CoGnosis
Revista de Educación
e-ISNN 2588 0578 Vol. X, Edición Especial, abril, 2025 DOI: 10.33936/cognosis.
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Emotions and Technology in Education: a Review
Focused on Motivation
Emoções e Tecnologia na Educação: uma Revisão com Foco na
Motivação
Emociones y tecnología en la educación: una revisión centrada
en la motivación
AUTOR:
Hernan Isaac Ocana Flores
School of Information Technology, The University of Queensland, Brisbane
Australia
kaliman.hernan@gmail.com
https://orcid.org/0000-0001-6258-3828
Fecha de recepción: 2025-02-08
Fecha de aceptación: 2025-04-14
Fecha de publicación: 2025-04-24
ABSTRACT
This study analyzes the impact of emotional intelligence on motivation, subjective well-
being, academic burnout, and the use of affective technologies within human -computer
interaction (HCI) in these settings. Through a systematic literature review, the study
explores the relationships between emotions, educational technologies, and academic
performance, highlighting the importance of considering the emotional dimension i n the
design of learning environments. The author bases a strong postulate on recent findi ngs
on the educational and psychological space that showed that students with higher levels
of emotional intelligence exhibit greater intrinsic motivation, lower academic burnout,
and higher levels of subjective well-being. At the same time, how technologies allow the
possibility for pedagogical and psychological strategies to be adapted improving the
personalization of learning and therefore aiding to a desired educational performance .
KEYWORDS: Emotional intelligence; affective technologies; human-computer interaction;
motivation; educational ethics.
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RESUMO
Este estudo analisa o impacto da inteligência emocional na motivão, no bem-estar
subjetivo, no esgotamento acadêmico e no uso de tecnologias afetivas na interão
humano-computador (IHC) nesses contextos. Por meio de uma revio sistemática da
literatura, o estudo explora as relões entre emoções, tecnologias educacionais e
desempenho acadêmico, destacando a importância de considerar a dimensão emocional
no design de ambientes de aprendizagem. O autor baseia-se em fortes postulados em
descobertas recentes no âmbito educacional e psicológico, que demonstraram que alunos
com maiores níveis de inteligência emocional apresentam maior motivação intrínseca,
menor esgotamento acadêmico e maiores veis de bem-estar subjetivo. Ao mesmo
tempo, analisa como as tecnologias permitem a adaptação de estratégias pedagógicas e
psicológicas, melhorando a personalização da aprendizagem e, portanto, contribuindo
para o desempenho educacional desejado.
PALAVRAS-CHAVE: Inteligência emocional; tecnologias afetivas; interão humano-
computador; motivação; ética educacional.
RESUMEN
Este estudio analiza el impacto de la inteligencia emocional en la motivación, el bienestar
subjetivo, el agotamiento académico y el uso de tecnologías afectivas en la interacción
persona-ordenador (HCI) en estos entornos. A tras de una revi si ón sistemática de la
literatura, el estudio explora las relaciones entre las emociones, las tecnologías
educativas y el rendimiento académico, destacando la importancia de considerar la
dimensión emocional en el diseño de entornos de aprendizaje. El autor basa un sólido
postulado en hallazgos recientes en el ámbito educativo y psicológico que demuestran
que los estudiantes con mayores niveles de inteligencia emocional presentan mayor
motivación intrínseca, menor agotamiento académico y mayores niveles de bienestar
subjetivo. Al mismo tiempo, analiza cómo las tecnologías permiten adaptar las
estrategias pedagógicas y psicológicas para mejorar la personalización del a prendizaje y,
por lo tanto, contribuir al rendimiento educativo deseado.
PALABRAS CLAVE: Inteligencia emocional; tecnologías afectivas; interacción persona -
ordenador; motivación; ética educativa.
1. INTRODUCTORY FRAMEWORK
1.1 Contextualizing Emotion in Educational Technologies
Traditional methods for education had often overlooked the role of human
emotion especially as external factors to the cognitive process (Sarnou & Sarnou,
2023). However, during the last decade with the raise of technology and
development of mental models through in which the users perceive and interact
with it had led to the establishment of HIC Human Computer Interaction (Ocaña
et al., 2024; Luna et al., 2025). Alongside with the raise of new technological
applications that had aid various sectors such as is education is worth
mentioning that the emotions have a direct impact over attention, memory,
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motivation and self-check process, key elements for an effective learner in the
digital age (Villamarín et al., 2023).
Thus, this paper presents an overview not only for HCI and emotional learning
but also investigates emotional intelligence. This is defined by Zhao et al. (2022)
as the capacity to self-regulating the internal and external emotions. The purpose
of this focus is that is been identified as one of the variables of the academic
performance. (Lee et al., 2022; Pacheco-Mendoza et al., 2023; Alenezi, 2024).
1.2 Human-Computer Interaction as a Framework for Emotional Responsivenes s
Previous studies have shown that emotion-sensitive technologies possess
methodological challenges (McStay, 2020; Roemmich & Andalibi, 2021; Härting et
al., 2021). At the methodological level, there is a fragmentation of knowledge that
is derived from the multiplicity of approaches (Flores, 2025) for example,
engineering, psychology, pedagogy. Therefore, both technological and
psychological studies have opted for systematic reviews to build more integrated
theoretical frameworks (Ding & Zou, 2024). Humancomputer interaction is no
longer confined to usability alone but has expanded to encompass the quality of
user experience (Nicolescu & Tudorache, 2022; Kivijärvi & Pärnänen, 2023), in
different levels (Guallichico et al., 2023; Ocaña et al., 2022) and subjects (Bazurto
Palma, & Ocaña Garzón, 2023).
According to Kim et al. (2022), affective responses play a crucial role in shaping
behavior, fostering trust, and sustaining user engagement. Therefore, developing
emotion recognition functionalities enables organizations to more accurately
analyze both user interaction behaviors and learners emotional states (Flores,
2023). Researchers also suggest that such systems possess real-time adaptive
capabilities, allowing for dynamic adjustments in content pacing and feedback
intensity, tailored to the emotional and cognitive conditions of each individual
(Kaklauskas et al., 2022; Liu & Yin, 2024; Glickman & Sharot, 2025).
Similar models in emotion recognition technology can also be employed to
enhance learners' self-regulated learning capacity, support cognitive processing,
and minimize distractions (Chen et al., 2024; Ngo et al., 2024; Shi, 2025).
Thereby promoting the development of more responsive educational environments
and advancing the modes of interaction within broader social contexts.
1.3 Literature Review
Originating from the control-value theory of achievement emotions, Pekrun (2024)
proposed the hypothesis that learners appraisals of task control and value
directly influence the formation of emotions, thereby impacting core cognitive
processes such as attention, motivation, and memory. This theoretical model
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continues to serve as a foundational framework for contemporary research on
affective learning across diverse educational contexts, including human-computer
interaction systems (Flores & Luna, 2024), Yin et al., 2024; Namaziandost &
Rezai, 2024; Yuvaraj et al., 2025).
A prominent line of empirical research in this domain involves the application of
Intelligent Tutoring Systems (ITS) that adapt instructional strategies based on
learners’ emotional states (Lin et al., 2023). Systems such as AutoTutor and
Affective AutoTutor incorporate multimodal emotion detection technologies
through the analysis of facial expressions, linguistic features, and interaction
patterns (Fernández-Herrero, 2024; Khediri et al., 2024; Sirisha et al., 2025).
These interventions have demonstrated substantial effects, with effect sizes
reaching d 0.8, which is equivalent to an improvement of nearly one letter grade
compared to traditional instructional methods (Chen et al., 2025).
Technical approaches in this domain often integrate computer vision, voice
analysis, and physiological sensors (Al-Saadawi et al., 2024; Flores & Luna,
2024), facilitating the advancement of Affective Learning Analytics (Arockia et al.,
2025). These tools enable real-time monitoring of fluctuations in learner
engagement and emotional states (Aly, 2024), thereby providing educational
institutions with additional actionable insights to inform instructional practices.
However, these technological advances come with significant challenges. Emotion
recognition models are particularly susceptible to dataset bias, especially when
trained on homogeneous populations, which results in inaccurate or unfair
predictions in diverse educational settings (Mattioli & Cabitza, 2024; Shah &
Sureja, 2025). Moreover, the black box nature of AI systems raises concerns
regarding transparency and trustworthiness; when adaptive decisions lack clear
explanations, educators often express skepticism about integrating such
technologies into real-world educational contexts (Flores, 2023; Salloum, 2024;
Chaudhary, 2024; Marey et al., 2024).
Furthermore, a longitudinal study researching similar technological systems
mentioned previously was conducted over a period of 2 last decades. In this kind
of system, the teaching method changes based on the stimulus found on users
adjusting lessons, offering support when they detect frustration or speeding up
the pace when they identify boredom (Schmitz-Hübsch, et al, 2022). This adaptive
capacity has been shown to significantly improve student comprehension and
engagement across different utilization of digital system across in educational
settings. This finding is crucial as it demonstrates that the relationship between
emotion and performance is highly individual. However, according to Schmitz-
Hübsch, et al, (2022) states that not all students learn best under the same
emotional conditions, so affective tutoring systems must be able to adapt to
individual differences and not respond in a standardized way to frustration,
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boredom, or satisfaction. According to Chaudhary et al. (2024), personalizing
tutoring based on emotional profile can improve learning effectiveness and help
students develop stronger coping strategies.
This correlates with the study by Le et al. (2024) as it provides empirical evidence
on the importance of emotional intelligence as a protective factor against
academic burnout and as a driver of motivation and subjective well-being.
Students with high EI are not only better able to regulate their emotions, but also
report greater satisfaction with their academic life and a lower predisposition to
emotional exhaustion additionally aligned with the framework for emotional
target done by Flores & Luna (2024).
Thus, this study is structured around four key objectives:
1. To identify how emotional intelligence is being used as a predictive or
modulating variable in technology-mediated educational environments.
2. To analyze affective educational systems and emotional detection
frameworks that integrate psychophysiological and behavioral signals.
3. To explore the relationship between emotions, motivation, academic
burnout, and subjective well-being, with an emphasis on university settings.
4. To reflect on the ethical and socio technical risks involved in incorporating
emotion-sensitive technologies into teaching and learning processes.
2. METHODOLOGY
2.1 Scoping literature review
In the methodology of this study, an in-depth literature search will be positioned
as the core strategy of this methodology (Arksey & O’Malley, 2005). This aims at
achieving the goal of critically compiling, examining and interpreting the existing
information within the academic arena concerning the interrelation between the
emotional intelligence, the technologies involved and wellbeing which these would
be capable of creating within a setting of education. Thus, according to this way,
not only the patterns of evidence can be found but also possible gaps and ethical
dilemmas.
2.2 Search Queries
The review followed a systematic search protocol across academic databases
including ERIC, Scopus, and IEEE:
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"emotion recognition" AND "education" AND "subjective well-being"
"affective computing" AND "learning"
"emotion-aware tutoring systems" OR "affective feedback" AND "student
engagement"
Inclusion criteria limited studies to those published in the last decade written in
English, peer-reviewed, and explicitly addressing emotion recognition in K12,
higher education, or digital learning contexts.
Studies in English and Spanish were included if they met the following
conditions:
Described or evaluated AI systems designed to detect or respond to learner
emotion.
Reported educational applications (e.g., tutoring, learning analytics,
classroom tools).
Provided empirical or validated evidence, either quantitative or qualitative.
Excluded were:
Studies in therapeutic or clinical psychology unrelated to learning.
Purely conceptual or editorial articles lacking methodology.
Applications in entertainment, gaming, or unrelated sectors.
2.3 Data selection
After deduplication in Endnote, data screening and extraction focused on the
following elements:
Type of AI/affective technology used.
Context of implementation (e.g., online, face-to-face, hybrid).
Sample demographics, if reported.
2.4 Data analysis
The final review included 21 papers after applying the aforementioned inclusion
and exclusion criteria. Thematic analysis was used to derive inductively emerging
themes which are reported in the next section.
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3. RESULTS
3.1 Technological Approaches to Emotion Detection in Education
In this paper the research has shown that correlation between emotion and
academic performance is very complicated and largely dependent on individuals
than initially thought. The most widely used theoretical perspective is the control-
value theory by Pekrun (2024), which sets out that the student perceives the
perceived control and value of a task identifies which emotions crop up during
learning, which influence the most important cognitive mechanisms of attention,
memory, as well as motivation.
Moreover, human centered technologies targeted to emotions such as the
previously mentioned AutoTutor and Affective AutoTutor, have had the capacity to
change their teaching methods according to the emotional state the user is being
perceive by the system, producing significant increases in understanding and
performance of students (Chen et al., 2025; Lin et al., 2023). Multimodal
technologies (consist of computer vision, voice analysis, physiological sensors)
allow the real-time identification of the changes in the emotional state of
students, giving teachers more data to instantaneously modify teaching (Al-
Saadawi et al., 2024; Flores & Luna, 2024; Arockia et al., 2025).
However, it is worth mentioning that the collective research suggests that there is
an increasing evidence on the effectiveness of affective interventions in user
centered educational designs as the aggregate results demonstrate that the effect
sizes as the longitudinal studied shown an increase of roughly 2 points, which is
the same as an increase of an entire grade improvement as compared to
conventional approaches The study conducted by Schmitz-Hübsch et al. (2022)
that shows students have better understanding and interest in what they learn
with the possibilities of adjusting to their emotional status in the digital systems,
whether it is providing assistance in cases of frustration detection or speeding up
the lessons in case they become bored.
Additionally, as per usual with emotion detection systems, this requires data to
be gathered and in most cases the data collected is live (in the moment the user
engages with the system). There's, also worth mentioning that the reliability of the
system varies so these systems are not totally independent regardless of their
automation, many still have a generalization that could potentially affect certain
individuals. For example, when used with culturally diverse communities,
training biases in emotion recognition models can lead to erroneous or unjust
forecasts (Mattioli & Cabitza, 2024; Shah & Sureja, 2025). The system would
require proper iteration therefore the intervention of human computer
interaction in which the user center cycle will adapt accordingly through the
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variations, eliminating the issue with the black box model, and strengthening the
trust among users as teaching staff require clear feedback form the system to
justify and adapt their pedagogical adaptations and models (Flores, 2023;
Salloum, 2024; Chaudhary, 2024).
Nevertheless, it is required to mention that the discussed systems in this
research are declared to be working with focused groups and that not every
student learns better when he/she is in the same emotional state. There are
types of people who are more likely to be positively affected by the pressure-
thriving environments or negative emotions, whereas others have to be placed in
weaker positions of emotional charge to work the best. These are also consistent
with Chaudhary et al. (2024), who argue that the personalization of learning
according to individual emotional profile is instrumental in ensuring the optimal
learning process. Affective systems are not supposed to provide pre-designed
reactions but acknowledge individualistic emotional pathways of students and
respond to them.
3.3. Protective Factor of Emotional Intelligence
The latter study by Le et al. (2024) supplements these findings by introducing the
evidence about higher emotional intelligence (EI) control rates of the students and
lower burnout risks and more positive emotions about the university experience.
EI is a shield against academic stress and a stimulus to long-term motivation and
well-being. These findings underline a need to pay attention not only to the real -
time tracking of other emotions but also to the deliberate acquisition of socio-
emotional skills. Moreover, this solution correlates with the findings of Flores &
Luna (2024), who state that developing affective systems has to be incorporated
into the ethical and emotionally accountable pedagogical practices, and the
emotional control of students in those systems is a clear goal of the learning
process, rather than one of the inputs in the technology setting.
3.4. Derived conclusive research points
The combined analysis of the reviewed studies suggests that the effectiveness of
affective tutoring systems depends on three key elements:
Accurate and multimodal detection of emotions in specific scenarios where
motivators can be boosted
The capacity for a personalized education system based on individual
differences.
The integration of emotional development strategies, that aid emotional
intelligence, strengthen student autonomy and resilience.
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These elements not only optimize adaptive learning but also contribute to the
construction of more inclusive, ethical, and emotionally sustainable educational
environment.
4. CONCLUSION
This integrated review demonstrates that both emotional intelligence (EI) and
affective technologies in education share a central objective: to improve the
learning experience from a comprehensive approach that recognizes emotion as
an essential component of the educational process. The findings show that
students with high levels of EI not only exhibit greater motivation and subjective
well-being, but also manage to cushion the effects of academic burnout, thereby
improving their performance and satisfaction in the university context.
For their part, emotional detection technologies such as intelligent tutoring
systems and affective analysis platforms contribute to personalizing teaching,
adapting in real time to students' emotional needs. However, their positive impact
is only sustainable if they are integrated into pedagogical models that promote
self-regulation, active participation, and student autonomy.
This study confirms that the combination of emotional intelligence, intrinsic
motivation, and emotionally responsive technology can enhance not only learning
but also students' psychological well-being. However, it cautions that this
integration must be carried out critically, responsibly, and with solid ethical
principles that guarantee privacy protection and algorithmic transparency.
4.1. Recommendations
This scoping review shows that 2 performative factors: emotional intelligence and
affective technologies in learning can be used to have a common objective of
enhancing the learning experiences. The results indicate that high-EI students do
not only have a high level of motivation and subjective well-being, but also
succeed in offsetting academic burnout, which in turn means that these skill sets
allows them to perform better and be more satisfied in the university environment
On their part, the emotional recognition tools like the intelligent tutoring systems
and affective analysis platforms are also helping in the personalization of
teaching, adapting based on real-time emotional requirements of the students.
Nonetheless, their positive effects are only feasible under strict controlled
conditions in which they should be incorporated into pedagogical models by the
educator that encourage self-regulation, active involvement, and student
independence. This research provides a point into supporting the individual's
emotional intelligence through the use of technology that can not only improve
the learning outcomes but the psychological state of students, as well. However,
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it is worth mentioning that such integration should be done in a critical,
responsible and strong ethical framework especially in regards to technological
use, ensuring that the users involved are aware of which date and performance
targets are being used for sustaining the system.
6. CONFLICT OF INTEREST STATEMENT
The author declares no conflicts of interest. No funding or support was
received from any organization or entity that could influence the content
of this work.
7. AUTHORS CONTRIBUTION
Author
Conceptualization, Data curation, Formal analysis, Investigation,
Methodology, Resources, Software, Validation, Visualization, Writing
original draft, Writing review & editing
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