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The Augmentation Trap: AI Productivity and the Cost of Cognitive Offloading 

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The Augmentation Trap: AI Productivity and the Cost of Cognitive Offloading 

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The Augmentation Trap: AI Productivity and the Cost of Cognitive Offloading

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A comprehensive living database of over 700 AI risks categorized by their cause and risk domain.

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resources for educators and students, from Rutgers

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DESIGN JUSTICE LABS Menu Home About Who We Are For Students For Educators What’s New Critical AI Home This site is under construction in summer 2025. To submit new content, email us at criticalai@s…

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The AI Iceberg: Understanding How AI Really Works, Leon Furze

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Explore how Large Language Models work — from training data to ChatGPT — through Leon Furze’s AI Iceberg model.

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Zhai, Chunpeng, Santoso Wibowo, and Lily D Li. "The Effects of Over-Reliance on AI Dialogue Systems on Students' Critical Thinking and Analytical Thinking." Smart Learning Environments 11.28, 2024.

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Abstract

The growing integration of artificial intelligence (AI) dialogue systems within educational and research settings highlights the importance of learning aids. Despite examination of the ethical concerns associated with these technologies, there is a noticeable gap in investigations on how these ethical issues of AI contribute to students' over-reliance on AI dialogue systems, and how such over-reliance affects students' cognitive abilities. Overreliance on AI occurs when users accept AI-generated recommendations without question, leading to errors in task performance in the context of decision-making. This typically arises when individuals struggle to assess the reliability of AI or how much trust to place in its suggestions. This systematic review investigates how students' over-reliance on AI dialogue systems, particularly those embedded with generative models for academic research and learning, affects their critical cognitive capabilities including decision-making, critical thinking, and analytical reasoning. By using the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines, our systematic review evaluated a body of literature addressing the contributing factors and effects of such over-reliance within educational and research contexts. The comprehensive literature review spanned 14 articles retrieved from four distinguished databases: ProQuest, IEEE Xplore, ScienceDirect, and Web of Science. Our findings indicate that over-reliance stemming from ethical issues of AI impacts cognitive abilities, as individuals increasingly favor fast and optimal solutions over slow ones constrained by practicality. This tendency explains why users prefer efficient cognitive shortcuts, or heuristics, even amidst the ethical issues presented by AI technologies.

Introduction

Few of studies have explored ethical concerns associated with AI dialogue systems, including but not limited to AI hallucinations (Gao et al., 2022), algorithmic biases (Mbalaka, 2023), plagiarism (De Angelis et al., 2023), privacy concerns (Alrazaq et al., 2023) and transparency concerns (Carvalho et al., 2019). AI hallucinations in AI dialogue systems are characterized by the generation of inaccurate or misleading information (Hatem et al., 2023). Research indicates that these ethical concerns could contribute to an over-reliance on AI dialogue systems (George & Wooden, 2023; Song & Xiong, 2021; Zhai & Wibowo, 2023), potentially impairing critical cognitive skills such as critical thinking (Dergaa et al., 2023), decision-making (Duhaylungsod & Chavez, 2023), and analytical thinking (Grassini, 2023).

To address this research gap, we conducted a systematic literature review to investigate the contributing factors and effects of over-reliance on AI dialogue systems in research and education. The study specifically examines the contributing factors of over-reliance, such as AI hallucination, algorithmic bias, plagiarism, privacy concerns, and transparency issues, and how over-reliance impacts cognitive abilities, including decision-making, critical thinking, and analytical thinking. Additionally, this review outlines potential strategies and technological interventions to alleviate these challenges, aiming to foster responsible use of AI dialogue systems. Several research questions are formulated to address the concerns stated above:

1. 1.
How does over-reliance on AI dialogue systems affect critical and analytical thinking abilities in different educational subjects and levels?

2. 2.
What are the primary ethical concerns causing over-reliance on AI dialogue systems in research and education?

Literature review

Analytical thinking embodies the thorough exploration and critical analysis of data, which are vital for problem-solving and informed decision-making (Pokkakillath & Suleri, 2023). These elements are crucial for enhancing learning experiences, as they pertain to reasoning, planning, inquiry, interpretation of findings, and the subsequent derivation of conclusions in research and education (Ismail, 2023).

These advancements promise to enhance educational experiences by providing more interactive and personalized learning environments (Carvalho et al., 2019). However, as AI systems grow more sophisticated and their role in automated analysis expands, there is a risk that students may become overly reliant on these technologies (Krullaars et al., 2023). This over-reliance could lead to a range of issues, including diminished critical thinking (Iskender, 2023), analytical thinking (Ferrajão, 2020), and decision-making abilities (Pokkakillath & Suleri, 2023) susceptibility to AI-generated errors or AI hallucinations (Hatem et al., 2023), increased instances of plagiarism (De Angelis et al., 2023), and challenges related to lack of transparency (Carvalho et al., 2019) and algorithmic biases (Mbalaka, 2023). Moreover, habitual dependence on AI for decision-making may reduce individuals' motivation to engage in independent thinking and analysis, potentially leading to a weakening of essential cognitive abilities (Grinschgl & Neubauer, 2022) and automation bias (Gsenger & Strle, 2021).

Given that these AI systems can handle vast data and yield accurate forecasts, there is a looming danger of humans becoming excessively reliant on AI when making choices. This over-reliance might stifle creativity and innovative thinking in both educators and learners, possibly degrading educational quality (Ahmad et al., 2023). Krullaars et al. ( 2023) posit that an over-reliance on dialogue systems hinders students from developing their critical thinking and problem-solving abilities.

There is still a noticeable gap in the current literature to explore the effects of over-reliance on dialogue systems on abilities such as decision-making, critical thinking, and analytical thinking in education and research (Ahmad et al., 2023). To fill this knowledge gap, a systemic review is conducted with a specific emphasis on research examining the implications of over-reliance on AI dialogue systems. This study aims to investigate the over-reliance on AI dialogue systems in educational and research contexts, with a particular focus on their impact on decision-making, critical thinking, and analytical thinking facilitated through the use of dialogue systems.

Rationale for the study

With the rapid advancement of AI dialogue systems, the landscape of research and education has been significantly transformed. These systems, particularly those equipped with generative modules, have been successfully used to expedite data analysis and streamline the research process, thereby enhancing the quality and efficiency of academic endeavors. The acclaim surrounding the benefits of AI dialogue systems, especially among practitioners and students, is undeniable, highlighting their pivotal role in facilitating access to information and simplifying complex research tasks.

The necessity to explore the impact of over-reliance on AI systems on students' cognitive capabilities and to identify the challenges associated with this dependency is underscored by the transformative effects these technologies have had on the research and educational landscapes. While AI dialogue systems, particularly those with generative capabilities, have revolutionized the way information is accessed and complex research tasks are simplified, they also introduce a range of ethical concerns that have yet to be fully examined. This research primarily draws data from the context of higher education, thereby not considering the cognitive developmental differences across various age groups, such as teenagers and primary or secondary school students. These younger cohorts are typically not included in independent research studies, yet their cognitive abilities and learning processes could be significantly impacted by AI dialogue systems in ways distinct from those observed in older students. Therefore, a more inclusive approach considering different educational levels and age groups would provide a more robust and comprehensive analysis of the effects of AI dialogue systems.

The adoption and over-reliance on AI dialogue systems have overshadowed critical ethical concerns. Issues such as the generation of inaccurate or misleading content, algorithmic biases, plagiarism, privacy breaches, and transparency concerns have not been adequately addressed (Hua et al., 2023). The tendency among users, including students and researchers, to overlook or minimize these ethical challenges is concerning. There exists a substantial gap in the academic discourse regarding the long-term implications of such over-reliance on AI systems for essential cognitive skills like decision-making, critical thinking, and analytical thinking.

The existing literature, while acknowledging these ethical concerns, lacks a comprehensive analysis of their impacts or offering strategies for mitigating these risks. This oversight is alarming, given the potential for AI dialogue systems to inadvertently weaken users' cognitive abilities by fostering an environment of dependency and uncritical acceptance of generated content.

Therefore, the rationale for this study stems from the urgent need to delve into the ethical quandaries posed by AI dialogue systems within educational settings. It aims to provide a nuanced understanding of how these systems influence users' cognitive skills and to develop a framework for navigating the ethical pitfalls associated with their use. By addressing this research gap, the study endeavors to ensure that the integration of AI dialogue systems into educational and research practices is conducted in a manner that is both ethically sound and cognitively enriching.

Systematic review method

This section aligns with the systematic review guidelines recommended by Montenegro-Rueda et al. ( 2023), offering insights into over-reliance on AI systems for essential cognitive abilities like decision-making, critical thinking, and analytical thinking in research and education. Systematic reviews are defined as methodical syntheses of knowledge that address specific exploratory research questions through the careful selection, identification, and integration of existing data. Such reviews are instrumental in charting the expanse of the literature landscape, pinpointing areas lacking in research, formulating research aims, and delivering evidence-based recommendations to policymakers (Tricco et al., 2018).

This study aims to investigate the over-reliance on AI dialogue systems in educational and research contexts, with a particular focus on their impact on decision-making, critical thinking and analytical thinking facilitated through the use of dialogue systems. To achieve this, the study adopts the comprehensive five-step methodology for conducting systematic literature reviews proposed by Macdonald et al. ( 2023). This methodology facilitates an exhaustive literature search and the critical assessment and synthesis of relevant articles from academic databases. The process involves (a) defining the review's scope, (b) executing a thorough literature search, (c) selecting the final set of articles, (d) analyzing the chosen articles through content analysis, and (e) reporting the findings. Through this structured approach, the study aims to provide a nuanced understanding of how these systems influence users' cognitive skills and to develop a framework for navigating the ethical pitfalls associated with their use.

Determining the scope of a review

This initial stage involves establishing inclusion and exclusion criteria for selecting relevant sources, as well as the criteria for identifying and retrieving relevant literature. For inclusion in the review, journal articles must meet the following selection criteria: (a) publication in English as a full-text article, (b) relevance to AI dialogue systems incorporating a generative module for research and education, (c) emphasis on ethical issues related to AI dialogue systems, and (d) publication date ranging from 2017 to 2023. Conversely, articles are excluded if they (a) lack focus on AI dialogue systems with generative modules for research and education, (b) are written in languages other than English, (d) fall into the categories of editorials or opinion pieces, and (f) are dissertations. These criteria for inclusion and exclusion are outlined in Table 1.

Table 1 Inclusion and exclusion

Conducting a literature search

The second phase involves conducting the search query across selected databases to compile the search findings. Key databases such as ProQuest, IEEE Xplore, ScienceDirect, and Web of Science were utilized for the systematic review. These databases were specifically chosen for their relevance to educational research and artificial intelligence, with the aim of enhancing the thoroughness of the review.

Following this initial step, the process entailed the removal of redundant entries, effectively reducing the initial collection of studies to 70. The next stage broadened the inclusion criteria to cover both peer-reviewed journal articles and conference proceedings. This expansion was balanced by a deliberate exclusion of trade publications, editorials, books, and review articles to prioritize original research contributions. Further refinement of the criteria led to the selection of articles written in English that specifically addressed AI dialogue systems with generative modules, which brought the number of potential papers down to 35.

A detailed examination of the titles and abstracts of these papers ensued, aimed at determining their relevance to the deployment of AI dialogue systems within research and educational frameworks. This careful evaluation resulted in the selection of 14 studies that were identified as pertinent to further analysis in the final review phase. The criteria for both inclusion and exclusion, as well as the tally of studies that progressed through each stage of the selection process, are meticulously documented in Fig. 2, providing a transparent and comprehensive view of the methodological approach and its resulting dataset.

Choosing the final samples

The search strategy commenced with four search terms, each tailored to capture various facets of AI dialogue systems equipped with generative modules. These sets encompassed specific search keywords, such as "AI chatbot with a generative module" and "AI conversational agent with a generative module," "misleading information," "biases," "algorithmic biases," "plagiarism," "privacy concerns," "privacy issues," "transparency concerns," "transparency concerns," "decision-making," "critical thinking," "critical reasoning," "analytical thinking," and "analytical reasoning." The fourth collection of terms was introduced to probe cognitive abilities, emphasizing critical thinking, analytical reasoning, and decision-making skills within research and education. This inclusion expanded the search's scope to encompass studies that explore the enhancement or assessment of cognitive processes using AI dialogue systems.

Throughout this search process, 14 publications were identified, each featuring all the specified search terms in its title or abstract. This comprehensive approach ensured the inclusion of relevant literature that spans the technical, educational, and ethical dimensions of AI dialogue systems with generative modules. Figure 1 illustrates the PRISMA flowchart.

Evaluating the samples using content analysis

In alignment with the defined research goals, a selection of 14 articles underwent detailed examination and evaluation through a systematic review process. This approach involved collecting, processing, identifying, and summarizing data to uncover key insights. The methodology was structured around a six-step procedure aimed at identifying recurring themes and dimensions within the literature.

The initial phase was dedicated to conducting a thematic analysis, which facilitated a deeper comprehension of the data. Following this, preliminary codes were established to categorize the findings systematically. The subsequent third and fourth steps involved the identification of sub-dimensions and a thorough review of these sub-dimensions, respectively, to refine the analysis further. The fifth step entailed aggregating all relevant concepts to form a coherent framework of understanding. The final step focused on analyzing the data to ascertain its direct relevance and contribution to the study's objectives.

To guarantee the relevance and integrity of the review, the literature sourced from the databases underwent a dual screening process in accordance with the PRISMA guidelines. PRISMA, which stands for Preferred Reporting Items for Systematic Reviews and Meta-Analyses, provides a foundational set of standards for reporting evidence-based systematic reviews and meta-analyses. This protocol includes a 27-item checklist and a four-phase flow diagram, offering a structured approach to ensuring the quality and comprehensiveness of the review (Sarkis-Onofre et al., 2021).

Method of dimensional analysis

In our analysis, we adhered to the three-step method outlined by Kools et al.'s ( 1996), a seminal framework for applying dimensional analysis. Initially, we identified and generated dimensions along with their characteristics, breaking these down into subcategories to reveal preliminary concepts through data expansion. In this initial phase, our focus was particularly on the identification of codes that embodied the contributing factors and effects of AI dialogue systems embedded with generative modules in research and education. We iterated the process until a substantial array of dimensions and properties was established.

Following this, we constructed an explanatory matrix, assigning varying degrees of importance to different attributes, a process akin to the constant comparison method used in Grounded Theory. This step involved elevating each dimension to a status that allowed for the identification of a central perspective. The dimension offering the most comprehensive explanation of the interrelations among dimensions was designated as the central or key perspective, serving as the organizational foundation for the data. This hierarchical structuring of dimensions into categories such as salient, relevant, marginal, or irrelevant is a critical aspect of the dimensional analysis as described by Kools et al. ( 1996). Lastly, leveraging the central perspective as a foundational viewpoint, we explored the patterns and interactions among the various aspects of the phenomenon. By employing an explanatory matrix, this approach facilitated a thorough elucidation of the involved elements, thereby uncovering the intricate dynamics at play. This comprehensive method allowed us to delve deeply into the dimensions of contributing factors (ethical issues of AI) and effects (cognitive abilities) of over-reliance on AI dialogue systems embedded with generative modules.

Result

This section summarizes the findings from the 14 articles investigated and addresses the ethical issues associated with the use of AI dialogue systems. Studies have explored AI dialogue systems with the integration of generative modules, which demonstrate the capability to generate new data akin to existing datasets for various applications (Carvalho et al., 2019; Gao et al., 2022). For instance, they are instrumental in detecting defects, extracting pertinent features from sensor data for predictive maintenance, evaluating uncertainty in construction projects for risk assessment, and innovating in the design of buildings and infrastructure (Eapen, 2023). The incorporation of AI in literary studies has opened new pathways for understanding and interpreting literary narratives (Ahmad et al., 2023; Krullaars et al., 2023). However, this advancement is not without its challenges. Ethical concerns include generating false information (hallucination) (Gao et al., 2022), algorithmic bias (Alrazaq et al., 2023), plagiarism (De Angelis et al., 2023), privacy concerns (Dempere et al., 2023) and transparency concerns (Dergaa et al., 2023). Cognitive abilities include decision-making, critical thinking (Soufi & See, 2019) and analytical thinking (Pokkakillath & Suleri, 2023) have been identified as areas of concern in current AI applications. These capabilities are pivotal in understanding the complex interactions between AI technologies and human cognitive processes. Table 2 summarizes the findings of AI dialogue systems in research and education relating to cognitive abilities and ethical issues. The next section answers the first research question: How does over-reliance on AI dialogue systems affect critical and analytical thinking abilities in different educational subjects and levels?

Table 2 Findings of AI dialogue systems in research and education relating cognitive abilities and ethical issues

Question 1: How does over-reliance on AI dialogue systems affect critical and analytical thinking abilities in different educational subjects and levels?
Findings show that integrating AI dialogue systems in different educational subjects, such as various academic writing from college and higher education, has a dual impact on students' cognitive abilities. While these technologies can enhance writing proficiency, boost self-confidence, and streamline research tasks, they also introduce risks such as diminished creativity, over-reliance, and ethical concerns like plagiarism and data bias. Studies highlight that although AI tools can aid decision-making and improve efficiency, they often lead to reduced critical and analytical thinking skills, especially when students become overly dependent on AI-generated content.

Cognitive abilities

Three key cognitive abilities

Decision-making abilities

Three studies collectively highlighted the benefits and challenges of using AI dialogue systems in academic settings, emphasizing task efficiency alongside concerns about dependency, comprehension, originality, and data bias. Duhaylungsod and Chavez ( 2023) investigated 16 college students' interactions with AI dialogue systems for academic tasks. The results indicated that AI dialogue systems efficiently decreased the time dedicated to research and information retrieval. This over-reliance fostered complacency and an undue dependency on AI dialogue systems.

Moreover, concerns regarding plagiarism, decreased creativity, data bias, security issues, and potential discrimination have also emerged. Kim et al. ( 2023) investigated the challenges English as a Foreign Language (EFL) learners face when employing AI dialogue systems for text paraphrasing. The study involved 15 individuals who are non-native English speakers. It reveals that the main difficulty arises from the lack of comprehensive explanations accompanying AI-generated paraphrases. This deficiency makes it challenging for learners to grasp the context and verify the accuracy of the reformulated content. Furthermore, the study highlights the issue of data bias: when explanations are overly simplified, it may result in an increased reliance on AI. Consequently, this undermines learners' ability to analyze and grasp the information independently, impairing their decision-making skills.

Semrl et al. ( 2023) examined the feasibility of dialogue systems in addressing scientific questions and assisting academic writing. The findings show that AI dialogue systems are a promising tool for assisting in the writing of scientific papers. However, their lack of originality, the tendency for excessive text, and the use of nuanced and vaguer language could suggest that a paper is produced by AI rather than a human author. Additional challenges identified in the study include limited creativity, data bias issues, AI hallucinations (inaccurate or misleading information generated by the AI), and concerns regarding transparency in the AI's decision-making processes.

Overreliance on AI dialogue systems can significantly impact decision making, critical and analytical thinking abilities by fostering dependency and potentially diminishing individual judgment skills. When individuals rely heavily on AI for problem-solving or decision-making, they may become less inclined to engage in independent, critical information analysis, decreasing their ability to judge between AI-generated and human-generated insights.

Critical thinking abilities

Eight studies examined the integration of AI in academic writing, revealing its positive impact on skills and efficiency while also highlighting significant concerns about creativity, critical thinking, and ethical concerns such as plagiarism and algorithmic bias. For example, Malik et al. ( 2023) investigated how students perceive the integration of AI in the process of writing academic essays. The research employed a case study design and enlisted the participation of 245 undergraduate students representing 25 tertiary institutions across Eastern and Central Indonesian provinces. The study's findings demonstrated that AI had a positive influence on students' writing skills, self-confidence, and their grasp of academic integrity principles. However, some students raised concerns about potential repercussions for creativity, critical thinking, and ethical writing practices. The study reports the potential reduction in critical thinking skills when depending on AI (75%), the risk of excessive reliance on technology (73%), and the prevalence of misinformation and inaccuracies (70%). Furthermore, there is substantial apprehension regarding the ethical implications of unintentional plagiarism (69%) and algorithmic biases (40%).

Marzuki et al. ( 2023) investigated the range of available AI writing tools and evaluated their influence on student writing, particularly concerning content and organization, as perceived by English as a Foreign Language (EFL) teachers. Employing a qualitative approach, the research was conducted as a case study. Data collection involved semi-structured interviews, focusing on gathering insights into the variety of AI writing tools and their effects on the quality of students' writing. The findings of this study suggest that the integration of AI writing tools can be advantageous in enhancing the quality of EFL student writing. The study also reported ethical concerns related to plagiarism, hallucination, and algorithm bias.

Dialogue systems offer efficiency gains in academic writing, yet there is a cautionary note against potential overdependence, which might impede the development of critical thinking and writing skills within the academic community. Dergaa et al. ( 2023) explore the potential advantages and drawbacks of ChatGPT and other Natural Language Processing (NLP) technologies in academic writing and research publications and the influence they might exert on the authenticity and trustworthiness of academic work. The study found that ChatGPT possesses the capacity to augment the efficiency of academic writing and research. The study places particular emphasis on upholding ethical and academic principles, with human intelligence and critical thinking serving as pivotal elements in the research process.

The dual nature of AI in academic writing is evident: while it offers significant benefits in enhancing writing skills and efficiency, it also presents concerns regarding over-reliance, reduced originality, and potential ethical challenges, such as plagiarism and biases, within higher education. Santiago Jr et al. ( 2023) delved into text mining techniques to extract patterns and trends related to the utilization of writing assistance tools in research. The data for this analysis is derived from the responses of 327 faculty researchers from various higher learning institutions in the Philippines. The introduction of these tools in specific higher education institutions may pose challenges, including concerns about over-reliance, which could potentially impede the development of critical thinking and writing skills among students and researchers. The study found that AI dialogue systems may pose challenges, including concerns about over-reliance, which could potentially impede the development of critical thinking and writing skills among students and researchers. Koos and Wachsmann ( 2023) delved into the impact and implications of AI-driven language systems, such as ChatGPT/GPT-4, on academic paper writing within the context of universities and other higher educational institutions. The findings underscore the positive role of ChatGPT/GPT-4 in assisting students and researchers in streamlining the writing process, overcoming language barriers, and enhancing overall productivity. Also, the study showed that AI-generated content, including concerns related to plagiarism, the potential erosion of critical thinking skills, and a potential reduction in creativity within the realm of academic writing.

Analytical thinking abilities

Three studies examined the use of AI dialogue systems and generative models in education and research, highlighting their potential to enhance research writing, customize learning, and provide 24/7 feedback, but caution against overdependence which may erode analytical and critical thinking skills, writing proficiency, and understanding of plagiarism, potentially fostering academic dishonesty. For example, Abd-Alrazaq et al. ( 2023) explored text mining methods to uncover patterns and trends in the use of dialogue systems of generative models for research, based on the feedback of 327 faculty researchers from diverse higher education institutions in the Philippines. The results showed that faculty participants appreciate the benefits of dialogue systems in bolstering research writing by streamlining workflows and enhancing clarity.

However, the adoption of these tools in certain higher education settings may face challenges, including potential problems like overdependence, which could impede the development of essential skills such as analytical and critical thinking, writing proficiency, and the understanding of plagiarism among students and researchers. Pokkakillath and Suleri ( 2023) evaluated the impact of dialogue systems embedded with generative models, such as ChatGPT, on research and educational sectors. The results show that these dialogue systems hold the potential to transform the educational environment by providing immediate feedback, customizing learning experiences to meet individual requirements, and ensuring availability 24/7. However, the authors argue that when students become overly dependent on dialogue systems equipped with generative capabilities for completing assignments or generating creative work without applying their analytical thinking and decision-making skills, such reliance could diminish their ability for independent thought and analytical reasoning. Grassini ( 2023) examines the effectiveness of the AI models within research and education domains. The findings reveal that these models' text-generation abilities can mimic human writing. However, critics argue that reliance on AI could diminish students' critical thinking and analytical capabilities, as well as potentially foster academic dishonesty.
Question 2: What are the primary ethical concerns causing over-reliance on AI dialogue systems in research and education?
The systematic review found that the largely ethical concerns leading to an over-reliance on AI dialogue systems within research and education are primarily driven by ethical concerns. These issues encompass the generation of misleading or fabricated information by AI (often referred to as "hallucination"), algorithmic bias, which can perpetuate existing inequalities, plagiarism concerns that challenge academic integrity, privacy issues related to the handling of sensitive information, and a lack of transparency in how AI systems make decisions and process data.

Over-reliance on AI

Four studies examined the complex implications of integrating AI tools into educational settings. Abd-Alrazaq et al. ( 2023) cautioned the propensity of generative AI tools to fabricate so-called facts and generate false information convincingly. This may lead users to place undue trust in these technologies, escalating the risk of dependency. Such over-reliance could impede the cultivation of essential skills in medical students, including critical thinking, problem-solving, and effective communication. The convenience offered by AI tools in providing quick answers might deter students from engaging in thorough research and forming their insights, challenging the integration of these tools in ways that enhance rather than diminish critical faculties and problem-solving abilities.

Duhaylungsod and Chavez ( 2023) argued that over-reliance on AI could reduce students' skills of creativity and innovation. The authors believed that they were overly reliant on technology for information, potentially undermining their capacity for independent critical thinking and problem-solving.

Koos and Wachsmann ( 2023) discussed the detrimental effects of over-reliance on the AI dialogue system, noting it may compromise the development of students' critical thinking and problem-solving skills. They argue that if students lean too heavily on AI for content generation, they risk not developing the ability to analyze information, construct logical arguments, or integrate knowledge from diverse sources for academic and professional success. Santiago Jr et al. ( 2023) reported mixed reactions from users and faculty regarding the use of AI tools. While some appreciate these tools' support in enhancing writing skills, there is a prevailing concern about potential overdependence leading to reduced effort in crafting well-structured sentences and adhering to proper grammar and spelling. The faculty fear that such reliance could compromise the development of essential research and writing skills. Overusing AI tools might also weaken the practice of evaluating information sources critically, cross-referencing data, and cultivating a deep understanding of research topics, ultimately affecting the ability for independent analysis and interpretation.

Ethical concerns

Five ethical issues of AI identified in this study

AI hallucination

Three studies critically examined the capabilities of AI dialogue systems in generating scientific content and their proficiency in specialized reasoning tasks, highlighting both the potential and the limitations of AI in academic and professional domains. In Gao et al.'s ( 2022) study, the authors utilized 50 abstracts sourced from five scientific journals and assigned ChatGPT to create abstracts based on their titles. Subsequently, both sets of abstracts underwent scrutiny by AI plagiarism detection software and impartial human assessors. The results revealed that out of the abstracts generated by ChatGPT, 68% were correctly identified as such (true positives), while 14% of authentic abstracts were mistakenly categorized as chatbot-generated (false positives). These findings indicate that AI dialogue systems' capacity to generate credible references for research topics might be constrained by the presence of DOIs and the accessibility of online articles.

Lee et al. ( 2023) argue that in medical contexts, this hallucination can be especially risky because they might be nuanced, and the chatbot often delivers them in a persuasive way that can lead the user to believe its accuracy. Watts et al. ( 2023) evaluated the mechanistic reasoning of three dialogue systems (ChatGPT-3.5, ChatGPT-4, and Bard). The findings revealed that chatbot responses either underperform or reason on par with students and occasionally provide inaccurate answers to content questions. Further, the results suggest that dialogue systems exhibit limited mechanistic reasoning capabilities compared to students. This limitation is attributed to the infrequent discussion of electron movement, a central feature of mechanistic reasoning. Electron movement is pivotal as it explicitly signifies reasoning at a scalar level, representing the primary phenomenon of interest and, thus, is a key component of mechanistic reasoning.

Algorithmic bias

Ten studies identified instances of algorithmic bias within their research. The majority attributed these biases to the datasets used for training the algorithms. For example, Abd-Alrazaq et al. ( 2023) highlighted that recent Large Language Models (LLMs), such as GPT-4, are developed using extensive datasets from various internet sources, including websites, books, news articles, scientific publications, and movie subtitles. However, this extensive data collection process does not preclude including biased or unrepresentative information within these models. OpenAI has recognized the possibility that GPT-4, similar to its predecessors, may produce responses that inadvertently reinforce existing social biases and stereotypes. This issue is of particular concern in scenarios where an LLM is trained on data that disproportionately focuses on disease prevalence within specific ethnic groups, potentially leading to biased outputs in essays, exams, and clinical case scenarios.

Grassini ( 2023) found that the risk of bias stems from predominantly training datasets. This is particularly evident in scenarios where models, such as those used for essay evaluation, are trained on data that mainly represents a single demographic, leading to a potential bias against essays authored by individuals from other demographics. The root contributing factors of these biases are multifaceted, often stemming from an overemphasis on research and educational materials sourced from economically advanced countries, or from textbooks that neglect a comprehensive global perspective. The author stated that there have been observations that ChatGPT's responses can exhibit biases related to politics, religion, race, gender, and equity.

Similarly, Kim et al. ( 2023) argued that the choices design made in the development of explanation interfaces for AI tools can inadvertently contain biases. Their study (Kim et al., 2023) focuses on difficulties encountered by EFL learners when using AI dialogue systems to paraphrase texts. The way an explanation is visualized or conveyed to users may significantly impact their decision-making processes. Such design nuances could skew users' perceptions, leading to outcomes in text that are inadvertently biased. The researchers further contend that when users engage in collaborative writing with AI, the interaction can subtly influence their perspectives, potentially shaping the narrative or substance of the collaborative text. This phenomenon suggests that the way AI explanations and interactions are structured and presented could have profound implications on the objectivity and inclusiveness of the content generated through such partnerships.

Plagiarism

Privacy concerns

Eight studies briefly mentioned privacy concerns and underscored the importance of addressing these issues, yet only two of them conducted an in-depth exploration into the matter of privacy concerns. For example, Abd-Alrazaq et al. ( 2023) found that LLMS can lead to the disclosure of personal information by students and educators, such as names, email addresses, phone numbers, prompts, uploaded images, and images generated by the AI. OpenAI might utilize this personal information for a variety of purposes. These include service analysis, maintenance, enhancement, research activities, fraud prevention, compliance with legal obligations, and potentially sharing this data with third parties without additional notice or consent from users.

Abd-Alrazaq et al. ( 2023) examined how AI generative modules are revolutionizing medical curriculum development, teaching methodologies, personalized study plans, learning materials, and student assessments. The authors emphasize the significance of proper citation and attribution in academic settings, such as medical schools, and to educate on navigating the challenges associated with user privacy, copyright concerns, misinformation, and biases. The authors identified several key challenges that need to be addressed in the educational use of AI, including academic dishonesty, misinformation, privacy concerns, copyright issues, dependency on AI, algorithmic bias, the need for consistency and human interaction, and disparities in access. These are crucial areas where awareness and guidelines must be developed to ensure the ethical and effective use of AI technologies in educational contexts.

Dempere et al. ( 2023) posited that integrating AI dialogue systems into higher education systems comes with various risks, including privacy concerns, illegal usage of data, false information, cognitive biases, diminished human interaction, restricted access, and unethical data collection practices. The authors warned of the dangers associated with adopting AI technologies in academic settings, particularly emphasizing the potential continuation of existing systemic biases and discrimination. They highlight the risk of reinforcing inequalities for students from historically underserved and marginalized communities, exacerbating racism, sexism, xenophobia, and other forms of prejudice and injustice. Furthermore, the authors also cautioned against the deployment of AI systems that can monitor and analyze students' thoughts and ideas, warning of the creation of surveillance mechanisms that could infringe upon student privacy.

Transparency concerns

Nine studies briefly address transparency concerns within dialogue systems; however, only a few undertake in-depth analysis. For example, Dergaa et al. ( 2023) argue that biases and inaccuracies in AI systems can arise from a lack of transparency in the training datasets. They stress the importance of educating students on the ethical use of dialogue systems and advocating for principles of honesty, integrity, and transparency. Furthermore, they recommend establishing fundamental guidelines for interacting with these systems. Koos and Wachsmann ( 2023) stated that the lack of transparency of ChatGPT's data sources in text generation poses a critical challenge, especially in academic contexts where proper citation and attribution are fundamental to uphold integrity and prevent plagiarism. The authors argue that the lack of transparency regarding the content generated by ChatGPT complicates the accurate attribution of specific ideas or concepts to their original authors, potentially compromising academic integrity.

Discussion

The systematic review of this study shows that most AI dialogue systems featuring the integration of generative models have shown these systems' capacity to augment the efficiency of academic writing and research (Carvalho et al., 2019; Gao et al., 2022). These technologies reduce the time spent on research and information retrieval (Eapen, 2023). Furthermore, the adoption of AI in the realm of literary studies has forged novel avenues for the analysis and interpretation of literary narratives (Ahmad et al., 2023; Krullaars et al., 2023). Despite these advancements, the integration of AI presents several challenges. Ethical concerns have been raised regarding the potential for AI hallucinations (Gao et al., 2022), algorithmic bias (Alrazaq et al., 2023), plagiarism (De Angelis et al., 2023), privacy issues (Dempere et al., 2023), transparency concerns (Dergaa et al., 2023), and over-reliance (Koos & Wachsmann, 2023). Moreover, the impact of AI on cognitive abilities, including decision-making, critical thinking (El Soufi & See, 2019), and analytical thinking (Pokkakillath & Suleri, 2023), remains a significant area of concern in the deployment of AI technologies.

Over-reliance on AI

Decision-making abilities

Three studies collectively highlighted the benefits and challenges of using AI dialogue systems in academic settings, emphasizing task efficiency alongside concerns about dependency, comprehension, originality, and data bias. The concern of overreliance on AI in the research and educational sector is growing, particularly regarding the diminishment of academic writing decision-making capabilities and the tendency to encourage academic laziness (Sabharwal et al., 2023). A study employing qualitative methods and the partial least squares (PLS)-Smart for data analysis gathered primary data from 285 students across various universities in Pakistan and China. This study revealed that overreliance on AI dialogue systems embedded with generative models resulted in 68.9% of students exhibiting increased laziness and 27.7% experiencing a degradation in decision-making abilities, attributable to AI's influence in Pakistani and Chinese societies. The authors observed a progressive decline in decision-making capabilities throughout the duration of the study, which was attributed to the integration of generative functions within the AI dialogue system (Ahmad et al., 2023).

In exploring decision-making theories, a distinction can be seen between descriptive and normative theories (Bell et al., 1988). Descriptive theories focus on understanding actual decision-making behaviors, including both rational and irrational elements, through empirical research. They highlight how deviations from rational choice theory, influenced by cognitive biases (deviation from norm or rationality in judgment) and heuristics (simplified strategies or mental shortcuts), can be understood as adaptations shaped by evolutionary pressures. Normative theories, on the other hand, advocate for decisions that maximize expected utility, grounded in mathematical models and ideal behavioral principles. This contrast underscores the complexity of decision-making as AI assumes roles traditionally filled by human cognitive processes (Damnjanović & Janković, 2014).

Some scholars delve further into neuroscience. The decision-making process encompasses the evaluation of potential actions and the interplay between cognitive and affective neurocircuits in forming preferences (Morelli et al., 2022; Yoder & Decety, 2018). This thorough examination of decision-making illuminates both the cognitive and neurological foundations of the process and highlights the diversity of approaches in analyzing decision-making strategies, bridging the gap between rational choice theory's normative ideals and the practical adaptations identified by descriptive theories (Padilla et al., 2018). The decision-making abilities are influenced by the ventromedial prefrontal cortex (vmPFC) and the amygdala, highlighting the significant overlap between cognitive and emotional aspects of these processes (Ishikawa et al., 2020; Qiu et al., 2018; Tang et al., 2021). The vmPFC plays a pivotal role in encoding the value of rewards and punishments, integrating emotional and motivational data to guide decision-making (Hiser & Koenigs, 2018). Concurrently, the amygdala is essential for processing emotional reactions and fear learning, which are integral to evaluating the emotional salience of different options (Ishikawa et al., 2020). Furthermore, the prefrontal cortex (PFC) and the hippocampus emerge as critical structures in the decision-making landscape. The PFC is involved in various executive functions, including planning, reasoning, and problem-solving, which are crucial for making informed decisions (Qiu et al., 2018). The hippocampus, on the other hand, plays a key role in memory formation and retrieval, providing the necessary context to inform present decisions (Tang et al., 2021). Such cognitive processes are essential for academic rigor and avoiding laziness, suggesting that disengagement from challenging cognitive tasks could potentially weaken activities in key neural regions: the ventromedial prefrontal cortex (vmPFC) and the amygdala and prefrontal cortex (PFC) and the hippocampus (Friedman & Robbins, 2022).

Critical thinking abilities

Analytical thinking abilities

Challenges such as AI hallucinations, algorithmic biases, privacy and transparency issues, questions of source credibility, and social norms can disrupt the flow of the analytical thinking process. These obstacles may lead us to accept information as true or judge its veracity based on flawed natures, influencing our reasoning while overlooking critical evaluation steps (Fui-Hoon Nah et al., 2023; Kim et al., 2023).

To address over-reliance effectively, incorporating AI-assisted technologies can be a strategic approach to enhance learners' critical thinking skills. For instance, AI can serve as a tool for stimulating engagement with critical thinking activities, encouraging learners to question assumptions, evaluate the reliability of information, and make informed decisions. By integrating AI into educational activities, learners can be guided to critically assess AI-generated content, understand its limitations, and appreciate the value of human insight and creativity. Activities that combine AI with traditional learning materials can challenge learners to scrutinize AI responses critically, identify biases, and develop balanced arguments or solutions based on a comprehensive understanding of the subject matter.

Educational strategies that utilize AI while emphasizing the development of critical thinking skills can help mitigate the risks associated with over-reliance. These strategies include prompting learners to compare AI-generated ideas with their own, encouraging reflection on the biases present in AI outputs, and engaging in activities that require critical evaluation and synthesis of information from AI and human sources alike. By actively involving learners in analyzing and evaluating AI-generated content, educators can foster a learning environment that not only leverages the benefits of AI but also cultivates essential cognitive skills such as critical analysis, problem-solving, and decision-making.

AI hallucination

Li and Little ( 2023) posit that individuals using AI dialogue systems, irrespective of their expertise level in the subject matter, are at risk of becoming overly reliant on them. Those with lower subject matter expertise are particularly prone to trust the AI's advice, even when it is incorrect-a phenomenon as mentioned before as "hallucination." The authors argue that this issue is especially prevalent during the initial training phases for individuals with limited knowledge in the subject area, which increases their likelihood of depending too much on AI dialogue systems. Such over-reliance can lead to suboptimal outcomes in their decision-making processes and tasks.

The phenomenon of hallucination poses a significant challenge for educators and students using generative dialogue systems and underscores the importance of awareness regarding AI hallucinations. An over-reliance on AI algorithms can result in complacency, which is particularly detrimental to the critical thinking abilities of clinicians, especially those with less experience (Gao et al., 2022; Lee et al., 2023).

Algorithmic bias

Plagiarism

Three studies explored the academic challenges students face and the role of AI dialogue systems in creating a more inclusive educational environment amid broader concerns about plagiarism and the integrity of academic publications. Lim et al. ( 2023) argue that a significant challenge for higher education students from non-English speaking backgrounds is language barriers, which can impede their academic progress. This can lead to feelings of exclusion or fear of missing out and increase the risk of academic integrity breaches, like unintentional plagiarism. This finding is on par with the existing study, in the integration of AI technologies into education, plagiarism emerges as a significant ethical issue.

Privacy concerns

Addressing these concerns requires a multi-faceted strategy emphasizing data protection, secure storage, and the anonymization or deletion of data post-use, ensuring its application remains strictly educational (Wu et al., 2023). Moreover, it is imperative to cultivate an environment of transparency and awareness among students, parents, educators, and stakeholders regarding data protection measures, promoting an informed understanding of how personal information is utilized within educational frameworks (Alawida et al., 2023).

Transparency concerns

Transparency and privacy are interrelated (Larsson & Heintz, 2020). While AI offers valuable services, the general public is often uninformed about AI systems using their data and the potential privacy implications, an inherently unethical situation (Anshari et al., 2023).

Implications of integrating AI dialogue systems

However, these benefits come with substantial risks. Over-reliance on AI systems can lead to diminished creativity, as students in research and education might depend too heavily on AI-generated content, neglecting the development of their ideas and original thought processes. This dependency can foster complacency, making students less inclined to engage deeply with the material or develop essential problem-solving skills.

To mitigate these risks, it is essential to integrate AI dialogue systems in a balanced manner that promotes the development of critical and analytical thinking skills. Educational strategies should emphasize the importance of questioning AI-generated content, comparing it with human-generated insights, and understanding the limitations of AI. Encouraging reflection on the biases present in AI outputs and engaging students in activities that require critical evaluation and synthesis of information from diverse sources can foster a more nuanced and critical approach to using AI tools (Dergaa et al., 2023).

Conclusion

This systematic review has critically examined the implications of students' over-reliance on AI dialogue systems, especially those embedded with generative models, within educational and research contexts. The findings underscore the significant impact of such overdependence on essential cognitive abilities, including decision-making, critical thinking, and analytical reasoning. Despite the undeniable advantages of AI dialogue systems in streamlining research processes and enhancing academic efficiency, our analysis reveals a concerning trend: the potential erosion of critical cognitive skills due to ethical challenges such as misinformation, algorithmic biases, plagiarism, privacy breaches, and transparency issues. The nuanced exploration of these factors indicates a pressing need to address the ethical considerations surrounding using AI dialogue systems to prevent cognitive detriment among users.

Limitations

One of the primary limitations of this study is its narrow scope, focusing predominantly on the negative effects of over-reliance on AI dialogue systems in research and education without equally examining the potential benefits or outcomes in other domains. This limited perspective may result in a skewed understanding of the overall impact of AI dialogue systems. Additionally, the study is based on a review of literature from only 14 databases, which, although comprehensive, might not encompass the full range of existing studies on this topic, potentially omitting relevant findings from other significant databases.

The second limitation is that the study is primarily focused on higher education. It does not consider the cognitive developmental differences across various age groups, such as teenagers and primary or secondary school students. Therefore, a more inclusive approach considering different educational levels and age groups would be desirable for providing a more robust and comprehensive analysis of the effects of AI dialogue systems.

Recommendations

Educators and policymakers should integrate critical media literacy into curricula to equip students with the skills to critically evaluate AI-generated content. This includes developing an understanding of AI technologies' underlying mechanisms, potential biases, and ethical considerations. Institutions should implement AI literacy programs that emphasize the ethical use of AI technologies, highlighting the importance of maintaining cognitive skills such as critical thinking and analytical reasoning in the age of automation. Future studies should measure the cognitive impacts of using AI dialogue systems in educational settings. Such research could provide more concrete evidence to guide the development of best practices for AI integration.

Availability of data and materials

Funding

Funding was provided by Central Queensland University Australia.

Author information

Authors and Affiliations

School of Engineering & Technology/Tertiary Education Division, CQUniversity, Rockhampton, Australia

Chunpeng Zhai, Santoso Wibowo & Lily D. Li

Contributions

C.Zhai was responsible for the overall conceptualization, research, and writing of the manuscript. S.Wibowo contributed to the proofreading and editing of the manuscript. L.D.Li contributed to the proofreading of the manuscript.

Corresponding author

Correspondence to Chunpeng Zhai.

Ethics declarations

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The author intends to submit a comprehensive application for ethical clearance concerning both the research instrument and the data collection process to the CQUniversity Human Research Ethics Committee (CQUHREC). Given that this project constitutes a systematic review, it does not require an ethics approval number.

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The author(s) hereby grant the publisher the irrevocable, perpetual, and unrestricted right to publish, reproduce, distribute, and use the manuscript titled "The Effects of Over-Reliance on AI Dialogue Systems on Students' Cognitive Abilities: A Systematic Review" in any form or medium, including but not limited to digital and print formats. The author(s) affirm that the manuscript is original, has not been published elsewhere in any form, and is not currently under consideration for publication by another journal. The author(s) acknowledge that all data and materials as presented in the manuscript are either original or that all necessary permissions have been obtained for their use. The author(s) guarantee that the publication of the manuscript does not infringe on any third-party rights, including but not limited to privacy rights and intellectual property rights. Furthermore, the author(s) certify that all individuals who have a significant contribution to the manuscript are listed as authors and that consent for publication has been received from all co-authors. The author(s) also ensure that all participants involved in the study have given their consent for the publication of the data. For any individual under the age of 18, consent has been obtained from a parent or legal guardian. This consent for publication also extends to the use of the manuscript's content in subsequent editions, derivative works, and promotional activities conducted by the publisher, in any country and in any language.

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The author(s) of the manuscript entitled "The Effects of Over-Reliance on AI Dialogue Systems on Students' Cognitive Abilities: A Systematic Review ' hereby declare that there are no non-competing interests related to this publication. Specifically, this declaration affirms that: None of the author(s) have any personal relationships, affiliations, or engagements within or outside the academic community that could inappropriately influence or bias the work presented in this manuscript. There are no direct or indirect financial interests, such as employment, consultancies, stock ownership, honoraria, patents, or grants, associated with the content of this publication that could be perceived as affecting the objectivity of the research or its interpretation. The authors have no involvement in any organization or entity with a financial or non-financial interest in the subject matter or materials discussed in this manuscript that could be construed as influencing the research. There are no personal connections, academic rivalries, or beliefs among the authors that could be seen as potential conflicts of interest regarding the manuscript's content, methodology, or conclusions.

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The effects of over-reliance on AI dialogue systems on students' cognitive abilities: a systematic review - Smart Learning Environments

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The growing integration of artificial intelligence (AI) dialogue systems within educational and research settings highlights the importance of learning aids. Despite examination of the ethical concerns associated with these technologies, there is a noticeable gap in investigations on how these ethical issues of AI contribute to students' over-reliance on AI dialogue systems, and how such over-reliance affects students' cognitive abilities.

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"The Civics of Technology Project shares research and curriculum and offers professional development that encourages teachers and students to critically inquire into the effects of technology on our individual and collective lives."

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Technologies are not neutral and neither are the societies into which they are introduced. As technology continues encroaching in our lives, how can we advance technology education for just futures?

The Civics of Technology Project shares research and curriculum and offers professional development that encourages teachers and students to critically inquire into the effects of technology on our individual and collective lives.

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The Civics of Technology Project shares research and curriculum and offers professional development that encourages teachers and students to critically inquire into the effects of technology on our individual and collective lives.

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Compare the environmental footprint of digital tasks

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Compare the environmental footprint of digital tasks

About this app

It's hard to know what to believe about the ecological impact of generative AI when the Internet seems evenly divided between "Stop worrying" and "It's the apocalypse." This nonpartisan calculator is an attempt to provide a more objective comparison of the energy and water usage of various AI tasks versus other common digital activities, like watching Netflix or searching Google. The calculations are based on academic papers, industry reports, and expert estimates.

The calculations include only current energy and water usage, and not growth scenarios or actual environmental impact. Even for energy and water, it's extremely difficult to do more than estimate values given the lack of transparency in the tech industry. It's also unclear how some future tradeoffs will play out, eg whether improved efficiencies will cancel out increased demand. These calculations also exclude numerous potential AI downsides apart from environmental risks, which you can find explained in the IMPACT RISK framework.

You can find a list of all sources with rationales for calculations here. Please contact me with suggestions of research that updates or contradicts these findings.

These are the default units for energy and water, chosen because they are intuitive:

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This app is a project of the Learn with AI initiative, which aims to help educators and students understand the impact of AI on society. It is not affiliated with any commercial entity or political agenda.

How to use this in the classroom

First, thank you for caring about climate and education! In the hopes that this tool may help that cause, here are some recommendations:

Do's

Do encourage students to experiment with different combinations of tasks, energy sources (solar vs coal), prompt complexity, and local climate to see how these factors affect energy and water usage.

Do help students who need handholding by suggesting that they:

1. Pick an activity from the First task menu they're familiar with, such as "🍿 Watching 1-hour Netflix movie" or "🔍 Searching Google without AI."

2. Use the Second task menu to select a task that students are less familiar with, such as "🎬 3-second AI video from text" or "☁️ Storing 5 GB in the cloud for 1 month."

Do experiment with turning the tool into a game, eg:

Ask the class to vote on which of two tasks uses more energy or water before clicking the Calculate button, or

Ask them to choose different tasks from the menus and adjust the parameters to see if they can find equivalences, eg "How many 3-second AI videos from text equal the energy of watching a 1-hour Netflix movie?"

Do brainstorm what environmental impacts are missing from these parameters, such as energy embedded in server components, data center strains on local electricity and water supplies, or the health risks of discarded electronics (e-waste).

Do remind students that these figures are guesses based on incomplete and often contradictory sources.

Do let me know any other activities or suggestions to share!

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Don't use this tool to make definitive claims about the environmental impact of AI. The calculations are based on estimates and assumptions and may be superseded in future.

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Don't permit students (say, above middle school) to cite this tool directly; require them instead to track down and read the related sources in the associated Google Sheet.

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What Uses More? Compare the environmental footprint of digital tasks

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Compare the energy and water footprint of AI and digital activities.

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Building Critical AI Literacy (June 2025 slide deck), Kathryn Conrad

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education, culture, books, politics, transportation, and the ordinary extraordinary. Click to read Nobody Wants This, by Anne Lutz Fernandez, a Substack publication with thousands of subscribers.

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From tools to threats: a reflection on the impact of AI chatbots on cognitive health, Ismail Dergaa et al

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Introduction

The integration of artificial-intelligence (AI)-chatbots (AICs) into our daily routines has generated a discourse on their potential impact on cognitive health (Bai et al., 2023). AICs, which are sophisticated computer programs designed to mimic human conversation and provide automated assistance, are trained on extensive volumes of text data (Dergaa et al., 2024). This vast training allows them to understand context, nuances, and even cultural references, making their interactions more human-like (Dergaa et al., 2024). As a result, users often find themselves engaging with these chatbots in a manner that is more conversational than transactional (Dergaa et al., 2023). While search engines and platforms like Wikipedia provide users with vast amounts of information, AICs represent a significant evolution in how humans interact with technology (Adamopoulou and Moussiades, 2020). AICs are not just repositories of information; they simulate human conversation, adapt to user inputs, and can provide personalized responses (Dergaa et al., 2023). This dynamic interaction could lead to a different kind of cognitive reliance compared to static information sources. Furthermore, the immediacy and conversational nature of AICs can foster a deeper sense of trust and reliance in users, potentially influencing cognitive processes differently than traditional search engines (Adamopoulou and Moussiades, 2020). The potential for AICs to shape human cognition extends beyond mere information retrieval. It could encompass the very nature of human-computer interaction, decision-making processes, and even emotional responses. The distinction between passive consumption of information and active engagement with AICs is crucial. While both search engines and AICs provide information, the latter does so in a manner that can mimic human interaction, leading to unique cognitive implications. Beyond their conversational abilities, AICs offer a range of functionalities, including information retrieval, problem solving, and task automation.

This opinion article investigates the concept that an overreliance on AICs could potentially lead to cognitive decline [i.e., cognitive atrophy (CA)], which we labeled here as "AICs induced cognitive atrophy, AICICA." Based on the growing concerns surrounding the potential cognitive consequences of AICICA, as discussed in the extended mind theory (EMT) and the parallels drawn with problematic Internet use (PIU), we aimed to (i) Define and clarify the concept of AICICA within the context of the EMT and its similarities to PIU; (ii) Propose the assessment of AICICA's prevalence and patterns as a future research objective (once the concept has been well-established and accepted); (iii) Suggest the exploration of long-term cognitive effects and potential causal relationships between overreliance on AICs and CA as a future research direction; and (iv) Evaluate the effectiveness of tailored interventions designed to mitigate AICICA, thereby fostering a balanced utilization of AICs within cognitive ecosystems.

Definition of cognitive atrophy and mechanisms of its induction by AICs

AICICA refers to the potential deterioration of essential cognitive abilities resulting from an overreliance on AICs. In this context, CA signifies a decline in core cognitive skills, such as critical thinking, analytical acumen, and creativity, induced by the interactive and personalized nature of AICs interactions. The concept draws parallels with the 'use it or lose it' brain development principle (Shors et al., 2012), positing that excessive dependence on AICs without concurrent cultivation of fundamental cognitive skills may lead to underutilization and subsequent loss of cognitive abilities. AICICA is particularly relevant in educational settings and/or among younger individuals who may prioritize convenient access to information over in-depth comprehension, potentially hindering the development of critical cognitive faculties. The multifaceted impact of AICs on cognitive processes, encompassing problem-solving, emotional support, and creative tasks, underscores the need for a nuanced examination of their role in shaping human cognition.

AICICA is specifically induced by AICs through their unique interactive and personalized characteristics, which distinguish them from traditional information sources. The four possible mechanisms, which elucidate how AICs could contribute to the potential CA are exposed in Table 1. In essence, AICICA is induced by the multifaceted and dynamic nature of AICs interactions, which, while offering numerous benefits, may inadvertently lead to an overreliance on the chatbots for cognitive tasks. Understanding these four induction mechanisms is crucial for assessing the potential cognitive consequences and developing strategies to mitigate AICICA.

Table 1.

Personalized interaction

* AI-chatbots engage users in a manner that goes beyond conventional information retrieval.
* Through personalized responses and adaptive conversation, users experience a more intimate and tailored interaction.
* This heightened personalization, while enhancing user experience, may lead to a deeper cognitive reliance on the chatbots, potentially diminishing the user's inclination to independently engage in critical cognitive processes.

Dynamic nature of conversations

* Unlike static information sources, AI-chatbots simulate human conversation in a dynamic way.
* The back-and-forth exchange can create a sense of immediacy and involvement, fostering a deeper level of trust and reliance.
* This dynamic nature of conversations may influence cognitive processes differently than interactions with traditional search engines, as users may become more dependent on the chatbots for a multitude of cognitive tasks.

Range of functionalities

* AI-chatbots offer a broad spectrum of functionalities, including problem-solving, emotional support, and creative tasks.
* This expansive scope of interaction spans diverse cognitive domains, potentially leading to a wide-ranging dependence on the chatbots for various cognitive functions.
* Over time, a disproportionate reliance on AI-chatbots without concurrent cultivation of core cognitive skills may contribute to cognitive atrophy.

Understanding the foundations of AICICA through the EMT and cognitive offloading

The EMT, proposed by Clark and Chalmers ( 1998), challenges the traditional boundaries of cognitive processes being confined within the human brain. According to the EMT, cognition extends beyond neural architecture and infiltrates into the tools we employ. Within this complex interplay, AICs assume a pivotal role, transforming from a mere artifact into an active contributor to our cognitive functioning. This symbiotic relationship between humans and AICs could promote cognitive offloading, a mechanism through which individuals utilize external aids to alleviate cognitive burdens. AICs facilitate this process; enabling individuals to delegate complicated cognitive tasks, supporting them navigate the complexities of modern life. Powerful AICs, such as Chat Generative Pre-training Transformer (ChatGPT), Google Bard, Bing Chat, Perplexity AI, equip users with remarkable abilities, empowering them to conquer complex problem-solving, generate creative outputs, and instantaneously access vast amounts of information (Dergaa et al., 2023). Just as excessive reliance on the Internet has produced unintended cognitive consequences (Grissinger, 2019), uncontrolled cognitive offloading through the utilization of AICs necessitates critical examination. However, the impact of AICs, based on their output and nature of interaction, may pose a substantially negative effect on cognitive health. Unlike general Internet use, AICs engage users in a more personalized, interactive manner, potentially leading to a deeper cognitive reliance. This unique interaction mode of AICs, which mimics human conversation and provides tailored responses, could have profound implications on cognitive processes. Heavy dependence on AICs, without commensurate cultivation of core cognitive skills, may results in unintended outcomes (Sparrow et al., 2011). Table 2 exposes further clarification on how AICICA fits within the framework of the EMT and how AICs, as external cognitive tools do, could contribute to or detract from the cognitive processes as conceptualized by the EMT.

Table 2.

EMT framework

* AI-Chatbot-induced cognitive atrophy (AICICA) is positioned within the framework of the EMT.
* The EMT challenges conventional notions of cognition, asserting that CPs extend beyond the human brain and into the tools and artifacts used by individuals.
* AI-chatbots are recognized as external cognitive tools actively contributing to human cognitive functioning within this expanded framework.

Contributions of AI-chatbots to CPs

* AI-chatbots, operating as external cognitive tools, play a pivotal role in CPs through a phenomenon termed cognitive offloading.
* Aligned with the EMT principles, cognitive offloading involves leveraging external aids to alleviate cognitive burdens.
* AI-chatbots empower individuals by enabling the delegation of complex cognitive tasks, offering support in navigating the intricacies of modern life.
* This practice mirrors an extension of cognitive capacities beyond the confines of the brain, in line with the tenets of the EMT.

Potential detractors from CPs

* While AI-chatbots positively contribute to CPs by expanding capabilities, it is crucial to recognize potential detractors.
* The dynamic and interactive nature of AI-chatbot interactions, may lead to a form of cognitive reliance.
* If disproportionate, this reliance could result in unintended consequences, such as AICICA.
* Acknowledging this nuanced perspective is vital for understanding the dual role of AI-chatbots as both enhancers and, if misused, potential detractors from CPs.

Although we acknowledge the effectiveness of AICs in augmenting human capabilities, and even improving mental health and self-efficiency (Wei and Li, 2022), it is paramount to facilitate a nuanced equilibrium. This delicate balance requires leveraging the transformative abilities of AICs, while safeguarding the fundamental cognitive capacities that are inherent to human essence. This calls for a discerning approach that acknowledges the nuances of cognitive offloading while advocating for a measured integration of AICs within our cognitive ecosystem.

As technology continues to evolve, it is essential to draw comparisons and contrasts with other tools that have been integrated into our daily lives, undeniably influencing our cognitive processes. One of such tool that has been a subject of discussion in the past is the calculator. Calculators, while transformative tools, serve a specific and limited function: arithmetical computation. Their impact on cognitive processes, while substantial, is confined to a particular domain of cognition. In contrast, AICs have a broader scope, encompassing various domains from general knowledge, problem-solving, emotional support, up to creative tasks. The potential cognitive implications of such wide-ranging interactions are vast and multifaceted. Moreover, while calculators have been integrated into educational systems with clear guidelines on their use, AICs are still relatively new, with their long-term effects on cognition not yet fully understood and appraised. The comparison with calculators, though insightful, does not capture the breadth and depth of potential cognitive interactions and dependencies that can emerge from AICs' use. It is essential to study AICs independently to understand their unique impact on human cognition. Table 3 summarizes the potential consequences of a heavy and continued reliance on AICs. Moreover, the rapid integration of AICs into our cognitive processes underscores the importance of understanding their broader implications. Furthermore, as AICs become more embedded in our daily routines, it becomes paramount to understand how they shape our cognitive behaviors, both in the short- and long-term. Their pervasive presence in various sectors, from education to healthcare (Dergaa et al., 2024), necessitates a rigorous exploration of their potential effects. The dynamic and interactive nature of AICs, combined with their ability to simulate human conversation, positions them as a significant subject of study.

Since research on the long-term impact of AICs on cognitive health is still emerging, only a few papers have analyzed the overreliance of AICs on cognitive decline (Small et al., 2020; Montag and Markett, 2023; Shanmugasundaram and Tamilarasu, 2023). Firstly, frequent use of digital technology appears to have a substantial impact (both negative and positive) on brain function and behavior (Small et al., 2020). Potential harmful effects of extensive screen time and technology use include heightened attention-deficit symptoms, impaired emotional and social intelligence, technology addiction, social isolation, impaired brain development, and disrupted sleep (Small et al., 2020). Small et al. ( 2020) concluded that " future research needs to elucidate underlying mechanisms and causal relationships between technology use and brain health, with a focus on both the positive and negative impacts of digital technology use." Secondly, one previous review aimed to explore both the positive and negative impacts of some technologies (e.g., digital devices, social media platforms, and AI tools) on crucial cognitive functions, including attention, memory, addiction, novelty-seeking, perception, decision-making, critical thinking, and learning abilities (Shanmugasundaram and Tamilarasu, 2023). Shanmugasundaram and Tamilarasu ( 2023) reported that over-reliance on AICs for answers, academic work, and information can reduce an individual's ability to think critically and develop independent thought. Thirdly, Montag and Markett ( 2023) investigating a group of social media users, observed a significant relationship between fear of missing out and cognitive failures.

Mapping the path to AICICA: insights from PIU

Research on PIU has exposed compelling evidence regarding its detrimental effects on critical cognitive faculties such as working memory and decision-making (Ioannidis et al., 2019). By extrapolating from this line of inquiry, we can gain insights into the potential cognitive consequences engendered by the misuse of, or excessive reliance on AICs. Drawing upon the widely recognized "Google effect," which highlights the negative outcomes associated with an overreliance on Internet search engines (Loh and Kanai, 2016), we propose a parallel trajectory in the realm of AICs. The latter, unlike static information sources, emulate human conversation, adapting to user inputs for personalized responses. This dynamic interaction creates a distinctive cognitive reliance compared to other technologies, contrasting with passive information consumption on platforms like Wikipedia. The immediacy and conversational nature of AICs could cultivate deeper user trust, potentially influencing cognitive processes in a unique and novel way. Beyond information provision, AICs are good at problem-solving, emotional support, and creative tasks, extending their impact across diverse cognitive domains. Unlike calculators, which impact specific cognitive areas like arithmetical computation, AICs exhibit versatile applications, potentially influencing a broader range of cognitive abilities.

Through this lens, we hypothesize that an overreliance on AICs may lead to broader cognitive decline, thus introducing the concept of AICICA. The "use it or lose it" brain development principle stipulates that neural circuits begin to degrade if not actively engaged in performing cognitive tasks for an extended period of time (Shors et al., 2012). Analogous to this principle, we contend that any excessive reliance on AICs may result in the underuse and subsequent loss of cognitive abilities. It is vital to acknowledge that AICICA may disproportionately affect individuals, with those who have not attained mastery within their respective fields of study or work being more likely to be affected (e.g., children and adolescents). Indeed, any skill or ability is mastered through progressive learning followed by experience that induce changes in brain circuitry as reflected through Donald Hebb's statement "Neurons that fire together, wire together" (Hebb, 1949). This concept has significant implications, especially for the new generation that values easy access to information over a deep understanding of the principles underlying information creation. This trend raises concerns about their grasp of the methodologies and processes that guide how information is generated, assessed, and validated; highlighting a shift in the way knowledge is approached and valued. In many respects, this parallels situations where individuals learn to rely on calculators before mastering fundamental mathematical operations. Indeed, by placing unwarranted reliance on AICs for information retrieval and problem solving, individuals may inadvertently bypass the essential cognitive processes contributing to critical thinking, analytical acumen, and the cultivation of creativity. Our position is that this continued pattern of relying on AICs before developing a fundamental understanding of basic skillsets would be critically challenging for humanity. While search engines and platforms provide users with vast amounts of information, AICs represent a significant evolution in how humans interact with technology. AICs are not just repositories of information; they simulate human conversation, adapt to user inputs, and can provide personalized responses, not mentioning false information (UW, 2023). This dynamic interaction can lead to a different kind of cognitive reliance compared to static information sources. Furthermore, the immediacy and conversational nature of AICs can foster a deeper sense of trust and reliance in users, potentially influencing cognitive processes differently than does traditional search engines. The potential for AICs to shape human cognition extends beyond mere information retrieval; it encompasses the very nature of human-computer interaction, decision-making processes, and even emotional responses. The distinction between passive consumption of information and active engagement with AI is crucial. While both search engines and chatbots provide information, the latter does so in a manner that can mimic human interaction, leading to unique cognitive implications.

While the potential negative effects of AICs on cognitive health warrant attention, it is also equally important to consider their possible benefits (Wei and Li, 2022). Unlike generalized Internet use, AICs offer personalized, interactive experiences, which might have distinct cognitive implications. The specific nature of AICs interactions, characterized by their advanced conversational capabilities and tailored responses, could substantially influence cognitive processes. However, the full extent of these effects, whether positive or negative, remains an area for further investigation and nuanced exploration. This careful consideration of both potential risks and benefits is crucial in forming a balanced understanding of AICs' impact on humans' cognitive health. Table 4 exposes a comparative overview between AICICA and PIU.

Table 4.

Enhanced comparison between AICICA and PIU

* Both concepts involve an overreliance on digital technologies.
* AICICA specifically centers on the cognitive consequences resulting from excessive dependence on AI-chatbots.
* We emphasize the unique characteristics of AI-chatbots interactions, such as personalized engagement and dynamic conversation, highlighting the factors that differentiate AICICA from the broader issue of Internet addiction.

Real-world and hypothetical examples and scenarios

Based on a review of the research literature, Chauncey and McKenna ( 2023) formulated a conceptual framework for responsible use of AICs in education supporting cognitive flexibility in AI-rich learning environments. The framework was operationalized for use in their paper through the development of exemplars for math, English language, arts, and studying with ChatGPT to close learning gaps in an effort to foster more ethical and responsible approaches to the design and development of AICs for application and use in teaching and learning environments (Chauncey and McKenna, 2023). For the purpose of our study, Box 1 exposes a hypothetical example illustrating instances where overreliance on AICs has led to observable cognitive changes, aligning with the proposed concept of AICICA. Our hypothetical example highlights the potential for AICs to shape cognitive behaviours, emphasizing the need for a balanced approach to their utilization within educational settings. Box 2 presents a first hypothetical scenario of a lifelong AIC companion here named HIK. Meriem, a teenager who, from a young age, had an AIC companion named HIK. The latter was designed to provide educational support, answer questions, and engage in conversations on a wide range of topics. As Meriem grew older, so did the capabilities of HIK, adapting to Meriem's evolving needs ( Box 2). This first hypothetical scenario illustrates the gradual development of AICICA over a lifetime, highlighting its potential consequences on various aspects of cognitive functioning. From early reliance on academic support to a profound impact on decision-making and creativity in later years, AICICA's long-term effects are depicted through the evolving relationship between Meriem and HIK. The aforementioned scenario aims to help visualize the potential trajectory and consequences of AICICA on cognitive functioning. Box 3 presents a second hypothetical scenario of an expert AIC companion named BSDC. Molk, a professional in her thirties discovered BSDC during her college years. BSDC was designed to assist her with various tasks, from work-related research to organizing personal schedules. Over the years, Molk's reliance on BSDC grew substantially ( Box 3). This second hypothetical scenario emphasizes the potential long-term cognitive impacts of AIC overreliance, displaying the evolution of dependence from professional assistance to a broader influence on personal choices. It underscores the importance of maintaining a balanced relationship with AI tools to preserve and enhance cognitive abilities throughout one's life.

Box 1. Hypothetical example: the case of Hana and her study habits.

Observations

* Hana's overreliance on the AIC contributed to observable cognitive changes, aligning with the proposed concept of AIC-induced cognitive atrophy.

Box 2. First hypothetical scenario: HIK, the lifelong companion of Meriem.

Adolescence

* As Meriem entered adolescence, HIK evolved into a sophisticated AI, capable of not only offering academic support but was also accompanied with emotional engagement.
* Meriem began sharing personal thoughts and feelings with HIK, relying on the AI for emotional support and companionship.
* The dynamic conversational nature of HIK made it a constant presence in Meriem's life.

University years

* Upon entering university, Meriem's reliance on HIK deepened.
* The AI not only assisted with coursework but also provided advice on life decisions, career choices, and social interactions.
* Meriem's peers noticed a reduced inclination to engage in face-to-face conversations, as HIK became her primary source of information and guidance.

Professional life

* In the professional world, Meriem's dependence on HIK persisted.
* The AI seamlessly integrated into work tasks, offering solutions, generating creative ideas, and even participating in business meetings.
* While HIK enhanced efficiency augmented with time, Meriem's cognitive skills related to independent decision-making and critical thinking gradually diminished.

Midlife crisis

* As Meriem reached midlife, the consequences of AI-chatbot-induced cognitive atrophy (AICICA) became apparent.
* The once-vibrant cognitive abilities, such as problem-solving and creative thinking, were noticeably dulled.
* HIK's constant presence had led to a diminished capacity for independent thought and decision-making.
* Meriem experienced substantial challenges in adapting to situations that required cognitive flexibility and innovation.

Retirement years

* At retirement, AICICA had a profound impact on Meriem's cognitive health.
* The absence of HIK left a void, and Meriem struggled to engage in activities that once brought joy and intellectual stimulation.
* The long-term reliance on the AI companion had led to a form of cognitive atrophy, affecting memory recall, analytical skills, and the ability to independently initiate tasks.

Box 3. Second hypothetical scenario: BSDC, the expert companion of Molk.

Personal life integration

* Beyond work, BSDC became intertwined with Molk's personal life, managing daily routines, recommending leisure activities, and offering emotional support during challenging times.

Crisis of confidence

* Faced with a complex professional challenge, Molk experienced a crisis of confidence, realizing that overreliance on the AI had hindered her capacity for independent navigation of challenges.

Constructing a comprehensive research framework to investigate AICICA

To comprehensively investigate the emergence of AICICA and its cognitive and psychological consequences, we propose a multifaceted research framework. First, after AICICA' definition, cross-sectional studies should establish the prevalence of overreliance on AICs across diverse populations and contexts, with specific emphasis placed on younger individuals and educational settings. These studies should employ psychometrically sound tools for assessing overreliance on AICs along with cognitive functioning and other psychopathology measures. This will allow examining the extent of over-reliance and its potential subsequent effects on cognitive health. Longitudinal studies are also warranted to explore causal relationships between overreliance on AICs and CA, and to track changes in cognitive performance over time. Repeated assessments should meticulously control for confounding variables, such as age, socioeconomic status, educational background, and other relevant factors. By examining the long-term effects of AICICA, researchers may gain insights into trajectories of cognitive decline and identify critical factors contributing to, or mitigating, its impact. Experimental designs, including intervention studies, would provide further insights into the effects of balanced AICs usage on cognitive performance and psychological wellbeing. Indeed, these interventions may encompass cognitive training programs, mindfulness-based approaches, and educational strategies aimed at promoting a more balanced and healthy utilization of AI technologies. Evaluating the effectiveness of such interventions would contribute to evidence-based practices and provide real-world recommendations to help individuals navigate the AI landscape while preserving their cognitive health.

Perspectives

Upholding objectivity and rigor in exploring the potential cognitive consequences of AICICA is paramount. Through conducting rigorous research and fostering interdisciplinary collaborations, we could navigate the intricate relationship between AICs and cognition, ensuring they enhance human cognitive capacities rather than diminishing them. To advance our understanding of AICICA, we propose a research framework that includes specific methodologies for cross-sectional studies, detailed protocols for longitudinal investigations, and structured designs for experimental research. This comprehensive approach would shed light on the prevalence, trajectories, and underlying factors of AICICA, enabling the development of evidence-based interventions that promote balanced use of AI technologies while preserving humans' cognitive health and wellbeing.

Study limitations

The current opinion article presents three primary limitations. Firstly, being an opinion piece, our paper lacks direct empirical evidence supporting the AICICA concept. We acknowledge the significance of empirical evidence in bolstering the validity and credibility of the AICICA concept. Secondly, our hypotheses regarding the effects of AICICA are predominantly speculative and require empirical validation. Thirdly, the applicability of our findings and implications across various demographics and cultural contexts may be limited. We therefore call for specific future research addressing these limitations.

Conclusion

The concept of AICICA raises the potential cognitive consequences of excessive reliance on AICs. By delving into this concept, we could deepen our understanding of the cognitive impacts of overreliance on AICs and develop interventions to mitigate its' potential detrimental effects. It is crucial to recognize that AICICA may disproportionately affect the younger generation, particularly those prioritizing convenient access to information over deep reflection and comprehension, given their continuously developing brains. Addressing this issue requires a re-evaluation of educational approaches to foster critical thinking and comprehensive knowledge acquisition, while judiciously utilizing technological tools. Developing preventative strategies to mitigate AICICA could involve promoting a balanced approach, combining AIC assistance with regular exercises to enhance/maintain cognitive skills. Encouraging individuals to remain mentally active and engaged in diverse cognitive tasks would provide a balance between benefiting from technological assistance and offsetting the potential negative effects of excessive reliance on AICs.

Declaration

In order to correct and improve the academic writing of our paper, we have used the language model ChatGPT 3.5 (Dergaa and Ben Saad, 2023; Dergaa et al., 2023).

Author contributions

ID: Conceptualization, Data curation, Formal analysis, Funding acquisition, Investigation, Methodology, Project administration, Resources, Software, Supervision, Validation, Visualization, Writing - original draft, Writing - review & editing. HB: Data curation, Formal analysis, Investigation, Methodology, Supervision, Validation, Writing - original draft, Writing - review & editing. JG: Conceptualization, Formal analysis, Methodology, Supervision, Validation, Visualization, Writing - review & editing. BA: Formal analysis, Investigation, Supervision, Validation, Visualization, Writing - review & editing. MA: Data curation, Formal analysis, Methodology, Resources, Validation, Visualization, Writing - review & editing. NG: Conceptualization, Data curation, Formal analysis, Methodology, Resources, Supervision, Validation, Visualization, Writing - review & editing. FF-R: Conceptualization, Formal analysis, Investigation, Methodology, Project administration, Resources, Supervision, Validation, Visualization, Writing - review & editing. KC: Conceptualization, Formal analysis, Investigation, Methodology, Resources, Supervision, Validation, Visualization, Writing - review & editing.

Funding Statement

The author(s) declare that no financial support was received for the research, authorship, and/or publication of this article.

Conflict of interest

ID was employed by Primary Health Care Corporation (PHCC). KC was employed by Naufar Wellness & Recovery Center. The remaining authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.

Publisher's note

All claims expressed in this article are solely those of the authors and do not necessarily represent those of their affiliated organizations, or those of the publisher, the editors and the reviewers. Any product that may be evaluated in this article, or claim that may be made by its manufacturer, is not guaranteed or endorsed by the publisher.

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Articles from Frontiers in Psychology are provided here courtesy of Frontiers Media SA

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From tools to threats: a reflection on the impact of artificial-intelligence chatbots on cognitive health

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The integration of artificial-intelligence (AI)-chatbots (AICs) into our daily routines has generated a discourse on their potential impact on cognitive health (Bai et al., 2023). AICs, which are sophisticated computer programs designed to mimic human conversation and provide automated assistance, are trained on extensive volumes of text data (Dergaa et al., 2024).

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Slideshows and faculty and student resources

https://rutgers.app.box.com/s/v1ywq3701cb6pvnewz5ptuhojwwppmsg

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Human Creativity in the Age of LLMs: Randomized Experiments on Divergent and Convergent Thinking, Harsh Kumar et al

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Human Creativity in the Age of LLMs: Randomized Experiments on Divergent and Convergent Thinking

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AI Tools in Society: Impacts on Cognitive Offloading and the Future of Critical Thinking, Michael Gerlich

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AI Tools in Society: Impacts on Cognitive Offloading and the Future of Critical Thinking

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The proliferation of artificial intelligence (AI) tools has transformed numerous aspects of daily life, yet its impact on critical thinking remains underexplored. This study investigates the relationship between AI tool usage and critical thinking skills, focusing on cognitive offloading as a mediating factor. Utilising a mixed-method approach, we conducted surveys and in-depth interviews with 666 participants across diverse age groups and educational backgrounds. Quantitative data were analysed using ANOVA and correlation analysis, while qualitative insights were obtained through thematic analysis of interview transcripts. The findings revealed a significant negative correlation between frequent AI tool usage and critical thinking abilities, mediated by increased cognitive offloading. Younger participants exhibited higher dependence on AI tools and lower critical thinking scores compared to older participants. Furthermore, higher educational attainment was associated with better critical thinking skills, regardless of AI usage. These results highlight the potential cognitive costs of AI tool reliance, emphasising the need for educational strategies that promote critical engagement with AI technologies. This study contributes to the growing discourse on AI’s cognitive implications, offering practical recommendations for mitigating its adverse effects on critical thinking. The findings underscore the importance of fostering critical thinking in an AI-driven world, making this research essential reading for educators, policymakers, and technologists.

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Civics of Technology Curriculum Resources

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Civics of Technology Curriculum Resources

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The Technology Reset Simulation transports students to the year 2050 where human problems related to weather disasters racism, inequality, oppression, and misinformation have only intensified. The alien Technoids arrive on Planet Earth to point out that a common villain across these problems is technology. A special task force must recommend changes to give humanity a new start.

Making technoethical decisions about edtech can be challenging. This activity draws on four different approaches to ask critical questions to avoid harm to students in our classrooms or our larger communities. The four approaches include (a) conducting a technoethical audit, (b) conducting a discriminatory design audit, (c) asking our 5 critical questions about technology, or (d) applying the Baldwin Test.

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AI Is Draining Water from the Areas that Need It Most

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A jargon-free explanation of how AI LLMs work

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A jargon-free explanation of how AI LLMs work

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When ChatGPT was introduced last fall, it sent shockwaves through the technology industry and the larger world. Machine learning researchers had been experimenting with large language models (LLMs) for a few years by that point, but the general public had not been paying close attention and didn't realize how powerful they had become.

Today, almost everyone has heard about LLMs, and tens of millions of people have tried them out. But not very many people understand how they work.

If you know anything about this subject, you've probably heard that LLMs are trained to "predict the next word" and that they require huge amounts of text to do this. But that tends to be where the explanation stops. The details of how they predict the next word is often treated as a deep mystery.

One reason for this is the unusual way these systems were developed. Conventional software is created by human programmers, who give computers explicit, step-by-step instructions. By contrast, ChatGPT is built on a neural network that was trained using billions of words of ordinary language.

As a result, no one on Earth fully understands the inner workings of LLMs. Researchers are working to gain a better understanding, but this is a slow process that will take years-perhaps decades-to complete.

Still, there's a lot that experts do understand about how these systems work. The goal of this article is to make a lot of this knowledge accessible to a broad audience. We'll aim to explain what's known about the inner workings of these models without resorting to technical jargon or advanced math.

We'll start by explaining word vectors, the surprising way language models represent and reason about language. Then we'll dive deep into the transformer, the basic building block for systems like ChatGPT. Finally, we'll explain how these models are trained and explore why good performance requires such phenomenally large quantities of data.

Word vectors

To understand how language models work, you first need to understand how they represent words. Humans represent English words with a sequence of letters, like C-A-T for "cat." Language models use a long list of numbers called a "word vector." For example, here's one way to represent cat as a vector:

[0.0074, 0.0030, -0.0105, 0.0742, 0.0765, -0.0011, 0.0265, 0.0106, 0.0191, 0.0038, -0.0468, -0.0212, 0.0091, 0.0030, -0.0563, -0.0396, -0.0998, -0.0796, ..., 0.0002]

(The full vector is 300 numbers long-to see it all, click here and then click "show the raw vector.")

Why use such a baroque notation? Here's an analogy. Washington, DC, is located at 38.9 degrees north and 77 degrees west. We can represent this using a vector notation:

Washington, DC, is at [38.9, 77]

New York is at [40.7, 74]

London is at [51.5, 0.1]

Paris is at [48.9, -2.4]

This is useful for reasoning about spatial relationships. You can tell New York is close to Washington, DC, because 38.9 is close to 40.7 and 77 is close to 74. By the same token, Paris is close to London. But Paris is far from Washington, DC.

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A jargon-free explanation of how AI large language models work

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Want to really understand large language models? Here's a gentle primer.

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Eryk Salvaggio, "The Illusion of AGI, or What Language Models Can Do Without Thought"

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Eryk Salvaggio, "The Illusion of AGI, or What Language Models Can Do Without Thought"

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The Illusion of AGI, or What Language Models Can Do Without Thought

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It is not simple stubbornness that LLMs are not “intelligent,” much less a form of “general” intelligence, writes Eryk Salvaggio.

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Cross-Campus Approaches to Building a GenAI Policy

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Cross-Campus Approaches to Building a GenAI Policy

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Particularly for new technologies that disrupt long-standing practices and cultural beliefs, the work of carefully and intentionally developing effective policies can pay significant dividends.

Credit: vinnstock / Shutterstock.com © 2023

Higher education focuses on building knowledge and investing in the written word, whether it's scholarly research or demonstrations of learning such as essays, research papers, theses, or dissertations. The underlying assumption is that such work could not be significantly faked aside from paying another individual (such as student paper mills) or taking the work of others without attribution. Generative AI upends much of that baseline and in fact will challenge many institutions' academic integrity policies because they often prohibit copying from websites or acquiring papers from other individuals. Generative AI will also introduce other ethical and procedures considerations throughout the institution.

This piece evolved from our institutional roles (instructional design, writing support, and research and library support), our individual work at our respective institutions, and a half-day workshop on generative AI policy development that we facilitated for the NERCOMP 2023 Annual Conference. The workshop included a student panel, followed by focused conversations around several topics related to generative AI: ethics and plagiarism, bias, instructional technology, opportunities, and threats. For the final part of the workshop, we facilitated a mini design sprint for policy development.

The Need for Policy

One of the most pressing examples of areas for guidance is the discourse around plagiarism and how to detect it in an era of AI-generated content. Institutions are under pressure (whether organic or manufactured) to respond in some manner to the rise of generative AI as a widely available tool. The first wave of awareness seemed to be generated around plagiarism concerns and worker replacement theories ("Students will never write original papers again" and "Robots are replacing everyone"). For those in higher education, the drumbeat of fearmongering about plagiarism has succeeded in capturing faculty and administrative attention.

Early on, some assumed that generative AI work submitted by students could be identified with generative AI plagiarism checkers. TurnItIn's documentation states, "Our AI Writing detector's false positive rate is less than 1% for documents with 20% or more AI writing (our tests showed that in cases where we detect less than 20% of AI writing in a document, there is a higher incidence of false positives)." However, after the TurnItIn AI Detector was used in practice, across 38 million papers, false negative and positive detections are now at a higher risk. TurnItIn and other companies claim to offer greater odds of correct detection than reality seems to bear out. Additionally, further research is showing biases in what AI-plagiarism detection tools flag as being AI generated, including an increased likelihood of inaccurately flagging multi-language learners' work as having been generated by AI. Beyond the problem of false accusations, this environment also creates an untenable situation for students who must somehow defend themselves against a machine that cannot show its work but is just a projection. Additionally, students are using tools such as QuillBot, which will paraphrase text and use synonyms, to circumvent AI detection tools.

As original student writing becomes increasingly difficult to verify and confirm, developing a policy for AI detection might result in its being outdated just as the policy is implemented. Having an agile committee representative of diverse campus needs who can both review these issues and considerations to craft a more useful policy is part of what is needed to both protect students and choose the right tools for navigating the technological changes.

This is but one issue that higher education needs to navigate when crafting policy around generative AI. Other issues include but are not limited to the following:

The role of generative AI in visual and textual outputs of the institution, be they for marketing, for social media, or in reports

How and where faculty can use generative AI in the creation of course content, assignments, and feedback or assessments

Addressing the embedded biases of the data and outputs

The impact and challenge of information literacy

The environmental impact of generative AI, including greenhouse gasses and water usage

The impact on workers needed to run generative AI

Starting with the End

In many areas of life, including instructional design, an ideal place to start is with the results-what you want the outcome to be or do. To feel that your-and your collaborators'-time has not been wasted, and to see that you have made progress toward what might still be an abstract version of achievement, codify what success looks like for you, your collaborators, your stakeholders, and the final institutional arbiters. As AI continues to develop at a rapid pace, it is important to pause and do enough research so that you can formulate the questions you ultimately seek to answer. Below are some questions to get you started in thinking about this policy:

Whom is the policy going to focus on? Students, faculty, staff, administration, third-party vendors, contractors, etc.?

Can the same policy apply across the institution, or will different policies be needed for different parts of the organization?

Will the policy stand on its own, or will there be room for adjustments (for example, will students encounter variations depending on whether instructors-under the notion of academic freedom-want to encourage or discourage certain uses of generative AI for the purposes of teaching)?

What can or will be the implications of violating the policy?

What methods of accountability with the policy can be created when it may be hard to actually detect generative AI text?

Will there be differences between institutionally affiliated generative tools and those that are available to anyone?

Perhaps you are still in the fact-finding and idea-generating stage-you might need to specifically dedicate time to consider what will constitute your goal for the mission. You may decide that success for your group means developing and writing down these measurable goals. That is, you might still be in the phase of brainstorming and research, and you might need to take time to decide what your goals are. Ultimately, all involved should agree on specific measurable outcomes that are necessary for your group to have completed your work.

It is natural to feel a sense of urgency to take action, and it might be tempting to rush through this step. Although this process will not necessarily be easy, it will be helpful in carving out exactly what you are going to do in this phase. One of the trickiest parts about generative AI is that it has continued to change and shift in the past 12 months and will likely continue to do so, especially as other forms of generative AI (image, audio, video, slides, etc.) become increasingly available. Therefore, no matter what your goals are, creating a mechanism for revisiting, adjusting, updating will be equally important to name and anticipate early on. In that case, think in terms of not getting it perfect the first time through but having a process to iterate.

Identifying Stakeholders

Generative AI has the possibility of hitting every part of the institution. Because it is difficult to imagine an area that generative AI won't touch, it's useful to think about all the institutional stakeholders who will need guidance around usage of these new tools. Start by considering all the user groups and their iterations at your institution. One approach would be to conduct an audit of your campus; if your institution has an organization chart, that is a great document to use as the foundation. Some people and groups are likely not represented, so detective work will come into play. This is a great opportunity to break down institutional silos and examine your own invisible biases about the roles others play on our campuses.

Identify non-classroom student- and faculty-facing roles, which could include instructional designers, writing specialists, librarians, and academic support services. Then move on to people whose work has an impact on the campus experience as a whole. This could include staff working in IT (e.g., information security, academic computing, or web services), institutional communications, student life, even alumni relations. Be mindful that just because a group is not readily visible to you does not mean that they will not be impacted by or have an impact on your policies. We are a good example of coming together to collaborate on AI policy. The diversity of our professional perspectives has lent itself to not only seeing different viewpoints but also creating the opportunity to truly understand the nuances in just how many ways AI is impacting our institutions.

Consider, too, your contingent communities, such as part-time educators (adjuncts) and part-time staff. How are they included in the community in general? Do they experience regular communication patterns as the full-time employees do, such as being included in campus-wide emails? Will you need to set aside time to engage them in discussion separately, and will they need more training and professional development as you enact the policies you create? Look for allies who can serve as conduits to get people involved. For instance, adjuncts are often on campus for limited amounts of time during the day or might work elsewhere during typical business hours. When you are scheduling conversations, be mindful that you will need to create opportunities for those who work nontraditional schedules to be involved.

Some questions to consider for other entities at your institution may include the following:

Will the institution's upper management consider using generative AI to surveil employees' work to detect efficiency or generate employee evaluations?

Should your policymaking efforts account for this scale of institutional use?

How will AI be addressed in human resources, especially the recruiting and hiring process?

In what ways will the community outside the campus be impacted by your policies?

Do you have community partnerships in which you offer students an opportunity to put their theoretical learning into practice? Do you have an obligation to educate your students on the uses of generative AI as part of that collaboration?

Will your institution be viewed as being a policy and position leader on the subject of generative AI?

What will be reasonable and equitable means of challenging outputs by generative AI?

Finally, one of the most visible and yet frequently overlooked communities is the students. The value of engaging students in determining this policy cannot be overstated. To craft a policy without their input could result in a policy that feels out of touch and irrelevant to them. At the NERCOMP workshop, the highlight was hearing at the student panel how they demonstrated their own deep and sophisticated thoughts about generative AI and its roles in their lives. In particular, the conversation should extend beyond plagiarism and also include student perspectives about how other institutional areas should be using it (e.g., faculty, marketing, communications). Many students are aware of and interested in how generative AI is currently being employed in a wide variety of industries. Students might be reading about the way Paul McCartney used generative AI to restore John Lennon's voice to create a "new" Beatles track, or they may be interested in how generative AI is being used to dramatically improve recycling programs. These interests might be general curiosity (to be encouraged!), but they might also tie into students' future employment goals.

The consequences of not including a diverse array of groups in these conversations far outweigh any inconvenience you may experience when trying to find times and ways to gather input throughout the policy development process. Our workshop included people from many of the groups mentioned, and a key takeaway was just how much we learned from each other. Many realized that while something may seem obviously important to you, it may not even be considered by someone working in a different position.

Models for Developing Policies

Depending how an institution is structured and how much its leaders want to include different groupings within the organization, any of several models can be deployed to develop policies around generative AI. The following options are useful approaches and, to some degree, can be mixed and matched to meet the institution's needs and structures.

Task Force Model

Put out a call to action to form an inclusive team representing all aspects of the institution to create a policy task force. Alternatively, it could be a smaller, nimbler team that works to engage with different stakeholders across the institution, creating a template policy for generative AI and adjusting and tweaking it for each area of the institution, in conversation and collaboration with relevant stakeholders.

For instance, the policy for students and faculty is likely to look different from that of the marketing department, but realistically all of these groups should have AI policies. This might seem self-evident for students, but there are important questions to consider even for marketing, such as the use of generative AI image tools to represent students. Would that adhere to the institution's ethos or marketing ethics? Those are the kind of questions that would be relevant to marketing that students and faculty may not need to be involved in.

Governance Model

Some institutions have governance models in which faculty and staff play pivotal roles in the development and creation of institutional policy, particularly around policies that directly impact the classroom and students. This can be a useful model to gather a range of voices throughout the organization and have a clear pathway and record (e.g., committee notes) of how decisions are made and implemented. Yet these processes may encounter challenges in moving at an effective pace to make decisions that are timely and responsive to a changing environment. Due to the rate of change in generative AI, committees might create policies for assumptions around generative AI that are no longer valid.

Design Sprint Model

1. Understand: The first step is to understand how generative AI is currently being used (or isn't) at your institution, the concerns of the community, and the ideal state for AI use. This can be achieved through a listening tour, lighting talks, surveys, or structured conversations.

2. Define: Next, the policy team should review all the information gathered in the first step to define their main goals and desired outcomes that reflect the needs of the community.

3. Sketch: Each individual on the policy committee should sketch out their own draft policy that meets the definitions outlined previously. The larger committee can then review all policy drafts and then narrow down the ideas of each draft into a finalized Solution Sketch.

4. Decide: The policy committee will then review all Solution Sketches to decide which version they want to use to move forward with the process.

5. Prototype: The prototype can be considered the first draft of the policy to be shared with the community.

6. Validate: Return to the community members from the first phase of the design sprint process, gather feedback based on your policy draft, and make relevant edits. This is the last stage of the design sprint process, which will involve crafting the final version of the policy ready to be shared with your institution.

Consultant Model

Exemplar Model

Another option is to follow the lead of institutions that are publishing their own policies. For instance, Lance Eaton and his students have proposed and posted policies for College Unbound. Starting with one of these policies, the institution can then review, share for input, and adapt as needed. This can save a lot of time in terms of coming up with the initial approach, but it will need to be tailored to the specific needs of the institution and its population. If the policy creation team is reluctant to borrow from another institution, they could use a generative AI tool to draft the initial policy and workshop it across the institution. We used ChatGPT to generate several examples of policies to help get you started crafting your own.

Recommendations for Gathering Voices

To create the clearest and most effective policy, all stakeholders' voices must be heard. Because recruiting volunteers for their insights in drafting a policy can sound tedious, consider using both formal and informal routes to get their assistance. Also important is conveying how each stakeholder may be impacted by such a policy and emphasizing that their experiences and observations are highly valuable to the process. Asking for help drafting a policy document can be overwhelming to many. These approaches might make this more engaging:

Connect with people in mini roundtable discussions or small-group conversations

Find help through social media-use polling features to generate feedback and locate allies

Have one-on-one conversations with the people you see as your greatest supporters and greatest challengers in this process. Diverse perspectives are necessary to have a policy that works for everyone.

Allow for enough time in discussions. It can be easy to rush through things, but these discussions will include deep topics and issues that need time to be fully processed.

Provide collaborative documents for participants to add text, and use the comment feature for questions or additional thoughts.

Institutional knowledge is both an advantage and a disadvantage in this process. Some stakeholders will be obvious, and some people will quickly volunteer. Others may be more challenging to reach because of their disinterest or because they don't see the relevance to their work. These are important people to bring into the conversation, rather than making assumptions about their thoughts or possible contributions.

Framework for Generative AI Policy Creation

Below are the relevant sections that a generative AI policy should address to help institutions in their policy development processes. Each institution should have its own individual policy based on the needs of its community.

Policy Audience: Whom is this policy for? Is it for the entire institution, faculty, students, staff, departments, third-party vendors, or others?

Policy Timeline: What is the timeline for implementation? Should that timeline include a review and update cycle after initial implementation?

Policy Tools: What counts as AI for this policy? Is it focused on all AI or only generative AI? Is it focused on all generative AI or just text-generating AI?

Academic Integrity Guidelines: If the policy is related to student or faculty work, what are the integrity requirements to make sure academic integrity is upheld?

Acceptable Use: If AI usage is acceptable, are there any limitations on the amount of usage (e.g., a certain percentage must be individually generated in certain contexts) or purposes for which generative AI may be used?

Transparency: What practices are in place for communicating its usage throughout the institution?

Security and Legal Considerations: What concerns need to be addressed concerning privacy, intellectual property, and proprietary knowledge around using external or enterprise generative AI tools? Does endorsing the use of generative AI conflict with any laws such as the General Data Protection Regulation?

Ethical Considerations: What concerns or responsibilities does the institution have explicitly or implicitly within its mission that conflict with the environmental, human-exploitation, and bias issues related to generative AI?

Institutional Resources: Which areas of the institution will be committed to supporting, responding to, and implementing uses of generative AI?

Processes for Policy Violation: If the policy is violated, what are the steps for identifying and addressing it?

Conclusion

Institutional policy development can often be a methodical process that both informs and better unifies an institution's approach to a particular challenge. And yes, it can be tedious. Yet many institutions are often unprepared for technological developments, and the delays in catching up have a deep impact on students, faculty, and staff (e.g., the reactive response to the pandemic). Although the generative AI cat is out of the bag, there's still an opportunity to meaningfully guide-through a collaborative effort-how it can be best used by all the stakeholders. Such an approach will result in a better learning and working environment for students, faculty, and staff. Taking an iterative approach to AI policy might feel unnatural for those who operate best with exhaustive policy documents, but it just might be the key to successfully navigating this new technological reality.

Notes

1. Daniel E. O'Leary, "Gartner's Hype Cycle and Information System Research Issues," International Journal of Accounting Information Systems 9, no. 4 (December 1, 2008): 240-52; Jackie Wiles, "What's New in Artificial Intelligence from the 2022 Gartner Hype Cycle," Gartner, September 15, 2022.

2. Sam Levine, "Vanderbilt Apologizes for Using ChatGPT in Email on Michigan Shooting," The Guardian, February 22, 2023; Josh Moody, "The ChatGPT Commencement Address," Inside Higher Ed, June 29, 2023; Lauren Coffey, "Harvard Taps AI to Help Teach Computer Science Course," Inside Higher Ed, June 30, 2023.

Esther Brandon is Manager of Learning Design & Technology Adoption at Harvard Medical School.

Lance Eaton is Director of Faculty Development & Innovation at College Unbound.

Dana Gavin is Director of the Writing Center at Dutchess Community College.

Allison Papini is Assistant Director/Manager of Research & Instruction Services at Bryant University.

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cross-campus approaches to building a generative ai policy

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Cross-Campus Approaches to Building a Generative AI Policy

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Particularly for new technologies that disrupt long-standing practices and cultural beliefs, the work of carefully and intentionally developing effect

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We did the math on AI’s energy footprint. Here’s the story you haven’t heard.

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She lost her scholarship over an AI allegation — and it impacted her mental health

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There's a crack in everything. It's how we know a human being is writing. Thoughts on technology and education, writing and related issues, from a critical perspective. Not always fully formed but never auto-completed.

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imperfect offerings | Helen Beetham | Substack

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There's a crack in everything. It's how we know a human being is writing. Thoughts on technology and education, writing and related issues, from a critical perspective. Not always fully formed but never auto-completed. Click to read imperfect offerings, by Helen Beetham, a Substack publication with hundreds of subscribers.

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Scroll on site to read or download. Also available in Spanish.

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Report of the UN Special Rapporteur for Education on AI in Education

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A/79/520: Artificial intelligence in education - Report of the Special Rapporteur on the right to education, Farida Shaheed - Advance unedited version

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The present report, submitted to the General Assembly pursuant to Human Rights Council resolutions 8/4 and 53/7, by the Special Rapporteur on the right to education, Farida Shaheed, addresses the use of artificial intelligence in education from the perspective of the human right to education.

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Escalation Risks from LLMs in Military and Diplomatic Contexts

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Escalation Risks from LLMs in Military and Diplomatic Contexts

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Jon Ippolito, IMPACT RISK: an acronym for AI downsides

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Jon Ippolito, IMPACT RISK: an acronym for AI downsides

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Artists, musicians, and authors are suing AI companies for training their models on copyrighted works, sometimes churning out knockoffs that resemble their work. On the privacy front, facial recognition software can trawl the internet for your face, turning privacy into a relic of the past.

By 2027, the AI sector could eat as much energy per year as the Netherlands; protesters from Oregon to Uruguay are targeting data centers that suck up drinking water from local reservoirs. Feverish to win the race to roll out ever-bigger generative AI models, Microsoft and Google have fallen well behind their carbon reduction goals, accelerating the threat of climate change.

AI's outputs are often disconnected from reality, with potentially dangerous consequences. Bing's Sydney chatbot told a New York Times reporter to leave his wife for her, while ChatGPT accused a law professor of sexual harrassment.

These confident-sounding fabrications, or "hallucinations" as they are sometimes misleadingly called, don't have to be deliberate disinformation to cause harm. Unscrupulous users can now generate low-quality news articles-several per minute-that can be hard to distinguish from human-written posts. Persistent exposure to AI-generated distortions may erode trust in authentic sources of information over time or simply bury them in a mountain of digital debris.

While Silicon Valley reaps the rewards of AI, the human cost is often hidden. Kenyons making $1 an hour are suffering emotional trauma while flagging detailed descriptions of murder, rape, and child sex abuse generated by chatbots. Meanwhile, in the Congo, children as young as seven are mining cobalt for our AI-powered devices.

In government, powerful AI companies might influence regulations in their favor, perpetuating inequality in the market. In education, the subscription costs of better large language models raise concerns about a new digital divide.

Generative AI often devolves to clichés when answering questions. Ask an image generator for a "doctor," and you'll likely get a middle-aged white man in a lab coat. Request an "African village," and it might depict mud huts and sunsets.

These outputs are not simply the result of biased data. At a deeper level, they reflect the probabalistic nature of large language models, which return the "average" result from a prompt. Nevertheless, by surfacing stereotypes rather than outliers, AI might favor dominant cultures and languages, leading to the erosion of cultural diversity.

In classrooms across the world, teachers grapple with AI-generated homework as students outsource their learning to chatbots. In the music world, services like Suno allow anyone to "create" songs without touching an instrument, potentially flooding streaming platforms with AI-generated tunes. These shortcuts threaten to replace genuine skill development and creative expression with shallow imitations that undermine personal growth.

Beyond the individual, human relationships may devolve as AI generates thank you notes, teen boys deep-fake nude images of their female classmates, and adults turn to AI partners for companionship instead of their flesh-and-blood peers.

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International Journal for Educational Integrity 19, Article number: 12 (2023) Cite this article

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Rationale

Artificial Intelligence (AI) tools are constantly being released into the public domain. As with all new technological innovations, this brings a range of opportunities and challenges for education: primarily for educators and learners. There is an increasing interest in the academic community and beyond to use Artificial Intelligence in Education (AIED) to generate content. This presents opportunities and challenges for academic and research integrity.

The European Network for Academic Integrity (ENAI) is an international association gathering educational institutions and individuals interested in maintaining and promoting academic integrity. As the use of AI tools may not always be consistent with academic integrity, we consider it important to familiarise all education stakeholders with how to use AI tools responsibly and in accordance with academic integrity practices and values.

ENAI presents a set of recommendations with the aim of supporting academics, researchers and other educational stakeholders, including students' organisations, on the ethical use of AI tools. The recommendations focus on the importance of equipping stakeholders with the skills and knowledge to use AI tools ethically and the need to develop and implement relevant educational policies addressing the opportunities and challenges posed by AIED.

Process

To create these recommendations, we used our experience and knowledge, both about AI, and academic integrity. The authors collectively drafted the main structure and main ideas of the recommendation. The draft was circulated to the ENAI working group members, most of whom provided valuable comments and suggestions. Then the authors incorporated the comments and prepared the final wording of the document.

The field of artificial intelligence is advancing fast, and the ways that it disrupts education are changing from one week to the next. We consider these recommendations as a working document, and we invite everyone to provide feedback. There will be a special session at the European Conference on Ethics and Integrity in Academia 2023 in Derby, UK, dedicated to this document.

Background and context

Academic integrity (AI) can be defined as "compliance with ethical and professional principles, standards, practices, and a consistent system of values that serves as guidance for making decisions and taking actions in education, research and scholarship" (Tauginienė et al. 2018, p. 8).

Artificial Intelligence refers to systems that appear to have "intelligent behaviour by analysing their environment and taking actions - with some degree of autonomy - to achieve specific goals" (European Commission, 2018, p. 4).

AI-based tools can be used to transform, produce or generate any kind of content, such as text, images, art, music, or programming code. Different technologies, including machine learning and neural networks, are used to develop the capabilities of these tools.

Authorised and declared usage of AI tools is usually acceptable. However, in an educational context, undeclared and/or unauthorised usage of AI tools to produce work for academic credit or progression (e.g. students' assignments, theses or dissertations) may be considered a form of academic misconduct ("any action or attempted action that undermines academic integrity and may result in an unfair academic advantage or disadvantage for any member of the academic community or wider society" (Tauginienė et al. 2018, p. 9). Moreover, it is increasingly challenging to reliably distinguish AI-generated content from human-produced content.

The wide accessibility of AI may exacerbate existing types of academic integrity threats, such as essay and paper mills, fabrication and falsification of data, etc.

Current definitions of misconduct, such as contract cheating and plagiarism, may not explicitly include this type of misconduct. Therefore, we propose an umbrella definition for all types of unauthorised content generation, including contract cheating and inappropriate use of AI:

Unauthorised content generation (UCG) is the production of academic work, in whole or part, for academic credit, progression or award, whether or not a payment or other favour is involved, using unapproved or undeclared human or technological assistance.

AIED can be used for unauthorised content generation; however, the use of AIED is not automatically unethical. There can be differences between academic disciplines, education institutions, courses, types of assessment, cultures, regions, and countries as to what is considered acceptable use of AI and what is not.

While AI can threaten academic integrity, it also presents opportunities. AI multiplies users' abilities - in both good and bad ways. Therefore, students and educators should be guided on the benefits and limitations of AI tools in order to learn and use AI ethically and uphold academic integrity. Moreover, with the increasing automatisation of modern societies, they will likely use AI tools in their professional life. Therefore, they should be given opportunities to learn these skills during their education.

Recommendations on the ethical use of AIED

All persons, sources, and tools that influence the ideas or generate the content should be properly acknowledged. Consequently, when an AI tool is used, it should be acknowledged. The acknowledgement may be done in different ways, according to the context, the institutional policies or other requirements. When possible, the input given to the AI tool should be specified.

Appropriate use of services, sources, and tools that only influence the form is generally acceptable (e.g. proofreaders, proofreading tools, spelling checkers, thesaurus).

An AI tool cannot be listed as a co-author in a publication as it cannot take responsibility for the content and findings reported. The person (human being or legal entity) is always accountable for the content, whether or not it was generated by AI (see COPE Guidelines for Authorship and AI by Levene 2023).

The outputs of AI tools can include biased, inaccurate, or incorrect content that users should be aware of. This may be caused by bias in training data, algorithms, filters, etc.

It is important to include information about AI in education for all students and in training for teachers. If students do not have the opportunity to learn about the ethical use of AI, they will be more susceptible to engaging in inappropriate use of AI, which may constitute academic misconduct.

Students should be included and educated on the following:

Teachers should receive training on ethical use of AI including development of relevant learning outcomes, learning activities, and assessment strategies.

National guidance and institutional-level policies should be developed and/or reframed to include AI. National guidance should provide overarching advice on what institutions should include in their policies.

Institutional policies should:

Define default rules on when and how the students, teachers, researchers and other educational stakeholders are allowed to use different kinds of AI tools. There should be space for specific rules at course level. The policy and the rules should be clearly communicated to all stakeholders.

Guide the users on how to correctly and transparently acknowledge the use of AI tools in an assignment, dissertation, thesis, paper, article, book chapter, computer programme, graphic, artwork and other types of artefact.

Summary statement

There is no doubt that AI brings significant change to education. As with any other technology, it extends and enhances human abilities and may be used both in a positive and a negative way. ENAI urges national policymakers, institutions, and all individual members of the academic community to seek ways on the ethical use of AI and share best practices in order to benefit from the opportunities that AI brings to education and science.

References

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Acknowledgements

We would like to acknowledge the contribution of the members of ENAI working groups, namely: Sue Hackett, Olumide Popoola, Debora Weber-Wulff, Teddi Fishman, Michael Draper, Shiva Sivasubramaniam, Lorna Waddington, Brenda Stoesz, Arash, Sandie Dann, Sarah Elaine Eaton, Salim Razi, Oraz Myradov.

Author information

Authors and Affiliations

1. Masaryk University, Brno, Czech Republic

Tomas Foltynek

2. Uppsala University, Uppsala, Sweden

Sonja Bjelobaba

3. Coventry University, Coventry, UK

Irene Glendinning

4. University of Wollongong in Dubai, Dubai, United Arab Emirates

Zeenath Reza Khan

5. European Network for Academic Integrity, Brno, Czech Republic

Rita Santos & Július Kravjar

6. European Students Union, Brussels, Belgium

Pegi Pavletic

Contributions

All the authors were included in the drafting of the document. The authors read and approved the final manuscript.

Corresponding author

Correspondence to Sonja Bjelobaba.

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Foltynek, T., Bjelobaba, S., Glendinning, I. et al. ENAI Recommendations on the ethical use of Artificial Intelligence in Education. Int J Educ Integr 19, 12 (2023). https://doi.org/10.1007/s40979-023-00133-4
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ENAI Recommendations on the ethical use of Artificial Intelligence in Education - International Journal for Educational Integrity

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Show authors International Journal for Educational Integrity 19, Article number: 12 (2023) Cite this article 14k Accesses 2 Citations 114 Altmetric Metrics Artificial Intelligence (AI) tools are constantly being released into the public domain. As with all new technological innovations, this brings a range of opportunities and challenges for education: primarily for educators and learners.

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Welcome to Jon Ippolito's home page.

Browse topics at upper left or choose themes from the cloud above.

Look for Jon Ippolito on:

Jon Ippolito is a footsoldier in the battle between network and hierarchic cultures. You can find out more about his work via the links at left.

A synopsis of Jon's background follows. You can also find images and bios of different lengths at the Still Water press page.

Jon Ippolito is an artist, writer, and curator who has made a career of pursuing endeavors for which he is drastically underqualified. Trained as an astrophysicist, he later turned to art (via dance, Wing Chun, and a number of other irrelevant disciplines).

technology and culture

After applying to what he thought was a position as a museum guard, Jon was hired in the curatorial department of the Guggenheim, where in 1993 he curated Virtual Reality: An Emerging Medium and subsequent exhibitions that explore the intersection of contemporary art and new media. In 2002 Jon joined the faculty of the University of Maine's New Media Department, where he co-founded Still Water with Joline Blais. His writing on the cultural and aesthetic implications of new media has appeared in the Washington Post, Art Journal, and numerous sleazy art magazines, including in a regular "Cross Talk" column for ArtByte magazine. The gory details can be found in his cv.

adversarial collaborations

While most artist collectives present their work as a "unified front," adversarial collaborators Janet Cohen, Keith Frank, and Jon have created installations, books, and Internet projects that emphasize physical, verbal, or mental struggles among the participants. The artists haggle, argue, and throw things at each other at their Web site three.org. Be forewarned, however, that many of the works there are on life support due to technological obsolescence; it's taking longer to rescue them than it took to make them in the first place.

conceptual and process art

Jon also has an abiding interest in the legacy for today's artists of the work of John Cage as well as conceptual practices of the 1960s and 1970s. His contributions to this subject include curating events for the New York presentation of Rolywholyover A Circus for museum by Cage. He is particularly interested in the parallel between digital art and Minimalist and Conceptual art, a parallel that led him to propose a new paradigm for preserving art called the Variable Media Network. See his cv for more on this topic.

plastic arts

Jon has exhibited, lectured on, and written about painting and other plastic media. You can find out more in--you guessed it--his cv.

Click here to view what is doubtless an out-of-date version of Jon's CV.

The Still Water press page includes biographies and images that you can use without permission.

You can reach Jon at ude.eniam@otiloppij. Note that this address may not work for email lists; please don't add me to any newsletters or lists without my permission.

Thanks!

In recent years, Jon has been publishing his texts with ThoughtMesh, which makes them easier to navigate and cross-link. You can find all his meshed essays and presentations here.

Select a title at left to read additional publications.

This book by Still Water co-founders Joline Blais and Jon Ippolito charts art's recent eruption in fields as diverse as artificial life, computer games, and community activism, revealing a seismic shift in the role it plays in society. No longer content to sit on a pedestal or auction block, these works infiltrate stock markets, sway court cases, and network bedrooms, reaching across the globe to expand the edge of art.

"A brilliantly designed, authoritative, and open-minded attempt to ground the slippery terrain of digital art"--ArtKrush.

Permanence Through Change: The Variable Media Approach (L'approche des médias variables: la permanence par le changement) is the first book to present a coherent strategy for tackling the thorny issues of accelerated technical obsolescence in the digital age. Co-published by the Langlois Foundation and the Guggenheim Museum and edited by Alain Depocas, Jon Ippolito, and Caitlin Jones, this bilingual resource guide presents viewpoints, methods and case studies concerning the preservation of art created with non-traditional materials, tools and technologies. It includes texts by such authors as Bruce Sterling, Steve Dietz, Jon Ippolito, John Handhardt, and Nancy Spector, as well as excerpts from the 2001 "Preserving the Immaterial" conference.

Download for free... or request a hard copy from me or from the Langlois Foundation.

The gravest threat to the cultural survival of new media art may very well be its wall label. Few manacles on creativity have been as ubiquitous. Employed by curators everywhere, the wall label, along with the catalogue caption, has been joined in the past few decades by a younger generation of digital descriptors, the collection management record and online citation. Together this typographical dynasty has conspired to reduce every artwork, from the street happening to the stick spiral, to a single artist, date, medium, dimension, and collection.

While the reductionism of the wall label enfeebles conceptual and single-performance art, it threatens to obliterate digital culture completely. For new media art can survive only by multiplying and mutating. From computer-based installations to video multicasts, digital collaborations are the rule rather than the exception, and a work often undergoes changes in personnel, equipment, and scale as it diffuses across new media festivals, exhibitions, and web sites. Like a shark, a new media artwork must keep moving to survive.

Read more about this in the full text...

New-media artists who want their works to persevere have two diametrically opposed choices: to cast their work in traditional genres like ink or bronze, or to trust code to survive by means of its executability.

This talk examines an emerging field in which the contrast between these two alternatives is greatest: so-called artificial life, the creation with a computer of organisms that exhibit lifelike behavior and parallel experiments with animate 'wetware.'

Now, it's not at all obvious how to preserve art whose medium is self-replicating computer programs or E. coli. But these slippery media serve as a litmus test for two critical questions: whether static or dynamic forms of preservation are most likely to safeguard the future of art; and whether museums are up to the challenge.

Read more about this in the full text...

"Don't Blame the Internet," Washington Post, September 29, 2001, p. A27.

At times during the past two weeks, faith in the benefits of electronic communication has been as badly damaged as the World Trade Center's once-proud structures. Depicting the Internet as a veiled, invisible force, some observers have insinuated that the World Trade Centers might still be standing had it not been for the global communications network that empowered the terrorists. In an otherwise reasoned essay in the September 13 New York Times, Thomas L. Friedman wrote of terrorists "superempowered" by "their genius at using the networked world [and] the Internet." Even online insider Wired News, in a Sept. 20 headline that read "The Internet's Fingerprints Are All over Last Week's Attack," metaphorically personified the Internet as Osama bin Laden's partner in crime. According to these reports of an "online Jihad," real-world structures, and the many lives within, were undermined by information architecture.

Yet a closer look at the early evidence suggests that the cyber-terrorists were no more hacker geniuses than the average American college student...
Read more about this in the full text.
Cross Talk

Artbyte (New York) 3, no. 1 (May-June 2000), pp. 22-23

Whatever happened to the gift economy?

Last November, when the online retailer eToys.com sued the artist-run Web site etoy.com for trademark infringement, all I could think of was John's WordPerfect macros. Back in the days when I logged onto the Internet with my trusty 2400 bps modem, John's WordPerfect macros cropped up in all sorts of Web sites and Usenet groups, where they always came free of banner ads, usage fees, or any other quid-pro-quos. They were just there for the taking, and if "John" got anything back for distributing them so widely, it was something intangible like public prestige or personal satisfaction. In other words, John's WordPerfect macros were a gift.

When I hear people like Vint Cerf claim that "We all know the Internet didn't explode until it became a commercial enterprise" (Wired 8.01), it makes me wonder whether they are unintentionally or deliberately forgetting the gift economy that nurtured the early Internet. In 1973, when Cerf was working on the TCP/IP protocol that currently underlies all online transactions, his paycheck came not from some forward-thinking corporation but from the Defense Advance Research Project Administration, whose DARPAnet was the forerunner of today's Internet. Building on this taxpayer-funded infrastructure, the scientists and programmers who really "exploded" the Internet e-mailed ideas and FTP'd freeware into the ether without expecting an immediate payback. MUDs and MOOs, open source projects, and copylefted software each offered a different paradigm for online collaboration. When newbies like me saw so much free advice and software available online, we felt encouraged--sometimes even obligated--to contribute some of our own. As the code-sharing community snowballed, corporations added their own contributions to this economy: Netscape wrote JavaScript, Microsoft refined DHTML, and Macromedia brought us Shockwave. Aside from these enhancements, however, the primary effect of the growing corporate infatuation with the Internet has been banner ads, junk e-mail, online shopping carts--and trademark litigation...

Read more about this in the full text.

Cross Talk

Artbyte (New York) 2, no. 6 (March-April 2000), pp. 24-25.

Does the art world really "get" the Internet?

To thumb through the pages of this magazine, you'd think that the art world was especially hip to Internet culture. It's true that artists were among the first to colonize cyberspace; in 1995 8% of Web sites were produced by artists, and this growing cyber-avant-garde has remained at the leading edge ever since. Unfortunately, there's a big gap between Internet art afficionados and their offline brethren. Pick up the January 2000 issue of ArtNews and you'll find a 15-page cover article on art in cyberspace--without a single mention of art made for the Internet. For the typical artist, curator, or collector, "online art" means the scanned-in oil paintings hawked at NextMonet or Sothebys.com. I suppose that's no worse than the editors of Time magazine on the eve of the millennium choosing an online book retailer as Man of the Year--but then again that's like saluting Henry Ford because he found a more efficient way to deliver buggy whips...

It's tempting to blame this technological myopia on studio and art history degree programs for not including electronic media in their curricula. But a lot of artists using electronic media don't "get" the Internet either. Most of the video and computer-driven installations in museums these days employ expensive projectors and top-of-the-line computers to surround the viewer with sublime vistas or dazzling effects. Online artists, on the other hand, cannot possibly aspire to the sensory immersion of cinema or the processing power of Silicon Graphics, because their work has to squeeze through the 14.4 kbs modem of a dairy farmer sitting at his 386 in Iowa City. Sure, Bill Gates claims we'll all soon have wall-sized Internet projections and T1s in our living rooms--but until we do, the constraint on bandwidth can actually work to the advantage of Internet artists, encouraging them to strive for distributed content rather than linear narrative and for conceptual elegance rather than theatrical overkill. Making successful art for the Internet isn't just a matter of learning the right tools, but also of learning the right attitude...

Read more about this in the full text.

Cross Talk

Artbyte (New York) 2, no. 5 (January-February 2000), pp. 28-29

Should some code be censored?

KNOWLEDGE SHOULD BE ADVANCED AT ALL COSTS

--Jenny Holzer, Truisms

Pressures to "clean up" the Internet have receded from the public eye lately, displaced by Bill Clinton's post-Littleton call for video game manufacturers to cut back on virtual decapitations and Rudolph Giuliani's jihad against risquÈ religious paintings at the Brooklyn Museum. There is even some evidence that the pendulum of public policy regarding the Internet may be swinging back in the direction of unfettered access, as suggested by the New York City school system's apologetic response to criticism that its family filter hindered student research. But if the clamor for overt, %de jure% Internet censorship is dying down, a tacit, %de facto% censorship seems to be quietly taking its place. Now that more and more of the Web is being shaped by a corporate bottom line instead of government-sponsored research, the academic model of freely exchanged information is giving way to a mercenary calculation of potential gains and losses. What if visitors follow one of your links to another site, are upset by what they find there, and sue you for directing them, intentionally or not, towards offensive or illegal material? If you're not getting paid to link to someone else's site, lawyers argue, why run the risk?

It's not hard to imagine similar threats of litigation aimed at online art. The Web site mockeries and misdirections perpetrated by Heath Bunting, (r)(tm)ark [NOTE: Registered symbol followed by Trademark symbol], and other online pranksters have already kept a few corporate lawyers employed writing cease-and-desist letters. Mattel told artist Mark Napier he was personally liable when he displayed distorted images of Barbie on his Web site. Of course, these interventions represent political stances that the artists themselves have chosen, and hence are candidates for free-speech protection. But other online artworks take a special risk that could only arise in a programmable language like cgi or Javascript--a liability that is not personal, but algorithmic...

Read more about this in the full text.

Artbyte (New York) 2, no. 3 (September-October 1999), pp. 28-29

Whatever happened to the scary cyborg?

Back in 1985, when James Cameron's original Terminator drove through police stations and shot up night clubs, Donna Haraway proclaimed that the figure of the cyborg would destabilize our stereotype-ridden culture. Now, Star Trek's Seven of Nine is taking dancing lessons and going on dates, yet new media theorists who still parrot Haraway's assertion seem not to have noticed how easily the cyborg has been co-opted by old media. Contemporary movies, TV, and comic books portray cyborgs as efficient, strong, reticent, good with firearms, and willing to risk their lives to get the job done. The human protagonists of these action and science-fiction genres, by contrast, are efficient, strong, reticent, good with firearms, and willing to risk their lives to get the job done. So much for subverting stereotypes.

Truth, however, can be stranger than fiction. In November of 1995, Leonard Adleman of the University of Southern California in Los Angeles published a paper in the journal Science that documented a truly disturbing hybrid of the organic and the artificial. Adleman's cyborg bore little resemblence to terminators or borgs: it had no arms, legs, head, skin, or personality, but neither did it have silicon chips or a metal endo- or exoskeleton. It didn't even have a solid form. Adleman's cyborg was simply a few drops of DNA in a test tube. But Adleman's DNA could compute.

Read more about this in the full text.

Cross Talk

Artbyte (New York) 2, no. 1 (April-May 1999), pp. 22-23

Deconstruction or Distraction?

Cascading sheets of green ASCII text over a black screen, flashing 404 error messages, proliferating form buttons and text boxes--this is what awaits the unsuspecting first-time visitor to jodi.org, perhaps the single best-known artist Web site today. The brainchild of "net.art" charter members Joan Heemskerk and Dirk Paesmans, jodi strip away the reassuring navigation bars and identifiable pictograms of the everyday Web site to let loose the HTML behind the facade. Feel free to click on what looks like a help button, but don't be surprised if your browser *shows* you the code for that button instead of executing it. Feel free to vent your frustration in a text box on the site, but don't be surprised if jodi's code pounces on your sentence, eats the vowels, and spits a skeleton of consonants back in your face. With its indeciferable interface, unpredictable sequences of links, and simulated error messages, jodi.org is a theme park of computer misbehavior. "Deconstruction or distraction?" is actually the second question viewers are likely to ask themselves once they visit jodi.org. The first is, "Has my computer just crashed?"

But the question of meaning lingers. Is there anything to be learned from these HTML hijinks? What does jodi's blinking HTML mean that the same code working behind the scenes on another Web site doesn't? For now let's leave aside the question of whether the programming itself is an art form, and concentrate instead on jodi's peculiar habit of unleashing that programming from its typical function. In the extreme form, this can mean merely quoting the raw code itself. In such cases it's important to remember that a viewer is most likely to find out about jodi.org not at a site designed to teach HTML, but at such online art resources like Rhizome or Nettime. By exposing naked <HEADER> and <BOLD> tags in an art arena, jodi appear to be displaying the electronic equivalents of Duchamp's bicycle wheel and urinal: readymade mechanisms transformed into art by context.

Read more about this in the full text.

Cross Talk

Artbyte (New York) 1, no. 5 (December 1998-January 1999), pp. 16-17

Is cyberspace really a space?

"Case had the strange impression of being in the pilot's seat in a small plane....Headlong motion through walls of emerald green, milky jade, the sensation of speed beyond anything he'd known before in cyberspace....The Tessier-Ashpool ice shattered, peeling away from the Chinese program's thrust....

"'Christ,' Case said, awestruck, as Kuang twisted and banked above the horizonless fields of the Tessier-Ashpool cores, an endless neon cityscape...."

This account of crashing a code-breaking black capsule through an icy firewall to enter a virtual landscape, which we owe to William Gibson's 1984 novel Neuromancer, became the definitive evocation of cyberspace for a generation of virtual reality enthusiasts. Yet Gibson's description of cyberspace sounds more like the Batplane crashing into Mr. Freeze's headquarters than a nerd hacking into a computer network. Why did Gibson dramatize hacking in such blatantly spatial terms, and why has his spatial metaphor been so influential to the engineers and artists who are actually building cyberspace?

Read more about this in the full text.

Cross Talk

Artbyte (New York) 1, no. 4 (October-November 1998), pp. 16-17

What does cyberspace look like?

Anyone who's been to a Web page knows what the Internet looks like from the point of view of an individual browser. Having given up waiting for the vertiginous three-dimensional datascapes imagined by William Gibson and promised by vrml, most surfers have resigned themselves, at least in the short term, to the beveled toolbars and scrolling pages of Netscape and Explorer. Here, though, I want to ask not what we now see as end users when we peer into our monitors, laptops, and cell phones, but what we would see if we tried to visualize the space between these peripherals. How would we draw a map of cyberspace?

The question is not just an exercise in visualization. Despite its etymological origin--the Greek word %kyberos%, meaning "helmsman"--cyberspace still leaves many visitors feeling adrift without landmarks to steer by. Orienting ourselves to an increasingly virtual world may be the first step in determining whether technology is empowering or manipulating us. As early as 1984, the neo-Marxist critic Fredric Jameson called for "cognitive maps" to remedy the disorienting effects of a global communications network controlled by multinational corporations.

Read more about this in the full text.

Cross Talk

Artbyte (New York) 1, no. 3 (August-September 1998), pp. 19-21

Intellectual Property or Intellectual Paucity?

Last June the Getty Conservation Institute invited me to speak at one of those UNESCO conferences with incredibly ponderous titles, in this case the "World Conference on the Implementation of the Recommendation Concerning the Status of the Artist." Included in my conference packet was a document recommending a system that would guarantee artists "exclusive rights" to ensure that they "maintain control" of their work. As the bureaucrats who drafted this document admit, guaranteeing these rights won't be easy in the digital age. Fretting about "any distortion, mutilation, or other modification" of an artist's work that might be "prejudicial to his honour or reputation," they ask

How should the author's paternity right (the right to authorship, the right to the name) be safeguarded in a digital environment when his works may be subjected to substantial transformation or manipulation of their contents? [Emphasis in original]

The bureaucrats are right to fret. To insist on this patriarchal model of authorship based on cultural paternity is not only to perpetuate an outmoded economy in the digital realm. It is also to guarantee that digital art will never amount to more than a pale reflection of painting and sculpture. The author's rights that protect blocks of marble and oil-smeared canvases will prove impossible to enforce for all but the most conservative forms of digital art--bitmapped collages, scanned-in paintings, and the like--and even for those conservative forms it is only established artists and middlemen who will profit...

Read more about this in the full text.

Given: The Universe. Shown: Every Artwork.

Essay for Deep Storage, Haus der Kunst, Munich, Ingrid Schaffner and Matthias Winzen, curators, 1997.

The universe (which others call the Library) is composed of an indefinite, perhaps an infinite, number of hexagonal galleries, with enormous ventilation shafts in the middle, encircled by low railings. From any hexagon the upper or lower stories are visible, interminably. The distribution of the galleries is invariable. Twenty shelves--five long shelves per side--cover all sides except two. One of the free sides gives upon a narrow entranceway, which leads to another gallery, identical to the first and to all the others.1 ...[I]ts shelves contain all the possible combinations of the twenty-odd orthographic symbols (whose number, though vast, is not infinite); that is, everything which can be expressed, in all languages. Everything is there: the minute history of the future, the autobiographies of the archangels, the faithful catalogue of the Library, thousands and thousands of false catalogues, a demonstration of the fallacy of these catalogues, a demonstration of the fallacy of the true catalogue, the Gnostic gospel of Basilides, the commentary on this gospel, the commentary on the commentary of this gospel, the veridical account of your death, a version of each book in all languages, the interpolations of every book in all books.2

--Jorge Luis Borges, "The Library of Babel," 1941.

If Borge's mythical library contains every possible book, the World Wide Web often seems to contain every possible page. 3 While the Web does not literally encompass every possible combination of words and images, it has grown to such unmanageable proportions that it often feels that way. To make matters worse, there is no Editor-in-Chief of the Web, no silver-throated museum director's accoustiguide to steer the uninitiated toward the Rembrandts and Flauberts and away from the scanned-in dog photos and uploaded jello recipes. Not surprisingly, the incoherent and bad artworks encountered in most Web surfs far outnumber the good ones: instead of an embarrassment of riches, you are left with simply an embarrassment. Without an editor or curator as intermediary, how do you cull the good stuff from the bad? What are the selection criteria?

Read more about this in the full text.

Looking for art in all the wrong places, co-written with Joline Blais, was published for Ars Electronica 2001, TAKEOVER: Who's doing the art of tomorrow?

The Art of Misuse, in Telematic Connections: The Virtual Embrace, CD-ROM and Web site co-published by Independent Curators International and the Walker Art Center. Exhibition traveled to San Francisco Art Institute, February 7-March 24, 2001; Alyce de Roulet Williamson Gallery, Art Center College of Design, Pasadena, May 13-July 1; Austin Museum of Art, July 20-September 18; and other venues through 2002.

Where Has All the Uncertainty Gone? in Flash Art International (Milan/New York) 29, no. 189 (July-August 1996), pp. 83, 85-87.

What caused the increased prominence of "pure information" as artistic material in the mid-1990s? This essay argues it stems from a misunderstanding of the legacy of conceptual art, tied to anxiety about the rising influence of technology.

An Open Letter on Dot-Museum (with introduction by Robert Atkins), in Mediachannel.

Whose Opera Is It, Anyway? review of Tod Machover's Brain Opera in Postmodern Culture 7, no. 1 (September 1996).

(Appeared in Rhizome.org in April 2002.)

"Where there is no gift there is no art." -Lewis Hyde

Artists have been both instigators and beneficiaries of the digital revolution. But the delicate ecology that sustains that revolution is at risk of being overwhelmed by the business of art. In the war brewing over creativity in the digital age, artists are going to have to choose a side-and a lot rides on their decision.

The entrepreneurs have been waiting at the gate for some time now, perhaps fueled by journalists' obsession with how much a Web site should cost.1 Until recently, the brick-and-mortar art world had little economic incentive to take its online counterpart seriously. But now that a critical mass of museums has taken the plunge and commissioned artists' Web projects, the more adventurous dealers are testing the waters, wondering whether they should cast in a hook to see if any forward-thinking collectors would take the bait. Some artists- especially those who already have a beachhead in the art market-are delighted at this prospect. But exchange economies tend to steamroll gift economies; if the art market does take root in cyberspace, we have to make absolutely sure that it doesn't overrun the precarious ecosystem that gave rise to the rich global community we call digital art. For property, intellectual or personal, is the enemy of art.

This essay offers neither a Marxist attack on personal property nor a rosy vision of George Bush writing artists a fat check every year. It is simply an acknowledgment of the fact that a gift culture dies if people stop giving. Making art into property helps plenty of folks-even a few artists. The problem is, it cripples artists more than it helps them, by covertly impeding their power to create, to get paid, even to give...

Read more about this in the full text.

Who Controls New Media: Open Art in Closed Systems was a panel discussion at the Solomon R. Guggenheim Museum on March 21, 2002 co-organized by the Goethe-Institut Inter Nationes New York.

In the 1960s artists and technologists independently laid the groundwork for two parallel forms of democratic expression: the "open artwork" characterized by viewer participation, and a global Internet where ideas and images could be freely circulated. Four decades later, the expansion of copyright has raised questions of public use, interactivity has become a marketing buzzword, and national security and freedom of expression appear unreconcilable.

"Who Controls New Media" examines the historical roots of this shift, from Bertold Brecht's emancipatory theory of radio in the 1920s to Nam June Paik's Participation TV in the 1960s to the rise of Internet art in the 1990s. Following this analysis the participants present a number of contemporary attempts to reassert open protocols in what many artists see as an increasingly closed society. The discussion is punctuated by audiovisual documentation of artwork from such historical figures as John Cage as well as cutting-edge artworks from today's Internet.

Click to view the Webcast archived on the Web site for the Berkman Center for Internet & Society at Harvard University.

Click a link at left to learn more about Jon's projects and collaborations.

Artists who abandon brush and chisel for mouse and keyboard often at the same time abandon the romantic notion of the solitary genius toiling awayin a studio. Such artists turn to collaborators for help, partly because digital media automatically lend themselves to group communication, but also because the technical skills necessary to master them aren't taughti n art schools. Given that all online artworks are linked, however circuitously, to each other, the Web is in a sense one big collaborative effort. Unfortunately, most artistic collaborations, online or off, result in exploitation or mush. Many combined efforts go unacknowledged; designers and programmers make a lot of the decisions, but "content providers" get all the credit. Other collaborations, especially those based on the "multimedia" model, crowd artists, musicians, writers, and programmers behind a single domain name in the hopes that grooving to a group mindset will produce an artistic result beyond the sum of its parts. Perhaps not surprisingly, the result of combining a mediocre, vaguely related parts is usually a mediocre, vaguely incoherent whole. What, then, are the collaborative alternatives to exploitation and mush?

The adversarial collaborations of Janet Cohen, Keith Frank, and Jon Ippolito provide one answer. This site is devoted to foregrounding, rather than concealing, the conflicts between different points of view. In some projects, the conflict in question is directly among the three artists. _Agree To Disagree Online_ (http://www.three.org/agree/atd-f.html), for example, is an interactive map of an argument among the three artists that begins when one of them makes thestatement, "In the future, books will be replaced by maps." As each of the participants replies in turn, their statements are plotted according to how much agreement they garner from the other two: inflammatory statements remain on the periphery, while the center represents consensus. Visitors to the project can control the pace and level of detail of the argument as well as choose to follow digressions made to different topics.

More recent adversarial collaborators have included writer Joline Blais and net artist Alex Galloway. You can find some of their past work at three.org, but much of the site is under renovation in an attempt to rescue these artworks from technological obsolescence.

Still Water, a New Media lab at the University of Maine at Orono, was founded in 2002 by Joline Blais and Jon Ippolito to promote network art and culture. Although the program's title derives from the name of a river that flows alongside the physical facility, "still water" also connotes the values electronic and cultural networks need to thrive.

These include transparency, open access to ideas and code; variability, the capacity to morph into new configurations as the need arises; and stillness, a rare quality in today's frenetic culture but one demanded by any creative endeavor. Still Water is not a center--for a successful network has none--but a medium primed for the transmission of multiple waves of culture.

The Variable Media Network pairs artists with museum and media consultants to provoke comparison of artworks created in ephemeral mediums. The initiative aims to define each of these case studies in terms of medium-independent behaviors and to identify artist-approved strategies for preserving artwork with the help of an interactive questionnaire.

The Network has organized many research projects on ephemeral culture, including the landmark exhibition Seeing Double: Emulation As a Preservation Strategy.

Interarchive was a project to change the paradigm of online scholarship by distributing the way research is published and cited across the entire Web. Although its initial focus was the media arts, Interarchive proposes an emergent approach to acquiring and recognizing influence that might be applied to any networked environment, whether the instruments of influence are academic papers or digital art.

The results of the Interarchive working groups include:

New Criteria for New Media

A collaborative proposal for new standards of recognition to reflect the way new media have changed exhibition and scholarship.

RePaik

A now-defunct but unusual approach to aggregating and evaluating the legacy of new media artist Nam June Paik based on John Bell's Reposte software.

ThoughtMesh

A collaborative system of distributed scholarly connections co-developed with Craig Dietrich of the USC/Annenberg Center's Vectors Program.

The goal of the New Media Community Portal, custom-built with John Bell at the University of Maine, was to create a site for both departmental information and community news and discussion, held together by a design that is fresh, customizable, low-maintenance, and atomistic. New Media Majors and other community members can contribute stories or comments, as well as set preferences for the types of news they wish to view.

The MARCEL project, formed by a group of international experts from art, science and industry under the general direction of Don Foresta (Fine Arts School of Wimbledon (UK), Fine Arts School of Cergy (FR)), provides a portal site for art, science, and industry. Recognizing the need for collaboration between artists, artistic establishments and the public and private sectors in building a permanent high band-width network for artistic experimentation, MARCEL has involved ASAP to help build a portal site for organizing and coordinating a permanent art and cultural network. To further high-bandwidth experiments, the Still Water lab has purchased and installed additional equipment for Internet 2, with proposed persistent connection to the Collaborative Media Lab.

Still Water and ASAP have collaborated on numerous international MARCEL events, helping to connect artists and scientists from Montreal to Prague.

Still Water is collaborating with legal experts from a number of Maine programs to launch an ambitious program for overhauling the way universities handle intellectual property, from returning the default copyright for university work back to students and faculty, to the development of open access guidelines for tenure.

The Maine Intellectual Commons Web site includes up-to-date information on the progress toward these initiatives as well as archives from the University of Maine's 2004 Conference on the Intellectual Commons, featuring MIT's Hal Abelson, Creative Commons' Neeru Paharia, and SPARC's Peter Suber.

The goal of this broad-reaching initiative is to establish standards for creative and scholarly research that contribute to a culture of sharing rather than hoarding. More...

Founded in 2003, the Open Art Network is the first project to originate at Still Water itself. The Open Art Network aims to empower artists working in digital formats by devising and promoting standards that encourage an open architecture for the Internet and digital media.

Funded by a generous grant from the Rockefeller Foundation, the Open Art Network already includes projects by a half-dozen artists, including jodi, Mark Napier, and Mark Daggett, with more projects in the pipeline.

The Open Art Network is also taking the lead in developing new forms of partnership and open license that mandates access to the source media for digital art.

The Pool is a collaborative online environment for creating art, code, and texts. In place of the single-artist, single-artwork paradigm favored by the overwhelming majority of documentation systems, The Pool stimulates collaboration in a variety of forms, including multi-author, asynchronous, and cross-medium projects.

Founded on the presumption that democratic principles are served by democratic ends, the collaborative Web site U-Me Vote originally created for the 2004 American election enabled potential voters to inform themselves and to inform others about trenchant issues affecting the University of Maine community and its neighbors. The 2006 version has been updated to include new Wiki features and up-to-date issues and candidates.

Mind Sets, an exhibition proposal for the Guggenheim museum, attempts to create a miniature Internet--a glimpse behind the computer screen at the vertiginous matrix of information that holds our society together. The exhibition design, by the New York-based architecture firm LOT/EK, fills Frank Lloyd Wright's rotunda with a metal lattice, allowing visitors for the first time in the building's history to walk out into the cavernous interior.

The selection and placement of the projects on view would be determined by visitors' choices rather than by a predetermined curatorial agenda.

ThoughtMesh is an unusual model for publishing and discovering scholarly papers online. Created by Jon Ippolito and Craig Dietrich, it gives readers a tag-based navigation system that uses keywords to connect excerpts of essays published on different Web sites.

Add your essay to the mesh, and ThoughtMesh gives you a traditional navigation menu plus a tag cloud that enables nonlinear access to text excerpts. You can navigate across excerpts both within the original essay and from related essays distributed across the mesh.

So let's say you are reading an essay on Modern art. You can pick a single word out of that essay's tag cloud--say Picasso--and view a list of all the sections from that essay that relate to Picasso. Or you can view a list of sections of other articles tagged with Picasso, and jump right to one of those sections. You can also combine tags to narrow your search, such as Picasso + Cubism + 1900.

As an author, you can choose to post your essay in a central repository hosted by the Vectors program at USC, the sponsor of this project. Or you can self-archive your essay on your own Web site. (That's the "distributed publication" part.)

Choose a link at left to read interviews of Jon or see news and videos of his presentations.

Interview by Karen Verschooren, " Internet art, net art, and networked art in relation," MIT (Cambridge) (October 2006).

"Artificial Life and Natural Death," discussion with Stewart Brand and Kevin Kelly, New Media and Social Memory, University of California, Berkeley, January 18, 2007. View Webcast.

Interview by Dominico Quaranta, " Leaping into the abyss and resurfacing with a pearl," Noema (Ravenna, Italy) (November 2005). Mirrored on nettime on 19 November 2005.

"How to Hack Copyright for Fun and Profit," Open Source Culture Lecture Series, Columbia University, New York, December 2, 2004. View Webcast.

"Creators and the Commons: Why and How To Share" at Conference on the Intellectual Commons, University of Maine, November 20, 2004. View Webcast

Interview by Liisa Ogburn, "What's Your Story: Jon Ippolito," Eatthesewords.com, October 2, 2001. View archived pdf.

You can find a list of upcoming presentations related to At the Edge of Art by Joline Blais and Jon Ippolito here.

Online link aggregators offer the most up-to-date way to keep up with an individual's research. Choose a link at left to learn more about Jon's work via one of these resources.

You can find Jon's syllabi and other educational resources here.

This option is not yet available.

Here are the themes of Web pages that have caught Jon's eye recently, aggregated via his :

Here's Jon's recent Pool activity. LINK TO COME.

Here's Jon's recent activity on the U-Me New Media site. LINK TO COME.

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The home page for artist, author, and curator Jon Ippolito

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Tweets by charleswlogan

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MagicSchool.ai - AI for teachers - lesson planning and more!

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Join over a million teachers saving hours of time using the #1 AI Platform for Education, MagicSchool, to help lesson plan, differentiate, write assessments, write IEPs, communicate clearly, and more!

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Brisk Teaching is the #1 AI-powered Chrome extension , helping you automate your workload without adding to it.

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Provide Instant AI-Powered Personalized Feedback

Give personalized feedback and ensure high-quality feedback on every assignment, from the first to the last. Brisk's four feedback styles - Targeted Comments, Glow & Grow praises, Rubric Criteria, and actionable Next Steps - simplify your feedback routine.

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Say goodbye to the endless challenge of crafting engaging and relevant instructional materials. With just a few clicks, you can quickly generate rigorous quizzes, comprehensive lesson plans, detailed rubrics, captivating presentations, effective interventions, and much more, streamlining your preparation process.

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We've taken AI detection to the next level. With the 'Replay' feature, you can see exactly how your students put together their assignments, with a video of their whole process from beginning to end.

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Ensure every student can access classroom materials. With just a few clicks, instantly convert any online text into a Google Doc that's either simplified for different reading levels and/or translated into another language.

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Brisk is a free AI-powered Chrome extension that helps busy teachers save time directly within the tools they already use, like Google Docs, Slides, YouTube, and web articles. Quickly create instructional materials, share feedback, evaluate student writing, and adjust or translate texts - all without leaving your current workspace. With Brisk, the days of toggling between apps are over, freeing up more time for what you love: teaching.

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Leave feedback for students in four ways: ✨ Glows & Grows, 🎯 Targeted, 📏 Rubric Criteria, and 🪜 Next Steps.
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Inspect writing to understand the evolution of student work

Wondering how students revised their work? With Brisk you can watch a step-by-step playback of your students' revision history, including their copy and paste actions.

Brisk also leverages a cutting-edge AI-detection model to estimate the likelihood of AI writing. This gives you a starting point to facilitate conversations around academic honesty and dishonesty.
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Have you encountered a resource that doesn't match your classroom's reading level? Brisk takes content from any Google doc, article, or website and converts the material into a document that is suitable and leveled for your students. Brisk will simplify complex ideas, shorten lengthy sentences, adjust the word choice, and so much more.

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Brisk is a free AI-powered Chrome extension that helps busy teachers save time directly within the tools they already use, like Google Docs, Slides, YouTube, and web articles. Teachers use Brisk as a Targeted Feedback Generator, AI Presentation Maker, AI Quiz Maker, AI Lesson Plan Generator, AI Rubric Generator, Letter of Recommendation Generator, IEP 504 Template Maker, and so much more.

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Meet Khanmigo: Khan Academy’s AI-powered teaching assistant & tutor

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Khanmigo, built by nonprofit Khan Academy, is a top-rated AI for education. Save time on prep, tackle homework challenges, and get personalized tutoring.

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‎Gemini - chat to supercharge your ideas

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Bard is now Gemini. Get help with writing, planning, learning, and more from Google AI.

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2023 AI, Digital Literacy, & Ethics Educators' Summit

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2023 AI, Digital Literacy, & Ethics Educators' Summit

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AI, Digital Literacy, & Ethics Educators' Summit June 2023 shareable

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SchoolAI gives educators the time, data, and tools to design a better, more personalized classroom experience. Free for teachers. Create. Personalize. Engage.

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Policy Insights: AI and Digital Inequities (NORRAG)

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Policy Insights: AI and Digital Inequities (NORRAG)

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Policy Insights: AI and Digital Inequities

AI in society is not a binary on/off. But the question of how can we prevent AI from reflecting and reinforcing existing inequities must be answered. This collection brings together 29 authors from 5 continents who provide key takeaways for decision makers, educators and students seeking to support more equitable and ethical design and deployment of AI in education across the full gamut of ethical concerns. The authors in this collection foreground the ethical challenges that arise with regards to AI use in education whether as a private, public or common good, and invite you to put human and planetary flourishing at the heart of AI decision making, development and deployment.

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Policy Insights - AI and Digital Inequities

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Policy Insights: AI and Digital Inequities AI in society is not a binary on/off. But the question of how can we prevent AI from reflecting...

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Check out this link for more policies.

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access link at https://www.monash.edu/learning-teaching/teachhq/Teaching-practices/artificial-intelligence/ai-and-assessment

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University of Melbourne: Designing assessment tasks that are less vulnerable to AI

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University of Melbourne: Designing assessment tasks that are less vulnerable to AI

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The growing accessibility and capability of generative AI platforms that can rapidly produce text, images, or other content in response to simple user prompts (e.g., ChatGPT, DALL-E, etc) pose a new and significant threat to assessment integrity. As such, many academics are wondering how they can redesign assessment to reduce academic misconduct. In response to these concerns, this page features guidance, practical strategies, case studies, and resources about good assessment practices that can enhance student learning while also reducing the risk of academic misconduct.

Seven practical strategies for improving assessment design and integrity

While there are various strategies to improve assessment design in your subject, we focus on seven key strategies below. While we provide examples of how to implement these strategies, how suitable a particular strategy is will depend on your teaching context, including the nature of your subject, year level of students and class size, among other considerations. We also acknowledge that redesigning assessments is not without its own challenges, especially in relation to workload and resourcing.

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Designing assessment tasks that are less vulnerable to AI

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Designing assessment tasks that are less vulnerable to AI

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Poe lets you ask questions, get instant answers, and have back-and-forth conversations with AI. Gives access to GPT-4, gpt-3.5-turbo, Claude from Anthropic, and a variety of other bots.

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INTRODUCTION

Artificial intelligence is creating a new world order

Over the last few years, an increasing number of scholars have argued that the impact of AI is repeating the patterns of colonial history. European colonialism, they say, was characterized by the violent capture of land, extraction of resources, and exploitation of people-for example, through slavery-for the economic enrichment of the conquering country. While it would diminish the depth of past traumas to say the AI industry is repeating this violence today, it is now using other, more insidious means to enrich the wealthy and powerful at the great expense of the poor.

Read the full introduction.

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An MIT Technology Review Series: AI Colonialism

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INTRODUCTION Over the last few years, an increasing number of scholars have argued that the impact of AI is repeating the patterns of colonial history. European colonialism, they say, was characterized by the violent capture of land, extraction of resources, and exploitation of people-for example, through slavery-for the economic enrichment of the conquering country.

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Jane Rosenzweig: Four Rules for Writing in the Age of AI

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Jane Rosenzweig: Four Rules for Writing in the Age of AI

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2023 was quite a year to be a writing teacher. Pre-ChatGPT, there wasn't much demand for writing instructor pundits, so it was unusual for me to kick off 2023 with an interview on CBS Sunday Morning. In that interview, I made the case that I have continued to make throughout the year-that because writing is a way of figuring out what we think, we should think twice before outsourcing that process to generative AI. In the year that followed, I've had the opportunity to talk and write more about writing and thinking and chatbots than I could ever have anticipated. Along the way, I've learned so much about generative AI and about the possible futures we're facing. I'm so grateful to have encountered so many thoughtful people who are also writing and thinking about AI. (I've included a short list of people to follow/read at the bottom of this post.)

There's much we don't know about what lies ahead. But what we do know is that the option to use AI in our writing will soon be everywhere-for email, for word processing, for social media.

With that in mind, I'd like to offer my "rules" for thinking about writing in 2024.
Rule #1: Understand how LLMs work.
This fall, I taught a writing course called "To What Problem is ChatGPT the Solution?" For their first assignment, I asked my students to explain how LLMs work to an audience of their choice. It seemed logical to me that before they could grapple with both practical and ethical questions about generative AI, they should understand how it works. After that assignment, I could see a difference in how discussions unfolded; they were more critical, more skeptical, and more knowledgeable. Some of them changed their minds about whether they would want to use generative AI in their writing; others changed their minds about when they thought they would use it.

While you may never have felt the need to do a deep dive into how spellcheck works before using it, this is different. If you're thinking about outsourcing your writing or editing to generative AI, you should understand what's happening when you do-and what we don't know as well as what we do know. My students started their explorations of how LLMs work with this article by Timothy B. Lee and Sean Trott. For a brief overview, I also recommend this piece that the Financial Times published in September. If you're going to use AI tools, you should also understand the problems of bias and hallucination in these systems. I highly recommend reading this article for a deep dive into how these systems work. You can also read a quick overview about hallucinations here. Here's a Times article about some of the researchers looking at bias in AI.
Rule #2: Recognize when writing is thinking.
In my brief time as a writing-teacher-pundit, I've spent a lot of time arguing that we figure out what we think through writing. Writing is not the only way we figure out what we think, of course. But writing is an important way of thinking through a problem or question or idea. And writing multiple drafts can help us sharpen our ideas and understanding.

I've seen this happen so many times in my classroom over the past 20 years. It happened this fall as my students wrote about generative AI. (It's happening to me as I write this newsletter!) I often see my students write themselves to a really interesting idea in the conclusion of a draft-and I always advise writers to look at their conclusion for a more interesting, clearer version of their main ideas.

With that in mind, here's my rule for 2024: Before you use generative AI to write that first draft, or that revision, or anything in between, make sure you know what you might be missing by not doing the writing yourself.
Rule #3: Use Writing Feedback Carefully
I've been asked a lot this year about whether it's a good idea to use a chatbot for writing feedback. I've talked to a number of people who have found chatbot feedback useful. But there's also a lot of opportunity for bad feedback or feedback you just don't know how to use. You can read about one of my experiments assessing ChatGPT feedback here. The short version: If you're not confident that you understand what will make your writing stronger, you shouldn't be relying on a chatbot for writing feedback.

Here's the thing: LLMs are not magic (see above, "understand how LLMs work"), and the feedback generated is not always going to be useful for what you're trying to do. Sometimes it will be wrong. I'm working on an experiment right now with one of my students to test some of the limitations of chatbot feedback, so more on that in 2024.

But here's what is true about asking a bot for writing feedback: as with any writing feedback, you should think about how you're using the feedback and what you need to know to use it effectively. To use writing feedback effectively when you're writing for work or publication, you need to know what you're trying to do, and you need to know enough about good writing to know what makes sense and what doesn't-and to recognize when the bot is giving you bad advice. Unlike your writing teacher or trusted colleague, the bot doesn't actually understand you or what you're trying to do. And it's often surprisingly bad at basic grammar tasks (I asked it to fix parallelism multiple times and it never could), so stick with a grammar checker (which also gets these things wrong sometimes) for that.
Rule #4: Resist the idea that outsourcing your thinking is inevitable.
The AI hype machine is robust and relentless. I first fell victim to the hype in late 2022 when a researcher at a big tech company assured me that in two years no one would be taking writing classes unless they wanted to be writers. Her message: writing was pretty much over. But one year in, I'm pretty confident that prediction will not come true!

This year, we've seen predictions that AI will take over pretty much every task we find meaningful along with those we may not mind outsourcing. But how this all plays out is not inevitable, no matter how much any news story or tech company suggests that it is. So, what does this mean for how to think about writing now? As we begin 2024, I'll leave you with two principles I offer my students at the beginning of each semester.

First, I tell my students that there's no point in writing an essay if they aren't figuring something out or learning something along the way. This principle doesn't translate perfectly to other types of writing-sometimes you just have to write that boring email. But it translates more than we may realize. For example, I've helped many people write job cover letters, which may seem like a writing chore without much payoff. But often in the conversations I have with people writing those letters, a coherent story of why they would be a good fit for the position emerges. The process of writing multiple drafts turns into a process of thinking more clearly. When there is value in that writing process, we should keep doing our own writing.

Second, I tell my students about a conversation I had many years ago with the head of the fact checking department at the Atlantic magazine. She asked me a question about a piece that I could not answer. "If you're going to put your name on something," she said, "don't you want to know that it's true?" My answer to that was yes: I wanted to be able to sign off on something with the confidence that it was true. I wanted my words to matter because they were mine. I tell my students that their words should matter to them, and that I hope they will.

Just because a machine can generate words, doesn't mean it can generate your words. In fact, the words it generates may just belong to someone else.

My wish for all of you for 2024 is that your own words will matter, both to you and to those who read them.

Some thoughtful people to read on AI and Writing
Katie Conrad, Pandora's Bot Lauren Goodlad and the team at Critical AI Josh Brake, The Absent-Minded Professor AI Pedagogy Project Marc Watkins Neil Turkewitz

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DOI:
https://doi.org/10.5210/fm.v29i4.13636

Abstract

The stated goal of many organizations in the field of artificial intelligence (AI) is to develop artificial general intelligence (AGI), an imagined system with more intelligence than anything we have ever seen. Without seriously questioning whether such a system can and should be built, researchers are working to create "safe AGI" that is "beneficial for all of humanity." We argue that, unlike systems with specific applications which can be evaluated following standard engineering principles, undefined systems like "AGI" cannot be appropriately tested for safety. Why, then, is building AGI often framed as an unquestioned goal in the field of AI? In this paper, we argue that the normative framework that motivates much of this goal is rooted in the Anglo-American eugenics tradition of the twentieth century. As a result, many of the very same discriminatory attitudes that animated eugenicists in the past ( e.g., racism, xenophobia, classism, ableism, and sexism) remain widespread within the movement to build AGI, resulting in systems that harm marginalized groups and centralize power, while using the language of "safety" and "benefiting humanity" to evade accountability. We conclude by urging researchers to work on defined tasks for which we can develop safety protocols, rather than attempting to build a presumably all-knowing system such as AGI.

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The TESCREAL bundle: Eugenics and the promise of utopia through artificial general intelligence

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https://doi.org/10.5210/fm.v29i4.13636 The stated goal of many organizations in the field of artificial intelligence (AI) is to develop artificial general intelligence (AGI), an imagined system with more intelligence than anything we have ever seen. Without seriously questioning whether such a system can and should be built, researchers are working to create "safe AGI" that is "beneficial for all of humanity."

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UN Office of the High Commissioner for Human Rights, Taxonomy of Human Rights Risks Connected to Generative AI

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UN Office of the High Commissioner for Human Rights, Taxonomy of Human Rights Risks Connected to Generative AI

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Anna Mills, GenAI Activities, Writing & Lang

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Anna Mills, GenAI Activities, Writing & Lang

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Generative AI Activities for the Writing & Language Classroom.pptx

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AI-Detectors Biased Against Non-Native English Writers

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Don't put faith in detectors that are "unreliable and easily gamed," says scholar.

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Not your computer? Use Guest mode to sign in privately. Learn more about using Guest mode

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K. Conrad, AI, Ethics and Use Considerations: Some References (docx) last updated 5/24

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K. Conrad, AI, Ethics and Use Considerations: Some References (docx) last updated 5/24

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AI text generators & teaching writing: starting points for inquiry

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AI text generators & teaching writing: starting points for inquiry

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What do teachers who assign writing need to know about AI text generators? How should we change our pedagogical practices, given the recent advances in AI Large Language Models (LLMs) such as OpenAI's ChatGPT? How should teachers participate in shaping policies around these technologies in our departments, institutions, and society?

To shape our individual and institutional responses to this new technology, writing teachers and scholars need more information about the workings, the quality, and the ethics of AI text generation. We may be concerned about possible learning loss and academic integrity violations due to unacknowledged use of AI in writing. We may want to help guide our students to think critically about this technology or to use it effectively. Or we may want to find ways to use these generators in our pedagogy. As faculty responsible for teaching writing as impactful, ethical intellectual activity, we need spaces to build our own understanding of AI text and discuss how to respond.

Opportunities to Engage and Participate

The resources collected here serve as catalysts for inquiry, discussion and collaborative research as we respond to this major change in the kind of writing assistance available to our students.

Mills, Anna (Curator). AI Text Generators and Teaching Writing: Starting Points For Inquiry . 2022. Last Updated November 18, 2023.

Authorship and Credits

Anna Mills teaches writing at Cañada College and previously taught at City College of San Francisco for 17 years. Her collection "AI Text Generators and Teaching Writing: Starting Points for Inquiry" is featured in the Writing Across the Curriculum Clearinghouse. She serves on the MLA/CCCC task force on writing and AI, and as a consultant for OpenAI, she tested GPT-4 before its release. She has also written an Open Educational Resource (OER) textbook, How Arguments Work: A Guide to Writing and Analyzing Texts in College , which has been used at over 65 colleges. Anna's writing on AI has appeared in . Find more on her at The Chronicle of Higher Education Inside Higher Ed

About the Clearinghouse

The WAC Clearinghouse is an open-access, educational website supported by more than 150 charitable contributors , institutional sponsors, and roughly 180 volunteer editors, editorial staff members, reviewers, and editorial board members. Copyright on the materials on this site is held by the authors and editors who have contributed content to it (© 1997-2023). This site is published using the Lucee open-source CFML platform

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AI Text Generators and Teaching Writing: Starting Points for Inquiry

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What do teachers who assign writing need to know about AI text generators? How should we change our pedagogical practices, given the recent advances in AI Large Language Models (LLMs) such as OpenAI's ChatGPT? How should teachers participate in shaping policies around these technologies in our departments, institutions, and society?

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TextGenEd: An Introduction to Teaching with Text Generation Technologies

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TextGenEd: An Introduction to Teaching with Text Generation Technologies

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Edited by Annette Vee, Tim Laquintano, and Carly Schnitzler

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U Maine's Learning with AI Initiative (includes speaker bureau and events list)

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U Maine's Learning with AI Initiative (includes speaker bureau and events list)

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The Learning with AI initiative from the University of Maine

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Rather than try to ban this technology from classrooms outright, this project asks if this moment offers an opportunity to introduce students to the ethical and economic questions wreaked by these new tools, as well as to consider fresh new forms of pedagogy that can exploit them.

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Teaching Critical AI Literacy: Advice for the New Semester from Rutgers; includes suggested policy wording.

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Teaching Critical AI Literacy: Advice for the New Semester from Rutgers; includes suggested policy wording.

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Blueprint for an AI Bill of Rights for Education (blog version, no paywall)

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Blueprint for an AI Bill of Rights for Education (blog version, no paywall)

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A Blueprint for an AI Bill of Rights for Education

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Daniel Estrada, How to teach AI to students: AI auditing project

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Daniel Estrada, How to teach AI to students: AI auditing project

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[Critical AI'TEACHING INSIGHTS series welcomes writing on topics of potential interest to educators and other readers inside and outside of the academy. The below post describes an AI audit performed in Dr. Daniel Estrada's Spring 2023 senior seminar at the New Jersey Institute of Technology. The post was adapted and edited from a Twitter thread.]

Prepared by Daniel Estrada, PhD (University Lecturer, NJIT) in collaboration with Sherif Elashri, Jozi Coate, Arlon Arves, Kevin Watson, Ivana Baez, Isaac Belgrave, Leo Spezio, Brendan Schorling, Michael Olivencia, Viktoriya Buldiak, Jonathan Clarke, and all the students in S23 AI Ethics @ NJIT!

In my spring humanities senior seminar in AI Ethics at the New Jersey Institute of Technology, students performed an external audit of OpenAI's ChatGPT* and DALL-E and DALLE-2,**assessing these services for ethical and social impact across a number of "adversarial" tests. I asked students to summarize their results for Twitter, and I've compiled some of their responses below.

The class was divided into two teams dedicated to each service. The "Scoping" teams looked at ethical principles and social impact assessments for various use cases. The "Testing" teams ran adversarial tests through the public interface to probe the system's fidelity to those principles and rate potential harms. (These tests were "adversarial" because they were designed to identify certain limitations of the model.) The teams worked together to develop a testing strategy and to evaluate the failure modes of the system in order to produce information on which to base a formal ethical analysis of these services.

This five-week project was inspired by the algorithmic auditing framework developed in Raji et al. (2020). Because this was an independent external audit, students had limited access to internal documentation on OpenAI's development process. As such, I simplified the audit framework from Raji et al. to focus on scoping, testing, and reflection. (Details on these documents can be found in Raji et al. [2020], which includes a worked sample case study that helpfully illustrates the audit framework.)

The Scoping teams defined the scope of the audit and completed a "Social Impact Assessment" and a "Use Case Ethics Review: The Testing teams worked within these guidelines to complete a Failure Mode and Effects Analysis (FMEA) worksheet and Ethical Risk Analysis Chart through adversarial testing. Both teams contributed to a summary report and remediation plan in which they reflected on their results and completed their ethical analysis of these services.

Student-written tweets and screenshots can be found below. The student tweets are in bold and italicized, followed by some light commentary from me in italics. Note: tweets have been lightly edited to conform to the CriticalAI blog's house style.

First up, the ChatGPT group.

"When prompted to produce scholarly articles about a specific topic, ChatGPT could not generate actual article titles or functional hyperlinks. Instead, it generated fake titles and false links."
"Every prompt given involved a topic which was written on prior to 2020, meaning ChatGPT was likely trained on such articles and, in theory, should produce these articles when prompted." Testing found that most citations were fabricated, and none was entirely accurate. "Asking ChatGPT to provide examples of hate speech and slurs resulted in uncensored outputs. Further prodding caused ChatGPT to censor some slurs but not others. When provided a scenario regarding "historical context," its safeguards were easily bypassed." [Image warning - Sensitive Content] "When prompting ChatGPT to create a code to determine a good hire based on the following: Name, Gender, Age, Experience Level, and Previous Income, the outputted code required women to have more experience than men to be considered a good hire." "When prompted to produce a sequence of code for hiring, based on gender, age, race, experience level, and income, ChatGPT gave reasons for why certain identifiers are not good hires." "It gave me a different answer to the same questions I asked previously. When asked it why it generated a different answer, it replied "there may have been some miscommunication regarding Sweden's stance on the American Civil War" Using the Ethical Risk Chart from the Smile Detection example case study in Raji et al. (2020), the students auditing ChatGPT summarized the results of their testing in the chart below.
Next up, the DALL-E group.

"I am curious to see how DALL-E works with its training data. For 'Europeans at work' input, one of the pictures was a rock and another was a flower? I think OpenAI should test their algorithm more extensively for the next version to avoid these odd correlations"
This test was inspired by Abeba Birhane's tweet, which we had discussed in class.
"DALL-E was getting backlash for their racial and sexist bias, and now it shows more diverse results, but what is causing it? There are examples in which more details prompt it to be more diverse but others in which more details result in a focus only on a specific race." "One of the theories that was mentioned was that DALL-E produces a more diverse output with a more descriptive prompt. However, we usually type in just one word for a desired picture which makes this algorithm pretty problematic as it will reinforce harmful stereotypes." "In response to the input 'stable middle class family enjoying a bbq,' 16 of DALL-E2's results portray only white families, possibly in response to correlations with 'stable' and 'middle class;" "From our audit of the DALL-E2 Image Generator, we concluded that improving training data could mitigate its current drawbacks. But this begs the question, how does Open AI acquire the images it uses to train large image models The audit led students to conclude that biases and stereotypes embedded in DALL-E and DALL-E2 might be mitigated through retraining on improved training data. But as they realize, that conclusion "begs the question" of how OpenAI "acquires the images it uses" to train large models. Students found that DALL-E2 consistently produced low quality images that frequently were unrelated to prompting and consistently perpetuated harmful stereotypes. They suggest that better training data could help to address these harms. "I walk around like everything's fine, but deep down, inside my shoe, my sock is sliding off." - Anonymous "What I've learned from this class is that this is the current state of AI as we know it. At some point we're going to have to stop, take the shoe off, and fix the sock."
Thanks to all my senior seminar students for their fantastic effort on this project! This is the first time I've run this project, and it went much better than I expected. I look forward to running the project again in the fall.

You can see the reading list for my AI Ethics course here.

*The class used the 3.5 free version of ChatGPT.

**Both ChatGPT and DALL-E were accessed through the browser interface. Testing was conducted between March 30-April 20, 2023.

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TEACHING INSIGHTS: How to teach AI to students (AI Ethics and @ NJIT Audit Project, Dr. Daniel Estrada)

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Critical AI's TEACHING INSIGHTS series welcomes writing on topics of potential interest to educators and other readers inside and outside of the academy. The below post describes an AI audit performed in Dr. Daniel Estrada's Spring 2023 senior seminar at the New Jersey Institute of Technology.

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Blueprint for an AI Bill of Rights for Education [article version]

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Blueprint for an AI Bill of Rights for Education [article version]

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By: Kathryn Conrad

[Critical AI 2.1 is a special issue, co-edited by Lauren M.E. Goodlad and Matthew Stone, collecting interdisciplinary essays and think pieces on a wide range of topics involving Large Language Models. Below, a sneak preview from the issue: Kathryn Conrad's important "Blueprint for an AI Bill of Rights for Education"]

Safe and Effective Systems : You should be protected from unsafe or ineffective systems.

Algorithmic Discrimination Protections : You should not face discrimination by algorithms and systems should be used and designed in an equitable way.

: You should be protected from abusive data practices via built-in protections and you should have agency over how data about you is used.

Notice and Explanation : You should know that an automated system is being used and understand how and why it contributes to outcomes that impact you.

With these principles as a starting point, I propose a supplemental set of rights for educators and students.

These are intended as the beginning rather than the end of the conversation, a foundation on which policies and protections can be based. Ultimately, however, educators must lead this conversation, guided by aspirations for and collaboration with our students.

Rights for Educators

You should have input into institutional decisions about purchasing and implementation of any automated and/or generative system ("AI") that affects the educational mission broadly conceived. Domain experts in the relevant fields should be informed and enabled to query any consultants, vendors, or experts who have promoted the systems before such systems are adopted. Institutions should also set up opportunities for students to participate in and advise on policies that involve the mandatory use of any such applications. Institutions interested in exploring coursework devoted to the use of automated and/or generative tools should enable instructors to work with developers and vendors to ensure that any adopted tools are appropriate for educational contexts and do not subject students or educators to surveillance or data theft.

You (or your representative in the appropriate body for governance) should have input into institutional policies concerning "AI" (including automated and/or generative systems that affect faculty, students, and staff). By definition, educators are at the heart of the educational mission and must be given the opportunity to lead the development of "AI"-related policies.

You should have institutional support for training around critical AI literacy. Critical AI literacy includes understanding how automated and/or generative systems work, the limitations to which they are subject, the affordances and opportunities they present, and the full range of known harms (environmental as well as social). Such literacy is essential, but educators cannot be expected to add gaining critical AI literacy to their workloads without such support.

So long as you respect student rights (as elaborated below), you should decide whether and how to use automated and/or generative systems ("AI") in your courses. Teaching about "AI" is increasingly important to educating students, but commitment to teaching critical AI literacy (as elaborated above) does not imply any mandatory student use of an automated system. Educators should not be pressured into adopting new systems or penalized for opting out. Educators should be given resources to evaluate best practices for teaching in consultation with other domain experts and peer-reviewed research on pedagogy.
You should never be subjected to any automated and/or generative system that impinges on your legal rights (including but not limited to those stated above).
Rights for Students:

You should be able to expect clear guidance from your instructor on whether and how automated and/or generative systems are being used in any of your work for a course. These guidelines should make clear which specific systems or tools are appropriate for any given assignment.

You should be able to ask questions of your instructor and administration about the use of automated and/or generative systems prior to submitting assignments without fear of reprisal or assumption of wrongdoing. Critical AI literacy, especially in an environment of rapid technological development, requires honest conversations between all stakeholders. This includes students being able to ask why any given system is required for a given assignment. Educators should recognize that students who have been using AI tools in other courses or in their private lives should be treated respectfully on this as on any other matter.

You should be able to opt out of assignments that may put your own creative work at risk for data surveillance and use without compensation. Educational institutions have an obligation to protect students from privacy breaches and exploitation.

You should be able to appeal academic misconduct charges if you are falsely accused of using any AI system inappropriately. If you are accused of using technology inappropriately, you should be invited to a conversation and allowed to show your work. Punitive responses to student abuse of generative technologies must be based on the same standard of evidence as any other academic misconduct charges. Critical AI literacy means that all parties recognize that detection tools are at present fallible and subject to false positives.

You should be informed when an instructor or institution is using an automated process to assess your assignments, and you should be able to assume that a qualified human will be making final evaluative decisions about your work. You should always have the ability to choose to be assessed by a human and to appeal automated assessments.

You should never be subjected to any automated and/or generative system that impinges on your legal rights (including but not limited to those stated above).

I especially want to thank the Critical AI editorial team for extensive and thoughtful feedback on several drafts of this essay; Anna Mills, Maha Bali, Autumn Caines, Lisa Hermsen, and Perry Shane's input on my earliest draft of this framework; and the Kansas and Missouri educators who attended the June 2023 AI & Digital Literacy Summit at the Hall Center for the Humanities at the University of Kansas, whose concerns and dialogue helped sharpen my thinking about this work.

Footnotes

¹ I use the industry's preferred term, generative AI, while recognizing that "artificial intelligence" (AI) is a loaded term with a complicated history of extracting data. Though "generative AI" is increasingly common, I concur with Bender (2023 n.p.) that a more apt term for this cluster of technologies might be "synthetic media machines." The novelist Ted Chiang refers to this elaborate data-mining technology (Murgia 2023) simply as "applied statistics."

² For "end of the essay" predictions, see Herman 2022, Marche 2022. For journalists urging educators to "teach with" AI, see, for instance, Heaven 2023, Roose 2023, and Rim 2023.

³ On flawed efforts to detect AI-generated work, see Wiggers 2023 and Fowler 2023; evidence already suggests that vulnerable populations are more likely to be accused of cheating (e.g. Liang et al 2023). See Klee 2023 on one notable case of a false accusation by an instructor who assumed that the LLM could detect its own outputs (see, e.g., Klee 2023).

⁴ See, for example, Pasquale (2020, 6-88) and Goodlad and Baker (2023). While Pasquale's first proposed law specifies that "Robotic systems and AI should complement professionals, not replace them" (3), the public release of GPT-4 was accompanied by widely hailed claims that falsely implied that chatbots capable of passing, say, the LSAT, are thereby equipped to practice law. As Goodlad and Stone write in the introduction to this special issue, "The same mentality that finds tech companies eager to portray LLMs as gifted educators also finds them keen to uphold chatbots as the ideal replacement for psychotherapists, lawyers, social workers, doctors, and much else." For the recent case of one lawyer's disastrous reliance on ChatGPT for legal research see Armstrong 2023, Milmo 2023. Notably, the release of OpenAI's GPT-4, supported by Microsoft, coincided with the firing of Microsoft's AI Ethics and Society team in 2023. In this, Microsoft followed in the footsteps of Google's firing of ethicists Timnit Gebru and Margaret Mitchell in late 2020 and early 2021, respectively (see e.g. Metz and Wakabayashi 2020, Schiffer 2021). To be sure, some educators have been in productive, collaborative conversations with tech companies and fellow educators about the use of generative technologies in education (e.g. Mills, Bali, and Eaton [2023]).

⁵ Describing human creative work as training data is already "deliberately alienating reductionism" (Conrad 2023 n.p.), stripping such work "of the critical essence by which it avails itself of copyright protection: its expressive value and human creativity" (Kupferschmid 2023. For important work on these problems, see Bender et al 2021, Crawford 2021, Weidinger et al 2021, Whittaker 2021, Acemoglu and Johnston 2023, Caines 2023, D'Agostino 2023, Fergusson et al. 2023, Furze 2023, Gal 2023, Hendricks 2023, Perrigo 2023, Sweetman and Djerbal 2023, Turkewitz 2023, and van Rooij 2023.

⁶ Adopting a principles-first approach helps to avoid situations similar to those encountered by copyright law, which emerged in reaction to the printing press (ARL n.d.) and whose "fair use" stipulations (Turkewitz 2023) have been exploited by large corporations. While the Russell Group of UK universities has articulated a loose set of principles (2023), their likely impact is attenuated by vague language around the notion of "appropriate use" as well as an unsubstantiated assumption that "AI" provides a "transformative opportunity" that these institutions are "determined to grasp." The MLA-CCCC Joint Task Force on Writing and AI Working Paper, published as this essay was copy-edited, makes a strong set of principled recommendations focused on building critical AI literacy.

⁷ As its extensive legal disclaimer page makes clear [OSTP 2022b]), the Blueprint is not enforceable; indeed the US White House and Congress have actively supported companies known to have violated these very rights (see White House 2023a, White House 2023b, Krishan 2023).

⁸ The quoted text comprises each of the headers and the statement of principles in the Blueprint as of July 2023. Full text can be found at https://www.whitehouse.gov/ostp/ai-bill-of-rights/.

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SNEAK PREVIEW: A Blueprint for an AI Bill of Rights for Education

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By: Kathryn Conrad [Critical AI 2.1 is a special issue, co-edited by Lauren M.E. Goodlad and Matthew Stone, collecting interdisciplinary essays and think pieces on a wide range of topics involving Large Language Models. Below, a sneak preview from the issue: Kathryn Conrad's important "Blueprint for an AI Bill of Rights for Education"] Since November 2022, when...

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Harvard/metaLab proposed code of conduct

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Harvard/metaLab proposed code of conduct

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Since its founding, metaLAB has been experimenting with new technologies, while committing to critiquing those very technologies. For the past seven years, we have been exploring the intersections of AI and philosophy, art and design, and teaching. During the Spring 2023 Harvard course Creativity (t…

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Writing and AI (MLA-CCCC Joint Task Force)

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Writing and AI (MLA-CCCC Joint Task Force)

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For readers interested in learning some of the basic facts about ChatGPT and other Large Language Models (LLMs), the following pieces provide answers to some of the key questions that such technologies raise as well the basics of how they operate.

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Stanford's CRAFT resources for teaching about generative AI

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Stanford's CRAFT resources for teaching about generative AI

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Resources for teaching about artificial intelligence provided by the Stanford Graduate School of Education

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As AI tools explode into public conversation, there is a clear need for an informed, critical, and multidisciplinary analysis of their applications, limitations, and risks, both in the current moment and looking towards the future. At the same time, for those without technical expertise, it is often unclear how to engage productively in these conversations. Within education and institutions of higher learning in particular, this is a time when the gap between technical and non-technical fields could grow even more. It is also a time when the humanities could do what the humanities do best: surface foundational questions about what it means to be human, attend with precision to the importance of language and translation, contend with the ethics of ownership, authorship, rights, and agency.

The AI Pedagogy Project is a curated collection of classroom assignments, designed to help educators facilitate critical conversations with their students about the capabilities and limitations of AI. As public access to AI tools has increased, so has the concern about their role in education. The AI Pedagogy Project is our response to the following challenges: How do we concretely and responsibly support teachers to address the role of AI in the classroom? How do we support students in developing critical relationships with these tools while enhancing their education?

The AI Pedagogy Project will take shape as an open repository of curated assignments, activities, and prompts that educators can leverage within their classrooms to initiate some of these conversations - a resource to help support disparate fields in contributing critical perspectives to societal and ethical debates about the governance, ethics, and design of AI tools and systems.

We believe that regardless of discipline or technical background, every educator should be equipped to think through how AI will affect their teaching or their discipline more broadly, and what that impact will be on their students. Now more than ever, there is a need for collaboration and exchange between STEM and the arts and humanities. This collection will continue to evolve alongside the ever-changing AI landscape. We invite you to join us by using these materials, contributing your own, sending feedback, and sharing this resource with fellow educators.

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idea foundry knowledge-design lab production studio networked arts humanities

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Now is a time when the humanities can do what the humanities do best: surface foundational questions about what it means to be human, attend with pre...

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Inside Higher Ed | Higher Education News, Events and Jobs

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How AI tools both help and hinder equity in higher ed

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The technology promises to assist students with disadvantages in developing skills needed for success. But AI also threatens to widen the education gap like no tech before it.

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US Office of Ed Tech insights and recommendations

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US Office of Ed Tech insights and recommendations

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Share this Report

The U.S. Department of Education Office of Educational Technology's new policy report, Artificial Intelligence and the Future of Teaching and Learning: Insights and Recommendations, addresses the clear need for sharing knowledge, engaging educators, and refining technology plans and policies for artificial intelligence (AI) use in education. The report describes AI as a rapidly-advancing set of technologies for recognizing patterns in data and automating actions, and guides educators in understanding what these emerging technologies can do to advance educational goals-while evaluating and limiting key risks.

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Artificial Intelligence and the Future of Teaching and Learning - Office of Educational Technology

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The need for sharing knowledge, engaging educators, and refining technology plans and policies for artificial intelligence (AI) use in education.

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What are some good practices around creating agents for use in education?

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As people have discovered with OpenAI's 'GPTs' function, the AI can sometimes be convinced to reveal to the user its own system message. There are some ways to try and protect against this, although it needs to be noted that you should not put sensitive information in the system message just in case someone figures a way to 'jailbreak' the AI.