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Contemporary Digital Technology’s Implications for Learning Environments and its Users: Review of Literature

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Since the late 1990s, learning environment culture has changed. Recent studies indicate that hierarchical, formal teacher-centered classroom structure is not fully compatible with current generation's learning preferences affected by a rapid rise of accessible digital technologies and online content. Two major themes emerge from this review of published literature. An arrival of new opportunities and factors associated with widespread accessibility of wireless mobile technology and changes in pedagogical methods impacted by technology and generational learning preferences have created new needs, opportunities and activities that demonstrate a need to design effective, flexible student-centered learning environments that converge with emerging technologies, encourage interaction and collaboration, and support student learning and learning performance.
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__________________________________________________________________________
Contemporary Digital Technology’s
Implications for Learning Environments and its
Users
NADYA KOZINETS
Review of Literature
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Contemporary Digital Technology’s
Implications for Learning Environments and its
Users: Review of Literature
Nadya Kozinets, University of Louisiana at Lafayette, USA
Abstract: Since the late 1990s, learning environment culture has changed. Recent studies indicate that hierarchical,
formal teacher-centered classroom structure is not fully compatible with current generation’s learning preferences
affected by a rapid rise of accessible digital technologies and online content. Two major themes emerge from this review
of published literature. An arrival of new opportunities and factors associated with widespread accessibility of wireless
mobile technology and changes in pedagogical methods impacted by technology and generational learning preferences
have created new needs, opportunities and activities that demonstrate a need to design effective, flexible student -centered
learning environments that converge with emerging technologies, encour age interaction and collaboration, and support
student learning and learning performance.
Keywords: Wireless Technology, Design of Learning Environments, Evaluation of Learning Spaces,
Learning Outcome, Student-Centered
Introduction
ramatic shifts have occurred since the late 1990s when digital technology became a
critical element in providing students with high-quality education relevant to the
Twenty-first-century world. As a result, contemporary learning space must be able to
embrace and accommodate ubiquitous and fast changing technology in order to enhance student
learning and learning performance. With the advance of digital technology, the traditional idea of
the classroom as formal and teacher-centered space has shifted and expanded to incorporate the
use of both physical and virtual space through wireless connectivity. The accessibility of online
content and affordability of small hand-held portable mobile digital devices has turned almost
any space into a potential classroom. Accessibility and affordability have enabled the emergence
of a learner-centered approach to learning and education, and have expanded the definition of a
traditional classroom to include the learning environment in order “to capture this wider venue
for teaching and learning” (Brown and Lippincott 2003) that is commonly defined as “New
Generation Learning Spaces”(Wilson and Randall 2012). Learning spaces represent a large
capital investment and are supposed to last 50–100 years, while technology may change every
year (Oblinger 2005). The pace of technological advances outstrips the ability of higher
education to adapt its facilities to keep up with the changes. if a significant relationship between
design of a physical space and learning performance and teaching pedagogy is to take place, then
new, flexible, and adaptable learning environments that encourage interaction and collaboration
are required to support student learning and learning performance.
The main purpose of this review of literature is to systematize and analyze the literature that
relates to learning environments using an interpretive meta-analysis of studies published between
2003-2013. This period correlates with the growth and development of information technology
and might signal an emergence of a new learning environment paradigm. The primary goal of
this review is to explore whether learning space and its users were affected by advances in digital
technology and what were the underlying trends, challenges, and gaps in research.
D
THE INTERNATIONAL JOURNAL OF DESIGN EDUCATION
Discussion
The importance of the spatial design of higher education learning spaces, in general, cannot be
overstated and receives substantial attention from researchers, as demonstrated by this extended
review of over sixty published articles associated with these investigations. The review indicates
a diversity of literature on the topic, but in spite of diversity in methodologies and independent
variables of the included studies, each of them found some type of significant relationship
between the design of physical space and a student learning, performance, and teaching
pedagogy. Out of sixty reviewed articles, twenty authors addressed the convergence of digital
technology, pedagogy, and learning environment.
Two of the first authors to address the shift from the common definition of a classroom to
the broader frame of a learning environment with the advent of technology incorporated into
learning and teaching were Malcolm Brown and Joan Lippincott (2003). They identified the
main principles for the design of learning environments that include a student-centered design
focusing on learning rather than teaching, and on the integration of technologies to enrich
learning. These principles demand flexible furniture configurations that adapt to a variety of
activities that encourage social interaction and cooperative learning. Lennie Scott-Weber’s multi-
year case study (2013) describes a formal teacher-led classroom as space with physical barriers
to teaching and learning, lacking support for new technologies as opposed to the learning
environment enabling multi-modal and dynamic learning. She identifies eight design principles
to support new educational pedagogies and reflects on the changing nature of learning spaces.
The extracted principles include flexibility, support of multiple learning preferences, integration
of technology and support of social interaction. Diane Oblinger (2003) of EDUCASE and Espey
(2008) also emphasized comfort and social interaction. Many other authors illustrate new
approaches to design and its guiding principles (Gee 2007; Johnson and Lomas 2005; Long and
Ehrmann 2005; Neill and Etheridge 2008; Kondo and Narahara 2011; Scott-Webber 2013; Tom
and Voss 2008; Leigh et al. 2013). The most urgent need that these researchers express is the
need for flexibility and the future-proofing of contemporary learning environments.
One third of the studies included in this review examined the role ambient building attributes
such as acoustics, ventilation, indoor air quality and lighting play in students’ performance,
motivation, comfort and overall well-being (Wu and Ng 2003; Boman and Enmarker 2004;
Mendell and Heath 2005; Kennedy et al. 2006; Shaughnessy et al. 2006; Zhang et al. 2007; Hui
and Cheng 2008; Norbäck and Nordström 2008; Lee et al. 2012; Samani 2012; Choi et al. 2014;
Winterbottom and Wilkins 2009). The findings state that environmental stress overall affects
learning performance and motivation. For instance, inadequate indoor air quality has been shown
to adversely affect cognitive development, reading skills, attention, focus and overall
psychological well-being of students. Another variable such as color was also studied with regard
to preferences and meaning and how it might influence the user’s learning experience (Fielding
2006). Wu and Ng (2003) investigated the effect of daylight; Felsten (2009) investigated the
effect of views and nature; Doxey, Walczek and Zajicek (2009) and Han (2009) studied the
influence of interior planting on classroom environment, academic performance, behavior and
overall well-being of students and faculty. The plants appear to have the greatest impact in rooms
without any other natural elements present. The study by Kaya and Burgess (2007) examined the
role of seat preference and gender to affect territoriality in a college setting. Their research
indicates a strong correlation between individual seat assignment and territoriality. Some studies
focused on satisfaction, expectations, and perceptions of student and faculty with regard to
physical space. These studies revealed that perception could rely heavily on spatial attributes
such as visibility and furniture layout followed by the ambient attributes of air quality,
temperature, artificial lighting, room shape, and technology. Two studies indicate that these
attributes are also impacted by design, management, and maintenance of classroom spaces
(Yang, Becerik-Gerber, and Mino 2013; Amedeo and Dyck 2003).
KOZINETS: CONTEMPOR ARY DIGITAL TECHNOLOGY’S IMPLICATIONS FOR LEARNING
Scholars and practitioners have contributed to multiple efforts to rethink traditional
pedagogical approaches in relation to learning spaces. Proposals include the development of
theoretical models and the exploration of effective assessment and evaluation tools through the
formulation of a common terminology relating to learning spaces (Amedeo and Dyck 2003; Long
and Ehrmann 2005; D. G. Oblinger 2005; Gee 2007; MacPhee 2009; Pearlman 2009; Leigh et al.
2013). One of the most compelling studies, completed by Nair, Fielding, and Lackney (2005),
defines a new graphic vocabulary of twenty-five design patterns that synthesize learning research
with best practices in school planning and design drawn from the case studies of award-winning,
innovative school design from over twenty countries.
Numerous studies have evaluated the impact that classroom design has on academic
performance, student learning, and teaching pedagogy. EDUCAUSE, a leading organization for
promoting technological advancements in higher education, devoted entire issues of their most
prominent publications to the subject. Various supporters of the design of new learning
environment have claimed that its benefits (promoting active learning and encouraging
pedagogical innovation) outweigh the short-term costs. They cite the improved conceptual,
theoretical and applied forms of learning and the increased levels of student engagement (Neill
and Etheridge 2008; Brooks 2011; Leiringer and Cardellino 2011). Only two studies provided
some evidence of a causal relationship between the physical space and students’ on-task behavior
and learning outcomes. The findings of studies completed at the University of Minnesota
demonstrate that physical space alone can improve student learning as empirically measured by
standardized test scores (Brooks 2011; Cotner et al. 2013). To better understand the efficacy of
design in relation to user experience Nicolette Lee and Stella Tan (2013) conducted a series of
studies used to evaluate existing and future learning spaces. The authors used the focus group
method in order to gain in-depth insight into the needs and perspectives of users. They found that
the most important aspects of data were difficult to interpret relying on only verbal responses,
and the study concluded that a combination of visual and interactive focus group activities is
needed to increase participants’ engagement and active individual contribution.
A number of authors agree on the key findings that the students today learn the best by being
engaged in their own learning and by collaborating with others (Espey 2008; Chang and Stern
2009; Pearlman 2009; Kondo and Narahara 2011; Strayer 2012; Wilson and Randall 2012;
Steelcase 2014a). A Steelcase study (2014) demonstrates that an active classroom has a
significant effect on student engagement on multiple measures in comparison to traditional
classrooms. Student attitudes toward collaboration have also shown improvement in both
comfort and physical flexibility of active classrooms (Espey 2008). Several institutions have
redesigned their traditional classrooms to realize the potential for active, experiential learning
and student interaction. The presented case studies show that active collaborative learning is
facilitated by including flexible movable furniture layouts, and by providing wireless
connectivity for sharing work on overhead projectors and tableside whiteboards. Cotner, Loper,
Walker and Brooks’ study (2013) found that students in the active classroom outperform learning
expectations. The study provided an empirical confirmation that new technology-enhanced
learning environment has a positive effect on learning. Scott-Weber (2013), in collaboration with
Steelcase, states that active learning suggests people actually move in a space, and her multi-year
evidence-based research has resulted in an active furniture product, “Verb,” designed specifically
for learning environments. Steelcase surveyed hundreds of university students and faculty and
found a statistically significant correlation between classroom configuration and student
engagement (Steelcase 2014a).
Another study by Steelcase surveyed sixteen colleges in order to evaluate the spatial
implications of technology on learning spaces. The survey showed that technology can
significantly change and improve the relationship between students and instructors when aligned
with teaching strategies and goals (Steelcase 2014b). Six spatial insights emerged from the study
suggesting that the design of blended learning environments might achieve maximum results for
THE INTERNATIONAL JOURNAL OF DESIGN EDUCATION
students and teachers. Since the rapid growth of wireless technology has reduced the need for
specially allocated technology spaces, various authors have also articulated the need for the
integration of technology and physical space into the design of learning environments where
technology will not occupy a central function, but will support the learning (Fried 2008; Temple
2008; Pearshouse et al. 2009; Teitelbaum 2010; Solvberg, A. M. Rismark 2012). “Since no one
can predict how educational technologies and teaching modalities will evolve, learning spaces
must adapt to whatever changes the future may hold,” the white paper “21st-Century Learning
Environments” declares (JISC 2006). This demands a greater focus on the flexibility where space
can be reconfigured to fit current needs within a short time. Han, Leoung and Nair (2014)
provide a number of innovative strategies and guidelines for integrating technology and learning
spaces.
Accessibility of wireless technology makes it possible for learning to take place anytime, at
any place, and at any pace that the learner might desire. This emerging condition demands an
extension of the learning space well beyond its physical boundaries to include an entire campus
where a variety of comfortable furniture seating and availability of food and drink will be
conducive to a number of learning activities and their social dynamics. Campus learning can
become a continuous informal learning space located in atriums, residence halls, student lounges,
hallways, corridors and outdoor space (Chang and Stern 2009; Matthews, Andrews, and Adams
2011; JISC 2006). The necessary balance of social learning community and solitude can also
offer a spectrum of private and interactive spaces in contemporary educational environments
(Gee 2007). An increased provision of informal learning spaces will encourage students to spend
more time on campus (Chang and Stern 2009).
Conclusion
The findings presented in this review of literature considerably advance the research on learning
environments. However, only a few studies (Brooks 2011; Cotner et al. 2013) provide an
empirical confirmation that new, technology-enhanced learning environments can positively and
independently affect student learning. A number of researchers identify the need for further
development of research into student-centered, technology-enhanced learning environments that
provide flexible social and interactive spaces in higher education. The arrival of two major
factors (the advent of wireless information technology and the development of innovative
teaching methods) have impacted the learning preferences of a current generation of students and
led to a set of new pedagogical needs and opportunities that focus on collaborative, social,
interactive, deliberate, spontaneous, synchronous/asynchronous and virtual or real time activities.
Since the traditional teacher-centered classroom is functionally fixed, inconducive to change, and
inadequate to embrace these new factors, a broader frame of reference regarding learning
environments have been pronounced necessary by various researchers, as demonstrated by this
review. The research supports the development of new design principles and guidelines for new
generation learning spaces. New learning spaces aim to be active, collaborative, informal and
student-centered. “Learning, rather than heating systems, lighting control or computer projects
should be the center of learning space design” (Oblinger 2005). The most important design
consideration should be given to a learner-centered space that is comfortable, safe, functional,
flexible, mobile, technology-enhanced, socially connected, providing availability of food and
drink, and adaptable to a variety of learning activities and preferences. Despite the considerable
theoretical and practical attention that learning environments have received, still little empirical
research has been conducted to evaluate these claims. Considerable work remains to demonstrate
the impact of design on new learning environments and on student learning outcomes and
practices.
A large body of research completed during 2003-2014 has led this researcher to notice that
the subjects of learning environments and the advent of emerging technologies have been
KOZINETS: CONTEMPOR ARY DIGITAL TECHNOLOGY’S IMPLICATIONS FOR LEARNING
developed primarily outside of the interior design discipline. The disciplines of information
technology and educational psychology have contributed the most notable research in these
areas. The interior design discipline seems inactive in the development of the new learning
environment paradigm. Interior design and architectural research tend to focus on tangible
building attributes of educational facilities, and largely ignore the discussion of the learning
environment’s convergence with rapidly growing technology. An interdisciplinary discussion
could connect these areas of expertise and knowledge.
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THE INTERNATIONAL JOURNAL OF DESIGN EDUCATION
Zhang, Guoqiang, Cong Zheng, Wei Yang, Quan Zhang, and D. J. Moschandreas. 2007.
“Thermal Comfort Investigation of Naturally Ventilated Classrooms in a Subtropical
Region.” Indoor and Built Environment 16:148-158. doi:10.1177/1420326x06076792
ABOUT THE AUTHOR
Nadya Kozinets: Assistant Professor, College of the Arts/School of Architecture and
Design/Interior Design Program, University of Louisiana at Lafayette, Lafayette, Louisiana,
USA
The International Journal of Design Education is
one of six thematically focused journals in the
collection of journals that support the Design
Principles and Practices knowledge community—its
journals, book series, conference and online
community.
The journal explores aspects of learning to become a
designer and to develop modes of “design thinking”.
It explores design strategies, methodologies and
tactics. It analyzes forms of professional stance. And
it examines pedagogies of engagement with design
purposes, designed objects and design.
As well as papers of a traditional scholarly type, this
journal invites presentations of practice—including
documentation of curricular practices and exegeses
analyzing the effects of those practices.
The International Journal of Design Education is a
peer-reviewed scholarly journal.
IS S N 2 325 -12 8 X
Conference Paper
Full-text available
Recent education reform processes in Croatia is a classic example of an effort that is trying to restructure educational standards which in turn should lead to improvement of teaching and learning processes. As any other education reform, the one that recently took place in Croatia was aimed at closing the gap between purely academic knowledge and skills that are truly needed in contemporary economic surroundings and in a development of free market. Croatian education reform documents emphasize two preconditions for achieving that aim: 1) mastering digital technology and 2) developing high order skills as for example critical thinking and sound reasoning. Both are believed to be the key elements for avoiding traditional teaching and learning processes that risk unsatisfactory development of skills and staying within useless set of skills that are applicable only in a purely academic circles. If that is the case then the following questions are legitimate: 1) does the use of digital technology necessarily lead to development of desired set of skills which are propagated in aforementioned education reform documents and if so, how? and 2) is there a way in which we can use both sustainable and disruptive technologies to form disruptive teaching and learning processes? The aim of this research is to detect how much and in which way digital technology is being used in accomplishing the learning outcomes that are set by the curriculum of school subject Logic by using qualitative and quantitative content analysis. In this research we use specific example of teaching and learning school subject Logic because it can be considered as the cornerstone for developing high order skills such as critical thinking and sound reasoning. The results of this research show that the application of digital technology in schools is reduced to only one of common learning media, thus, we offer some practical solutions in applying digital technology in schools by which disruptivity of teaching and learning process can really be accomplished.
Article
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People learn differently. This fact is at the heart of an educational practice revolution; active learning is at the core. Solving for active learning in the formal learning place – the classroom – became the quest of this design case’s author along with her Steelcase Education Solutions team. Active learning suggests people actually move in a classroom. Currently, classrooms are not designed for this type of activity as the modus operando is passive learning or an instructor stand and deliver situation. Much is changing in education from kindergarten through higher education. Therefore, figuring out how best to support an environment addressing active learning is important. This case shares the discovery of environmental supports for active learning and details the results of a six-step evidence-based research process that led to both the development of a furniture product that became Verb™ and a series of interior setting concept ideas for the formal learning environment.
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Several institutions have redesigned traditional learning spaces to better realize the potential of active, experiential learning. We compare student performance in traditional and active learning classrooms in a large, introductory biology course using the same syllabus, course goals, exams, and instructor. Using ACT scores as predictive, we found that students in the active learning classroom outperformed expectations, whereas those in the traditional classroom did not. By replicating initial work, our results provide empirical confirmation that new, technology-enhanced learning environments positively and independently affect student learning. Our data suggest that creating space for active learning can improve student performance in science courses. However, we recognize that such a commitment of resources is impractical for many institutions, and we offer recommendations for applying what we have learned to more traditional spaces.
Article
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The design process described in this case emphasizes decisions made to guide and direct the creation of a unique classroom addressing the needs of millennial learners. The project, a research/learning partnership with Herman Miller, gained insights from participants in a design charrette, an advisory group focused on creativity, and the practice, teaching, and research experiences of the project leadership. The challenge was to create a learning space that encouraged behaviors and activities to enhance creativity for today’s millennial learners. Decisions made during the design process were shaped by the perspectives of faculty and student users, whose comments were documented in exit interviews and annual teaching evaluation questionnaires. Despite a minimal budget, the project demonstrates how careful planning through ideation, strategic partnerships, and implementation took the design from wishful thinking to full execution and implementation. The resulting classroom is the case’s outcome and the design processes’ response to the needs of academic spaces that invite millennial learning.
Article
Full-text available
The purpose of this study is to identify the influence of indoor lighting on students’ learning performance within learning environments from knowledge internalization perspective. This study is a comprehensive review of literatures base on the influence of indoor lighting on people’s productivity and performance especially students’ learning performance. The result that comes from this study shows that it is essential to improve lighting in learning environments to enhance students’ learning performance and also motivate them to learn more. In this study the researchers utilized Pulay (2010) survey and measured the influence of lighting on students’ learning performance. Utilizing survey data collected from 150 students from Alpha course in Malaysia. This study found significant impact between lighting quality and students’ learning performance this finding is also supported by interview from two experts.
Article
Full-text available
The aim of the JELS project was to identify and review the tools, methods and frameworks used to evaluate technology supported or enhanced physical learning spaces. A key objective was to develop the sector knowledgebase on innovation and emerging practice in the evaluation of learning spaces, identifying innovative methods and approaches beyond traditional post-occupancy evaluations and surveys that have dominated this area to date. The intention was that the frameworks and guidelines discovered or developed from this study could inform all stages of the process of implementing a technology supported physical learning space. The study was primarily targeted at the UK HE sector and the FE sector where appropriate, and ran from September 2008 to March 2009
Article
Full-text available
The main objective of this research was to investigate the impact of plants within a university classroom setting on course performance and on student perceptions of the course and instructor. The study was designed to include a minimum of two classes of the same coursework taught by the same professor in the same room during one semester. Three sets of two classes each and 385 students were included within the study. Throughout the semester, the experimental class of students was treated by including an assortment of tropical plants within the classroom. Plants were not present in the control classroom of the study. The official university course and instructor evaluation survey was administered at the end of the semester. Additionally, each student provided demographic data, including class rank, gender, and ethnicity. To measure course performance, the professor for each course reported each student's grade for the course. No statistically significant differences were found in comparisons of grades/student course performance (P = 0.192). However, statistically significant differences were found in comparisons of overall course and instructor evaluation scores of treatment and control groups (P = 0.065). Statistically significant differences were found in comparisons of the individual courses/classrooms between control and treatment groups on statements in subsections of the course and instructor evaluation survey, including the areas of "learning," "enthusiasm (of instructor)," and "organization (of instructor)." In these comparisons of the treatment and control groups, the differences that were most apparent were in students who had class in the classroom that was windowless and stark. The plants appeared to have the greatest impact on students in the room that was void of other natural elements.
Article
A dramatic, pedagogical shift has occurred in recent years in educational environments in higher education, supported largely by the use of ubiquitous technologies. Increasingly, emphasis is being placed on the design of new learning spaces, often referred to as “Next Generation Learning Spaces” (NGLS) and their impact on pedagogy. The traditional idea of “classroom” now incorporates the use of both physical and virtual space. Increasing availability of digital technologies has enabled access by teachers and students to a wider range of communication and information that can now be incorporated into the formal learning process. This change has meant a greater focus on the design and use of flexible learning spaces, more use of blended learning approaches and more personalised, individualised learning opportunities for students. While many such classrooms have been built and used in universities globally, only a few formal studies have been reported on how these spaces are used by both teachers and students. This article focuses on a pilot study of the use by academic staff and students of a next generation learning space – the Pod Room – and makes recommendations for further research into the effectiveness of new learning spaces in universities.
Article
This paper reviews the progress of daylighting in school buildings. It examines the publications that discuss daylighting design for school buildings in early 1874. It also traces the developments of the open-air school movement from 1900 up to the 1930s and describes research at the present day in the context of an emphasis on environmental factors defining healthy and comfortable buildings for education. The regulations and standards of lighting in schools in the different periods in Britain are summarized. The review reveals that there is a need to examine the relationships between the responses of school occupants and the quantity of daylighting. The conclusion of the paper gives an overall summary of daylighting in schools and identifies gaps in current knowledge. In addition, it provides the authors' opinions for future lighting research in schools.