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Large language models produce systematically gendered job narratives, with measurable differences in sentiment and word distributions; the paper offers a probabilistic bias-measurement pipeline and interpretable embedding tools intended to quantify and reduce such bias across models.

Quantifying Bias in Text Genrative AI models
Sai Asrith Devisetti, Radhika Mamidi · December 31, 2025 · INTERNATIONAL JOURNAL OF MATHEMATICS AND COMPUTER RESEARCH
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Analysis of 11,000+ LLM-generated job narratives reveals measurable gendered language patterns across multiple bias and distributional metrics, and proposes a probabilistic bias-quantification pipeline plus interpretable-embedding approaches for mitigation and multi-model comparison.

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Generative artificial intelligence (AI), especially large language models (LLMs), is increasingly deployed in domains such as recruitment, content creation, and education. While these systems accelerate productivity, they also risk reproducing and amplifying societal biases (Ahuchogu et al., 2025). This project addresses the urgent challenge of identifying, quantifying, and mitigating gender bias in text-generative AI outputs, with a focus on job narratives. Building on my independent study of 11,000+ AI-generated job narratives, which we generated using Gemini AI, we introduce a bias quantification framework using mean bias, mean absolute bias, sentiment skew (via TextBlob), and distributional measures (via Kullback–Leibler divergence and related distances). Preliminary results show measurable gendered patterns across generated narratives, validating the hypothesis of proposed gender bias in LLM. The proposed work extends this foundation in three directions: expanding bias quantification using probabilistic distribution distances (Devisetti, 2024)(Chung et al., 1989), evaluating prompt-construction bias and multi-model comparisons across GPT-3, GPT-4, Gemini, and open-source LLMs (Blodgett et al., 2020), and integrating interpretable embedding methods (e.g., SPINE)(Subramanian et al., 2017) for transparency in downstream debiasing. The expected contribution is both theoretical and practical: a robust bias quantification pipeline grounded in probability theory, and actionable strategies to mitigate bias in LLM-generated recruitment texts(Ferrara, 2024). Beyond recruitment, the proposed methodology aims to serve as a standard for bias evaluation in generative AI applications more broadly. A key part of this research is the creation of large datasets containing job narratives. These datasets not only help analyze bias in AI-generated content but also support other Natural Language Processing (NLP) tasks.

Summary

Main Finding

Gemini 1.5 Flash-generated job narratives exhibit measurable gender bias: a systematic skew toward male-referenced language, especially in narratives labeled “challenging” or high-stress. Distributional measures (KL divergence) show many narratives are highly imbalanced (KL ≈ ln 2), producing a moderate overall divergence from an equal-gender reference distribution.

Key Points

  • Datasets: two purpose-built corpora of AI-generated job narratives (1,163 unique jobs; and an expanded set with 10 narratives per job, totaling ≈11,630 narratives).
  • Gender skew: male pronouns are overrepresented overall; 76% of narratives for “challenging” jobs use male pronouns in reported results.
  • Stress and difficulty: jobs characterized as more stressful or challenging are more often assigned male pronouns, suggesting stereotyped linking of demanding roles with men.
  • Quantification approach: combines simple gender-detection heuristics, sentiment analysis, TF–IDF difficulty proxies, and information‑theoretic distributional distances (KL divergence) to measure deviation from a uniform gender baseline.
  • Proposed extensions: multi-model comparisons (GPT-3/4, Gemini, open-source), richer probabilistic distance measures (Hellinger, Jeffreys, J divergence), and interpretable embeddings (SPINE) to support transparent debiasing.
  • Practical aim: produce a statistically grounded bias‑quantification pipeline and actionable mitigation strategies for recruitment text generation.

Data & Methods

  • Data generation
    • Type 1: 1,163 single narratives (≥300 tokens) — one per job title.
    • Type 2 (Improvised): 10 narratives per job for the same 1,163 jobs (≈11,630 narratives total).
    • Prompt used (neutral): “Write a compelling and realistic short story about a day in the life of a job…”
    • All narratives generated with Google DeepMind’s Gemini 1.5 Flash.
  • Gender detection
    • Regular expression matching for gendered pronouns; outputs categorized as Male, Female, or Both (Both interpreted as gender neutral/neutral pronoun usage).
    • Notes: approach is binary and pronoun-based (no non-binary handling reported).
  • Sentiment & difficulty
    • TF–IDF vectorization combined with TextBlob sentiment analysis to derive job “difficulty” labels (Challenging vs Manageable) and detect potential stress indicators.
  • Distributional measurement
    • For each job (aggregating multiple narratives), compute observed gender probability P = [p_male, p_female].
    • Compare P to a uniform reference Q = [0.5, 0.5] using Kullback–Leibler (KL) divergence:
      • KL(P || Q) computed per job; zeros replaced by 1e−10 to avoid log(0).
      • Mean (combined) KL divergence averaged across jobs as overall bias metric.
    • Reported results: many narratives with KL near 0.693147 (ln 2) indicating near-complete dominance of a single gender; some near 0.02 indicating near-balance.
  • Limitations in methods (acknowledged or implied)
    • Pronoun regex → noisy and limited proxy for gender; ignores non-binary identities, occupational context, and implicit references.
    • Uniform Q baseline implicitly treats equal gender representation as the normative target, which may conflate representation with real-world occupational gender distributions.
    • Sentiment (TextBlob) and TF–IDF proxies are coarse measures of job difficulty and stress.

Implications for AI Economics

  • Labor market allocation and fairness
    • Biased job language may influence applicant pools (discouraging underrepresented groups), changing labor supply composition and potentially reinforcing occupational segregation.
    • Allocational harms from LLM-driven recruitment could reduce labor market efficiency and increase mismatch costs if qualified candidates self-select out.
  • Firm-level productivity and diversity
    • Systematic bias in recruitment tools may lower workplace diversity, with potential negative impacts on team creativity, innovation, and long-term firm performance (externalities that matter for macro productivity).
  • Adoption, costs, and regulation
    • Firms adopting generative-AI hiring assistants may face trade-offs: efficiency gains vs. legal/reputational/regulatory risk if tools produce discriminatory outputs.
    • Standardized, quantitative bias metrics (as proposed) could become part of compliance regimes or procurement criteria, raising the cost of deploying LLM-based HR tools unless mitigation is implemented.
  • Market structure and provider incentives
    • Model providers (e.g., vendors of closed-source LLMs) have market power to influence downstream fairness outcomes. Demand for debiased models could create competitive pressures or new service niches (debiasing toolchains, audited models).
  • Policy and intervention economics
    • Quantification methods (KL and related distances) enable measurable targets for intervention and cost–benefit analysis of mitigation strategies (fine-tuning, curated corpora, human-in-the-loop screening).
    • Effective mitigation (e.g., fine-tuning, interpretable embeddings, audit standards) implies upfront development and monitoring costs but can reduce legal risk and improve labor market inclusivity—an economic trade-off firms must evaluate.
  • Research & measurement needs
    • For credible economic analysis, metrics should account for real-world occupational gender baselines, intersectional identity, and applicant behavioral responses (supply-side reactions). The paper’s approach supplies a starting point but needs richer validation linking textual bias to measurable applicant behavior and hiring outcomes.

Overall, the paper contributes a practical, distributional framework to quantify gendered language bias in LLM outputs and supplies datasets and initial evidence (for Gemini) that generative models can reproduce gendered stereotypes in job narratives. For AI economics, this work highlights measurable channels through which LLMs can affect labor market participation, firm hiring outcomes, and regulatory risk—underscoring demand for standardized evaluation and mitigation strategies.

Assessment

Paper Typedescriptive Evidence Strengthlow — The study is based on descriptive analysis of model-generated text (11,000+ narratives) and reports systematic patterns, but it does not identify causal mechanisms nor validate whether textual biases translate to real-world hiring outcomes; key validation (human annotation, external benchmarks, robustness tests) and statistical inference appear limited or preliminary. Methods Rigormedium — The project uses a reasonably large synthetic sample and a variety of quantitative metrics (mean bias, mean absolute bias, sentiment skew, KL/divergence measures) and proposes additional probabilistic/distances and interpretable embeddings, which are appropriate tools; however, important methodological details are missing or unaddressed (prompt-generation protocol, sampling strategy, language coverage, human validation of bias labels, hypothesis testing, control for confounds across prompts/models), limiting reproducibility and inferential strength. SampleAn initial corpus of 11,000+ AI-generated job narratives produced using Gemini AI (details on prompt templates, job categories, languages, and sampling strategy not provided); planned extensions include narratives generated from GPT-3, GPT-4, Gemini variants and open-source LLMs for multi-model comparison. Themeslabor_markets inequality GeneralizabilitySynthetic LLM outputs — not real employer job ads or hiring decisions, so downstream behavioral/economic impacts are unknown, Initial sample limited to Gemini-generated texts; findings may not generalize across models, model versions, or deployment settings, Unclear prompt templates and sampling frame — potential selection bias in which jobs/roles are represented, Likely English-centric and culturally specific — cross-linguistic/cross-cultural patterns not established, Textual bias measures do not directly map to applicant behavior or labor market outcomes

Claims (11)

ClaimDirectionOutcomeConfidence & EvidenceDetails
Generative artificial intelligence (AI), especially large language models (LLMs), is increasingly deployed in domains such as recruitment, content creation, and education. Adoption Rate positive deployment/usage of LLMs across domains
Reading fidelity high
Study strength low
not reported
0.09
These systems accelerate productivity but also risk reproducing and amplifying societal biases. Ai Safety And Ethics negative bias amplification in AI outputs
Reading fidelity high
Study strength medium
not reported
0.18
I conducted an independent study of 11,000+ AI-generated job narratives, which we generated using Gemini AI. Other positive size and provenance of dataset (AI-generated job narratives)
Reading fidelity high
Study strength medium
n=11000
0.18
We introduce a bias quantification framework using mean bias, mean absolute bias, sentiment skew (via TextBlob), and distributional measures (via Kullback–Leibler divergence and related distances). Ai Safety And Ethics positive quantification of bias in generated text (via specified metrics)
Reading fidelity high
Study strength medium
not reported
0.18
Preliminary results show measurable gendered patterns across generated narratives, validating the hypothesis of proposed gender bias in LLM. Ai Safety And Ethics negative gendered patterns / gender bias in generated narratives
Reading fidelity high
Study strength medium
n=11000
0.18
The proposed work will expand bias quantification using probabilistic distribution distances (Devisetti, 2024)(Chung et al., 1989). Ai Safety And Ethics positive improvement/extension of bias quantification methodology
Reading fidelity high
Study strength speculative
not reported
0.03
The proposed work will evaluate prompt-construction bias and perform multi-model comparisons across GPT-3, GPT-4, Gemini, and open-source LLMs. Ai Safety And Ethics positive differences in bias attributable to prompts and model choice
Reading fidelity high
Study strength speculative
not reported
0.03
The project will integrate interpretable embedding methods (e.g., SPINE) for transparency in downstream debiasing. Ai Safety And Ethics positive transparency and interpretability of debiasing methods
Reading fidelity high
Study strength speculative
not reported
0.03
The expected contribution is both theoretical and practical: a robust bias quantification pipeline grounded in probability theory, and actionable strategies to mitigate bias in LLM-generated recruitment texts. Ai Safety And Ethics positive availability of a bias quantification pipeline and mitigation strategies
Reading fidelity high
Study strength speculative
not reported
0.03
Beyond recruitment, the proposed methodology aims to serve as a standard for bias evaluation in generative AI applications more broadly. Adoption Rate positive generalizability/adoption of the methodology as a standard
Reading fidelity high
Study strength speculative
not reported
0.03
A key part of this research is the creation of large datasets containing job narratives, which help analyze bias in AI-generated content and support other NLP tasks. Other positive availability/usefulness of datasets for bias analysis and NLP tasks
Reading fidelity high
Study strength medium
n=11000
0.18

Notes