Received: 2024-07-30; Revised: 2024-09-12; Accepted: 2025-02-03; Online First: 2025-03-27; Published: 2025-05-01
How to cite:
Bonales-Daimel, G.,
Martínez-Estrella, E.C. & Sierra-Sánchez, J. (2025). Evolution of the
teaching profile and the emergence of new professional roles in the Age of
Artificial Intelligence (AI). A
perspective from teachers, students, and professionals [Evolución del perfil
docente y surgimiento de nuevos roles profesionales en la Era de la
Inteligencia Artificial (IA). Una perspectiva desde docentes, estudiantes y
profesionales]. Pixel-Bit. Revista
de Medios y Educación, 73,
art.3. https://doi.org/10.12795/pixelbit.109085
ABSTRACT
This article examines how artificial
intelligence (AI) is revolutionizing the labor market in Spain, focusing on the
creation of new professional roles and the transformation of existing ones.
Utilizing a mixed-methods approach that combined surveys of educators and
students with interviews of industry professionals, the study reveals a
collaborative learning model involving students, teachers, and AI. Educators
are evolving from mere transmitters of knowledge to facilitators of learning,
leveraging AI's capabilities to prepare content and adapt pedagogical
approaches. Students, generally optimistic, identify opportunities in emerging
roles such as AI design experts and technology consultants. However, educators
recognize the need to adapt curricula to these new roles, albeit with limited
clarity on which will be most in demand. Among professionals, opinions are
divided: some believe AI will enhance current roles, while others anticipate
the emergence of new positions such as techno-anthropologists and bioeconomy
experts. The study underscores the importance of continuous training, skills
updating, and the integration of values such as empathy and sustainability to
prepare students for the future labor market.
RESUMEN
Este
artículo examina cómo la inteligencia artificial (IA) está revolucionando el
mercado laboral en España, centrando la atención en la creación de nuevos roles
profesionales y la transformación de los existentes. Utilizando una metodología
mixta que combina encuestas a docentes y estudiantes con entrevistas a
profesionales del sector, el estudio revela un modelo de aprendizaje
colaborativo entre alumnos, profesores e IA. Los educadores están evolucionando
de ser meros transmisores de conocimiento a facilitadores del aprendizaje,
aprovechando la capacidad de la IA para preparar contenidos y adaptar enfoques
pedagógicos. Los estudiantes, en general optimistas, identifican oportunidades
en roles emergentes como expertos en diseño con IA y consultores tecnológicos.
Sin embargo, los docentes reconocen la necesidad de ajustar los currículos
hacia estos nuevos roles, aunque con poca claridad sobre cuáles serán los más
demandados. Entre los profesionales, existe una división de opiniones: algunos
creen que la IA mejorará los roles actuales, mientras que otros prevén la
aparición de nuevos puestos como antropólogos tecnológicos y expertos en
bioeconomía. El estudio subraya la importancia de la formación continua, la
actualización de habilidades y la integración de valores de empatía y
sostenibilidad para preparar a los estudiantes para el futuro laboral.
KEYWORDS· PALABRAS CLAVES
Artificial intelligence; Higher Education; New Professional
Roles; Digital Transformation; Teacher Training; Labor Market.
Inteligencia artificial; educación
superior; nuevos retos profesionales; transformación digital; competencia
digital; formación docente; mercado laboral.
1. Introduction
The integration of artificial intelligence (AI) into
various industries is reshaping the employment landscape. The advent of
automation, data intelligence and emerging technologies is giving rise to new
professional roles that require specialised skills and an adaptive approach.
This article examines how teachers, students and professionals perceive and
prepare for these changes, highlighting the importance of lifelong learning and
technological adaptation (Dueñas Zorrilla et al., 2024).
The advent of AI as a transformative technology in the
21st century has had a profound impact on various sectors, including education
and the labour market (Floridi et al., 2018; Russell & Norvig, 2020). The
automation of tasks traditionally performed by humans, facilitated by advanced
algorithms, is a key development in this field (Gwo-Jen et al., 2020). This
collaboration between humans and AI systems is creating new opportunities and
challenges, particularly in teaching-learning processes (López-Regalado et al.,
2024).
Within the extensive domain of artificial
intelligence, generative artificial intelligence (GAI) has attained a notable
prominence in the fields of education and professional development. In contrast
to other forms of AI, which predominantly emphasise data analysis or process
automation, GGI possesses the capacity to generate novel content, encompassing
automated texts and assessments, interactive simulations, and customised
learning materials (OpenAI, 2023; Giannakos et al., 2024). This article focuses
on the application and impact of AGI in training and professional practice,
delving into the new roles emerging in education and the workplace. It analyses
how this technology is redefining the skills needed in the labour market and
the profile of the teacher, as well as how teachers, students and professionals
perceive these changes.
1.1. Teaching Profile Evolution
In recent decades, education has undergone a
significant transformation, driven by the advancement of technology and the
integration of artificial intelligence (AI). The role of the teacher has
undergone a radical change, shifting from a mere transmitter of knowledge to a
facilitator of learning. The advent of emerging technologies such as augmented
reality (AR) and virtual reality (VR) has been instrumental in fostering more
inclusive and effective learning environments, particularly for students with special
educational needs (López-Regalado et al., 2024).
AI has emerged as a tool with the potential to
transform pedagogy (Luckin et al., 2016). Intelligent tutoring systems and
virtual assistants, for instance, assist educators in managing routine tasks
and enhance the learning experience by providing immediate feedback (Gunkel,
2020; Selwyn, 2019).
The need for personalisation and adaptation in the
utilisation of technology has expedited the evolution of teaching practices,
adapting them to the distinctive characteristics of each generation.
Millennials, for instance, have been observed to seek detailed information,
while Centennials have been shown to prefer more autonomous and practical
learning methods (Sánchez-Caballé et al., 2024). Generation Z, comprising
current university students, has been found to prioritise a comprehensive
education, placing value on their mental and emotional well-being
(Samacá-Salamanca, Martínez-Estrella & García-Rivero, 2024).
According to Miller & Bossomaier (2019), AI tools
can analyse student behaviour in real time, providing valuable information to
improve their teaching methodologies, increasing knowledge retention and
student motivation (Selwyn, 2019).
Despite these benefits, some university professionals
are concerned about the potential misuse of AI tools, such as plagiarism and academic
integrity issues (Bockting et al., 2023 cited in Crawford et al., 2023).
However, it is essential that teachers are willing to develop new learning
strategies, adapting their teaching and assessment methods to address these
challenges (Crawford et al., 2023; López-Regalado et al., 2024).
There is a discernible disparity in the implementation
of AI technologies between teachers and students. Students are more adept in
the use of digital technologies and tend to explore and utilise a more
extensive array of AI tools. Conversely, teachers demonstrate a preference for
more familiar and accessible applications, such as ChatGPT (Zawacki-Richter et
al., 2019).
The integration of AI within educational settings
brings with it a series of challenges, including the necessity for ongoing
training and adaptation to emerging technological tools (Dueñas Zorrilla et
al., 2024; Holmes et al., 2019). The training of educators emerges as a pivotal
solution to address this gap (García & Weiss, 2019). As asserted by
McCosker and Wilken (2020), the dearth of AI knowledge among educators can
substantially curtail the favourable impact of these instruments within the
classroom setting. In the domain of health sciences, AI is enhancing learning
and medical research. AI platforms can analyse clinical data to provide precise
diagnoses and recommend personalised treatments (Almasri, 2024). For instance,
AI systems can analyse images to detect diseases in their nascent stages
(Topol, 2019). In the domain of Pure Sciences, the application of AI is
predominantly focused on the translation of scientific texts and the execution
of complex research endeavours aimed at identifying patterns that are
challenging to discern through manual means (Jordan & Mitchell,
2015).Within the field of Arts and Humanities, AI has the capacity to enhance
creative processes (McCosker & Wilken, 2020).In the realm of Social
Sciences and Law, AI is being utilised to generate content and enhance the
interaction with students. Nevertheless, it is imperative that educational
programmes in these disciplines incorporate components that nurture critical
thinking and originality (Luckin et al., 2016).
1.2. Emergence of New Professional Roles
The labour market is undergoing constant evolution,
with the advent of artificial intelligence (AI) giving rise to novel
professional roles. This transformation is evidenced by the rapid emergence of
specific and highly specialised profiles that demonstrate continuous
adaptability to technological demands (Mañas-Viniegra & Jiménez-Gómez,
2019). The professionalisation of these roles is driven by the necessity for
advanced skills and in-depth knowledge across diverse domains, as highlighted
by the growing demand for these technologies.
Temporary employment agencies such as Manpower and
Adecco emphasise that demand for technical and digital skills is increasing,
with these companies pointing out that emerging roles require a combination of
advanced technical competencies and soft skills, such as critical thinking and
adaptability (Adecco, 2023; ManpowerGroup, 2023). For instance, professions
such as AI and machine learning specialists, data analysts, AI ethics
managers, prompt engineers, and robotic automation experts are emerging as
vital to the modern economy (Chui et al., 2016).According to the World Economic
Forum, it is estimated that by 2025, 97 million new roles will emerge, adapted
to the new division of labour between humans, machines and algorithms (World
Economic Forum, 2024).
1.3. Justification and Objectives
The primary objective of this research (O1) is to
identify and analyse the novel professional roles that are emerging in
conjunction with the advancement of artificial intelligence (AI), and to assess
the competencies and skills required to perform these roles effectively.
Furthermore, this study seeks to understand the perceptions and attitudes of
teachers, students and professionals regarding these changes (O2), with a view
to providing recommendations for improved preparation and adaptation to the new
work environment. The study also seeks to compare the perceptions and attitudes
of teachers, students and professionals (O3), highlighting the need to
strengthen the training of educators in emerging technologies and assessing
whether there are notable differences in perceptions and attitudes towards AI
based on demographic variables such as gender, age and area of knowledge of the
participants (O4).
To this end, the following research questions (RQs)
have been formulated: do new professional roles emerge with AI, or are they a
continuation/amplification of existing roles; what competences and skills are
considered crucial to perform the new emerging roles in an AI-dominated
environment; and how do teachers, students and professionals perceive the
impact of AI in their respective areas of work and study; whether there are
salient differences in perceptions and attitudes towards AI based on demographic
variables such as gender, age and area of expertise; and whether there are
salient differences in perceptions and attitudes towards AI based on
demographic variables such as gender, age and area of expertise.
2. Methodology
A mixed research methodology was employed in order to
conduct this study. The initial phase of the study comprised a comprehensive
literature review, the objective of which was to establish a theoretical
framework on new professional roles driven by AI. This review yielded a solid
theoretical framework and facilitated the identification of knowledge gaps and
areas of interest for the survey.
The second phase of the study consisted of the
administration of an online survey, the specific design of which was intended
to collect quantitative and qualitative data. The sample comprised 300
participants, with 150 teachers and 150 students from diverse academic
backgrounds, including Social Sciences, Engineering, and Health Sciences, among
others, and from various geographical locations throughout Spain. The number of
participants in each context was meticulously matched.
The data collection instrument was a Google Forms
questionnaire, which was designed and disseminated between January and February
2024 via various platforms, including Twitter, LinkedIn and email.
Dissemination was conducted through personal contacts, work colleagues, friends
and students from different public and private universities in Spain.
The questionnaire was developed by a lead researcher
and validated by a fellow researcher, as well as cross-checked by an external
expert with a broader background in education and artificial intelligence to
ensure content validity. It includes thematic questions with open-ended and
multiple-choice answers, allowing for a detailed insight into the use,
applications and opinions on AI in education and its implications for career
opportunities. The methodological approach adopted in this study aligns with
the guidelines outlined by Almasri (2024) in his systematic review on the
impact of AI in science education. Almasri emphasised the significance of
leveraging advanced AI tools to personalise learning and provide immediate
feedback, thereby enhancing student comprehension and engagement. Additionally,
Almasri underscored the necessity to consider both student and teacher
perceptions for effective integration of AI in education, a fundamental
consideration that was incorporated into the design of the questionnaire.
The survey, administered to both teachers and
students, was structured into the following thematic segments:
Table 1
Survey blocks
Categories |
Description |
Demographic data |
Sex, age, place of residence, area of study, etc. |
Knowledge and use of AI |
Definition of AI and prompt;
knowledge and use of programmes; access to AI; methods
of learning; attitude towards AI |
Advantages and disadvantages |
Pros and cons of using AI |
Future of AI |
Impact on education and labour market, needs |
Professional roles |
Profiles and jobs |
In addition, 10 telephone interviews were conducted with
business leaders and artificial intelligence (AI) professionals from various
areas, such as the metaverse, technology companies, education and HR.
Table 2
Interview participants
Interviewee |
Sex |
Position |
Company |
E1 |
Man |
Metaverse and Extended Reality Specialist |
Union Avatars |
E2 |
Woman |
Founder |
Globalyx |
E3 |
Man |
Professor |
ESIC |
E4 |
Woman |
Managing Director |
RH360 |
E5 |
Man |
Co-founder |
Catwalk |
E6 |
Woman |
Digital Innovation |
Telefónica |
E7 |
Man |
Leadership and mentoring specialist |
SAULE |
E8 |
Woman |
HR Technician |
Adecco |
E9 |
Woman |
HR Technician |
Manpower |
E10 |
Man |
HR Technician |
Randstad |
Each interview lasted between 15 and 30 minutes and took
place between May and early July. Professionals were selected through LinkedIn,
direct contacts and referrals from friends and colleagues. This approach
allowed us to gain broader perspectives on the use and impact of AI, as well as
its future application in different professional profiles.
3. Analysis and
Results
This section presents and analyses the data obtained from
the surveys and interviews with teachers, students and professionals.
3.1. Surveys
The data obtained from the 300 surveys are presented
below:
3.1.1. Demographic
Data
The study involved a total of 53% male and 47% female
teachers, with an average age of 47.5 years. The student sample comprised 45%
male and 55% female participants, with an average age of 22 years. The
distribution of students by educational qualification was as follows: 60% held
a Bachelor's degree, 20% had a Master's degree, 15% participated in vocational
training, and 5% were enrolled in other educational programmes.
3.1.2. Knowledge
and Use of AI
In a survey of teachers and students, it was found that
100% of teachers and 95% of students claimed to be familiar with the concept of
Artificial Intelligence, while 95.7% of teachers and 60% of students indicated
that they knew what a prompt was. The survey revealed that teachers, both male
and female, possessed comparable levels of knowledge regarding AI, associating
it with machine-generated tasks and patterns. The most frequently cited
definitions included 'the capacity of machines to carry out tasks through
algorithms that require human intelligence' and 'the generation of patterns
that manage to automate certain tasks.' The students describe AI as a tool that
performs tasks that would normally require human intelligence, facilitating
processes and optimising time. They refer to it as 'a programme that has been
trained with language information and general knowledge capable of
understanding and answering complex questions in a human-like tone' or as 'a
technology that has human-like capabilities'.
These word clouds visualise the most repeated terms in
their definitions, where the size of each word indicates its frequency of
mention. Teachers emphasise terms such as 'machines', 'tasks', 'algorithms',
'human intelligence' and 'systems', while students highlight 'tools', 'help',
'generate' and 'content'.
Figure 1
Word clouds provided by students and teachers
Source: Own elaboration.
The definition of the term 'prompt' is one of consensus
amongst teachers and students, who generally refer to it as a 'command or
description that a human gives to a machine to perform a task'. A preliminary
analysis of the data indicates that male participants tend to provide more
technical details than their female counterparts.
The study found that teachers use AI programmes for
the creation of educational content, such as preparing class material or
generating exam questions. They also use AI to automate the assessment of
assignments and improve interaction with students through personalised
tutorials.
The most prevalent and widely utilised tools are
ChatGPT, DALL-E and Midjourney, with no discernible disparities in tool
preference between men and women. However, variations emerge in their
utilisation across different subject areas. Women in the Arts and Humanities
demonstrate a more cautious approach to tool usage, while those in the Pure
Sciences exhibit a more open and experimental stance.
Students primarily employ AI software for academic and
creative endeavours. In contrast, men exhibit a more expansive range of tool
usage, encompassing ChatGPT, DALL-E, Midjourney, Copilot, Stable Diffusion and
Runway. These tools are employed for diverse purposes, including design, image
generation, content creation, information retrieval, problem-solving, and
mathematical tasks. Notably, men also demonstrate a propensity for programming
and utilizing AI to answer specific questions. Women, on the other hand,
primarily engage with AI tools for searching information, generating ideas, and
creating academic content. They utilise tools such as ChatGPT and Firefly to
search for texts related to their studies, structure and outline papers, and
generate images and text for inspiration. Women tend to employ AI for academic
support and to enhance the organisation of their assignments, focusing on
obtaining explanations of concepts, producing summaries and tables, and solving
university questions. They also use AI for personal projects.
Figure 2
Knowledge and use of AI by area of study and gender
Source: Own elaboration.
As demonstrated in Figure 2, there is a higher level
of awareness of AI among female participants in all subject areas, particularly
in the Social Sciences and Pure Sciences. However, this does not translate into
equal usage, with female participants tending to use AI less than their male
counterparts. In contrast, male participants demonstrate a more balanced
understanding of AI and its application. This discrepancy is particularly
evident in the Social Sciences and Law, where female participants excel in programme
knowledge but not in its practical use. It is noteworthy that women demonstrate
superior performance in the utilisation of AI in Health Sciences and Arts and
Humanities, surpassing their male counterparts. Teachers and students
frequently opt for free versions of AI tools due to budgetary constraints or
the exploratory nature of their endeavours. However, some select paid versions
to access advanced features that enhance their performance. Self-taught
learning is the predominant method for both groups: 56.3% of male teachers and
58.3% of female teachers, as well as 62.5% of male students and 55.6% of female
students, prefer this modality, indicating equal access to self-taught
resources.
However, a higher percentage of female teachers
(20.8%) and students (23.3%) reported relying on recommendations from friends
or experts compared to their male counterparts (12.5%). It is noteworthy that
these training programmes were provided by educational institutions themselves.
Among students, 16.7% of males and 22.2% of females expressed a desire for more
specialised training. While the proportion is higher for women, the chi-square
test was employed to ascertain the statistical significance of this discrepancy
compared to their male counterparts. The test results yielded a chi-square
value of 1.75, a degree of freedom of 1, and a p-value of 0.185. This p-value
is greater than the assigned significance level (0.05), indicating that there
is no statistically significant relationship between gender and the pursuit of
specialised AI training. This suggests that, regardless of gender, students
tend to resort to self-taught learning, a common approach observed in all
fields of study.
3.1.3. Advantages
and Disadvantages
The efficiency, personalisation and innovative potential
of artificial intelligence (AI) in education are emphasised by both groups.AI
has the capacity to save time, provide personalised resources and encourage
self-directed learning, with 55.3% of teachers believing that it improves the
learning process.
However, a number of disadvantages are also noted,
including over-reliance on technology, the potential to promote plagiarism and
the lack of personal effort among students. Concerns regarding the equity of
access to technology are also shared. In addition, there are concerns that
inappropriate use of AI can lead to misinformation or misinterpretation of
data.
In terms of its application in the classroom, teachers
recognise the usefulness of AI for personalising learning, improving efficiency
in lesson preparation and student assessment, as well as for integrating
innovative technologies into the learning environment. While both male and
female respondents recognise the potential of AI to enhance teaching and
learning, a significant proportion of the latter express reservations regarding
the use of AI in the absence of critical oversight and the potential for plagiarism
and over-reliance. In contrast, a higher proportion of male respondents are
more amenable to incorporating AI in their teaching methodologies.
Among the student population, 46.8% expressed support
for the integration of AI in classroom settings, while 21.3% expressed
opposition to its use. The remaining 31.9% indicated that their stance depended
on the specific circumstances. Notably, 85% of students perceive AI as positive
and necessary, viewing it as a beneficial tool for learning support, enhancing
the completion of assignments and projects, and facilitating exploration of
digital technologies and study methods. Furthermore, 80% of students believe
that knowledge of AI will contribute to their professional development.
3.1.4. Future of
Education and AI
Teachers have recognised the need to adapt curricula to
include training in artificial intelligence (AI) and digital skills. However,
some have expressed concerns about a possible over-reliance on technology.
87% of male and female teachers agree that AI will
significantly transform teaching and learning, although with different nuances.
Women emphasise the importance of ethical and supervised implementation. Among
the positive views expressed by respondents, the ability of AI to provide more
personalised and efficient education, the need to design activities that
enhance diverse talents, and the integration of AI into educational processes
stand out. It is suggested that AI has the potential to transform the prevailing
teaching paradigm, enabling a model in which students, teachers and artificial
intelligences learn from each other. Teachers have commented on the
transformation of their role from mere transmitters of knowledge to
facilitators of learning, highlighting the rapidity with which content can be
prepared and the modification of the pedagogical approach. Furthermore, it has
been emphasised that AI has the capacity to eliminate traditional memorisation
and replace fundamental skills such as logical reasoning, reading and writing,
thereby promoting a shift in the forms of assessment towards practical and oral
exams, and ensuring the development of competencies such as critical thinking.
13% of teachers who do not believe that AI will
radically change education say that while it may have an impact, it will not
fundamentally transform teaching.
Figure 3
Belief of AI in finding job opportunities by
educational level
Source: Own elaboration.
Baccalaureate students have been found to demonstrate a
greater degree of acceptance of artificial intelligence within the context of
their education. Vocational Training (VET) students have also been found to
hold predominantly positive views, although some reservations have been
expressed. In the case of Bachelor's Degree students, approximately 70% believe
that AI has the potential to serve as a valuable tool in the pursuit of
employment. Finally, although Master's students maintain a positive attitude,
this is somewhat lower compared to Bachelor's students, with about 90%
considering AI to be beneficial.
Figure 4
Top responses from students on the impact of AI on
their working life
Source: Own elaboration.
As illustrated in Figure 4, students' perceptions
regarding the impact of AI on their future employment are nuanced, with both
optimistic and pessimistic viewpoints being expressed. The positive stance
encompasses the belief that AI will augment students' professional profiles and
streamline work processes, such as CV creation and task organisation, thereby
enhancing the efficacy of the selection process for prospective employees.
Conversely, the negative views expressed by students reflect significant concerns,
including the potential for a decline in job opportunities and the displacement
of face-to-face roles, as well as the apprehension that AI may lead to a
diminution of human social and cognitive abilities, thereby fostering
technological dependence and a reduction in social interaction.
Figure 5
Students' word cloud when referring to the future
Source: Own elaboration.
Figure 5 presents a word cloud pertaining to the prospective
ramifications of AI on occupational domains. The word cloud reveals positive
perspectives, exemplified by terms such as "automated",
"efficiency", and "breakthroughs", which collectively
suggest that AI has the potential to streamline processes, enhance accuracy,
and democratise information access. Students' anticipations indicate that AI
will contribute to time savings and optimised tasks, thereby fostering social
and professional development.
Conversely, concerns are reflected in terms such as
"loss", "dependence" and "disconnection",
suggesting apprehensions regarding the potential erosion of human skills,
technological dependency and privacy concerns. Moreover, there is a perception
that AI could lead to a dehumanising of work and a reduction in social
interactions. The word cloud underscores the necessity for appropriate
regulation to ensure a balanced consideration of the advantages and
disadvantages of AI.
3.1.5.
Professional Roles
100% of teachers concur that artificial intelligence
(AI) will engender new professional roles, albeit few specify which roles. Some
posit that ethics-related positions, such as the ethical compliance specialist,
will emerge. They also predict that AI will displace jobs involving repetitive
and basic tasks, such as toll collectors, telephone operators and simple
administrative roles. Professions such as graphic designers in small businesses
and concept artists in video game studios could also be affected, they say.
Furthermore, AI is expected to transform existing
professional profiles, for example in areas such as multimedia design and
customer service. Although some roles could change significantly, teachers
believe that they will not be completely eliminated. In education, AI could
automate certain teaching tasks, such as assessment systems, but it will not
replace teachers. It is anticipated that creative and innovative professions,
such as teaching, will evolve in response to the integration of AI, resulting in
the emergence of new roles such as AI supervisors, whose function will be to
ensure the appropriate use of these technologies. Students also predict that
while AI may lead to the reduction of some jobs, it will also generate new
opportunities, including roles such as experts in AI design, technologists
specialising in the application of these tools in various sectors, and
technology consultants who will adapt job strategies to new market demands. In
the healthcare sector, for instance, AI promises to improve diagnosis and
treatment, thereby highlighting the need for trained professionals in this
area.
3.2. Interviews
The interviews revealed that 70% of participants believe
that artificial intelligence (AI) will transform the labour market and generate
new professional profiles, with creatives, developers and entrepreneurs being
mentioned among those who anticipate the emergence of new positions. These
include prompts engineer, technological anthropologist, bioeconomy
expert, digital real estate specialist, artificial consciousness moderator,
futures designer, space and planetary tour guide, and entire new AI
departments. Furthermore, it is noted that new specialisms will be created in
areas such as law, policing, medicine, aviation and public service, especially
where a lot of information is handled.
In contrast, 10% of respondents believe that AI will
enhance existing roles rather than create new ones. This group, which includes
HR professionals and business leaders, emphasises the importance of continuous
training and skills upgrading. They further posit that roles such as
programmers, designers, copywriters and data analysts will be pivotal and must
adapt to the technology. However, they emphasise that, while technology can
enhance processes, it cannot substitute for human labour. A logistics manager
proposes that students should adopt a proactive approach to improving their
environment and proactively propose sustainable solutions. The director of a
manufacturing company underscores the necessity for empathy education to ensure
that students comprehend the societal implications of their actions.
The 20% of respondents who believe that both new roles
will emerge, and existing roles will be enhanced also highlight lifelong
learning. Although the term 'prompt engineer' is mentioned in the report, some
respondents think its impact will be limited. Instead, the report suggests that
the adoption of AI is more crucial than the creation of new profiles.
Professionals such as computer engineers, data scientists, and others in
marketing, management, logistics or sales, must constantly update their skills
due to the rapid evolution of technology. The contemporary era demands a
continuous training approach, adapting to the exponential growth of
technologies and the increase of available opportunities. The most important
skills that students should develop at university, according to industry, are:
·
Knowledge in technology, know how to apply and develop
industrial/commercial processes through AI.
·
Critical thinking, being able to provide solutions to
real problems.
·
Having empathy with the environment, know how to work
in a team.
·
Developing emotional intelligence to motivate dialogue
and interdisciplinary work.
·
Knowing the meaning of sustainability and applying its
values in work routines.
·
Maintaining human well-being and seeking balance in
society through ethical practices and care for the environment.
4. Discussion and
Conclusions
The study reveals a marked difference in the
adaptation and readiness towards AI technologies among students, teachers and
professionals. For teachers, it is a necessary challenge, and they are aware of
the importance of training the next generations with applied skills in virtual
reality and artificial intelligence. Conversely, companies assume that
graduates will have sufficient knowledge to innovate in productive and creative
processes, but do not demonstrate a commitment to the training of new employees.
While students demonstrate a greater inclination towards exploring and
utilising various AI tools, they do not necessarily employ them for study
purposes.
These findings underscore the imperative for enhancing
technology training among educators, encompassing both theoretical knowledge
and practical skills, as well as infrastructure investment by the education
system. This finding is of crucial importance, as the effective adoption of AI
in education depends to a large extent on the ability of teachers and the
physical resources they have to integrate these technologies into their
pedagogical practice, as pointed out by López-Regalado et al. (2024).
Regarding the utilisation of artificial intelligence
(AI) in educational settings, the survey outcomes do not corroborate the
observations documented by Gunkel (2020) and Selwyn (2019). These researchers
emphasised the potential efficacy of AI applications in providing immediate
feedback to students, thereby enhancing assessment procedures. However, the
surveyed sample of participating teachers does not employ these tools for that
specific purpose.
The study emphasises that teachers must evolve their
role from educators to facilitators of learning, as both technology and
contemporary generations demand learning processes that motivate self-didactic
experiences, while simultaneously necessitating comprehensive training that
integrates theory with practical applications and generates a tangible impact
on the environment. Consequently, teacher training, in addition to
incorporating AI tools, should also encompass programmes on emotional
intelligence and mental health.
Furthermore, an examination of the available data
indicates a correlation between the utilisation of AI tools and the respective
fields of study. For instance, those engaged in the fields of Engineering and
Health Sciences demonstrate a higher level of engagement with these tools
compared to their counterparts in the Humanities and Social Sciences. A further
analysis of differences among students reveals that female students
predominantly employ applications for the creation of academic content. This observation
underscores the necessity for the establishment of novel parameters for
educational evaluation and teacher training.
It is also important to note that industry values that
students are trained in soft skills, and although they know the application of
technology in their fields of study, they must also develop empathy towards
their environment and know how to work in a team. These statements confirm
McCosker and Wilken (2020).
It is asserted by experts and professionals that with
the advent of AI, novel professions are coming into existence, such as
technological anthropologists, bioeconomy experts, digital real estate
specialists and futures designers. Furthermore, it is emphasised that
technology does not substitute for professionals such as programmers,
designers, editors and data analysts; on the contrary, it necessitates greater
specialisation in the functions they perform, as it will be essential to know
how to apply technological tools and comprehend fundamental concepts, as is the
case with a prompt. In relation to new professions or roles in the digital age,
all fields of study are identified as needing to include practical training in
technological applications. These roles demand not only advanced technical
skills, but also critical thinking and a profound understanding of the ethical
implications of AI. Nevertheless, student perceptions underscore substantial
concerns regarding the potential loss of essential human skills and the
escalating technological dependence. This discordance between optimism
concerning the potential benefits of AI and apprehension regarding its
deleterious effects underscores the necessity for suitable regulation and
educational policies that promote a balanced and ethical utilisation of AI
(Floridi et al., 2018).
In summary, the analysis of the information allows us
to establish some recommendations for including the use of AI in the classroom.
·
Compare exercises with and without AI to evaluate
differences and better understand the effect of technological resources.
·
Test various programmes to identify the best tools for
learners.
·
Teach ethical responsibility, verify information and
use AI responsibly.
·
Use AI in everyday tasks, such as information search
and image generation.
·
Allowing students to play an active role in the
teaching process, including sharing with the class what applications/tools they
use.
·
Using AI tools to provide solutions to real problems,
show what impact students' actions have on their environment.
·
Showing the limits of AI and explaining where it may
be less effective, as well as providing pre-service teacher training to train
in its use.
·
Emphasise that technology is not a replacement for
jobs, but rather a useful tool to improve systems, processes and, in general,
people's quality of life.
Conversely, the study accomplished its objectives of
identifying and analysing the emergent professional roles precipitated by AI,
in addition to the assessment of the competency’s requisite for the effective
performance of these roles. Moreover, it furnished a comprehensive depiction of
the perceptions and attitudes of teachers, students and practitioners,
underscoring the necessity to fortify the pedagogical training of educators in
emerging technologies. However, it is important to note that the rapid evolution
of AI means that some findings quickly become obsolete. The limitations of the
study, including the limited sample size in Spain and the concentration of
interviews in certain sectors, as well as their small number, represent
important limitations that need to be addressed in future research.
In the field of research, expanding the sample on an
international scale is recommended to achieve a more global perspective.
Furthermore, conducting longitudinal studies is advised to capture the
evolution of perceptions and the impact of AI over time. In addition to this,
investigating how education and lifelong learning policies can be adapted in
order to effectively integrate AI into educational curricula. The exploration
of the ethical implications and the development of specific regulatory frameworks
for AI in different work and educational contexts will be crucial to maximise
its benefits and minimise its risks.
Author Contributions
Conceptualization, G.B.D. and E.M.E; Data curation, G.B.D.; Formal
analysis, G.B.D. and J.S.S.; Investigation, G.B.D.; Methodology, G.B.D. and
E.M.E.; Project administration, G.B.D. and E.M.E.; Resources, G.B.D.; Software,
G.B.D.; Supervision, G.B.D. and E.M.E.; Validation, G.B.D and J.S.S.;
Visualization, G.B.D.; Writing – original draft, G.B.D.; Writing – review &
editing, G.B.D. and E.M.E.
Funding
This research has not received external funding
Data Availability Statement
The data set used in this study is available
upon reasonable request to the corresponding author
Ethics approval
Not aplicable
Consent for publication
All authors have consented to the publication of the results obtained by
means of the corresponding consent forms.
Conflicts of interest
The
authors declare that they have no conflict of interest
Rights and permissions
Open Access. This
article is licensed under a Creative Commons Attribution 4.0 International License,
which permits use, sharing, adaptation, distribution and reproduction in any
medium or format, as long as you give appropriate credit to the original
author(s) and the source, provide a link to the Creative Commons licence, and
indicate if changes were made.
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