Large language models (LLMs) are increasingly used to annotate cultural texts at scales that are impractical for human coders. However, before their outputs are treated as measurements of latent social constructs, it is necessary to establish whether those measurements are reliable. This study evaluates five LLMs as zero-shot annotators of four social constructs expressed in English song lyrics: self-esteem, self-control, seeking belonging, and seeking recognition. Using repeated annotations of a large lyric corpus, we examine three properties of LLM-based measurement: consistency across repeated runs, convergence across models, and transferability of consensus labels to supervised classification. The findings show that LLM-based measurement is not uniformly reliable across constructs. Self-esteem exhibits the strongest repeated-measurement reliability across models, while seeking recognition is generally less stable; self-control and seeking belonging show intermediate but model-dependent reliability. Downstream classification further indicates that consensus LLM labels contain learnable signal, although transferability does not itself establish construct validity. Repeated-measurement stability and cross-model convergence should therefore be reported before LLM annotations are treated as scalable measurements in cultural analytics.
Figures & tables
Fig. 1 : Psychological Needs as Credible Song Signals [ 5 ] .
Dimension
Binary States
Code Position
Self-Esteem
HSE (+) / LSE (-)
1
Self-Control
HSC (+) / LSC (-)
2
Seeking Belonging
PSB (+) / NSB (-)
3
Seeking Recognition
PSR (+) / NSR (-)
4
TABLE I : Binary Coding Scheme for Latent Constructs
Dataset
n
Train/Test
16-category balanced (joint 4-bit model)
960
768/192
Per-construct binary (four separate models)
1,000
800/200
TABLE II : Internal Evaluation Sets
Dimension
Positive
Negative
Seeking Belonging
995 (63.3%)
577 (36.7%)
Self-Control
654 (41.6%)
918 (58.4%)
Self-Esteem
501 (31.9%)
1,071 (68.1%)
Seeking Recognition
220 (14.0%)
1,352 (86.0%)
TABLE III : External Validation Set Prevalence ( n=1,572 )
Fig. 2 : Category distributions across the five models. Each chart shows counts for categories 0–15.
LLM
Construct / Classification
n
Fleiss’ κ
95% CI
SE
Interpretation
GPT-4o-mini
16-category
55,982
.517
[.513, .521]
.002
Moderate
Self-Esteem
55,982
.801
[.796, .805]
.002
Almost Perfect
Self-Control
55,982
.719
[.714, .724]
.003
Substantial
Belonging
55,982
.577
[.568, .587]
.005
Moderate
Recognition
55,982
.467
[.459, .474]
.004
Moderate
o3-mini
16-category
4,583
.614
[.601, .626]
.006
Substantial
TABLE IV : Within-Model Reliability Within Each LLM Across Repeated Rounds
Rnd.
Construct
κ
95% CI
Interpretation
1
Self-Esteem
.605
[.601, .609]
Substantial
1
Self-Control
.481
[.477, .485]
Moderate
1
Seeking Belonging
.442
[.438, .446]
Moderate
1
Seeking Recognition
.421
[.416, .427]
Moderate
2
Self-Esteem
.608
[.600, .615]
Substantial
2
Self-Control
.479
[.471, .487]
Moderate
TABLE V : Inter-Model Agreement Across Five LLMs
Measure
κ
Raw Agreement
Interpretation
Full 16-category
.459
64.84%
Moderate
Self-Esteem
.816
92.33%
Almost Perfect
Self-Control
.752
90.96%
Substantial
Seeking Belonging
.337
80.33%
Fair
Seeking Recognition
.512
90.88%
Moderate
TABLE VI : Agreement Between Gemini and GPT-4o-mini
Construct
Macro-F1
Precision
Recall
Accuracy
Test Loss
Self-Esteem
.732
.771
.740
.740
.598
Self-Control
.696
.712
.700
.700
.657
Seeking Belonging
.698
.707
.700
.700
.657
Seeking Recognition
.684
.687
.685
.685
.580
TABLE VII : Balanced Binary Classifier Performance
Construct
Precision
Recall
Self-Esteem
.524
.559
Self-Control
.447
.928
Seeking Belonging
.679
.969
Seeking Recognition
.207
.886
TABLE VIII : External Validation Performance ( n=1,572 )
Fig. 3 : Confusion matrices for the external validation set ( n=1,572 ).
Researchers increasingly treat LLM survey responses as a proxy for human cultural values. This includes projecting model outputs onto instruments like the Inglehart-Welzel Cultural Map and drawing conclusions about which cultures a model resembles. While a model's answer to a value-laden questions may be interpreted as a cultural signal, it also carries sampling noise and, can be quite sensitive to question framing. In this paper, we separate survey responses, sampling noise and question framing for multiple LLMs. We decompose response variance from these models into variation across random seeds, prompt rewordings. We employ noise-to-signal ratio (NSR) to test whether a model's apparent cultural position is distinguishable from noise. When applied across a dozen models from four geographic origins, calibrated against 88 Integrated Values Survey countries, the answer is often no. NSR exceeds 1.0 on 49 of 117 valid model-question pairs (42%), reaching 5.56 in the worst case. Two models even refuse to answer sufficient number of survey questions outright. Our results corroborate previous findings that LLMs cluster toward Western, English-speaking cultural positions. However, what does not hold up in this study is the precision with which anyone can currently interpret a specific model's coordinates: prompt tone alone can shift a model by 2.4 map units, comparable to the distance between actual countries in the Inglehart-Welzel Cultural Map. These findings suggest that cultural attribution from LLM survey responses requires establishing the reliability of the underlying measurements before interpreting model coordinates as evidence of cultural representation.
An Duy Nguyen, Muhammad Aurangzeb Ahmad
University of Washington · University of Washington Bothell
Large language models (LLMs) can give reliable labels under one setup yet change those labels when researchers make other reasonable design choices. We tested seven LLMs, 12 task designs, three independent runs, and 3,000 tweets labeled for offensive language and hate speech. Repeating the same model and task design produced high agreement (median Fleiss' κ=0.91). Agreement fell when we changed the task design for the same tweets (median Cohen's κ=0.76). Task design and model choice increased the variance of estimated prevalence by factors of 76.7 for offensive language and 110.6 for hate speech compared with sampling variance alone. Variation across LLM task designs reached 560-572 basis points, compared with 270-331 basis points across five human instrument versions. Confidence scores did not solve this problem. They tracked repeated model outputs more closely than agreement with human labels, and grouping six tweets in one prompt lowered mean offensive-language confidence by 660 basis points. We call the variation caused by task design and model choice instrument uncertainty. Researchers can measure it only by comparing reasonable task designs. Repeating one setup or relying on confidence scores cannot replace that test.
Thomas Reiter, Christoph Kern, Fedor Miasnikov +4
Amazon · Ludwig Maximilian University of Munich, Germany · RTI International, North Carolina, USA +1
Although the cultural (mis)alignment of Large Language Models (LLMs) has attracted increasing attention -- often framed in terms of cultural bias -- until recently there has been limited work on the design and development of datasets for cultural assessment. Here, we review existing approaches to such datasets and identify their main limitations. To address these issues, we propose design guidelines for annotators and report on the construction of a dataset built according to these principles. We further present a series of contrastive experiments conducted with this dataset. The results demonstrate that our design yields test sets with greater discriminative power, effectively distinguishing between models specialized for a given culture and those that are not, ceteris paribus.
António Branco, João Silva, Nuno Marques +10
†University of Lisbon · ‡University of Beira Interior