"The Impact of Augmented Reality and Virtual Reality on Learning Styles in the Creative Design Process"

International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 10 Issue: 10 | Oct 2023 www.irjet.net p-ISSN: 2395-0072
© 2023, IRJET | Impact Factor value: 8.226 | ISO 9001:2008 Certified Journal | Page 651
"The Impact of Augmented Reality and Virtual Reality on Learning
Styles in the Creative Design Process"
Prof.R.V.Deshmukh1, Prachi D. Bobhate2, Prajwal M. Nerkar3, Prajwal S. Ghatol4,
Prajwal S. Belsare5, Pranjali A. Wankhede6
1Assistant Professor, Department of Computer Engineering, JCOET Yavatmal, Maharashtra, India
2,3,4,5,6Under Graduation Student, Department of Computer Engineering, JCOET Yavatmal, Maharashtra, India
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Abstract
This research explores how Augmented Reality (AR) and
Virtual Reality (VR) can change the way we learn design.
We're in a time where technology is changingeducation,and
we want to see how AR and VR can help people learn about
creative design. We start by looking at different wayspeople
like to learn and how that can help us teach better. Then, we
dive into AR and VR to see how they create fun and
interactive learning. We check what other people have
already learned about this to build our ideas. We testARand
VR by asking people questions and watching them use these
technologies. This helps us see what works best fordifferent
learners. We also talk to people to understand their
experiences, finding out what's good and what's not so good
about using AR and VR. What we find is that AR and VR can
help all sorts of learners in design classes. These
technologies make learning more exciting and help people
remember things better. They let students play with ideas
like they're real, even though they're in a virtual world. But
using AR and VR in design classes can be tricky. Sometimes,
it's hard to use the technology, and not all students might
have access to it. Teachers need to change how they teach to
fit with AR and VR. In the end, our research shows that AR
and VR can make design classes better. They helpall kindsof
students learn in cool new ways. As AR andVR becomemore
common in schools, teachers and others can use them to
make learning about design more fun and helpful for
everyone.
Key Words: Augmented Reality, Virtual Reality, Learning
styles, Design education, Creativity.
1.INTRODUCTION
In recent years, the landscape of education has been
undergoing a profound transformation through the
integration of cutting-edge technologies. AugmentedReality
(AR) and Virtual Reality (VR) have emerged as frontrunners
in this technological revolution, presenting novel
opportunities to reshapethewayknowledgeisimpartedand
acquired. This paradigm shift is particularly relevant in the
context of creative design education, where the fusion of
artistic expression andtechnical skill necessitatesinnovative
pedagogical approaches. This research paper embarks on a
journey to explore the intricate interplay between AR, VR,
and diverse learning styles within the realm of creative
design processes, uncovering the impact of these immersive
technologies on the multifacetedlandscapeofeducation. The
evolution of education has been characterized by a constant
quest to tailor instructional methods to the varying needs of
learners. Learning styles, reflecting individual preferences
for receiving and processing information, have become
pivotal in designing effective educational experiences.
Within the sphereofcreative designprocesses,learnersspan
a wide spectrum of learning styles, from visual learnerswho
thrive on imagery to kinesthetic learners who excel through
hands-on experiences. Traditional teaching methods, often
confined to static lectures and two-dimensional textbooks,
face challenges in catering to these diverse learning
preferences. It is within this context that AR and VR
technologies emerge as potential game changers.
Augmented Reality, through its ability to overlay digital
content onto the physical world, has the potential to
revolutionize how learners engage with their surroundings.
By seamlesslyintegratingcomputer-generatedelements into
real-world environments, AR offers an unprecedented
immersive experience that resonates with visual learners
and enhances spatial understanding. The allure of tangibly
interacting with augmented objects creates an environment
that transcends the confinesoftraditional pedagogy,inviting
learners into an active role in their education. On the other
hand, Virtual Reality introduces learners to entirely new
digital realms, where their sensory perceptionsareskillfully
manipulated to create synthetic environments. Withinthese
immersive landscapes, learners have the potential to
traverse time, space, and disciplines. VR facilitates a form of
experiential learning that profoundly appeals to kinesthetic
learners, who benefit from hands-on encounters with
complex concepts. By enabling the manipulation of digital
objects in three dimensional space, VR encouragescreative
exploration and experimentation that mirrors theprocesses
inherent to creative design itself. As the digital generation
comes of age, the divide between the virtual and the real
world becomes increasinglyblurred.ARandVRtechnologies
reflect this evolution by presenting learning environments
that intersect with students' everyday experiences. With an
affinity for digital mediums and interactive engagement,
modern learners are well poised to embrace the potential of
AR and VR as educational tools. This research paperseeksto

understand how these technologies bridge the gap between
traditional educational paradigms and contemporary
learning preferences, particularly within the context of
creative design processes. The potential of AR and VR to
cater to diverse learning styles is paralleledbytheircapacity
to redefine the boundaries of creative design education.
Creative disciplines demand an integration of theory and
practice, an intricate dance between artistic vision and
technical prowess. The spatial, interactive, and experiential
nature of AR and VR align with these demands, offering
learners a playground for experimentation and innovation
that mirrors the dynamic processes of creative design.This
paper, therefore, embarks on a comprehensive exploration
of the impact of AR and VR on learning styles within creative
design education. By unraveling the intricacies of how these
technologies interact with diverse learning preferences,this
research aims to provide educators, instructional designers,
and policymakers with insights into crafting holistic and
engaging educational experiences. Through an
amalgamation of theoretical foundations,empirical analysis,
and critical discussions, this research seeks to illuminatethe
transformative potential of AR and VR within the realm of
creative design processes.
2.Virtual Reality (VR) and Augmented Reality (AR)
VR has been extensively used in educational environments.
As AR technology is becoming more accessible, it is being
more often adapted for mainstream use. While VR can
generally be interpreted as an immersive three-dimensional
computer-generated environment, AR can be thought of as
overlaying of the virtual over the physical environment. VR
is a simulated three dimensional environmentwhicheither
emulates the real world or acts as an imaginary world. Even
though the majority of virtual environments cater to the
visual sense, virtual environments can cater to the auditory,
haptic, olfactory, and even the taste sense. VR is commonly
used as an entertainment, education, and research tool. It
offers a wide variety of options and opportunities in
conducting research, especially in human behaviour
research, since virtual environments can be controlled
according to the need of the researcher. AR has beendefined
as a variation of VR (Azuma, 1997). While VR completely
immerses the user inside a computer-generated
environment where the user cannot relate to the physical
environment, AR allows the overlaying of virtual elements
onto the physical environment. AR can be considered a
hybrid of virtual and physical environments and therefore
supplements reality rather than replacing it. Given the
similarities and overlapping of certain characteristics
between these two interfaces (AR and VR), there is a critical
need to identify advantages or disadvantagesofoneover the
other for its use in a specific domain. AR is an interface that
offers tangible interaction (Ishii, 2007) and is often referred
to as tangible user interface (TUI). There for the tangible
nature of AR might appeal to AR/VR Learner preferences
Creative Design Process Technology Acceptanace VARK
Learning Style Inventory • Visual • Auditory • Read/Write •
Kinesthetic Page | 57 kinaesthetic users as compared to the
visual nature of VR, which might appeal more to the visual
learners. Even though AR has existed for several decades,
there is a gap in the knowledge about how human factors
affect the use of AR (Huang, Alem, & Livingston, 2012).
Better understanding of user experience factors in AR
environments is important fora numberofreasons.Withthe
emergence of new hardware that has the capability of
supporting AR applications, interest in how to use this
technology efficiently has been increasing. Such studies are
only currently becoming feasible because of the recent
maturation of the technology. Extensive studies of this type
will allow the development of specific and general design
and usage guidelines for AR technology not only in design
education and design practice but in other fields of study as
well. Moreover, understanding human perception of AR will
accelerate the introduction of such technologies into
mainstream use beyond the current novelty value of AR.
3. History
Augmented Reality (AR):
AR's roots can be traced back to the 1960s when computer
scientists began experimenting with overlaying digital
information on the real world. However, AR gained
prominence in the 1990s when researchers like Boeing and
NASA started using it for training and simulation purposes.
Over the years, AR has become more accessible through
smartphone apps and wearable devices, allowing it to find
applications in fields like gaming, education, and industrial
training.
Virtual Reality (VR):
VR has its origins in the 1950s, primarily as a concept in
science fiction. The term "virtual reality" was coined in the
1980s when researchers began developing technology to
immerse users in computer-generated environments. The
early VR systems were bulky and expensive, limiting their
use. However, with advancements in technology and the
introduction of consumer VR headsets like the Oculus Riftin

the 2010s, VR has gained popularity in gaming,
entertainment, healthcare, and education.
4.Difference Between AR and VR
Aspect Augmented
Reality (AR)
Virtual Reality
(VR)
Environment Real-world
environment
with digital
overlays.
Completely
simulated,
immersive digital
environment.
Interaction Interaction with
both real and
virtual objects.
Interaction with
entirely virtual
objects
Visibility Can see the real
world along with
virtual objects
Cannot see the
real world, fully
immersed in
virtual
environment
Hardware Typically uses
smartphones,
tablets, AR
glasses
Requires VR
headsets,
sensors, and
controllers
Immersiveness Partial
immersion in the
real world
Full immersion in
a virtual
environment
Example Pokémon Go
(mobile app),
Snapchat filters
VR games,
simulations,
training
programs
Use Cases Navigation,
gaming,
education, retail
Gaming,
simulations,
virtual tours,
training, therapy
5. Learning Styles and Educational Context
5.1 Understanding Learning Styles:
Learning stylesrefertothediversewaysinwhichindividuals
acquire, process, and retain information. These styles
encompass cognitive, emotional, and physiological factors
that shape how learners engage with educational content.
Researchers and educators have proposed various
frameworks to categorize learningstyles,includingtheVARK
model (Visual, Auditory, Reading/Writing, Kinesthetic), the
Kolb's Experiential Learning Cycle (Concrete Experience,
Reflective Observation, Abstract Conceptualization, Active
Experimentation), and the Felder-Silverman model
(Sensing/Intuitive, Visual/Verbal, Active/Reflective,
Sequential/Global), among others. Each oftheseframeworks
provides insights into learners' preferences and tendencies,
offering educators a basis for tailoring instructional
approaches.
5.2 Relevance of Learning Styles in Education:
Understanding learners' individual preferences is vital in
creating effective educational experiences. When
instructional strategies align with learners' styles, it
enhances comprehension, engagement, and motivation. For
instance, visual learners grasp information best through
visual aids like diagrams, charts, and videos, while auditory
learners benefit from spoken explanations and discussions.
Kinesthetic learnersthrivein hands-onactivitiesthatinvolve
movement and practical application. By recognizing and
accommodating these differences, educators can foster a
more inclusive and personalized learning environment.
5.3 Augmented Reality and Learning Styles:
The integration of Augmented Reality (AR) into education
holds promise in catering to diverse learning styles. AR
overlays digital information onto the real world, allowing
learners to interact with virtual elements within their
physical environment. Visual learners can benefit from
visualizations and interactive simulations, while auditory
learners can engage with audio cues and explanations.
Kinesthetic learners can manipulate virtual objects and
engage in hands-on learning experiences. AR's ability to
bridge digital and physical realms creates opportunities for
various learning preferences to be addressed
simultaneously, enhancing engagement and retention.
5.4 Virtual Reality and Multimodal Learning:
Virtual Reality (VR) provides a unique opportunity to
immerse learners in entirely virtual environments. This
technology is particularly beneficial for accommodating
multimodal learners who exhibit a combination of learning
styles. VR environments can be designed to incorporate
visual, auditory, and kinesthetic elements, catering to a
wider range of preferences. For instance, a VR design
workshop can allow learners to visualize concepts in 3D,
hear explanations, and physically interact with virtual
prototypes. This immersive nature of VR enhances
experiential learning, enabling learners to explore complex
design concepts in interactive and multisensory ways.
5.5 Implications for Creative Design Education:
Creative design processes necessitate a multifaceted
approach that encompasses visual ideation, spatial
reasoning, and hands-on experimentation.Giventhediverse
demands of creative design, addressing different learning
styles becomes particularly crucial. AR and VR technologies
offer educators the means to create dynamic and interactive
learning environments that resonate with individual
preferences. By aligning these technologies with various
learning styles, educators can cultivate a more holistic and
effective pedagogical experience in creative design
education.

6. Augmented Reality and Creative Learning
The integration of Augmented Reality (AR) technology into
the realm of creative design education has sparked a new
wave of innovative learning experiences. AR offers a
dynamic approach that caters to various learning styles,
providing immersive and interactive encounters that
resonate with visual, auditory,andkinesthetic learnersalike.
By overlaying digital elements onto the real world, AR
transforms the learning environment into a captivating
canvas where students can engage with design concepts in
novel ways. Visual learners benefit from AR's ability to
visualize abstract ideas, allowing them to see and
understand complex design principles more effectively.
Through interactive 3D models and visual simulations, AR
bridges the gap between theoretical concepts and practical
application, fostering a deeper understanding of design
processes. Auditory learners engage through AR enabled
audio enhancements, offering verbal cues and explanations
that complement visual components. This convergence of
visual and auditory stimuli facilitates a multisensory
learning experience that enhances comprehension and
retention. Moreover, kinesthetic learners find AR
particularly advantageous as it facilitates hands-on
exploration. AR allows them to physically interact with
virtual design elements, manipulating objects and
experimenting with spatial arrangements. This experiential
learning approach empowers kinesthetic learners to grasp
design concepts by actively engaging in the creativeprocess.
Ultimately, AR fosters a learningenvironmentwherediverse
learning stylesconverge,enrichingcreativedesign education
with immersive experiences that cater to individual
preferences. In the broader context of the impact of AR on
creative learning, this paper further investigates the
correlation between AR technology and the variouslearning
styles present within the realm of creative design processes.
Through empirical analysis and critical assessment, the
paper endeavours to unravel the intricate ways in which AR
enhances the learning journey of creative design students.
7. Benefits and Challenges
Benefits:
1.Enhanced Engagement:
AR and VR technologies captivate learners' attention by
providing immersive, interactive, and visually appealing
experiences. This heightened engagementleadstoincreased
motivation and active participation, crucial for effective
learning within creative design processes.
2.Catering to Diverse Learning Styles:
AR and VR accommodate various learning styles, such as
visual, auditory, kinesthetic, and multimodal, by offering a
range of sensory experiences. Learners canchoosethemode
that aligns with their preferences, leading to improved
comprehension and knowledge retention.
3.Experiential Learning:
These technologies enable learners to manipulate virtual
objects, experiment with design concepts, and engage in
simulations that mirror real-world scenarios. Thishands-on
approach fosters experiential learning, allowing students to
learn through direct interaction and exploration.
4.Bridge Between Theory and Practice:
AR and VR dissolve the boundaries between theoretical
concepts and practical application. Learners can visualize
abstract ideas in tangible ways, translating theoretical
knowledge into practical design skills seamlessly.
5.Customized Learning:
Educators can tailor AR and VR experiences to cater to
individual learning needs. This customization ensures that
learners receive content and activities that align with their
strengths, preferences, and areas for growth.
Challenges:
1.Technical Barriers:
The adoption of AR and VR requires access to suitable
hardware, software, and reliable internet connections. This
can be a hindrance for institutions and learners lacking the
necessary resources.
2.Learning Curve:
The initial learning curve for mastering AR and VR toolscan
be steep, posing challenges for both educators and students
who are unfamiliar with these technologies.
3.Accessibility:
Ensuring equitable access to AR and VR experiences for all
learners, including those with disabilities, remains a
challenge. Creating inclusive experiences that consider
diverse needs is essential.
4.Pedagogical Adaptation:
Educators must adapt their teaching methods to effectively
integrate AR and VR into their curricula. This involves
designing activities that leverage the strengths of these
technologies and align with learning objectives.
5.Ethical and Privacy Concerns:
As AR and VR may collect personal data or blur the
boundaries between real and virtual worlds, Ethical
considerations related to privacy, data security,andconsent
must be addressed.

6.Content Quality:
Designing high-quality, engaging, and relevant AR and VR
content requires careful planning and resources. Poorly
designed content can hinder learning experiences.
7.Overreliance on Technology:
There's a risk that learners might become overly reliant on
AR and VR, potentially neglecting foundational skillsorreal-
world experiences that are essential for comprehensive
learning. Balancing these benefits and challenges is crucial
for effectively harnessing the potential of AR and VR
technologies to enhance learning styles within the realm of
creative design processes.
8.Future Directions and Recommendations
1.Exploring Extended Reality (XR):
Future research should delve into the broader spectrum of
Extended Reality (XR), which encompasses AR, VR, and
Mixed Reality (MR). Investigating how these immersive
technologies can be integrated seamlessly to accommodate
various learning styles within creative design processes
could provide a more comprehensive understandingoftheir
impact.
2.Pedagogical Innovations: Continued exploration of
pedagogical innovationsandinstructional designapproaches
tailored specifically for AR and VR environments is crucial.
Researchers should investigate how educators can
effectively leverage these technologies to create engaging
and learner-centric design education experiences.
3.Accessibility and Inclusivity:
Research should focus on making AR and VR educationally
accessible to a wider audience. This includes developing
cost-effective solutions, addressing physical accessibility
challenges, and ensuring that learners with disabilities can
fully engage with these technologies.
4.Long-term Learning Outcomes:
Future studies should aim to assess the long-term effects of
AR and VR integration on learners' creative designskillsand
professional development. Tracking graduates' career
trajectories and their application of skills acquired through
AR and VR education would provide valuable insights.
5.Cross-disciplinary Studies:
Expanding the scope of research to encompass various
creative design disciplines, such as graphic design,
architecture, industrial design, and fashion design, would
offer a more nuanced understanding of how AR and VR
impact learning styles across different creative fields.
6.Ethical Considerations:
Given the immersive nature of AR and VR, ethical concerns
around data privacy, content appropriateness, and the
potential for addiction need to be addressed. Future
research should examine these ethical implications and
develop guidelines for responsible use in education.
7.Professional Development for Educators:
To maximize the benefits of AR and VR, educators need
training and professional development opportunities.
Research can investigate effective strategies for training
teachers and instructors in the use of these technologies.
8.Industry Collaboration:
Collaborative research ventures with creative design
industries can help ensure that AR and VR applicationsalign
with real-world professional needs. Suchpartnershipscould
lead to more practical and industry-relevant learning
experiences. In summary, the future of research on the
impact of AR and VR in creative design education lies in a
multifaceted approach. It should encompass a broader
spectrum of immersive technologies, delve deeper into
pedagogical strategies,prioritizeaccessibilityandinclusivity,
and evaluate long term learning outcomes. Ethical
considerations, professional developmentfor educators, and
industry collaboration are also key areas to explore,
ultimately fosteringa moreholisticunderstandingofhowAR
and VR can shape the learning styles within creative design
processes.
9.Conclusion
In summary, the exploration of the impact of Augmented
Reality (AR) and Virtual Reality (VR) on learning styles
within the realm of creative design processes has unveiled a
landscape of transformative potential, offering both
educators and learners a cornucopia of opportunities and
challenges. This research paper has traversed through the
multifaceted terrain of modern educational technology,
shedding light on the profound implications of AR and VR in
shaping the future of creative design education. The
adoption of AR and VR technologies in creative design
education is emblematic of a broader educational shift
towards immersive, interactive, and personalized learning
experiences. Throughout this journey, it has become
increasingly evident that these technologies have the
capacity to transcend the limitations of traditional
pedagogical approaches.Byaccommodatingvariouslearning
styles, be it visual, auditory, kinesthetic, or multimodal, AR
and VR have the potential to transform classrooms into
dynamic hubs of engagement, fostering deeper
understanding and knowledge retention. Moreover, the
interactive and experiential natureofARandVRexperiences
enables students to not merely observe but actively
participate in the learning process. They can manipulate

virtual objects, experiment withdesignconcepts,and engage
in real-world simulations that were previously confined to
the realms of imagination. This experiential learning
amplifies the acquisition of practical skills, critical thinking,
and problem-solving abilities,whichareindispensableinthe
field of creative design. However, this transformative
journey is not without its share of challenges. Technical
hurdles, including accessibility issues and the cost of
hardware and software, pose significant obstacles to
widespread adoption. Educators are confronted with the
need to adapt their pedagogical methodologies to harness
the full potential of these technologies effectively. This
adaptation necessitates not only technical proficiency but
also a nuanced understanding of how to integrateARandVR
seamlessly into the curriculum while aligning them with the
diverse learning styles of students. As we reflect on the
findings of this research paper, it becomes evident that the
integration of AR and VR into creative design education
offers a path towards cultivating a new generation of
innovative and adaptable designers. These technologies
bridge the gap between theoretical knowledge and practical
application, a bridge that is essential for preparing students
for the real-world challenges they will encounter in their
careers. Looking forward, it is imperative for educational
institutions, policymakers, and stakeholders in creative
design education to recognize the significance of AR and VR
as transformative tools. By investing in infrastructure,
developing inclusive content, and providing training for
educators, we can unlock the full potential of these
technologies. Furthermore, collaborative efforts between
academia and industry can bridge the gap between
classroom learning and real-world application, nurturing
professionals who are not only proficient in creative design
but also adept at leveraging cutting edge technologies. In
conclusion, the impact of Augmented Reality and Virtual
Reality on learning styles within the realm ofcreativedesign
processes is profound and promising. This research paper
has illuminated the transformative potential of AR andVRin
shaping the landscape of creative design education. It
underscores the need for a holistic approach to technology
integration, one that acknowledges both the benefits and
challenges, and actively seeks to empower educators and
learners to navigate this exciting journey. As we stand at the
cusp of a new era in education, the question is not whether
AR and VR will revolutionize creative design education; it is
how we, as educators and innovators, will embrace these
technologies to sculpt a brighter future for the next
generation of creative designers.
REFERENCES
1. Tilanka Chandrasekera, Oklahoma State University, USA
So-Yeon Yoon, Cornell University, USA
2. Childs, M., & Keil, M. (2021). Enhancing learning with
augmented reality: A new way of seeing and experiencing
education. Springer.
3. Young, A. (2020). Augmented reality as a new educational
tool for social sciences students. Journal of Social Science
Education, 19(1), 25-39.
4. Dede, C. (2009). Immersive interfaces for engagementand
learning. Science, 323(5910), 66-69.
5. Cheng, K. H., Tsai, C. C., & Zheng, Z. (2014). How do
students’ approachestolearningcreatea learning-conducive
online environment? Internet and Higher Education, 20, 44-
52.
6. Milgram, P., & Kishino, F. (1994). Taxonomy of mixed
reality visual displays.IEICETRANSACTIONSonInformation
and Systems, 77(12), 1321-1329.
7. Akçayır, M., & Akçayır, G. (2017). Advantages and
challenges associated with augmented reality for education:
A systematic review of the literature. Educational Research
Review, 20, 1-11.
8. Johnson, L., Adams Becker, S., Estrada, V., & Freeman, A.
(2015). NMC Horizon Report: 2015 Higher Education
Edition. The New Media Consortium.
9. Cheng, M. T., & Tsai, C. C. (2014). Affordances of
augmented reality in science learning:Suggestionsforfuture
research. Journal of Science Education and Technology,
23(5), 629-640.
10. Wu, H. K., Lee, S. W. Y., Chang, H. Y., & Liang, J. C. (2013).
Current status, opportunities, and challenges of augmented
reality in education. Computers & Education, 62, 41-49.
11. Dalgarno, B., & Lee, M. J. (2010). What are the learning
affordances of 3-D virtual environments? British Journal of
Educational Technology, 41(1), 10-32.
12. Kerawalla, L., Luckin, R., Seljeflot, S., & Woolard, A.
(2006). Making it real: Exploring the potential ofaugmented
reality for teaching primary school science. Virtual Reality,
10(3-4), 163-174.
13. Chuang, T. Y., & Chen, C. H. (2018). Affordances of
augmented reality in science learning:Suggestionsforfuture
research. Journal of ComputerAssistedLearning,34(2),163-
173.
14. Milgram, P., Takemura, H., Utsumi, A., & Kishino, F.
(1994). Augmented reality: A class of displays onthereality-
virtuality continuum. Telemanipulator and Telepresence
Technologies, 2351, 282-292.
15. Lee, K. M. (2004). Presence, explicated. Communication
Theory, 14(1), 27-50.
16. Billinghurst, M., Clark, A., & Lee, G. (2015). A survey of
augmented reality. Foundations and Trends in Human-
Computer Interaction, 8(2-3), 73-272.

17. Chen, Y. L., & Chiang, T. H. C. (2015). Using augmented
reality to enhance children’s learning in a scienceexhibition.
Journal of Educational Technology&Society,18(1),337-349.
18. Dunleavy, M., Dede, C., & Mitchell, R. (2009). Affordances
and limitations of immersive participatory augmented
reality simulations for teaching and learning. Journal of
Science Education and Technology, 18(1), 530-543.

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