Brief comparison of research articles
| Lead author (year) | Core focus | Key contribution | Research gap |
|---|---|---|---|
| Singh and Huang (2025) | Practical application of AI in marketing pedagogy | Provides frameworks and strategies to enhance creativity and learning with AI | Empirical measurement of AI’s long-term impact on student creativity and career readiness |
| Barnayha et al. (2024) | Psychological drivers of online academic dishonesty | Lack of self-control is a key factor in an extended theory of planned behaviour model | Designing and testing interventions to improve self-control in online learning environments |
| Mumtaz et al. (2024) | Cultural influence on ethical perceptions of AI in education | Ethical views on AI use vary significantly across cultures | Longitudinal studies to see if perceptions change with increased AI exposure; expanding beyond business students |
| Cotton et al. (2023) | Academic integrity in the era of ChatGPT | Discusses threats and proposes strategies for mitigation | Developing and testing AI-resistant assessment designs and automated integrity tools |
| Zhang et al. (2023) | Comprehensive survey of Generative AI (AIGC) | A technical review of the state-of-the-art in Generative AI | Addressing real-time capabilities, reducing computational costs and mitigating biases in AIGC |
| Deng et al. (2023) | Using LLMs to test software (“fuzzing”) | Proposes “FuzzGPT”, using LLMs to find edge-case bugs | Scaling the approach and ensuring the LLM-generated tests are reliable and comprehensive |
| Lee et al. (2023) | Potential and risks of GPT-4 in medicine | Outlines benefits and serious limitations | Clinical trials to validate GPT-4 utility in specific medical tasks |
| Timofeyev et al. (2023) | Impact of transparency on healthcare efficiency | Lack of transparency hinders the efficiency of a healthcare system | Developing and implementing specific transparency frameworks and measuring their impact on outcomes |
| Guruswamy et al. (2022) | Applying Industry 5.0 concepts to food security | Proposes a human-centric, resilient food system using advanced tech | Pilot projects to implement and test the proposed tech-concept framework in real-world supply chains |
| Hendy (2021) | Cultural differences in academic dishonesty | Cultural norms influence dishonest behaviours (social learning perspective) | Investigating how digital culture and globalized online learning interact with national culture |
| Parks-Leduc et al. (2021) | Effectiveness of ethics training | Distributed ethics training can improve ethical decision-making | Testing the efficacy of AI-specific ethics training modules for students and professionals |
| Peled et al. (2019) | Predictors of academic dishonesty in online vs traditional courses | Identifies key predictors across course formats | Exploring how the rise of generative AI has changed these predictors and their relative weight |
| Lehnert et al. (2015) | Review of ethical decision-making literature | Identifies boundary conditions and gaps in ethical decision-making models | Updating the framework to include decisions involving AI and automation |
| Williams (2014) | Foundational science of biomaterials | A textbook on principles of materials for medical implants | Research into next-generation smart biomaterials with integrated sensing and adaptive properties |
| Lead author (year) | Core focus | Key contribution | Research gap |
|---|---|---|---|
| Practical application of | Provides frameworks and strategies to enhance creativity and learning with | Empirical measurement of AI’s long-term impact on student creativity and career readiness | |
| Psychological drivers of online academic dishonesty | Lack of self-control is a key factor in an extended theory of planned behaviour model | Designing and testing interventions to improve self-control in online learning environments | |
| Cultural influence on ethical perceptions of | Ethical views on | Longitudinal studies to see if perceptions change with increased | |
| Academic integrity in the era of ChatGPT | Discusses threats and proposes strategies for mitigation | Developing and testing AI-resistant assessment designs and automated integrity tools | |
| Comprehensive survey of Generative | A technical review of the state-of-the-art in Generative | Addressing real-time capabilities, reducing computational costs and mitigating biases in | |
| Using LLMs to test software (“fuzzing”) | Proposes “FuzzGPT”, using LLMs to find edge-case bugs | Scaling the approach and ensuring the LLM-generated tests are reliable and comprehensive | |
| Potential and risks of GPT-4 in medicine | Outlines benefits and serious limitations | Clinical trials to validate GPT-4 utility in specific medical tasks | |
| Impact of transparency on healthcare efficiency | Lack of transparency hinders the efficiency of a healthcare system | Developing and implementing specific transparency frameworks and measuring their impact on outcomes | |
| Applying Industry 5.0 concepts to food security | Proposes a human-centric, resilient food system using advanced tech | Pilot projects to implement and test the proposed tech-concept framework in real-world supply chains | |
| Hendy (2021) | Cultural differences in academic dishonesty | Cultural norms influence dishonest behaviours (social learning perspective) | Investigating how digital culture and globalized online learning interact with national culture |
| Effectiveness of ethics training | Distributed ethics training can improve ethical decision-making | Testing the efficacy of AI-specific ethics training modules for students and professionals | |
| Predictors of academic dishonesty in online vs traditional courses | Identifies key predictors across course formats | Exploring how the rise of generative AI has changed these predictors and their relative weight | |
| Review of ethical decision-making literature | Identifies boundary conditions and gaps in ethical decision-making models | Updating the framework to include decisions involving AI and automation | |
| Foundational science of biomaterials | A textbook on principles of materials for medical implants | Research into next-generation smart biomaterials with integrated sensing and adaptive properties |
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