Open access peer-reviewed chapter - ONLINE FIRST

The Future of Lifelong Learning: The Role of Artificial Intelligence and Distance Education

Written By

Patricia Fidalgo and Joan Thormann

Submitted: 20 November 2023 Reviewed: 17 December 2023 Published: 18 January 2024

DOI: 10.5772/intechopen.114120

Lifelong Learning - Education for the Future World IntechOpen
Lifelong Learning - Education for the Future World Edited by Filippo Gomez Paloma

From the Edited Volume

Lifelong Learning - Education for the Future World [Working Title]

Prof. Filippo Gomez Paloma

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Abstract

This chapter explores the transformative use of Artificial Intelligence (AI) and Distance Education (DE) in the context of lifelong learning. Traditional classrooms give way to dynamic, technology-enabled education transcending age, time, and place. The shift from fixed curricula to adaptive learning experiences is presented in this chapter, emphasizing education as a continuous journey rather than a static destination. The use of technology in lifelong learning, particularly AI and DE, emerges as a catalyst for change, breaking the confines of rote memorization and routine tasks. It empowers individuals to direct their educational paths, promoting self-directed learning aligned with personal interests. The integration of AI and DE not only redefines education but also fosters global connectivity, collaboration, and cross-cultural understanding. This chapter delves into how these technologies reshape attitudes toward education. Innovative practices, success stories, and emerging challenges in the use of AI and DE will be shared as tools to shape a future where education promotes curiosity, adaptability, and continual exploration.

Keywords

  • artificial intelligence
  • distance education
  • educational settings
  • future education
  • lifelong learning
  • technology

1. Introduction

In a rapidly evolving world where information flows continuously, the concept of learning is changing. Education is no longer confined to traditional classrooms’ walls, and the school’s role extends beyond disseminating knowledge. Technology is vital to unlocking the potential for lifelong learning experiences that transcend the boundaries of age, time, place, and learning modalities. Currently, schools are providing students with skills that can be used in the future. This means that education is about what you know and how well you can learn and adapt. However, traditional schooling often limits the scope of education to a fixed curriculum. Exploring various subjects and perspectives beyond the classroom can enable learners to understand the world better using technology. Education should transcend rote memorization, routine tasks and summative assessments. Progressive education is a dynamic process that can empower individuals to adapt, innovate, and thrive in an ever-changing world. Technology is critical in cultivating this adaptability by offering many resources, from online courses and virtual libraries to collaborative platforms and immersive simulations.

Furthermore, technology’s ability to facilitate self-directed learning empowers individuals to chart their educational journeys, tailoring them to their interests and goals. It encourages a proactive approach to lifelong learning, where individuals can harness the power of technology to continually expand their horizons, challenge preconceptions, and seek out new knowledge independently.

Technology can help redefine education as a lifelong journey, highlighting what you know and how well you can adapt and learn in the face of change. By embracing technology, learners can navigate a world of information, forging a path toward a future where knowledge is not a stagnant endpoint but an ongoing exploration. Technology connects learners with resources, educators, and peers worldwide, promoting cross-cultural understanding and collaboration, which is essential in today’s globalized society.

To truly usher in a new era of lifelong learning, educators and policymakers must focus on reshaping the concept of learning beyond the confines of traditional schooling while embracing individual perspectives on lifelong learning. It is crucial to acknowledge that schools wield a lasting impact on our perception of learning. Schools can instil a culture of curiosity, adaptability, and a thirst for knowledge that persists throughout life. Schools can also shape students’ attitudes and behaviors toward lifelong learning, highlighting technology’s transformative potential in education.

By using the diverse capabilities of technologies, including AI and DE, schools can enhance their abilities to broaden their horizons and deepen knowledge continuously. AI and DE also offer flexible learning environments, allowing individuals to learn at their own pace and schedule. This flexibility is particularly beneficial for adults with work or family commitments. These technologies can empower individuals to acquire new skills, stay relevant in the job market, or satisfy one’s intellectual curiosity.

The increased interest in lifelong learning has surged as governments worldwide prepare for a future where AI becomes integral to daily life. Numerous national and international initiatives have been launched to address this, such as the UK’s Adult Education 100 campaign, which focuses on researching the history and impact of adult education and engaging with communities [1]. In Singapore, the SkillsFuture initiative of 2015 has reintegrated lifelong learning into mainstream policy to reskill the existing workforce [2].

In this chapter, we will explore how integrating AI and DE can aid educators in shaping students’ attitudes and behaviors toward lifelong learning. Learners can explore their passions, address weaknesses, and adapt to the ever-evolving knowledge ecosystem. How AI and DE can empower educators and lifelong learners will be presented, as well as innovative practices, success stories, and emerging challenges. These technologies can make education accessible to all, one of the central pillars of lifelong learning.

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2. Lifelong learning and distance education

2.1 Benefits and challenges of distance education

DE has been defined by [3, p. 6] as “Education that uses one or more technologies to deliver instruction to students who are separated from the instructor and to support regular and substantive interaction between the students and the instructor synchronously or asynchronously.” The instructional tools utilized in this approach can encompass various options, such as the Internet and one-way and two-way communication.

DE, facilitated by technology, makes learning more accessible to people of all ages and backgrounds. This inclusivity ensures that geographical, economic, or physical barriers do not restrict learning opportunities [4]. DE can potentially democratize access to education. With the pervasive adoption of the Internet and online tools as the primary communication medium, DE has amplified the flexibility of educational opportunities.

One of the most significant advantages of DE is its capacity to transcend geographical limitations [5]. In traditional educational models, individuals residing in remote or underserved areas often face considerable challenges in accessing quality academic resources. However, technology-enabled learning platforms and online courses have removed these barriers. This has implications for individuals in rural communities, developing nations, or even those who lead nomadic lifestyles, as they can now access a world of knowledge from the comfort of their homes or on the go.

The cost of education has historically been a significant deterrent for many individuals, preventing them from pursuing further learning opportunities. DE mitigates these financial barriers through its cost-effective online courses and open educational resources. Learners no longer need to bear the costs associated with on-campus education, such as tuition fees, housing, and commuting expenses. Instead, they can access high-quality educational content at a fraction of the cost, democratizing education and making it accessible to individuals regardless of economic circumstances.

For individuals with physical disabilities or health constraints, attending traditional brick-and-mortar institutions can be challenging. DE eliminates these physical barriers by providing flexible learning options. Learners with disabilities can access digital content and choose learning formats that accommodate their needs, ensuring no one with a disability is left behind.

DE, which includes online courses and virtual learning environments, offers many advantages for lifelong learning, as indicated above. However, it also comes with several challenges and disadvantages. Among the challenges are the technology requirements that may not be available to lifelong learners. Also, a lack of digital literacy can hinder navigating online courses, accessing resources, and engaging in online discussions effectively. A strong self-discipline and motivation to succeed in DE are required. In addition, some subjects, such as lab-based sciences or vocational skills, are challenging to teach effectively in a DE format, limiting hands-on learning opportunities.

There are other challenges involving DE. The quality of instruction can vary significantly. Some courses may lack engaging content, effective teaching methods, or learners’ support. Timely and meaningful instructor feedback can be challenging to provide online, impacting the learning experience. Also, online assessments and exams can be more susceptible to cheating and plagiarism, as it can be difficult to monitor learners effectively.

In early 2020, the COVID-19 pandemic triggered a global shift in education practices, with DE, remote teaching, and online instruction taking on significance, often referred to as “pandemic pedagogies”. Education technology companies, recognizing the need for remote learning, offered their services for free for a limited time, helping educators transition to online teaching during the crisis while also supporting parents in facilitating their children’s education during lockdowns and isolation [6]. This approach aimed to keep students engaged and intellectually stimulated during these challenging times.

While the choice between DE and face-to-face learning was imposed as a non-negotiable solution during COVID-19, it has always been a potential alternative and will remain so. However, when making shifts in education between face-to-face and DE, educators should remain vigilant for potential risks, most of which can be seen in student satisfaction surveys [7].

2.2 Use of distance education in lifelong learning

DE and lifelong learning have different origins and approaches. DE evolved organically from the bottom up, while lifelong learning is being actively promoted from the top down in an international campaign [8]. DE has a proven track record, while lifelong learning remains an ambitious and innovative educational pathway. Despite these structural differences, there are striking similarities between the two approaches [8]:

  • Both address significant societal changes and challenges.

  • Both have a substantial innovative impact and challenge traditional educational patterns.

  • They can introduce new pedagogical approaches, unconventional learning methods, and varied learning environments.

  • Collaboration and self-directed learning may be used in both approaches.

  • Both allow self-development and the integration of learning with work.

  • They aim to make education accessible on a large scale and cater to learners of all ages.

  • Both have a social mission to advance disadvantaged and underrepresented groups and enhance their quality of life.

  • Unconventional organizational structures and financing models are often employed.

DE empowers individuals to take charge of their learning journey. Whether individuals are full-time professionals, parents, or someone with physical limitations, DE can allow them to learn at their own pace and terms. This type of flexibility enables learners to integrate their education into their existing commitments, ensuring they can continue learning [9].

DE makes it easier to establish diverse and active learning communities. Learners from all over the world can connect and collaborate through discussion forums and virtual classrooms. These communities promote a culture of shared learning, enabling individuals to exchange ideas, seek feedback, and engage in meaningful discussions. The diversity of viewpoints and experiences within these communities enriches the learning process, offering learners a global network of peers and mentors who can inspire, support, and challenge them in their lifelong learning experiences [10].

In today’s competitive job market, continuous professional development is critical. DE can equip professionals with the skills and knowledge they need to stay current and competitive in their fields. Through online courses and certifications, individuals can enhance their skills, learn new ones, and gain industry-specific expertise. The flexibility of DE allows professionals to pursue learning opportunities while still working, helping them bridge the gap between their current skills and the evolving demands of their professions [11]. It may also provide the opportunity to gain new expertise, allowing career changes and new job prospects.

Employers value employees committed to professional development. DE courses provide a way to grow an individual’s value and credibility. Moreover, acquiring new skills through online courses can improve job performance, potentially resulting in promotions and higher salaries. It’s also an excellent way to expand professional networks, as online courses often connect learners with a global community of professionals in their field [12].

2.3 The future of distance education in lifelong learning

According to [9], the future challenge for DE lies in assembling numerous personalized study programs using a wide array of available open educational resources. In the forthcoming era, both traditional and distance universities will track individual student competencies over time, fostering lifelong learning hubs. Based on this data, universities can provide recommendations for further open educational resources that align with students’ competence goals while adhering to legal and data privacy requirements (referred to as learning analytics). Media technology innovations are pivotal in facilitating the transformation of learning from the passive consumption of mass-media-produced knowledge content to the active promotion of individual competence through personalized educational materials.

[13] reports that for a growing number of learners who are used to electronic interactions in various aspects of their lives, recreating traditional learning settings might not be sufficient to promote their learning. Instead, it may be a missed opportunity to leverage their information-seeking and communication skills, which they regularly employ in other contexts, including the modern workplace. These skills are expected to become increasingly important in a lifelong learning framework that prioritizes the processes over the learning content.

Assessing electronic learning environments from a lifelong learning perspective is a complex task. The challenges involved stem from various factors. Some are rooted in the disparities between electronically mediated and face-to-face social interactions. Other challenges are linked to the evolving communication preferences in workplaces and the wider community. Furthermore, complications arise when considering variations in individuals’ preferred learning styles and determining how to accommodate these best to benefit both learners and their communities in the long run [13]. Additional questions arise concerning the suitability of different pedagogical interaction modes for learners of various ages and how to balance two distinct imperatives: the need to teach individuals how to learn and the demand for just-in-time acquisition of new knowledge and skills [13].

An individual’s social standing influences their digital skills and engagement with DE. Those who are younger, come from higher socio-economic groups and possess higher education levels tend to have better digital skills and participate more in online learning [14]. Additionally, structural factors like age, gender, and location directly impact the benefits gained from DE, regardless of digital skills and Internet use for learning. This underscores the importance of considering social structure when discussing Internet-based lifelong learning. [14] state that recent developments in DE do not reduce inequalities but seem to perpetuate them. Social structure remains vital in understanding online learning patterns, outcomes, and individual actions.

Over 20 years ago, DE was included in educational delivery formats for lifelong learning in an agreement signed during the World Education Forum in Dakar in May 2000. DE can play a significant role in contributing to more equitable access to appropriate knowledge for lifelong learners. During the Forum, nations committed to a comprehensive life skills objective, aiming to guarantee that all young people and adults have their learning needs addressed through fair access to suitable educational and life skills initiatives [15]. Equitable access to appropriate learning encompassed all forms of education delivery, including formal and non-formal education, vocational training, distance education, on-the-job training, and self-directed learning [16].

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3. Artificial intelligence and lifelong learning

3.1 Challenges and risks of artificial intelligence

According to the Council of Europe, “AI is a collection of sciences, theories, and methods aimed at replicating human cognitive abilities through machines. Current advancements strive to enable devices to undertake complex tasks once exclusively handled by humans” [17]. UNICEF defines AI as machine-based systems guided by human-defined objectives that predict, provide recommendations, and make decisions impacting real or virtual environments. These AI systems interact with humans, exhibit autonomy, and adapt their behavior through context-driven learning [18].

AI encompasses functions similar to human mental processes, including perception, logical reasoning, knowledge acquisition, problem-solving, and creative thinking [19]. Machine learning, a subset of AI, focuses on machines autonomously learning from data patterns, distinguishing it from AI, which simulates human intelligence for various tasks. Examples of AI in daily life include voice assistants like Siri and Alexa and customer service chatbots, while machine learning is essential due to the growing complexity of data [19].

Machine learning models, such as learning analytics, merge data mining and AI for predictive and prescriptive purposes. Generative AI utilizes unsupervised and semi-supervised machine learning to create text, audio, video, images, and code content. Notable technologies in this domain include Generative Adversarial Networks (GANs) and models like the Generative Pre-trained Transformer (GPT) [19]. To use generative AI effectively, it is essential to structure models for generating novel content based on existing data.

A summary of the UNICEF key risks and concerns about using AI is presented in Table 1.

Key risks and concerns about using AI (Adapted from [18])
Discrimination and exclusion through biasSystemic bias in AI systems, especially against children.
Causes of bias include biased training data, context blindness, and lack of human oversight.
Attributing data alone for the problem of bias is insufficient.
Bias also results from the social context of AI development and use.
The lack of regulations of AI can perpetuate discrimination against children.
Constraints on children’s prospects from AI profilingAI-based profiling can perpetuate biases and limit opportunities.
Relying on inconsistent data can restrict personal development.
User profiles may reinforce stereotypes and negatively impact self-esteem.
Profiling threatens children’s privacy and freedom.
Violation of data protection and privacy rightsAI’s use of private data challenges data protection principles.
Children who may not grasp data risks require special protection.
Parents often lack the means to ensure their child’s privacy.
Unforeseen data uses compound privacy concerns.
Exacerbation of the digital divideThe digital divide disproportionately affects marginalized communities and children.
Unequal access to technology and limited digital skills widen the gap.
Variations in technology access and education influence AI engagement.
Developed regions benefit most from AI, leaving others behind.
The International Telecommunication Union emphasizes the impact on under-resourced areas.

Table 1.

Risks and concerns about using AI.

In lifelong learning, various groups perceive and shape AI differently, influenced by their interests, goals, and motivations in the field. Different social, political, and economic backgrounds can result in distinct interpretations of AI, each unique to a particular social group. These diverse interpretations of AI and the practices related to its development and application in lifelong learning have substantial consequences for the design and, ultimately, the experiences and opportunities within lifelong learning [20]. However, according to [20], there is the potential for constructive change by engaging diverse groups in AI and lifelong learning. It is essential to recognize the involvement of various social groups in shaping technology and to expand the range of stakeholders involved in discussions about AI and lifelong learning.

3.2 Integrating artificial intelligence into lifelong learning

Integrating AI into lifelong learning can potentially enhance individuals’ learning experiences, but it must be done responsibly and ethically. This means ensuring that individuals develop critical thinking skills and problem-solving abilities while actively addressing and minimizing biases and discrimination. Responsible and ethical AI use in lifelong learning is vital to the broader AI ethics discussion [21].

Regarding the job market, companies will set themselves apart not only by possessing advanced AI tools but also by how effectively their employees utilize these tools and navigate the intricate decisions required in their work [22]. As the use of information-rich tools grows, the significance of decisions made by human individuals becomes even more pronounced. Consequently, continuous learning becomes increasingly vital. Employees, managers, and executives must stay abreast of technological advancements and be capable of comprehending and interpreting the outcomes produced by these machines. [22] suggest that in such an environment, traditional classroom learning no longer holds the key to the future of education. Instead, it is about learning to use AI through practical experience and improving one’s skills while actively performing tasks. This transition requires a deliberate effort to exemplify learning behaviors and dedicate resources to advancing learning methods that include AI.

AI can play a significant role in the future of lifelong learning, changing how individuals acquire knowledge and skills throughout their lives. Table 2 presents some critical ways AI is expected to impact lifelong learning.

Key ways in which AI may impact Lifelong Learning
Personalized Learning
[20]
AI can assess individual learning styles, preferences, and strengths to create highly personalized learning experiences. This tailored approach ensures learners receive content and resources that are most relevant and effective, making the learning process more engaging and efficient.
Adaptive Learning Systems
[23]
AI-powered adaptive learning platforms can continuously adjust the difficulty and pace of learning materials based on a learner’s progress. This helps learners stay challenged but not overwhelmed, optimizing their learning journey.
Skill Assessment and Gap Analysis
[24]
AI can assess a learner’s existing skills and knowledge, identify gaps, and recommend specific courses or modules to address those gaps. This enables individuals to focus on areas needing improvement, making their learning more effective.
AI Tutors and Assistants
[25]
AI-driven virtual tutors and educational assistants can provide instant feedback, answer questions, and offer guidance 24/7. These AI companions can enhance the learning experience by providing on-demand support.
Content Generation and Curation
[26]
AI algorithms can generate educational content like quizzes, practice problems, and textbooks. They can also curate and recommend relevant learning resources from a vast pool of online content.
Accessibility and Inclusivity
[27]
AI can improve accessibility for disabled individuals by providing features like speech recognition, text-to-speech conversion, and adaptive interfaces, making learning more inclusive.
Lifelong Credentialing
[28]
Blockchain and AI technologies can enable the secure verification of lifelong learning achievements and credentials, making it easier for individuals to showcase their skills to employers and educational institutions.
Continuous Learning in the Workplace
[29]
AI can support ongoing professional development by identifying relevant training opportunities, tracking progress, and ensuring that employees remain up-to-date with industry trends and technologies.
Data-Driven Insights
[30]
AI analytics can provide valuable insights into learner behavior and performance, helping educational institutions and organizations optimize lifelong learning programs and resources.

Table 2.

AI impact on lifelong learning.

While AI holds tremendous potential for lifelong learning, it also raises concerns about data privacy, algorithmic bias, and the role of human educators. Striking a balance between the benefits of AI-driven personalized learning and the need for human guidance and ethical considerations will be critical for the future of lifelong learning [21].

3.3 Lifelong learning and AI across various work environments

In an era where adaptability and agility are essential, the insights gained from AI implementation redefine industries and underscore the importance of a learning ecosystem where humans use machines to navigate the evolving landscape of work and knowledge acquisition. The use of AI will require and reshape lifelong learning, demanding a paradigm shift in how individuals approach education and skill development. As AI becomes increasingly integrated into diverse facets of work environments, embracing lifelong learning becomes imperative to stay relevant in a rapidly evolving environment.

Enterprises that succeed with AI have a common trait: they quickly learn from their AI endeavors, whether successful or not, and apply these insights to their core business operations. Only 10% of companies are reaping financial benefits from AI, despite many piloting or deploying AI technologies [31].

These successful AI adopters can sense and respond rapidly to changing conditions, such as new competitors or global disruptions like a pandemic, making them more agile and adaptable. They create an environment where executives and employees can understand, adjust, and adapt to AI-driven processes rather than having automation thrust upon them without preparation [32].

According to [33], to achieve AI success, these organizations employ specific strategies:

  • They foster systematic and continuous learning between humans and machines, emphasizing that AI learning is a collaborative effort between machines learning autonomously, humans teaching machines, and machines teaching humans.

  • They develop various modes of interaction between humans and machines, tailoring the interaction methods to specific contexts. For instance, AI systems make recommendations in some situations, and humans decide whether to implement them.

  • They adapt and evolve their processes in response to the insights gained from AI. Instead of merely incorporating AI into existing processes, they modify them based on what they learn from AI.

AI detectors profoundly impact society and the economy, notably in healthcare, where they contribute to early disease diagnosis and transportation, enhancing safety by identifying hazards and preventing accidents. Economically, AI detectors boost productivity by automating tasks and processes, improving customer experiences and competitiveness. Ethical concerns, however, must be addressed to ensure responsible and unbiased use [34].

AI, particularly in disease detection such as cancer, can identify abnormal cell patterns indicative of cancerous growth, potentially aiding in early diagnosis and treatment. Google’s AI-powered breast cancer detector demonstrates remarkable accuracy compared to radiologists [35]. AI’s role in early disease detection extends to conditions like diabetes and heart diseases, as exemplified by IBM Watson’s healthcare AI detectors, contributing to more accurate diagnoses [36, 37].

In transportation, AI plays a vital role in object detection for autonomous vehicles, enhancing safety and efficiency. Tesla’s self-driving cars integrate AI technology, showcasing enhanced safety and efficiency through continuous real-time data analysis [38]. As demonstrated by Barcelona’s smart traffic management system, AI detectors in traffic flow monitoring facilitate real-time data collection, predictive analytics, incident detection, and adaptive traffic control [39].

AI detectors, such as barcode scanners and image recognition software, automate inventory management in business operations. Walmart’s successful implementation showcases benefits like enhanced predictive capabilities, reducing stockouts, increasing customer satisfaction, and optimizing inventory management through real-time predictions [34]. AI detectors also play a crucial role in customer behavior analysis, offering valuable insights for personalized product recommendations, as seen with Amazon’s use of machine learning algorithms [40].

In security, AI detectors, particularly facial recognition technology, enhance measures for potential threat detection. Despite privacy concerns, NEC’s NeoFace system in airports employs AI-powered facial recognition to swiftly and accurately identify individuals in crowded areas, improving security [41].

Several other instances showcase the integration of AI into companies’ and individuals’ daily lives, as outlined in Table 3, adapted from [37].

Practical Applications: Machine Learning in Action
Technology ApplicationsSummary
Email Automation and Spam FilteringMachine learning impacts email functionality, powering automation and effective spam filtering by adapting to patterns in undesirable content. It analyzes data from domains, sender locations, message text, and user-marked emails, improving accuracy—successful spam filtering results from ongoing learning from user feedback and data references.
Social Media OptimizationSocial media platforms utilize big data and AI, employing machine learning to enhance functionality and combat inappropriate content and cyberbullying. Deep neural networks process data, learning user preferences for content suggestions and targeted advertising. Machine learning plays a crucial role in maintaining platform integrity and user loyalty.
Mobile Voice-to-Text and Predictive TextVoice-to-text applications like Siri and Cortana utilize supervised and unsupervised learning to transcribe audio into writing. Predictive text learns contextual words and phrases, even adapting to unique terminology. The technology suggests personalized words and phrases, showcasing its ability to understand and predict user language.
Financial AccuracyMachine learning in the financial industry enhances digital systems, monitoring abundant transactions for fraudulent activities. It enables features like mobile check deposits through handwriting and image recognition. Machine learning, data analytics, and AI influence credit scoring, lending decisions, and improved customer experiences in banking.
Predictive AnalyticsPredictive analytics, a form of advanced analytics, utilizes machine learning and AI to analyze current and historical data for predicting future outcomes. Techniques like data mining and statistics help identify patterns, minimizing human errors and increasing the speed of analysis.

Table 3.

Practical applications of AI adapted from tableau (2023).

3.4 Artificial intelligence use in educational settings

AI is actively shaping various aspects of education that may be applied to lifelong learning. Examples include plagiarism detection, maintaining exam integrity, employing chatbots for enrollment and retention, utilizing learning management systems, transcribing faculty lectures, enhancing online discussion boards, analyzing student success metrics, and contributing to academic research [42]. The application of AI is expanding daily, with technologies like Thinkster Math, Jill Watson (an AI-enabled virtual teaching assistant), Brainly (a social media platform for classroom questions), Nuance (speech recognition software), Cognii (AI-based products for education), KidSense (AI educational solutions for children), and Content Technologies (AI-driven instructional design and content application solutions).

AI plays a crucial role in promoting inclusion and universal access to education. It facilitates global classrooms for diverse language speakers and those with visual or hearing impairments, enables access for students facing illness or unique learning needs, and strives to create equal opportunities for students regardless of socio-economic status, race, gender, sexuality, ethnicity, or physical and mental abilities. Additionally, AI holds promise in individualized learning, empowering teachers to tailor lessons to each student’s needs, eliminating the challenge of teaching to the middle when students have varied skill levels and learning abilities [43].

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4. Recommendations

Integrating AI and DE in lifelong learning can significantly enhance the learning experience, making it more adaptive, engaging, and accessible for learners of all ages. However, it is essential to approach this integration thoughtfully, addressing ethical and accessibility considerations while keeping the learner’s needs at the forefront.

The following provides some guidelines on how to use AI and DE in lifelong learning experiences.

  • Flexible learning pathways

    • Implement AI-driven learning management systems that adapt to individuals’ needs and preferences.

    • Offer asynchronous learning options, allowing learners to access materials and complete assignments at their own pace.

    • Provide a mix of short-term courses, micro-credentials, and longer-term programs to cater to different needs and time commitments.

  • Intelligent content delivery

    • Develop AI-powered content recommendation systems for Learning Management Systems that suggest relevant articles, videos, courses, interactive simulations, and gamified learning experiences based on learners’ interests and goals, ensuring high-quality, engaging educational content.

    • Use data analytics to assess each learner’s progress and recommend personalized learning resources and activities.

  • Adaptive assessments

    • Create AI-powered assessment tools that adapt the difficulty of questions based on the learner’s performance, providing a more accurate measure of their knowledge.

    • Incorporate various assessment methods to cater to different learning styles, including quizzes, essays, peer reviews, and project-based assessments.

    • Use natural language processing (NLP) for automated essay grading, reducing the burden on educators.

  • Enhanced engagement and feedback

    • Employ AI to analyze learner behavior and engagement patterns to provide timely feedback and interventions when a learner is disengaged or struggling.

    • Foster a sense of community by creating discussion forums, chat rooms, and virtual meetups for learners to interact and collaborate.

    • Gamify elements of the learning experience to boost motivation and retention.

  • Professional development

    • Offer continuous training for professionals to use AI tools and platforms effectively in their work.

    • Provide access to mentors or instructors who can guide lifelong learners, answer questions, and offer personalized support.

  • Ethical considerations

    • Ensure the ethical use of AI in education by addressing concerns such as data privacy, algorithmic bias, transparency, and establish guidelines and standards for maintaining fairness and equity.

    • Ensure that all educational materials and platforms are accessible to individuals with disabilities.

  • Accessibility and inclusivity

    • Develop marketing and outreach strategies to reach a diverse audience and raise awareness of the lifelong learning programs.

    • Promote diversity and inclusion in course content and ensure representation of various backgrounds and perspectives.

  • Research and evaluation

    • Promote ongoing research and evaluation of AI’s and DE impact on lifelong learning to refine and improve DE and AI-powered systems.

    • Share findings and best practices across the educational community.

  • Collaboration and partnerships

    • Foster collaboration between educational institutions, edtech companies, government agencies, and other stakeholders to create a cohesive approach to AI and DE in lifelong learning.

    • Collaborate with businesses and employers to develop customized training programs that address industry-specific skills and knowledge.

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5. Conclusion

In conclusion, DE, facilitated by technology, democratizes education, breaking barriers imposed by geography, economic constraints, and physical limitations. While inclusive, DE is not without challenges, including varying instructional quality and technological requirements.

Schools are crucial in expanding students’ interest in continuing to learn. Technology, specifically AI and DE, creates flexible and inclusive environments. The chapter explores its benefits, including responding to competitive job market demands, credentialling, continuous learning and skill assessment. The evolving job market emphasizes possessing advanced AI tools and developing human capabilities to navigate complex decisions.

Looking ahead, the chapter envisions DE, fueled by AI, assembling personalized study programs and tracking individual competencies. Learning analytics can guide students toward open educational resources, fostering lifelong learning hubs. Challenges persist, including balancing pedagogical approaches, accommodating diverse learning styles, and addressing social inequalities in digital skills.

AI is reshaping the lifelong learning landscape, offering immense potential while introducing critical risks and challenges. Key risks associated with AI, such as discrimination, privacy, algorithmic bias, the digital divide, and the delicate balance between AI-driven personalization and human guidance, necessitate responsible and ethical AI use in lifelong learning.

As lifelong learning evolves with AI and DE integration, careful attention to flexibility, adaptive assessments, enhanced engagement, ethical considerations, accessibility, research, and collaboration is essential for a comprehensive and inclusive lifelong learning experience.

References

  1. 1. Allen-Kinross P. Lifelong Learning Campaigners Join Forces to Launch ‘Centenary Commission’ on Adult Education. FeWeek; 2019. Available from: https://feweek.co.uk/lifelong-learning-campaigners-join-forces-to-launch-centenary-commission-on-adult-education/
  2. 2. Sung J. Lifelong learning in Singapore: Where are we? Asia Pacific Journal of Educ. 2017;37(4):615-628 Available from: https://www.tandfonline.com/doi/full/10.1080/02188791.2017.1386090
  3. 3. Allen IE, Seaman J. Digital Learning Compass: Distance Education Enrollment Report 2017 [Internet]. 2017. Available from: https://files.eric.ed.gov/fulltext/ED580868.pdf
  4. 4. Kara M, Erdoğdu F, Kokoç M, Cagiltay K. Challenges faced by adult learners in online distance education: A literature review. Open Prax. 2019;11(1):5
  5. 5. Sadykova G, Dautermann J. Crossing cultures and borders in international online distance higher education. Journal of Asynchronous Learning Network. 2009;13(2):89-114
  6. 6. Williamson B, Eynon R, Potter J. Pandemic Politics, Pedagogies and Practices: Digital Technologies and Distance Education during the Coronavirus Emergency [Internet]. Vol. 45. Learning, Media and Technology. Oxfordshire: Taylor & Francis; 2020. DOI: 10.1080/17439884.2020.1761641
  7. 7. Ahmed SA, Hegazy NN, Abdel Malak HW, Cliff Kayser W, Elrafie NM, Hassanien M, et al. Model for utilizing distance learning post COVID-19 using (PACT)TM a cross sectional qualitative study. BMC Medical Education. 2020;20(1):1-13
  8. 8. Peters O. The contribution of open and distance education to lifelong learning. In: Jarvis P, editor. The Routledge International Handbook of Lifelong Learning. Oxfordshire: Routledge; 2009. pp. 223-237
  9. 9. Sebastian V. Lifelong learning in the long tail age: The educational challenge of distance learning. Journal of Lifelong Learning Society. 2012;8(2):23-37
  10. 10. Mississippi State University. Why Online Education Is Key to Lifelong Learning [Internet]. 2023. Available from: https://www.online.msstate.edu/article/life-long-learning
  11. 11. Bright Educations. Why distance education is the best choice for working professionals [internet]. Bright Educations Blog; 2023 Available from: https://brighteducationsgroup.com/why-distance-education-is-the-best-choice-for-working-professionals/
  12. 12. Walden University. Lifelong Learning: 5 Ways Individual Online Courses Can Boost your Career [Internet]. 2023. Available from: https://lifelonglearning.waldenu.edu/resource/lifelong-learning-5-ways-individual-online-courses-can-boost-your-career.html
  13. 13. Dowling C. Evaluating electronic learning environments from a lifelong learning perspective. In: Van WTJ, Kendall M, editors. Lifelong Learning in the Digital Age. Dordrecht: Kluwer Academic Publishers; 2004. pp. 123-131
  14. 14. Eynon R, Malmberg LE. Lifelong learning and the internet: Who benefits most from learning online? British Journal of Educational Technology. 2021;52(2):569-583
  15. 15. UNESCO. The Dakar Framework for Action [Internet]. Paris, France: Unesco; 2000 Available from: http://unesdoc.unesco.org/images/0012/001211/121147e.pdf
  16. 16. Benavot A, Hoppers CO, Lockhart AS, Hinzen H. Reimagining adult education and lifelong learning for all: Historical and critical perspectives. International Review of Education. 2022;68(2):165-194
  17. 17. Council of Europe - Commissioner for Human Rights. Unboxing Artificial Intelligence: 10 Steps to Protect Human Rights [Internet]. 2019. Available from: https://www.coe.int/en/web/commissioner/-/unboxing-artificial-intelligence-10-steps-to-protect-human-rights
  18. 18. UNICEF Office of Global Insight and Policy. Policy Guidance on AI for Children [Internet]. New York: New York, USA; 2021 Available from: https://www.unicef.org/globalinsight/reports/policy-guidance-ai-children
  19. 19. McKinsey & Company. What Is Generative AI? [Internet]. 2023. Available from: https://www.mckinsey.com/featured-insights/mckinsey-explainers/what-is-generative-ai#/
  20. 20. Eynon R, Young E. Methodology, legend, and rhetoric: The constructions of AI by academia, industry, and policy groups for lifelong learning. Science, Technology & Human Values. 2021;46(1):166-191
  21. 21. Mhlanga D. Open AI in education, the responsible and ethical use of ChatGPT towards lifelong learning. In: FinTech and Artificial Intelligence for Sustainable Development Sustainable Development Goals Series. Cham: Palgrave Macmillan; 2023. pp. 387-409
  22. 22. Edmondson A, Saxberg B. Putting Lifelong Learning on the CEO Agenda. Chicago: McKinsey Q; 2017
  23. 23. Ngo TTA. The perception by university students of the use of ChatGPT in education. International Journal of Emerging Technologies in Learning. 2023;18(17):4-19
  24. 24. Boogere J, Eilu E, Nakatumba J. Envisioning life-long learning skills report review on artificial intelligence and machine learning (AI/ML). International Journal of Computer Science and Mobile Computing [Internet]. 2020;9(4):19-26 Available from: https://nru.uncst.go.ug/handle/123456789/5629
  25. 25. Winkler R, Roos J. Bringing AI into the classroom: Designing smart personal assistants as learning tutors. In: ICIS 2019 Proceedings. Atlanta: AIS Electronic Library; 2019
  26. 26. Rehm G, Bourgonje P, Hegele S, Kintzel F, Schneider JM, Ostendorff M, et al. QURATOR: Innovative technologies for content and data curation. In: QURATOR 2020: The Conference for Intelligent Content Solutions. Berlin, Germany; 2020. pp. 1-15
  27. 27. Morris MR. AI and accessibility. Communications of the ACM [Internet]. 2020;35-37. Available from: https://dl.acm.org/doi/fullHtml/10.1145/3356727
  28. 28. Brown M, Nic Giolla Mhichil M, Beirne E, Mac LC. The global micro-credential landscape: Charting a new credential ecology for lifelong learning. Journal of Learning for Development. 2021;8(2):228-254
  29. 29. Howard J. Artificial intelligence: Implications for the future of work. American Journal of Industrial Medicine. 2019;62(11):917-926
  30. 30. Ahmad K, Iqbal W, El-Hassan A, Qadir J, Benhaddou D, Ayyash M, et al. Data-driven artificial intelligence in education: A comprehensive review. EEE Transactions on Learning Technologies. 2023:17:12-31. DOI: 10.1109/TLT.2023.3314610
  31. 31. Kahn J. Why Do So Few Businesses See Financial Gains from Using AI? Fortune [Internet]. 2020; Available from: https://fortune.com/2020/10/20/why-do-so-few-businesses-see-financial-gains-from-using-a-i/
  32. 32. Wamba-Taguimdje SL, Fosso Wamba S, Kala Kamdjoug JR, Tchatchouang Wanko CE. Influence of artificial intelligence (AI) on firm performance: The business value of AI-based transformation projects. Business Process Management Journal. 2020;26(7):1893-1924. DOI: 10.1108/BPMJ-10-2019-0411
  33. 33. Mckendrick J. Leap And Learn: The common thread of artificial intelligence success stories. Forbes [Internet]; 2020 Available from: https://www.forbes.com/sites/joemckendrick/2020/10/26/leap-and-learn-the-common-thread-of-artificial-intelligence-success-stories/?sh=503a8ad24890
  34. 34. AIContentfy team. Exploring the Top 5 AI Detector Examples: Real-Life Applications and Success Stories [Internet]. AIContentfy; 2023 Available from: https://aicontentfy.com/en/blog/exploring-top-ai-detector-examples-real-life-applications-and-success-stories
  35. 35. Google. Improving Breast Cancer Screening with Artificial Intelligence [Internet]. Google Health; 2023 Available from: https://health.google/caregivers/mammography/
  36. 36. Jha S, Topol EJ. Adapting to artificial intelligence: Radiologists and pathologists as information specialists. JAMA 316 [Internet]. 2016;22:2353-2354. DOI: 10.1001/jama.2016.17438
  37. 37. tableau. Real-World Examples of Machine Learning (ML) [Internet]. tableau; 2023 Available from: https://www.tableau.com/learn/articles/machine-learning-examples
  38. 38. Huang G, Yu Y. The application of artificial intelligence in organizational innovation management: Take the autonomous driving Technology of Tesla as an example. In: Advances in Artificial Systems for Logistics Engineering. 1st ed. New York: Springer International Publishing; 2022
  39. 39. Ravindra S. The Transformation that Barcelona Had Undergone to Become a Smart City [Internet]. barcinno; 2018. Available from: http://www.barcinno.com/barcelona-smart-city-technologies/
  40. 40. Amazon. New AI Capabilities Make it Easier for Sellers to Write Engaging, Effective Product Listings, and Help Shoppers Find What they Are Looking for [Internet]. News Small Business; 2023 Available from: https://www.aboutamazon.com/news/small-business/amazon-sellers-generative-ai-tool#:~:text=NewAI capabilities make it,essays%2C poems%2C and presentations
  41. 41. NEC. NeoFace Watch [Internet]. Face Recognition; 2023. Available from: https://www.nec.com/en/global/solutions/biometrics/face/neofacewatch.html
  42. 42. University of San Diego. 43 examples of artificial intelligence in education [internet]. Artificial Intelligence. 2023. Available from: https://onlinedegrees.sandiego.edu/artificial-intelligence-education/
  43. 43. Michel-Villarreal R, Vilalta-Perdomo E, Salinas-Navarro DE, Thierry-Aguilera R, Gerardou FS. Challenges and opportunities of generative AI for higher education as explained by ChatGPT. Education in Science. 2023;13(9):856-874. DOI: 10.3390/educsci13090856

Written By

Patricia Fidalgo and Joan Thormann

Submitted: 20 November 2023 Reviewed: 17 December 2023 Published: 18 January 2024