This study examines the growing influence of artificial intelligence (AI) tools on student research in higher education, focusing on both their opportunities and challenges, and recommends comprehensive institutional guidelines, targeted training programs, and ethical frameworks to ensure responsible integration of AI.
Abstract
This study examines the growing influence of artificial intelligence (AI) tools on student research in higher education, focusing on both their opportunities and challenges. AI-powered writing assistants, literature review platforms, citation generators, and data analysis tools are increasingly integrated into academic workflows. Findings show that these tools enhance efficiency and quality by automating repetitive tasks such as grammar checking, citation management, and data organization. Students reported positive impacts, with weighted mean scores indicating agreement that AI improves clarity in writing (3.81), supports data analysis (3.71), and strengthens overall research quality (3.85). These opportunities allow learners to devote more time to higher-order skills such as critical analysis, argumentation, and creative idea generation. However, the study also highlights significant challenges. Students expressed concerns about limited training (3.65), difficulties in trusting AI-generated results (3.68), and the need for greater institutional support (3.70). Neutral responses regarding access barriers (3.28) and effective tool usage (2.97) suggest uneven readiness across the academic community. Ethical issues such as academic integrity, over-reliance on technology, and risks of unintentional plagiarism further complicate AI’s role in research. The finding shows the underscore of the dual nature of AI in higher education: it offers powerful opportunities to enhance research productivity and learning outcomes, yet it also presents risks that must be carefully managed. The study concludes by recommending comprehensive institutional guidelines, targeted training programs, and ethical frameworks to ensure responsible integration of AI.
Investigating how experienced developers use agents in building software, including their motivations, strategies, task suitability, and sentiments finds that while experienced developers value agents as a productivity boost, they retain their agency in software design and implementation out of insistence on fundamental software quality attributes.
This systematic review evaluates 55 studies from 2017 to 2023 on the application of machine learning techniques to ASD, highlighting key challenges and opportunities, particularly the need for models that can integrate complex data to improve diagnostic accuracy and treatment outcomes.
Rafael Muñoz-Terol, Jesús Peral, Sandra Amador et al.· Heliyon· 4 citations· ⚡1
This paper identifies two different routes through which models can acquire geometrically separable features: they can learn them from complementary co-occurrence signals in general language data, including text-number co-occurrence and cross-number interaction, or from multi-token addition problems.
This work explores image generation using flow matching using flow matching and proposes an iterative process that can be integrated into virtually any generative modeling technique, thereby enhancing the performance and robustness of image synthesis systems.
Eldad Haber, Shadab Ahamed, Md Shahriar Rahim Siddiqui et al.· SIAM Journal on Scientific C...· 3 citations
Tensor networks are powerful formats for compressing large-scale data. However, their application to general data processing has been limited by the difficulty of performing nonlinear operations. Here, we introduce iterative tensor network transformations (ITNTs), a general algorithmic framework for the element-wise evaluation of elementary and nonlinear filtering functions on data encoded as tensor trains (TTs), a class of tensor networks. Our approach operates entirely in the compressed domain, enabling efficient computation on exponentially large datasets while maintaining a controlled computational cost. We demonstrate its power in two key areas: (I) evaluating highly nonlinear elementary and filtering functions on a 3D reactive flow field, enabling high-fidelity reaction rate computation and region filtering, and (II) finding extrema in complex optimization problems, such as solving Max-SAT instances on spaces up to $2^{70}$ configurations. These results establish ITNT as a foundational tool that provides tensor network methods with the capability for general-purpose data science and large-scale optimization.
Xiao Wang, Tomohiro Hashizume, Pia Siegl et al.· 2 citations