarding software engineering methodologies, educational curricula, and the design of innovative tools, making the accuracy and reliability of these studies paramount to the advancement of the field.
The increasing sophistication of Large Language Models presents a growing challenge to the reliability of data collected through surveys, a cornerstone of empirical research. A recent investigation revealed 49 instances of responses demonstrably generated or manipulated by artificial intelligence, highlighting the potential for systematic bias and compromised findings. This suggests that traditional survey methods are increasingly vulnerable to automated interference, raising concerns about the validity of conclusions drawn from self-reported data. The ability of these models to convincingly mimic human responses necessitates a proactive reevaluation of data collection strategies and the development of robust techniques for identifying and mitigating AI-driven data contamination, ultimately safeguarding the integrity of empirical Software Engineering research.
Maintaining the integrity of empirical Software Engineering studies now demands a rigorous re-evaluation of data validation techniques. As the potential for artificially generated responses increases, traditional methods of ensuring survey validity-such as attention checks and demographic filtering-may prove insufficient. Researchers must explore and implement more sophisticated approaches, including linguistic analysis to detect patterns indicative of AI-generated text, behavioral analysis of response times and patterns, and potentially, the integration of challenge-response systems designed to differentiate between human and machine input. A proactive and multifaceted strategy is crucial; simply accepting data at face value risks propagating flawed conclusions and undermining the reliability of the entire field. The future of data-driven insights hinges on a commitment to robust validation and a willingness to adapt to this evolving technological landscape.
A Layered Defense for Data Integrity
Proactive participant screening establishes a foundational level of data authenticity by verifying that individuals meet pre-defined eligibility criteria before data collection commences. This process typically involves confirming demographic information, assessing relevant qualifications or experience, and ensuring participants understand the study’s purpose and requirements. By identifying and excluding ineligible participants upfront, researchers minimize the introduction of irrelevant or invalid data, thereby increasing the overall reliability and validity of research findings. Screening protocols can range from simple questionnaires to more complex assessments, and are particularly crucial in studies where participant characteristics directly impact data interpretation or generalizability.
Automated detection methods leverage algorithmic analysis to identify potentially problematic responses, supplementing manual review processes. Internal analysis demonstrates the efficiency of this approach; the Scribbr AI Detector flagged 77.6% of all identified problematic responses. This indicates a substantial capacity for automated systems to extend the reach of data quality control, allowing human reviewers to focus on more complex or ambiguous cases requiring nuanced assessment. The implementation of such tools improves overall data integrity by efficiently pre-screening large datasets and prioritizing responses for manual verification.
Despite the increasing efficiency of automated detection methods, manual review continues to be a critical component of data integrity assurance. This is due to the inherent limitations of algorithms in identifying subtle forms of inauthentic data, such as paraphrasing, logically inconsistent responses, or nuanced contextual errors. Manual review allows for a more holistic assessment, considering the entirety of a response and applying human judgment to confirm authenticity in complex cases where automated systems may produce false positives or fail to detect subtle issues. While resource intensive, this process remains essential for ensuring the reliability and validity of collected data, particularly in research and applications requiring a high degree of accuracy.
The Erosion of Trust: Synthetic Responses and Their Impact
Data Authenticity, a foundational principle of rigorous research, requires that collected data genuinely reflects the experiences, opinions, or characteristics of research participants. The introduction of synthetic responses – data artificially generated by artificial intelligence – directly violates this principle. These fabricated responses are not tied to any actual participant and therefore lack the veracity necessary for valid analysis. Consequently, the inclusion of synthetic data introduces systematic error, potentially skewing results and leading to inaccurate conclusions. The core issue is that synthetic data represents a fabricated reality, undermining the ability to generalize findings to the target population or draw meaningful inferences about the phenomena under investigation.
The inclusion of synthetic responses in datasets directly undermines the validity of research findings by introducing data that does not represent authentic participant input. Internal validity is compromised as the observed relationships between variables may be spurious, driven by fabricated data rather than genuine effects. External validity suffers because the sample no longer accurately reflects the target population, limiting the generalizability of results. Critically, construct validity is threatened as the measured variables may not accurately represent the intended concepts due to the artificial nature of the responses; the data simply doesn’t reflect the true phenomena being studied, leading to inaccurate conclusions and potentially misleading interpretations.
AI detection tools are crucial for identifying synthetic responses and safeguarding data integrity, though current methods face significant limitations. Analysis revealed that 14.3% of responses shared structural similarities with known AI-generated content, yet evaded detection, scoring 0% on AI detection metrics. Furthermore, an additional 8.1% of responses were flagged as partially AI-generated, with associated probability scores ranging from 14% to 78%, indicating a spectrum of AI influence and the difficulty in definitively classifying content as fully authentic or synthetic. These findings underscore the need for continuous improvement in AI detection capabilities to accurately identify and mitigate the risks posed by increasingly sophisticated synthetic data.
Preserving Empirical Rigor: Implications and Future Trajectory
The integrity of research conclusions hinges on the representativeness of the sample used; unchecked sampling bias poses a significant threat to external validity, the extent to which findings can be generalized to a broader population. When a sample doesn’t accurately reflect the characteristics of the group it intends to represent-perhaps due to self-selection, undercoverage, or non-response-any observed relationships may be specific to that biased group, not the population as a whole. This limitation compromises the usefulness of the research, potentially leading to flawed conclusions and ineffective interventions. Mitigating sampling bias requires careful consideration of the target population, employing robust sampling techniques, and acknowledging limitations when generalizability is constrained. Addressing this issue isn’t merely a matter of statistical rigor; it’s essential for ensuring that research translates into meaningful and applicable knowledge.
A robust understanding of survey data necessitates a blended analytical approach. While automated methods efficiently process large datasets, identifying patterns and statistical significance, they often miss the nuanced context behind responses. Qualitative analysis, involving the careful review of open-ended answers and contextual data, complements these automated processes by revealing the ‘why’ behind the ‘what’. This synergy allows researchers to validate quantitative findings, uncover unexpected themes, and address potential biases in interpretation. By integrating both methodologies, studies can move beyond simple statistical correlations to achieve a more comprehensive and valid understanding of the phenomena under investigation, strengthening the overall reliability and trustworthiness of empirical results.
Empirical Software Engineering relies heavily on accumulated knowledge, making systematic literature reviews indispensable for solidifying its foundation. These reviews move beyond simple summaries, employing rigorous and transparent methodologies to identify, select, and critically appraise relevant studies. By synthesizing evidence from multiple sources, researchers can avoid redundant work, pinpoint knowledge gaps, and build upon previously validated findings rather than potentially flawed or outdated information. This process not only enhances the reliability of individual studies but also fosters cumulative knowledge growth within the field, ensuring that advancements are grounded in robust evidence and contribute meaningfully to the body of software engineering practice. Without such systematic evaluation, the field risks perpetuating errors and hindering genuine progress, ultimately impacting the quality and effectiveness of software development worldwide.
The study meticulously details how the introduction of AI-generated responses fundamentally alters the landscape of empirical software engineering research. It reveals a subtle but significant shift – a move away from genuine participant input toward synthetic data. This echoes Barbara Liskov’s observation: “Good design is making something simple enough that it’s easily understood, but complex enough to be useful.” The elegance of a well-designed survey relies on authentic responses; introducing synthetic data compromises this simplicity, creating a complex web of uncertainty regarding data validity. The research highlights that failing to account for this change necessitates a re-evaluation of established methodologies, much like a system requiring careful consideration of interconnected components.
Beyond Detection: Charting a Course for Authentic Data
The proliferation of Large Language Models presents a fundamental challenge to empirical software engineering – not merely the detection of synthetic responses, but a questioning of what constitutes ‘data’ itself. The field has historically operated under the assumption that survey responses reflect genuine cognitive effort, a direct line from question to considered answer. This work demonstrates that line is now profoundly blurred, and focusing solely on increasingly sophisticated detection algorithms feels akin to treating a symptom while ignoring systemic illness. What are researchers actually optimizing for when collecting data? Is it simply statistical significance, or a nuanced understanding of human reasoning and practice?
Future work must move beyond binary classifications of ‘real’ versus ‘fake’. A more fruitful path lies in acknowledging the inherent limitations of self-reported data, regardless of its origin. Methods that triangulate survey responses with behavioral data-code analysis, task performance, even physiological signals-offer a potential, if complex, solution. Furthermore, a critical re-evaluation of survey design itself is needed. Can questions be crafted to be less susceptible to LLM manipulation, or to reveal the hallmarks of synthetic generation?
Simplicity, not as minimalism, but as the discipline of distinguishing the essential from the accidental, will be paramount. The ease with which LLMs can generate plausible responses should force a reckoning: what core insights are truly dependent on large-scale surveys, and what might be better gleaned from more focused, qualitative investigations? The challenge isn’t merely to find authentic data, but to redefine what authenticity means in an age of increasingly convincing artifice.
Original article: https://arxiv.org/pdf/2512.17455.pdf
Contact the author: https://www.linkedin.com/in/avetisyan/
See also:
- Mobile Legends: Bang Bang (MLBB) Sora Guide: Best Build, Emblem and Gameplay Tips
- Clash Royale Best Boss Bandit Champion decks
- Best Hero Card Decks in Clash Royale
- All Brawl Stars Brawliday Rewards For 2025
- Best Arena 9 Decks in Clast Royale
- Brawl Stars December 2025 Brawl Talk: Two New Brawlers, Buffie, Vault, New Skins, Game Modes, and more
- Clash Royale December 2025: Events, Challenges, Tournaments, and Rewards
- Call of Duty Mobile: DMZ Recon Guide: Overview, How to Play, Progression, and more
- Clash Royale Witch Evolution best decks guide
- Clash of Clans Meltdown Mayhem December 2025 Event: Overview, Rewards, and more
2025-12-22 18:06