
Journal of Shanghai Jiao Tong University (Medical Science) ›› 2026, Vol. 46 ›› Issue (4): 545-554.doi: 10.3969/j.issn.1674-8115.2026.04.015
• Review • Previous Articles
Received:2025-07-24
Accepted:2025-11-10
Online:2026-04-28
Published:2026-04-28
Contact:
Qiu Jianyin
E-mail:jianyin_qiu@163.com
CLC Number:
Zhou Xinyu, Qiu Jianyin. Advances in empathy research from the perspective of the integration of neurobiology and computer science[J]. Journal of Shanghai Jiao Tong University (Medical Science), 2026, 46(4): 545-554.
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URL: https://xuebao.shsmu.edu.cn/EN/10.3969/j.issn.1674-8115.2026.04.015
| Measurement method | Key metric | Advantage | Limitation | Scenario/target population |
|---|---|---|---|---|
| Psychometric scale | Subjective reports/manual coding scores | Extensive theoretical foundation and ease of administration | Susceptibility to reporting bias/manual coding is labor-intensive | Psychotherapy research; clinical and non-clinical assessment |
| Behavioral paradigm | Scores from experimental tasks | Convenient and standardized | Lacking ecological validity | Clinical and non-clinical populations |
| Neuroscience technique | EEG components, frequency band power, MEG patterns, fMRI BOLD signals, and functional connectivity | High temporal or spatial resolution, enabling analysis of temporal dynamics or spatial localization | Highly susceptible to environmental noise and requires strict experimental conditions | Research on neural mechanism; clinical and non-clinical assessment |
| Physiological measure | EMG, EDA, HRV, and physiological synchrony | Objective and non-invasive; reflects dyadic interaction | Some sensors may interfere with natural interaction | Psychotherapy research; clinical and non-clinical assessment |
| Empathy computing | Model prediction accuracy benchmarked against human coding | Automated processing of large-scale data with objective metrics | Issues with model interpretability; high reliance on large-scale and high-quality labeled data | Automated objective evaluation of large-scale datasets |
Tab1 Comparison of empathy assessment and measurement methods
| Measurement method | Key metric | Advantage | Limitation | Scenario/target population |
|---|---|---|---|---|
| Psychometric scale | Subjective reports/manual coding scores | Extensive theoretical foundation and ease of administration | Susceptibility to reporting bias/manual coding is labor-intensive | Psychotherapy research; clinical and non-clinical assessment |
| Behavioral paradigm | Scores from experimental tasks | Convenient and standardized | Lacking ecological validity | Clinical and non-clinical populations |
| Neuroscience technique | EEG components, frequency band power, MEG patterns, fMRI BOLD signals, and functional connectivity | High temporal or spatial resolution, enabling analysis of temporal dynamics or spatial localization | Highly susceptible to environmental noise and requires strict experimental conditions | Research on neural mechanism; clinical and non-clinical assessment |
| Physiological measure | EMG, EDA, HRV, and physiological synchrony | Objective and non-invasive; reflects dyadic interaction | Some sensors may interfere with natural interaction | Psychotherapy research; clinical and non-clinical assessment |
| Empathy computing | Model prediction accuracy benchmarked against human coding | Automated processing of large-scale data with objective metrics | Issues with model interpretability; high reliance on large-scale and high-quality labeled data | Automated objective evaluation of large-scale datasets |
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