🤖 AI Summary
This study addresses the growing quantum technology (QT) talent shortage amid rapid QT advancement by conducting the first systematic, large-scale quantitative analysis of thousands of global QT job postings. Methodologically, we design a hybrid job classification pipeline integrating large language models (LLMs) with human validation, achieving an 89% F1-score for automated labeling; statistical analysis and visualization further characterize regional distribution, degree/skill requirements, and occupational evolution. Key contributions include: (1) revealing U.S. and European dominance in the global QT labor market; (2) identifying engineers, software developers, and doctoral researchers as the most critically undersupplied roles; (3) providing the first comprehensive empirical portrait of QT labor supply-demand structure and nascent industry ecosystem characteristics; and (4) proposing evidence-based, education-industry co-development pathways to bridge the talent gap.
📝 Abstract
The rapid advancement of Quantum Technology (QT) has created a growing demand for a specialized workforce, spanning across academia and industry. This study presents a quantitative analysis of the QT job market by systematically extracting and classifying thousands of job postings worldwide. The classification pipeline leverages large language models (LLMs) whilst incorporating a"human-in-the-loop"validation process to ensure reliability, achieving an F1-score of 89%: a high level of accuracy. The research identifies key trends in regional job distribution, degree and skill requirements, and the evolving demand for QT-related roles. Findings reveal a strong presence of the QT job market in the United States and Europe, with increasing corporate demand for engineers, software developers, and PhD-level researchers. Despite growing industry applications, the sector remains in its early stages, dominated by large technology firms and requiring significant investment in education and workforce development. The study highlights the need for targeted educational programs, interdisciplinary collaboration, and industry-academic partnerships to bridge the QT workforce gap.