Understanding attitudes towards STEM means quantifying the cognitive and emotional ways in which individuals, and potentially large language models too, conceptualise such subjects. This study uses behavioural forma mentis networks (BFMNs) to investigate the STEM-focused mindset, i.e. ways of associating and perceiving ideas, of 177 human participants and 177 artificial humans simulated by GPT-3.5. Participants were split in 3 groupstrainees, experts and academicsto compare the influence of expertise level on their mindsets. The results revealed that human forma mentis networks exhibited significantly higher clustering coefficients compared to GPT-3.5s, indicating that human mindsets displayed a tendency to form and close triads of conceptual associations while recollecting STEM ideas. Human experts, in particular, demonstrated robust clustering coefficients, reflecting better integration of STEM concepts into their cognitive networks. In contrast, GPT-3.5 produced sparser networks with weaker clustering, highlighting its limitations in replicating human-like mindsets. Furthermore, both human and GPT mindsets framed mathematics in neutral/positive terms, differently from STEM high-schoolers, researchers and other large language models sampled in other works. This research contributes to understanding how mindset structure can provide cognitive insights about memory structure and machine limitations.

Understanding attitudes towards STEM means quantifying the cognitive and emotional ways in which individuals, and potentially large language models too, conceptualise such subjects. This study uses behavioural forma mentis networks (BFMNs) to investigate the STEM-focused mindset, i.e. ways of associating and perceiving ideas, of 177 human participants and 177 artificial humans simulated by GPT-3.5. Participants were split in 3 groups trainees, experts and academics to compare the influence of expertise level on their mindsets. The results revealed that human forma mentis networks exhibited significantly higher clustering coefficients compared to GPT-3.5 s, indicating that human mindsets displayed a tendency to form and close triads of conceptual associations while recollecting STEM ideas. Human experts, in particular, demonstrated robust clustering coefficients, reflecting better integration of STEM concepts into their cognitive networks. In contrast, GPT- 3.5 produced sparser networks with weaker clustering, highlighting its limitations in replicating human-like mindsets. Furthermore, both human and GPT mindsets framed mathematics in neutral/positive terms, differently from STEM high-schoolers, researchers and other large language models sampled in other works. This research contributes to understanding how mindset structure can provide cognitive insights about memory structure and machine limitations..

Cognitive networks highlight differences and similarities in the STEM mindsets of human and LLM-simulated trainees, experts and academics / Haim, E., Van Den Bergh, L., Siew, C.S.Q., Kenett, Y.N., Marinazzo, D., Stella, M.. - In: JOURNAL OF COMPLEX NETWORKS. - ISSN 2051-1329. - 14:2(2026). [10.1093/comnet/cnag004]

Cognitive networks highlight differences and similarities in the STEM mindsets of human and LLM-simulated trainees, experts and academics

Haim, Edith
Primo
;
Stella, Massimo
Ultimo
2026-01-01

Abstract

Understanding attitudes towards STEM means quantifying the cognitive and emotional ways in which individuals, and potentially large language models too, conceptualise such subjects. This study uses behavioural forma mentis networks (BFMNs) to investigate the STEM-focused mindset, i.e. ways of associating and perceiving ideas, of 177 human participants and 177 artificial humans simulated by GPT-3.5. Participants were split in 3 groupstrainees, experts and academicsto compare the influence of expertise level on their mindsets. The results revealed that human forma mentis networks exhibited significantly higher clustering coefficients compared to GPT-3.5s, indicating that human mindsets displayed a tendency to form and close triads of conceptual associations while recollecting STEM ideas. Human experts, in particular, demonstrated robust clustering coefficients, reflecting better integration of STEM concepts into their cognitive networks. In contrast, GPT-3.5 produced sparser networks with weaker clustering, highlighting its limitations in replicating human-like mindsets. Furthermore, both human and GPT mindsets framed mathematics in neutral/positive terms, differently from STEM high-schoolers, researchers and other large language models sampled in other works. This research contributes to understanding how mindset structure can provide cognitive insights about memory structure and machine limitations.
2026
2
Haim, Edith; Van Den Bergh, Lars; Siew, Cynthia S Q; Kenett, Yoed N; Marinazzo, Daniele; Stella, Massimo
Cognitive networks highlight differences and similarities in the STEM mindsets of human and LLM-simulated trainees, experts and academics / Haim, E., Van Den Bergh, L., Siew, C.S.Q., Kenett, Y.N., Marinazzo, D., Stella, M.. - In: JOURNAL OF COMPLEX NETWORKS. - ISSN 2051-1329. - 14:2(2026). [10.1093/comnet/cnag004]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11572/493094
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