Review of Online Degrees in Electrical and
Computer Engineering
Wael M. G. Ibrahim ECPI College of Technology, Computer Electronics Department, 5555 Greenwich Road, Virginia Beach, VA 23462 Email: wibrahim@ecpi.edu |
Rasha M. B. E. Morsi Norfolk State University Department of Engineering 700, Park Avenue Norfolk, VA 23504 Email: rmorsi@nsu.edu |
Abstract
With the advent of technology and the increasing number of non-traditional students enrolling in US Universities, the need for flexibility in education has become a necessity. Online education is now a means for Universities to provide education to a wider variety of student population. Development of synchronous and asynchronous distance learning curricula is ever an growing research due to this newly found need for virtual universities. Recent reports confirm the fast growth in online education, the suitability of which for online engineering disciplines has been questioned. This paper researches 126 degree granting institutions that offer an Electrical and Computer Engineering degree online, and attempts to gain an insight in the growth of online education and its correlation with engineering disciplines. A comparison of different online delivery methods is presented as well as a review of different systems for offering them.
Introduction
Distance learning or distance education is a term used extensively by colleges and universities to describe remote delivery of course contents. It usually refers to off-campus sites, web-facilitated courses, and web-based (online) courses. Development and assessment of synchronous and asynchronous distance learning curricula has gained a large momentum due to the new emerging virtual universities.
“Many factors have contributed to the popularity and growth of distance education. Some are organizational, such as the desire to reduce cost or increase reach, and others are societal, including the all-too-pervasive enamorment with technology” [1]. One important factor is the ability to reach non-traditional students. Present day students have outside factors affecting their reach for higher education, including but not limited to: full time employment, deployment for military personnel, and family.
Online degrees has vastly increased in popularity in recent years, however this interest has not been articulated in the deployment of Science, Technology, Engineering, and Mathematics (STEM) bachelor degree programs. It has been argued that the ease of transfer of different disciplines from on-campus teaching to online teaching is discipline dependent. In engineering disciplines, laboratory experiments always served as the tool for relating the theoretical world to the real one. Other disciplines on the other hand do not necessarily require extensive hands-on labs. Practical or hands-on experiments delivered in traditional laboratory settings are now delivered through simulation software. Even though simulation is needed to reinforce concepts, practical experiments develop the student’s skills in dealing with the real instrumentation. To facilitate online education for engineering disciplines, virtual labs have emerged to give the students the practical experience.
The results of the Sloan survey of online learning [2] show that the growth rate for online enrollment continues to increase from 2003 to 2004. The survey results[2], classified by type of institution, show that the Associates degree granting institutions have the largest number of students taking at least one online course, representing about half of all the students studying online. Associates schools are followed, in order, by Masters, Doctoral/Research, Specialized, and Baccalaureate institutions with the smallest number [2]. The survey however does not relate the online offered courses to any specific discipline.
This paper attempts to provide a discipline specific review of undergraduate and/or graduate engineering degrees offered online. Different instructional technologies used at different institutions offering online engineering degrees are discussed. A comparison of different delivery methods for the online environment for Electrical and Computer Engineering courses in specific is presented. A review of different systems for offering electrical, electronics, and digital laboratories via distance learning is presented.
Review of online Undergraduate and/or Graduate Engineering Degrees
The fast and continuous growth of online education coupled with the results of the Sloan-C survey has spurred several questions about distance education;
· Is this fast growth in online education a representative of all disciplines?
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· Is online education suitable for all disciplines?
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· Would Baccalaureate institutions offering engineering disciplines see more value in online education to their long-term strategy if hands-on experience is resolved?
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To attempt to gain more insight in the growth of online education and its correlation with engineering disciplines, the authors investigated educational web sites of 126 educational institutions that offer an Electrical and Computer Engineering degree. These institutions are listed in Table 1[3].
1. Air Force Institute of Technology |
2. Alfred University |
3. Northern Arizona University |
4. Arizona State University |
5. Auburn University |
6. Boston University |
7. Boise State University |
8. Bradley University |
9. Brigham Young University |
10. Bucknell University |
11. California Institute of Technology |
12. California Polytechnic State University - Pomona |
13. California Polytechnic State University - San Luis Obispo |
14. California State University - Chico |
15. California State University |
16. California State University - Los Angeles |
17. California State University - Northridge |
18. California State University - Sacramento |
19. Capitol College |
20. Case Western Reserve University |
21. Carnegie Mellon University |
22. Cedarville College |
23. Catholic University |
24. Citadel |
25. Christian Brothers University |
26. Clemson University |
27. Clarkson University |
28. Colorado School of Mines |
29. Cleveland State University |
30. Colorado Technical University Online |
31. Colorado State University |
32. Cooper Union for the Advancement of Science and Art |
33. Columbia University |
34. Dartmouth College, School of Engineering |
35. Cornell University |
36. Drexel University |
37. Devry Institute |
38. Ellis College-New York Institute of Technology |
39. Duke University |
40. Fairfield University |
41. Embry-Riddle Aeronautical University |
42. Florida A&M University |
43. FairLeigh Dickinson University |
44. Florida Institute of Technology |
45. Florida Atlantic University |
46. Florida State University |
47. Florida International University |
48. George Mason University |
49. Gannon University |
50. Georgia Institute of Technology |
51. George Washington University |
52. Harvey Mudd College |
53. GMI Engineering & Management Institute (Kettering University) |
54. Illinois Northern University |
55. Illinois Institute of Technology |
56. Indiana / Purdue University - Fort Wayne |
57. Indiana / Purdue University - Indianapolis |
58. Johns Hopkins University |
59. Iowa State |
60. Kennedy Western University |
61. Kansas State University |
62. Lamar University |
63. Kettering University |
64. Louisiana State University |
65. Lehigh University |
66. Manhattan College |
67. Louisiana Tech. University |
68. Marquette University |
69. Mankato State University |
70. Mercer University |
71. Massachusetts Institute of Technology |
72. Michigan Technological University |
73. Michigan State University |
74. Mississippi State University |
75. Milwaukee School of Engineering |
76. Morgan State University |
77. Montana State University |
78. National Technological University |
79. National Technical University |
80. New Mexico State University |
81. New Jersey Institute of Technology |
82. North Carolina State University |
83. New Mexico Tech |
84. Northeastern University |
85. North Dakota State University |
86. Ohio Northern University |
87. Northwestern University |
88. Ohio University |
89. Ohio State University |
90. Oklahoma State University |
91. Oklahoma Christian University |
92. Oregon Graduate Institute |
93. Old Dominion University |
94. Pennsylvania State University |
95. Oregon State University |
96. Polytechnic University |
97. Portland State University |
98. Purdue University |
99. Princeton University |
100. Youngstown State University |
101. Rensselaer Polytechnic Institute |
102. Rowan University |
103. Walden University |
104. Wayne State University |
105. Worcester Polytechnic Institute |
106. Wright State University |
107. Wilkes University |
108. Wichita State University |
109. Western Michigan University |
110. West Virginia University |
111. University of Illinois-Urbana Champagne |
112. University of Delaware |
113. University of Florida |
114. University of Idaho |
115. University of South Carolina |
116. University of Southern California |
117. University of Massachusetts Amherst |
118. University of North Dakota |
119. University of Colorado at Boulder |
120. University of Maryland-University college |
121. Texas Tech University |
122. University of Michigan Dearborn |
123. University of Missouri-Rolla |
124. University of Washington |
125. University of Cincinnati |
126. University of Norwestern |
Table 1 A list of investigated educational web sites
The investigation relied on the classification established by the Sloan-C report [2] for defining an online course. According to the report an online course is a course that has 80+% of its content delivered online and typically has no face-to-face meetings [2]. In addition, our investigation concentrated on complete degrees offered online as opposed to course offerings online.
The results of the investigation are shown in Figure 1 and 2. Universities offering online engineering degrees constituted thirty percent (30%), or 38 universities, of the total number of investigated universities. Sixty percent (60 %), or 23 universities out of those 38 offered Electrical and/or Computer Engineering (EE/CE/ECE) disciplines. Figure 1 relates the number of engineering disciplines and the EE/CE/ECE majors offered online to the total number of investigated universities.
Figure 2 relates the number of EE/CE/ECE Baccalaureate, Masters, and Doctoral degrees offered online to the total number of EE/CE/ECE degrees offered online. Only one university, out of the 23 universities found here to be offering online EE/CE/ECE disciplines, is offering a Baccalaureate degree. The majority, 19 universities (82.6%), are offering Masters Degrees online.
Figure 1 Survey results of universities offering online degrees
Figure 2 Percentage of degree
offerings in EE/ECE
categorized as BSc, MSc, and PhD.
The University offering a Bachelors degree in Electrical Engineering is University of North Dakota (UND). The degrees offered by UND are ABET accredited online degrees. UND delivers four undergraduate engineering degree programs through their Distance Engineering Degree Program: chemical engineering, civil engineering, electrical engineering and mechanical engineering. Their Distance Engineering Degree Program is a part time program that is designed for non-traditional students. The laboratory requirements associated with the degree however are fulfilled through condensed summer sessions. For one credit labs, student is to be on-campus for 3-5 days. For two credit labs, on-campus presence is 7-9 days, and for three credit labs, the requirements are 14 days on campus.
The State University of New York (SUNY), has recently been awarded a large amount of money to develop an online bachelor’s degree in electrical engineering [4] which they claim to be the first in the world. It is understood that they are developing a completely online degree which would include laboratories online. If so, this will be a huge leap in advancement in online education for the engineering world.
The result of our investigation definitely validates the high growth rate in online education as 65% of the investigated universities offer online degrees or programs. However, only 46% of these universities are offering engineering degrees online with less than 1% offering a B.Sc. in EE/CE/ECE, 15% offering Masters in EE/CE/ECE, and 1.5% offering EE/CE/ECE Doctorate Degree.
Online Course Delivery Systems
Research has proven that even with the availability of well-prepared students and highly skilled faculty, a lecture-based, traditional teaching delivery method can be a detriment factor in students’ success and retention. It has been proven that a higher success rate is achieved with a shift from traditional teaching to web-facilitated learning. The curriculum must also have an emphasis on inquiry-based, hands-on approaches to learning. Blending multimedia and communication technologies into the delivery system is therefore a must.
A distance learning management system (DLMS) is the platform used by most institutions for the delivery and tracking of blended learning, i.e., online and traditional learning. A robust DLMS should provide a seamless integration for educational, administrative and supervisory tasks. As with any online system, a DLMS system must offer security by selectively limiting and controlling access to online content. It must also be scalable to meet future growth in the volume of instruction and/or the size of the student body. The system must be user-friendly to facilitate the distance learning experience. It also should be built on an open architecture that supports content from different sources and is interoperable with different platforms.
Several platforms, listed in Table 2, are available in the market and an excellent review of some of the features offered by these platforms and others can be found on the instructional technology site of Marshall University [5].
DLMS |
Company |
Angel™ |
CyberLearning Labs, Inc. |
WebCT™ |
WebCT, Inc. |
Blackboard™ |
Blackboard Inc. |
Desire2Learn |
Desire2Learn Inc. |
Embanet™ |
Embanet corporation |
eCollege.com™ |
eCollege |
IntraLearn™ |
IntraLearn Software Corporation |
Symposium™ |
Centra Software |
Convene™ |
Learning Technology Partners (LTP), |
Table 2 Distance Learning Management Systems (DLMS)
The most popular DLMS systems are Blackboard™, WebCT™, Desire2Learn™ and Angel™. The Angel platform is gaining a large popularity due to its open and flexible architecture and ease of use despite that it does not contain as much features as the two leading LMS. The different DLMS systems provide several multimedia capabilities such as:
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· Different text formats: PDF, DOC, HTML, XML, and PPT. |
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· Different Graphic formats: JPEG, TIFF, BMP. |
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· Streaming Audio: MP3, WMA. |
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· Streaming Video and animation: AVI, MPEG, WMV, Flash, and Shockwave. |
Blackboard Inc. provides a comprehensive comparison of some of the DLMS capabilities across the leading solutions available in the market today: Blackboard Academic Suite™, WebCT Vista™, WebCT Campus Edition™, Desire2Learn™ and CyberLearing Lab’s ANGEL™. The capabilities are divided into four categories [7]:
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· Instruction, Communication and Assessment |
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· Connections, Personalization and e-Commerce |
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· Collection, Sharing and Discovery |
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· Administrative |
Some of these capabilities that are of most interest to the educator and that are common among all five platforms are [7]:
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· Course Creation Wizard including Import and Export |
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· Spell Check |
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· Equation Editor |
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· Audio / Video capabilities |
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· Adaptive Release Quizzes (By Date and By Grade) |
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· Upload Existing Syllabus |
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· Has Learning Unit / Module feature |
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· Discussion Board, Chat, and Email |
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· Online Assignment submission |
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· Download Assignments |
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· Questions Can Contain Images |
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· Questions can contain Audio / Video / Other Media |
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· Time Limit Option on the Test |
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· Instructors Can Require Proctored Exams |
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· Can Display Test All at Once or One Question at a Time |
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· Instructors Can Override Automated Scoring |
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· Create Test Banks |
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· Include individual Questions from Test Banks |
According to a recent report by the National Centre for Educational Statistics [8] (NCES) different delivery methods were used by different institutions. A summary of the report findings are presented in Table 3 below.
Delivery method |
Public 2-year |
Public 4-year |
Private 4-year |
Synchronous Web Courses |
40% |
55% |
35% |
Asynchronous Web Courses |
95% |
87% |
86% |
One Way Audio |
10% |
11% |
12% |
One Way live Video |
9% |
13% |
4% |
One Way prerecorded Video |
57% |
40% |
24% |
Two-way video with two-way audio |
60% |
80% |
22% |
Table 3 Primary Technology for
instructional delivery for
distance education courses [8] 2000–2001.
The report results’ are indicative that the preferred delivery method for online education is asynchronous web-based instruction [8]. The vast majority of these institutions (90%) reported that they use asynchronous web-based as a primary mode of instructional delivery.
Virtual laboratories for distance education
In its infancy, distance education relied on simulation for engineering courses to illustrate the physical phenomena. Java applets, simulation software such as PSpice, Matlab, Simulink, and Multisim were used to provide a virtual prototype of a practical experimentation. However the need to deliver and achieve the same learning and outcome objectives for online learning as those for traditional learning imposed the necessity of providing virtual and real experimentation facilities. The first generation of Remote Labs consisted of simply monitoring remote experimentation setups through dedicated environments which later progressed to virtual labs over the internet [9-12].
The new technology available with National Instruments (NI) LabVIEWÒ Remote Panels enables a user to quickly and effortlessly publish the front panel of a LabVIEWÒ program for use in a standard Web browser [13]. Once published, anyone on the Web with the proper permissions can access and control the experiment from the local server [13]. If the LabVIEWÒ program controls a real-world experiment, demonstration, calculation, etc., LabVIEWÒ Remote Panels turns the application into a remote laboratory with no additional programming or development time [13].
Collaborative and group work as emphasized by ABET is a key point to provide in virtual labs. Through NI remote panels, only one client can control the Host Server Clients application at a time, but the client can pass control easily among the various clients at run-time. At any time during this process, the operator of the host machine can assume control of the application back from the client currently in control [14].
National Instrument Educational Virtual Instrumentation Suite (NI ELVIS), Figure 3, consists of LabVIEW-based virtual instruments, a multifunction data acquisition device and a custom-designed bench top workstation and prototyping board [14].
Figure 3. National Instruments Educational Laboratory Virtual Instrumentation Suite [14]
The eTCB(electronics training circuit board), Figure 4, a custom-built trainer board that works in concert with National Instruments’ NI ELVIS (Electronics Laboratory Virtual Instrumentation Suite) and a personal computer, is a solution for students who need to perform laboratory experiments, whether at a distance or on campus [15]. This solution offers students the convenience of purchasing a laboratory manual and a custom-built eTCB, which are designed to offer a complete set of laboratory experiments in DC and AC circuit analysis and design courses [15].
Figure 4 eTCB board interfaced with NI ELVIS workstation [15]
Conclusion
An investigation of educational web sites of 126 educational institutions that offer an Electrical and Computer Engineering degree was presented. The results are clearly indicative that online education has yet to gain ground in offering basic engineering courses leading to a Baccalaureate degree in engineering. It is the authors’ opinion that this is largely impacted by the extensive hands-on nature of engineering courses. However with the evolution and advancement in remote laboratories through NI-ELVIS or similar systems, it is expected that the number of online engineering Baccalaureate degrees will increase. This will be a direct result of labs moving from monitoring remote setups over the internet to a more realistic, interactive participation of students in remotely controlled lab facilities.
Bibliographical Information
[1] |
The basics of e-learning: an excerpt from handbook of human factors in web design, eLearn Magazine, Volume 2005, Issue 8 |
[2] |
Entering the Mainstream: The Quality and Extent of Online Education in the United States, 2003 and 2004, Sloan-C and the Sloan Center for OnLine Education (SCOLE), 2004. |
[3] |
A list of home pages for Electrical Engineering academic programs throughout the world. This document is maintained by the ECE Department of the University of Missouri at Rolla, http://www.ece.umr.edu/links/schools/, retrieved on December 1, 2004. |
[4] |
eLearn Magazine, Volume 2005, Issue 8 |
[5] |
Comparison of Online Course Delivery Software Products, http://www.marshall.edu/it/cit/webct/compare/comparison.html, retrieved December 1, 2004. |
[6] |
CIC learning management systems (LMS) survey, http://telr.osu.edu/surveys/cic-lms/reportFeb02.cfm, retrieved December 29, 2004. |
[7] |
e-Learning competitive Landscape, Blackboard, Inc., http://www.blackboard.net/docs/AS/Bb_Academic_Suite_Whitepaper_Competitor_Comparison.pdf, retrieved December 29, 2004. |
[8] |
Waits, T. Lewis, L. (2003). Distance Education at Degree-Granting Postsecondary Institutions: 2000-2001. U.S. Department of Education, National Centre for Education Statistics: Washington, D.C. |
[9] |
Bhandari and M. Shore, “Access to an instructional control laboratory experiment through the World Wide Web,” American Control Conference, Vol. 2, 1998, pp. 1319-1325. |
[10] |
Latchman, H. A., Saltzmann, Ch., Gillet, D. and Bouzekri, H., "Information Technology Enhanched Learning in Distance and Conventional Education", IEEE TRANSACTIONS ON EDUCATION, Vol 42, No 4., November 99, pp 247-254. |
[11] |
Bourne, J. R., Brodersen, A. J., Campbell, J. O., Dawant, M. M. and Shiavi, R. G., "A Model for On-line Learning Networks in Engineering Education", Journal of Engineering Education, July 1966, pp 253-262. |
[12] |
Shen, H., Xu, Z., Dalager, B., Kristiansen, V., Strom, O., Shur, M. S., Fjeldly, T. A., Lü, J. and Ytterdal, T., "Conducting Laboratory Experiments over the Internet", IEEE TRANSACTIONS ON EDUCATION, Vol 42, No 3., August 99, pp 180-185. |
[13] |
Distance-Learning Remote Laboratories using LabVIEW, National Instruments, 11500 North Mopac Expressway • Austin, TX 78759-3504 USA Tel: (512) 683-0100 • Fax: (512) 794-8411 • E-mail: info@ni.com |
[14] |
Manual, National Instruments, 11500 North Mopac Expressway • Austin, TX 78759-3504 USA Tel: (512) 683-0100 • Fax: (512) 794-8411 • E-mail: info@ni.com |
[15] |
Carlo Sapijaszko and Genevieve I. Sapijaszko, “An Electronics Laboratory System for On Campus and Distance Learning Applications,” 2005 CIEC Conference ETD, 2005, Savannah, Georgia |
Biography
Wael Ibrahim, is the Associate Dean for Computer Electronics Technology at ECPI College of Technology. Dr. Ibrahim has over thirteen years experience in education at the university level. He has an extensive experience in curriculum development for in-seat and online environments. His research interests are geared towards three main categories which are basic understanding of physical phenomena, engineering applications and engineering education enhancement.
RASHA MORSI is an Assistant professor in the Department of Engineering at Norfolk State University. She has a B.Eng. degree from King’s College, University of London (1991), an M.E. in Computer Engineering (1996), and a Ph.D. in Electrical and Computer Engineering (2002) from Old Dominion University. Her research interests include Digital Cellular Mobile Communication Networks and Protocols, Object Oriented Modeling and Simulation, and Technology Based Engineering Education.