A Comprehensive Overview of MOOCs: Antecedents and Successful Developments
Transcript of A Comprehensive Overview of MOOCs: Antecedents and Successful Developments
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 255
A Comprehensive Overview of MOOCs: Antecedents and Successful Developments
M. Purificación Salvi and Javier Bravo
Open University of Madrid (UDIMA)
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 256
Abstract
In the last decade universities have added in their educational structure the e-Learning
Systems. ICT have eased the utilization of these systems. While in the past education community
put the focus on how to improve the learning process, from 2012 this focus turns into how to
reach a massive number of learners. MOOCs allow massive amounts of participants to enroll in a
course that it is situated in an open environment and it is available on-line. However, it is argued
the difficulty in finding a common definition of MOOCs, since they are developed in different
contexts and with distinct purposes. This paper goes into detail about MOOC movement and the
main concerns about them. There are two distinct approaches: cMOOCs and xMOOCs. The
former is based on connectivism, whilst the latter on conductive theory. Also, five successful
developments of MOOCs are briefly analyzed in order to give a whole vision of MOOCs. Every
MOOC bears a high rate of enrolment, but also its dropout rates are huge. The paper exhibits an
analysis of these rates of the most relevant platforms. On one hand, xMOOCs have caused a high
impact. On the other hand, cMOOCs provides a new model of teaching/learning.
Keywords: education, mooc, dropouts, overview
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 257
A Comprehensive Overview of MOOCs: Antecedents and Successful Developments
Introduction
In the last decade the Higher Education has evolved significantly due to massive adoption
of e-Learning Systems (eLS) by universities. Modern information technologies have facilitated
the wider adoption of these systems, since they provide new ways to transmit, organize and
present educational contents. For instance, teachers and students can utilize new devices (PDAs,
Smartphones, TabletPC, eReaders), new protocols (SMS, Bluetooth) and new applications
(learning management systems, virtual labs, etc.) among others (Chen et al., 2000).
It is well known that students can have different personal features, e.g. interests, goals,
previous knowledge, cultural background or learning styles. These features should be considered
in order to enhance and ease the learning process for each learner. In this sense, e-LS have
evolved in Adaptive Educational Hypermedia Systems (AEHS). These systems are able to adapt
educational contents and navigation in order to automatically guide students according to their
personal features. AEHS have been successfully used in different contexts, and many on-line
educational systems have been developed, e.g. TANGOW (Carro et al., 1999).
In the same vein that on-line teaching could improve the learning experience, another
branch of eLS has developed turning into Massive Open Online Courses (MOOCs). MOOCs
have emerged in 2008, but over the past year they have had a highly development and have
received a great deal of attention from the academic community. This development is even more
evident in US universities. In fact, 2012 is a relevant year, since US universities offered free on-
line courses with no limit in enrolments. This new experience has represented a successfully
milestone in on-line teaching, thus many courses had up to 50,000 enrolments (Gaebel, 2013).
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 258
In this paper we present the result of the previous research of analyzing 77 conference
papers, technical reports, educational blogs, and educational journals. We have only selected the
most relevant documents in order to explain the MOOC movement. As many authors pointed out
that the main hindrance is the dropout rates in MOOCs, we show an analysis of these rates in the
relevant MOOCs.
This paper is composed of the following sections: the next section supplies a description
of platforms and systems before the MOOCs origin, the section three contains the MOOCs
definition, the section four provides the characteristics of types of MOOCs, the fifth section
outlines successful developments of MOOCs, while the section six provides an analysis of
dropouts in MOOCs, and the last section exhibits the main conclusions and future lines of
working.
Antecedents of MOOCs
During 2012 the MOOC movement has got a high impact media in Education as pointed
out the New York Times 2012, Hack Education 2012, and Horizon Report 2013. However, the
history of MOOCs is not as short as the people can intuit.
Figure 1. Origin of MOOCs. Source: (Gaebel, 2013, p. 4).
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 259
The figure 1 shows the origin of MOOCs in September 2008 in Canada. Specifically,
George Siemens and Stephen Downes at the University of Manitoba (UM) developed CCK08
course, also known as “Connectivism and Connective Knowledge”. It was a fully open course
that could be followed on-line and for free. The main topic of this open course was the
Connectivism theory, which indicates that learning will be successful if we learn how to connect
and build relevant networks. This idea of collaborative construction knowledge is the main key
of a MOOC. The course is offered to their students (24 students have enrolled at the UM) and
other learners of the world. At the end of the course 2200 learners were enrolled in this course.
CCK08 course was considered an important milestone due to the high number of enrolments and
the different distributed technologies. Subsequently, David Cormier and Bryan Alexander minted
the term MOOC. (de Waard, 2013; Daniel, 2012, p. 3).
The concept of MOOC is based on different aims that are not new. Moreover, in the late
1920s the radio had an incipient impact in the population due to massive utilization. This fact
motivated representative USA universities (e.g. Harvard) to offer open courses through this
medium. In the 1940s and 1950s this development is increased, since USA universities offered
similar courses not only through the radio, but also the television. For instance, in 1956 there was
broadcasting TV of education programs, such as Chicago TV Collage. This phenomenon also
occurred in other countries, for example, in Australia is launched the program “School on the
Air”. (Matt and Fernandez, 2013; School on the air).
In the digital era the development of MOOCs has grown into the Open Education
movement. This movement promotes free knowledge sharing as well as free access to either
educational content. Even though sharing knowledge through Internet is not a novelty. For
example, Daniel (2012) shows other initiatives on free education by using Internet: Fathom and
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 260
AllLearn. The former was a platform of Columbia and Chicago universities between 2001 and
2003, whilst the latter was non-profit joint venture of Stanford, Princeton and Yale universities,
but it went bankrupt in 2006. (Yuan and Powell, 2013, p. 6).
In the same vein, from late 1990s the Massachusetts Institute of Technology (MIT) has
spread free educational contents in the Web. In 2002 the MIT has developed the Open Course
Ware (OCW); it is shown in the figure 1. In the same year UNESCO organized a forum in order
to analyze the impact of OCW in Higher Education. Thus, it utilized the term Open Educational
Resources (OER) to refer to this type of free educational contents. (Daniel, 2012).
It is important to mention similar projects as Khan Academy and Peer to Peer University
(P2PU). Khan Academy was established in 2006 by Salman Khan. Utilizes multimedia to reach a
global audience of secondary school students, adults and teachers. Affords more than 3,900 talks
and tutorial videos of different scientific topics. On the other hand, P2PU project is a California
non-profit organization and was established in 2009 by Browne et al. It is a learning community,
in which its learners are allowed to participate in different courses. The crucial aspect of this
organization is that Creative Commons is being embedding in all courses. This aspect is
important because whatever content is created during the courses can be reused in other courses.
Definition of MOOC
The original idea underlying in MOOCs was to foster open access to Higher Education.
Then, a high number of students could be reached by these learning systems. Nevertheless, the
MOOC community has understood these goals of different points of views producing MOOCs
with uncommon characteristics. Thereby, it is not an easy task to find a common base in
MOOCs. (Yuan and Powell, 2013, p. 6; Zapata-Ros, 2013, p. 23).
Therefore, it is clear that the definition of MOOC is not unique and appropriate to the
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 261
MOOCs. We try to address the concept of MOOC by providing its main characteristics:
- Massive: it is related to offering courses to unlimited number of learners.
- Open: it is related to concepts of “open access”, “open education”, “open content”, and
“open source”. The MOOC term can be identified to the first two, since everyone can enroll in a
course without preconditions. The last two mentioned concepts can be confused, as it involves
that course contents are free as well as their use is free for everyone.
- Online: it is referred to all courses are developed and followed through Internet.
- Course: the main difference between MOOCs and OCW lies in that MOOC entails a
methodological system which requires: starting and ending dates, activities, and assessments.
It is striking that many MOOCs don't match previous characteristics as Zapata-Ros (2013
p. 23) emphasizes quoting Willey: “I hate this term. Almost every so-called MOOC violates at
least a letter in the acronym”. But, at least all MOOCs offered to date have been online.
Thus, a MOOC is a Massive Online Course which allows massive amounts of
participants to enroll in a course that it is situated in an open environment and it is built and
available on-line. Depending on the previous characteristics there are different types of MOOCs.
Types of MOOCs
According to Siemens, there are two main approaches: cMOOCs (connectivism MOOCs)
and xMOOCs (extension MOOCs). These approaches reflect different understandings of MOOC
concept. Indeed, they develop courses with different goals and purposes. It is important to note
that according to Thillosen there are two more types of MOOCs: bMOOCs (blended MOOCs)
and smOOC (small Open Online Course – less than 150 participants). (Thillosen, 2013).
cMOOCs
This approach includes courses which follow the Canadian model of first MOOCs
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 262
developed by Siemens and Downes. These MOOCs are based on connectivism theory, which
means more constructivist and collaborative learning. Their main characteristics are: they utilize
learning networks, they require the intervention of an expert, and they use a number of free
resources. In addition, this approach does not allow payments for enrolling, but also open badges
as certification option. Successful developments of this approach are: CCK08, MobiMOOC, and
COER13 among others. (McAuley et al., 2010; De Waard, 2013)
xMOOCs
This kind of MOOCs follows the Silicon Valley model, or Coursera model. This
approach has captured media attention of academics and it has caused that educational
community put the focus on this phenomenon. (Daniel, 2012, p. 3).
The origin of this approach could be in 2011 when Sebastian Thrun performed the open
course “CS101: Introduction to Computer Science, Building a Search Engine”. This course was
followed by more than 100,000 learners, but only 10,000 learners passed it. Even though, a
significantly number of learners (over 30,000) was active users. This fact could attract the
attention of the media, which contributes to xMOOCs phenomenon. (Cummings, 2012, p. 88;
Matkin, 2012, p. 93).
This model is slightly different than the connectivism model, considering that xMOOCs
represents a traditional and conductible way in teaching. These MOOCs are used to include
virtual teaching, assessments, and a possible certification. (De Waard, 2012, p.91).
Successful Developments
This section analyzes the main platforms and companies related to MOOCs. The
selection of these ones for the analysis is due to its impact media, number of learners, and
number of courses. Taking into account these three variables five platforms and companies were
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 263
analyzed: edX, Udacity, Coursera, FutureLearn, and UNEDCOMA. This paper only provides
outlines of this analysis, but also references of each platform.
It is important to note that it is difficult to provide a list of cMOOCs suppliers, since
these courses are part of individual projects of teachers. Some examples of cMOOCs are
MobiMOOC, Crypt4you, OPCO11-12, and COER13. MobiMOOC was developed by De Waard
at the Athabasca University (AU). In Spain, Cript4you is launched by the Universidad
Complutense de Madrid. In Germany, we can find developments as OPCO11-12 and COER13,
but the number of enrolments was lesser than other xMOOCs courses (1,451 enrolments for
OPCO12 and 1,019 enrolments for COER13). (Thillosen, 2013).
edX
It is a non-profit platform funded (60 $ million) by MIT and Harvard University.
Currently, it offers 51 open courses of different topics. At this moment these courses do not
provide credits, but also a payment certification. Although the courses of edX follow the
xMOOC model, there are a little steps that edX could enrich its courses with the methodology of
cMOOCs. (Yuan and Powell, 2013, p. 7; https://www.edx.org/).
Udacity
It is a profit venture established in 2012 by Thrun, Stevens and Sokolsky. The initial
investment was of 21.1 million of dollar. Currently, it offers 25 courses of science. Udacity
(https://www.udacity.com/) provides a free certification for the learners who passed the course.
In addition, it offers the possibility of official certification at Pearson (e.g. University of San
José, CA). (Yuan and Powell, 2013, p. 7; Young, 2013).
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 264
Coursera
It is a profit company founded by Andrew Ng and Daphne Koller at Stanford University
(https://www.coursera.org/). It was launched with an investment of 22 million of dollars, and
currently it is the most important MOOC company in the Earth. It contains more than 300 open
courses and 70 institutions are participating in this company (e.g. Yale University and Princeton
University). In addition, this company provides courses in different languages (e.g. Spanish). It is
important to point out that the American Council on Education recommends 5 Coursera courses
to receive recognition of academic credits. (Watters, 2012; Yuan and Powell, 2013, p. 7).
Furthermore this company is developing a sustainable business model, in which the key
elements are: payment for certification, recruitment (payment to access the interaction files of
learners in order to select the best learners), education research (companies and universities
could pay for the records of learners), and individualized tutoring. (Daniel, 2013, p. 6).
FutureLearn
It was created by the Open University, and it is one of the first European initiatives of
xMOOCs. It is expected that this platform launches its courses in the fall 2013. It is worth
mentioning that some relevant institutions are adhered to FutureLearn from May 2013, e.g. the
British Museum, Loughborough University, University of Sheffield, University of Glasgow, and
University of Strathclyde. Nevertheless, University of Oxford, University of Cambridge, and
University of London have refused to participate. (http://futurelearn.com/).
UNEDCOMA
It was developed at the National Distance Learning Education (UNED) in the end of
2012. Currently, it has launched over 15 courses, covering a wide variety of topics. It allows two
certification models: certification of attendance and official certification. The latter requires an
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 265
exam at the UNED and official UNED credits could be awarded. (more information can be found
in https://unedcoma.es/).
Dropout rates in MOOCs
One of the main pitfalls in MOOCs is that they have huge dropout rates. This fact has
concerned researchers around the world to focus on educational aspects in order to improve
them. The table 1 shows dropout rates of several MOOC platforms. It is shown a high dropout
rates from 86% to the highest (second row in the table: 97.81%), which is a Coursera MOOC. An
active learner is a user that has completed at least one activity in the course. It is important to
take attention to this case, since it is surprising that it had 52% active learners. The same
situation is observed in edX case. Concretely, the 3.091x course contained 92.70% dropout rate,
whilst 21.04% of learners were active. We could estimate that many learners completed the first
activities, and then they transform to passive learners, also known as lurkers. Probably, this lack
of participation is due to the course activities turns into more complex. In addition, it can be
observed that CCK08 had the lowest dropout rate (86%). This fact supports the hypothesis that
xMOOCs should include pedagogic characteristics of cMOOCs in order to decrease their
dropout rates.
Table 1. Dropout rates of relevant MOOCs
Platform Course Enrolments Passed Active learners (%) Dropout rates (%)
Coursera Bioelectricity 12,000 313 30.48* 97.40
Coursera AI 29,894 654 52 97.81
edX 6.002x 46,000 3,008 13.04 93.46
edX 3.091x 28,512 2,082 21.04 92.70
Udacity CS101 100,000 10,000 30 90
UNEDCOMA Curso 12 35,278 1,641** 4.65 95.35
UM CCK08 2,200 308 14 86
AU MobiMOOC (April, May 2011) 556 40 13.31 92.81
* the learners passed the first activity; ** it is estimated based on the active learners
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 266
Conclusions and Future Work
This paper has presented an analysis of MOOC movement. Development of MOOCs is
produced two approaches. It is clear that xMOOCs have caused a high impact media in Higher
Education. This high impact has fostered that relevant universities of the world are adhered to
this movement. However, it is difficult to estimate the real impact in universities, since there are
questions to solve. For example, to establish a standard certification system; researchers put the
focus on dropout rates, and whether it is possible to decrease them by using Learning Analytics.
On the other hand, it is shown that cMOOCs could change how the educational contents
are delivered and shared. Thus, this type of MOOCs provides a new model of teaching/learning,
that it is separated of distance education model. This new model is based on conductivism theory,
whilst the latter on conductive theory. This type of MOOCs does not receive the same media
attention, but they are still a research line, considering social learning and Open Education
theories.
Finally, it is important to note that developing a MOOC should require the collaboration
of a group of persons, well coordinated. The group of teachers and the IT people should spend
time in designing, launching, and supporting. Thus, if an institution develops a MOOC it should
be considered: kind of MOOC, goals of the MOOC, and people engaged in the MOOC.
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 267
References
Bednar, N. (2013). MOOCs and Community College Distance Education. Proceedings of the
2013 American Political Science Association Teaching and Learning Conference, Long
Beach, California, February.
Brusilovsky, P. (2003). Developing adaptive educational hypermedia systems: From design
models to authoring tools. In Authoring Tools for Advanced Technology Learning
Environment, 377-409. Dordrecht: Kluwer Academic Publishers.
Carro, R.M., Pulido, E., and Rodríguez, P. 1999. Dynamic generation of adaptive Internet-based
courses. Journal of Network and Computer Applications 22:249-257.
Chen, F., Myers, B., and Yaron, D. (2000). Using Handheld Devices for Tests in Classes. Tech.
Rep. CMU-CS-00-152. Human Computer Interaction Institute.
Cummings, R. (2012). The MOOCs Arrive: How Will Extensive Monetization Impact Open
Educational Resources? Online Educa Berline Book of Abstracts (88-90). Germany.
Daniel, J. (2012). Making Sense of MOOCs, Musings in a maze of Myth, Paradox and
Possibility. Academic Partnerships.
Gaebel, M. (2013). MOOCs Massive Open Online Courses. EUA Occasional Papers.
Matkin, G. (2012). Making Sense of Free Massive Education: Disruptive, Natural Evolution,
Savior. Online Educa Berline Book of Abstracts (93-94). Berlin, Germany.
Matt, S. and Fernandez, L. (2013). Before MOOCs, 'Colleges of the Air', Chronicle of Higer
Education, April.
McAuley, A., Stewart, B., Siemens, G. and Cormier, D. (2010). The MOOC Model for Digital
Practice.
IKASNABAR 2013 - OPEN EDUCATION AND TECHNOLOGY 268
Thillosen, A. (2013). Conceptualizing and Implementing MOOCs - Experiences and Lessons
Learned from OPCO12 and an Outlook on COER13. In eMadrid Seminar on “MOOC
Experiences in Germany”. Madrid, Spain.
De Waard, I.I. (2012). Boosting Your Expert Training and Education Program with a MOOC.
Online Educa Berline Book of Abstracts (90-92). Berlin, Germany.
De Waard, I.I. (2013). MOOC Yourself: Set up your own MOOC for Business, Non-Profits, and
Informal Communities (eBook).
Watters, A. (2012). The Year of the MOOC, Hack Education, December 2012.
Young, J.R. (2013). California State U. Will Experiment With Offering Credit for MOOCs,
Chronicle of Higher Education, January 2013.
Yuan, L. and Powell, S. (2013). MOOCs and Open Education: Implications for Higher
Education, A white paper. JISC Cetis.
Zapata-Ros, M. (2013). MOOCs, una visión crítica y una alternativa complementaria: La
individualización del aprendizaje y de la ayuda pedagógica. Campus Virtuales, Vol II, 20-
39.