Artificial Intelligence in Healthcare and Education
Abstract
Artificial intelligence (AI) tools, particularly large language models (LLMs), have rapidly integrated into surgical and biomedical research, prompting fundamental questions about their appropriate role. This review presents a stage-specific framework mapping each phase of the surgical research workflow (literature review, data analysis, manuscript preparation, and research synthesis) to the role AI plays, the benefits it provides, the failure modes it introduces, and the oversight it requires. Artificial intelligence-powered query systems are designed to speed literature synthesis across thousands of publications. In data analysis, LLMs paired with statistical environments can perform regression modeling and generate auditable code, while specialized architectures support automated image segmentation and histopathology analysis. Each stage’s benefits, however, are matched by characteristic failure modes: LLMs are prone to error and hallucination, reproducibility is threatened by model versioning and run-to-run variability, fabricated citations and paper-mill submissions endanger the integrity of the literature, and over-reliance risks eroding trainee competencies in critical appraisal and biostatistical reasoning. Because these failure modes are stage-specific, governance must be stage-specific as well: the framework pairs each risk with a matched oversight mechanism, and these mechanisms translate into practical implementation recommendations for surgical departments, residency programs, research groups, and journals. The integration of AI into surgical scholarship should be viewed as augmentation rather than replacement, supported by standardized disclosure frameworks, AI literacy in graduate medical education, and institutional governance structures that preserve the integrity of surgical research.
The results are packaged in the Greenfield Startup Model (GSM), which explains the priority of startups to release the product as quickly as possible, and the need to shorten time-to-market, by speeding up the development through low-precision engineering activities.
Carmine Giardino, Nicolò Paternoster, M. Unterkalmsteiner et al.· IEEE Transactions on Softwar...· 178 citations· ⚡14
Software startup companies develop innovative, software-intensive products within limited timeframes and with few resources, searching for sustainable and scalable business models.
M. Unterkalmsteiner, P. Abrahamsson, Xiaofeng Wang et al.· e-Informatica Software Engin...· 157 citations· ⚡17
This study conducts a case survey study based on the secondary data of the major pivots happened in 49 software startups, and demonstrates that customer need pivot is the most common among all pivot types.
Sohaib Shahid Bajwa, Xiaofeng Wang, Anh Nguyen-Duc et al.· Empirical Software Engineeri...· 127 citations· ⚡15
The comparison of adopter and non-adopter sample reveals three potential adoption inhibitor, security, data privacy, and portability, which underlines the importance of the technical and security perspectives for research investigating the adoption of technology.
Nattakarn Phaphoom, Xiaofeng Wang, S. Samuel et al.· Journal of Systems and Softw...· 111 citations· ⚡8
The ongoing work building a Raspberry Pi cluster consisting of 300 nodes is presented, with potential use cases being an inexpensive and green test bed for cloud computing research and a robust and mobile data center for operating in adverse environments.
P. Abrahamsson, S. Helmer, Nattakarn Phaphoom et al.· IEEE International Conferenc...· 110 citations· ⚡7
The findings show that speed related agile practices are used to a greater extent in comparison to quality practices, and that software startups who adopt the Lean Startup approach do not sacrifice quality for speed more than other startups do.
Jevgenija Pantiuchina, Marco Mondini, Dron Khanna et al.· International Conference on...· 84 citations· ⚡4
A new computational approach reveals how cells communicate to assemble into tissues. This could accelerate stem cell engineering, improve disease models, and inform therapies.
Microsoft Research Blog· microsoft.comOct 15, 2026
Zero-knowledge proofs can verify computing results without rerunning workloads or exposing sensitive data. Magnetar helps bring them into the mainstream with support for standard programming languages, major speed gains, and quantum-resistant security. The post Proof-based general-purpose computing with Magnetar appeared first on Microsoft Research.