Friday 9 December 2011

Fwd: STEM Annual Conference - 2nd call for papers



Sent on behalf of Dr Simon Steiner, Discipline lead - Engineering, The Higher Education Academy

Aiming for excellence in STEM learning and teaching

2nd Call for Papers

The Higher Education Academy's first annual learning and teaching STEM conference will take place on 12 and 13 April 2012 at Imperial College London, one of the world's leading centres of excellence for teaching and research in the fields of science, technology and medicine.

STEM subjects are recognised as having strategic importance in higher education for the economy and employers. The student learning experience in STEM subjects is vital in ensuring sustained growth in the uptake of these key disciplines. Furthermore an excellent learning experience ensures that students developed the right skills at the time of graduation and beyond through continued professional development. The Higher Education Academy (HEA) provides national leadership in developing and disseminating evidence-informed practice in learning and teaching in higher education; this conference will provide a platform for this for the HEA's STEM disciplines.

The HEA's STEM group includes the following disciplines;

Biological Sciences; Built Environment; Computing; Engineering; Geography, Earth and Environmental Sciences; Mathematics, Statistics and Operational Research; Physical Sciences; Psychology.

The key conference themes applied to STEM disciplines are:

innovative practice in STEM learning and teaching; gender issues in STEM subjects; Mathematics and Statistics in an interdisciplinary context; work-based learning in STEM subjects; teaching and assessing large classes; assessment and feedback; employability; flexible learning; internationalisation; retention and success.

We are interested in papers that apply to specific STEM disciplines as well as generically, across all STEM subjects.

Abstracts of up to 300 words should be submitted by Friday 16 December 2011 and are subjected to double-blinded peer review; a response will be sent by 16 January 2012. If an abstract is accepted for the conference, a full draft paper should be submitted by Friday 17 February 2012.  Full paper submissions and authors will have reviewers' comments by 2 March 2012.  Camera-ready papers should be returned to the conference committee by 16 March 2012 for inclusion in the proceedings.

Please see
http://www.heacademy.ac.uk/events/detail/2012/academyevents/STEM_annual_conf
for further details.

Note: it is expected that at least one author of a paper, workshop or poster which is accepted for presentation attends the conference; to assist with this, the Higher Education Academy offers a Travel Grant. This offers up to £500 for a team and £300 for an individual towards travel and subsistence - see http://www.heacademy.ac.uk/travel-fund for further details.



David Andrew,
Head of Academic Practice
 



The Learning Institute
Queen Mary, University of London

Mile End, London E1 4NS



02078822803

02081446753

 Book an appointment with me at http://doodle.com/DavidAndrew





Wednesday 7 December 2011

The Flipped Classroom: Using class time for learning, not presentation

 
 

Sent to you by David Andrew via Google Reader:

 
 

via sciencegeekgirl.com by Stephanie Chasteen on 12/4/11

I write a lot about teachniques (just coined that phrase, how do you like it?) to get students more interactive and engaged in your courses.  But a lot of teachers aren't sure how to take the time to do those activities given how much content there is to cover.  As you might be aware, one method that's been developed to address the time issue is to take a lot of the content "coverage" out of class, leaving classtime for working on a deeper understanding of that content.  This is called the "Flipped classroom," since the lecture is moved to homework, and homework and other ways to practice the content is moved to classtime. Not that radical — English teachers have been doing this forever.  You read the book at home, and then discuss it in class.

I got to attend a workshop led by one of the people who have led adoption of this technique — Aaron Sams, here in Colorado — a few weeks ago.  I've written about it in depth on one of my other blogs that I help author, The Active Class.  Here is a little excerpt from that post:

First, Aaron emphasizes, there is no such thing as "the" flipped classroom.  Every educator can take a different approach that matches his or her goals and classroom setting.  The way that he does his classroom is that he spends 5 minutes on a warmup activity, 10 minutes of Q&A time on the video, and then the rest of the class is spend in guided independent practice and/or labs.
Here's a short YouTube video to give you a taste:

So, what do you want your students to learn?  Consider:  What do my students need me physically present for that I currently assign out of class, and what I can I remove from class time that my students do not need me present for?  Consider a single lesson to start.  If you want to have students work on problem-solving skills, perhaps model problem-solving in your screencasts.    If you want to guide them through the book reading, perhaps create an online version of the lecture to help cue their attention to the important ideas.

Here are some example types of videos:

  • A lecture (can use pre-recorded ones, like MIT Open Courseware)
  • Video of you demonstrating how something works in real life
  • Video of a lab procedure
  • Guided problem-solving
  • Homework solutions
  • Prelab activity
  • Exam review

You can see a wide variety of example videos on the Learning4Mastery YouTube channel. I highly recommend checking it out — just a few minutes will give you a better sense of what can be done.

Take a look at the full post on the Active Class:  Taking the Content Out of Class for a nice list of some of the tech tools you can use to accomplish this.

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Monday 5 December 2011

Fwd: News release: New guidance for using medical recordings in teaching


News release
5.12.2011

New guidance for using medical recordings in teaching

New advice and guidance on making and using clinical healthcare recordings funded by the Strategic Content Alliance for learning and teaching launches today.

Clinical images, videos and other recordings are vital to good teaching and learning within the health care professions.  Increasingly these are originated outside the institution that wishes to use them.  This raises a number of legal, ethical and other issues relating to their re-use.

Debra Hiom, the project's manager at the Institute for Learning and Research Technology (ILRT) at the University of Bristol, added: "Students and teachers increasingly use pre-existing patient images from the web without adequately considering copyright or how they have been consented.  The new materials will help individuals be clear how resources can or can not be reused."

Listen to Debra explaining the issues that professionals face when using recordings and how the new guidance can help:
<http://www.jisc.ac.uk/news/stories/2011/12/podcast129debrahiom.aspx>

The materials aim to help users of clinical healthcare recordings to:
•       Understand how to deal with consent issues in using recordings of patients in learning and teaching resources;
•       Understand the difference between copyright ownership and licensing and how to use resources shared under licence;
•       Demonstrate best practice in 'digital professionalism' and manage risks when creating sustainable teaching resources;
•       Be better placed to share resources with colleagues.

Stuart Dempster, Director of the Strategic Content Alliance at JISC, said: "I am delighted to see that the significant advances being made in medical recordings, networks and other technological innovation within the education, research and health are being matched with clarity in the advance and guidance being offered to clinical and non-clinical staff alike through this project.  This work builds on from earlier JISC investments in improving the skills required in the digital age."

The guidance is aimed primarily at students, teachers or doctors who wish to use a patient recording for learning and teaching.  It will also be of interest and use to other clinical and healthcare workers as well as to university staff where patient recordings are being made available for learning and teaching.

Dr Jane Williams, Director of e-Learning in the Centre for Medical Education at the University of Bristol, said: "There is already a wealth of advice and guidance but it is currently overwhelming.  The new advice and guidance attempts to provide an easy navigable route through a very sensitive area of professional practice."

The materials have been created by a collaboration of cross-sector organisations and individuals, including the General Medical Council (GMC), Wellcome Trust, Institute for Medical Illustrators, University of Bristol and  Newcastle University.

The project has been funded through JISC's Strategic and Content Alliance and will be hosted by JISC Digital Media.

Read the advice and guidance
<http://jiscdigitalmedia.ac.uk/clinical-recordings/>


David Andrew,
Head of Academic Practice
 



The Learning Institute
Queen Mary, University of London

Mile End, London E1 4NS



02078822803

02081446753

 Book an appointment with me at http://doodle.com/DavidAndrew





Wednesday 30 November 2011

The Art (and Science) of In-Class Questioning via Clickers

 
 

Sent to you by David Andrew via Google Reader:

 
 

via Learning About Teaching Physics by stephanie@sciencegeekgirl.com (Stephanie V. Chasteen) on 7/20/11

itunes pic

Are "clickers" or "personal response systems" just the latest fad in education? Or is there solid research behind their use? In this episode we share some recent studies that really highlight how clickers can be used most effectively, and how they can save the world!

 

Show notes:

Guests on today's podcast were Eric Mazur of Harvard University, Jenny Knight of University of Colorado at Boulder, and Ed Prather of the University of Arizona.

Studies cited were:

  1. Why Peer Discussion Improves Student Performance on In-Class Concept Questions  Michelle Smith, William Wood, Wendy Adams, Carl Wieman, Jenny Knight, Nancy Guild, and Tin Tin Su, Science, Vol. 323 no. 5910, pp. 122-124 (2009).
  2. Combining Peer Discussion with Instructor Explanation Increases Student Learning from In-Class Concept Questions.  Michelle Smith, William Wood, K. Krauter, and Jenny Knight.  CBE - Life Sciences Education, 10, 55-63 (2011).
  3. Listening to student conversations during clicker questions:  What you have not heard might surprise you!  Mark James and Shannon Willoughby, AM. J. Phys., 79(1), 123-133 (2011).  Described here.

 

Credits

Learning About Teaching Physics is supported by a grant from the American Association of Physics Teachers (Physics Education Research Topical Group). 

Today's music was:

  • DC 3000 by the Thievery Corporation (Creative Commons)
  • Funkorama, Firmament and Rumination by Kevin McLeod
  • Sunshine by Mark Crawford
  • Sound effects by audiofruit, SFX Bible, Rebecca Parnell and SFX Source, on Soundsnap.

Other Resources

There are a wide variety of instructor resources on clicker use available at STEMclickers.colorado.edu, including videos, literature, and an instructor's guide.

Ed Prather's version of Peer Instruction is called Think Pair Share (and you can read more about it at that link).

Books include:


 
 

Things you can do from here:

 
 

The truth behind the myth behind the truth behind learning styles (Learning ...

 
 

Sent to you by David Andrew via Google Reader:

 
 

via sciencegeekgirl.com by Stephanie Chasteen on 11/29/11

Is she a visual learner? Probably not -- or is she?

Have you heard that some people are auditory learners and some are visual learners?   Have you heard that that's bunk?  Have you heard that there might be something behind the bunk, but aren't quite sure what it is?  Listen to my latest podcast from the Learning About Teaching Physics series to hear conversations with myself, veteran HS teacher Michael Fuchs, and cognitive scientists to hear just what researchers have (and haven't) found about learning styles.

Here is the blurb for this podcast:

Are you a visual learner or an auditory learner? I bet you can tell me which you think you are. But does it matter? In this podcast, we discuss the research on individual learning styles, and how science learning requires us to blend the visual and the verbal.

Thanks to Hal Pashler of UC San Diego and Richard Mayer of UC Santa Barbara for their participation in this podcast.

Listen to the podcast on the PER User's Guide, and you can also see my previous podcasts:  The Art (and Science) of In-Class Questioning Using Clickers, and Seeing Isn't Believing:  Do students learn from in-class demonstrations?

This is a short series funded by a small grant and I've only got one more podcast to go.  Do you think I should continue?  Do you have ideas for future topics?  Ideas for grant funding?  Let me know, or else we might not make any more.

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Monday 28 November 2011

Do students read your feedback?

 
 

Sent to you by David Andrew via Google Reader:

 
 

via theteachingtomtom by theteachingtomtom on 11/22/11

Post by Kylie Budge

Image via UBC Library

When asked this question, many teachers would probably be tempted to respond "Not likely!" or "I can't see any evidence of it". Even though it may feel like students don't read our feedback on their work, take on board our comments, or value it in any way it's useful to look at what the research in this area tells us.

Most of us are probably aware that students report a great deal of dissatisfaction with the feedback they currently receive on their work. This is a sector-wide phenomenon, not one just linked to your university. A colleague and I were involved in some local research on this topic recently and discovered some interesting information (see references below). In doing this research we found that student feedback surveys in Australia and the UK report student dissatisfaction with the quantity, quality, and timing of feedback. While there has been quite a bit of research into feedback generally, until recently little was known about how students feel about the issue.

What we've been learning is this: students value feedback on their work when the timing and frequency, quantity and quality, and the form that feedback takes is considered.

Timing is critical in terms of students being able to apply the feedback in their work. Feedback early on in the semester is very important to first year students, but all students can benefit from this too.

Students are saying they want constructive, quality feedback that tells them what they need to improve on rather than just an indication of what they did right and/or wrong.

Feedback can of course be provided to students in number of forms including verbal face-to-face (teacher to individual student/teacher to group/peer); hand written (teacher to individual/teacher to group/peer); and electronic feedback (teacher to individual/teacher to group/peer). A good feedback strategy will use a combination of different methods, including peer feedback, to encourage students to seek and use feedback from a variety of different people (ie. not just the teacher). Teachers are busy people with lots of competing demands on our time. A feedback strategy with multiple components can help us provide the feedback students need for learning in a manageable way.

Interestingly, the discipline context is also important in terms of how students value and use feedback on their work. The little research that has been done in this area from the student perspective tells us that students from creative disciplines (such as art and design) value feedback highly. Students in creative disciplines are engaged in an active feedback culture (where work critiques with their peers and lecturers is common) and often producing a product (of some description) where feedback on work-in-progress is critical. They are often eager to get feedback and value it because they are also immersed in a discipline culture where it is seen as everyday practice.

This may or may not be the case with the way students see feedback in other disciplines. Research in this area is limited so time will tell us more.

What do you think? Do you have the sense that students read and apply your feedback? And what feedback strategies work for you?

Here are some useful references if you want to learn more from recent research on feedback:

Boud, D., Cohen, R., & Sampson, J. (1999). Peer Learning and Assessment. Assessment and Evaluation in Higher Education. 24 (4), December, 1999.

Budge , K. and Gopal, S. (2009). Feedback: working from the student perspective, refereed conference paper presented at Assessment in Different Dimensions, 2009 ATN Assessment Conference, RMIT University, Melbourne, Australia, 19-20 November.

Hattie, J., & Timperley, H. (2007). The Power of Feedback. Review of Educational Research. 77 (1), 81-112.

Nicol, D.J., & Macfarlane-Dick, D. (2006). Formative assessment and self-regulated learning: A model and seven principles of good feedback practice. Studies in Higher Education, 31 (2), 199-218.

Rowe, A.D. & Wood, L.N. (2008). Student perceptions and preferences for feedback. Asian Social Science, 4, 3, 78-88.

Rowe, A.D., Wood, L. N. & Petocz, P. (2008). Engaging students: Student preferences for feedback. 2008 HERDSA Conference Proceedings, 1-4 July 2008, Rotorua, New Zealand.



 
 

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Friday 25 November 2011

Re: Practices & Approaches for the Integration of Teaching & Research - your input please


London, November 2011

To:      All academics in Science, Technology, Engineering and Mathematics.

 

Dear Colleague,

Re:      Practices and Approaches for the Integration of Teaching and Research.

The project 'Practices and Approaches for the Integration of Teaching and Research' is funded by the National HE STEM Programme and is being led by Imperial College London. The aim of the project is to identify and disseminate practices that help academic staff manage and integrate their research and teaching roles. Outputs from the project will directly target academic staff and staff involved in the teacher training of new lecturers.

Your assistance is kindly requested in completing a short (max.10 minutes) survey on your views and experiences of the academic role
. All responses will be treated confidential and anonymous. The survey can be accessed online by clicking the link below.

https://www.surveymonkey.com/s/DHDSVB5

Please do not hesitate to contact either me or the Project Officer Rianne Verschoor (r.verschoor@imperial.ac.uk) if you have any questions on any aspect of the survey or project. Thank you in anticipation for your cooperation on this important study.  

Yours sincerely,

Esat Alpay

_________________________________________________________

E. Alpay PhD (Cantab) MA (Psychology of Education) CEng MIChemE MBPsS FHEA

Senior Lecturer in Engineering Education

Associate Editor - European Journal of Engineering Education

Department of Chemical Engineering

Imperial College London

Room E361 ACEX

South Kensington Campus

London SW7 2AZ

Tel:  +44 (0)20 7594 1567

Fax: +44 (0)20 7594 1070

 

http://www.imperial.ac.uk/people/e.alpay

 

 

 



David Andrew,
Head of Academic Practice
 



The Learning Institute
Queen Mary, University of London

Mile End, London E1 4NS



02078822803

02081446753

 Book an appointment with me at http://doodle.com/DavidAndrew





Thursday 17 November 2011

theteachingtomtom

theteachingtomtom: "What Changes our Teaching?
Leave a Comment Posted by theteachingtomtom on November 16, 2011
Post by: Felicity Prentice This is our second guest post by Felicity Prentice. Felicity has morphed from being a Lecturer in Health Sciences, to Primary and Secondary teacher, to Marketing in the Commercial World, to Curriculum Designer, to currently being an Educational Developer in DSC College RMIT University. Apart from her career indecisiveness, she is passionate about learning in any space."

'via Blog this'

Monday 7 November 2011

Rhizomatic Learning – Why we teach? » Dave's Educational Blog

Rhizomatic Learning – Why we teach? » Dave's Educational Blog: "Rhizomatic learning is a way of thinking about learning based on ideas described by Gilles Deleuze and Felix Guattari in a thousand plateaus. A rhizome, sometimes called a creeping rootstalk, is a stem of a plant that sends out roots and shoots as it spreads. It is an image used by D&G to describe the way that ideas are multiple, interconnected and self-relicating. A rhizome has no beginning or end… like the learning process. I wrote my first article on the topic ‘rhizomatic education: community as curriculum’ in an article I wrote in 2008."

'via Blog this'

Fwd: STEM Annual Conference 2012: Call for papers


Dear Colleague

The Higher Education Academy's first annual learning and teaching STEM conference will take place on 12 and 13 April 2012 at Imperial College London, one of the world's leading centres of excellence for teaching and research in the fields of science, technology and medicine.

STEM subjects are recognised as having strategic importance in higher education for the economy and employers. The student learning experience in STEM subjects is vital in ensuring sustained growth in the uptake of these key disciplines. Furthermore an excellent learning experience ensures that students developed the right skills at the time of graduation and beyond through continued professional development. The Higher Education Academy (HEA)provides national leadership in developing and disseminating evidence-informed practice in learning and teaching in higher education; this conference will provide a platform for this for the HEA's STEM disciplines.

The HEA's STEM group includes the following disciplines;

"       Biological Sciences;
"       Built Environment;
"       Computing;
"       Engineering;
"       Geography, Earth and Environmental Sciences;
"       Mathematics, Statistics and Operational Research;
"       Physical Sciences;
"       Psychology.
(See end for a comprehensive list of STEM subjects from which we welcome submissions)

The key conference themes applied to STEM disciplines are:

"       innovative practice in STEM learning and teaching;
"       gender issues in STEM subjects;
"       Mathematics and Statistics in an interdisciplinary context;
"       work-based learning in STEM subjects;
"       teaching and assessing large classes;
"       assessment and feedback;
"       employability;
"       flexible learning;
"       internationalisation;
"       retention and success.

We are interested in papers that apply to specific STEM disciplines as well as generically, across all STEM subjects.

Abstracts of up to 300 words should be submitted by Friday 16 December 2011 and are subjected to double-blinded peer review; a response will be sent by 16 January 2012. If an abstract is accepted for the conference, a full draft paper should be submitted by Friday 17 February 2012.  Full paper submissions and authors will have reviewers' comments by 2 March 2012.  Camera-ready papers should be returned to the conference committee by 16 March 2012 for inclusion in the proceedings.

The session submission form and guidelines can be found here:
http://www.heacademy.ac.uk/events/detail/2012/academyevents/STEM_annual_conf

STEM SUBJECTS
Biology, Zoology, Genetics, Microbiology, Molecular Biology, Biophysics and Biochemistry, Others in Biological Sciences, Psychology, Forestry, Food and Beverage studies, Agriculture, Chemistry, Physics and Astronomy, Forensic and Archaeological Science, Geology, Ocean Sciences, Others in Physical Sciences, Human Geography, Physical Geography and Environmental Science, Mathematics and Statistics, Operational Research, Computer Science, General Engineering, Mechanical, Production and Manufacturing Engineering, Aerospace Engineering, Naval Architecture, Electronic and Electrical Engineering, Civil Engineering, Chemical, Process and Energy Engineering, Others in Engineering,  Materials and Minerals Technology, Maritime Technology, Others in Technology, Architecture, Building, Landscape Design, Planning (Urban, Rural and Regional), Others in Architecture, Building and Planning.

Best wishes
Paul

Paul Yates
Discipline Lead for the Physical Sciences The Higher Education Academy Innovation Way York Science Park Heslington York YO10 5BR

Email: paul.yates@heacademy.ac.uk
Telephone: +44(0)7776 197472
Skype: HEApaulyates




David Andrew,
Head of Academic Practice
 



The Learning Institute at Queen Mary, University of London

Mile End, London E1 4NS



02078822803

02081446753

 Book an appointment with me at http://doodle.com/DavidAndrew





Thursday 3 November 2011

Fwd: STEM Annual Conference 2012: Call for papers



Dear Colleague

The Higher Education Academy's first annual learning and teaching STEM conference will take place on 12 and 13 April 2012 at Imperial College London, one of the world's leading centres of excellence for teaching and research in the fields of science, technology and medicine.

STEM subjects are recognised as having strategic importance in higher education for the economy and employers. The student learning experience in STEM subjects is vital in ensuring sustained growth in the uptake of these key disciplines. Furthermore an excellent learning experience ensures that students developed the right skills at the time of graduation and beyond through continued professional development. The Higher Education Academy (HEA)provides national leadership in developing and disseminating evidence-informed practice in learning and teaching in higher education; this conference will provide a platform for this for the HEA's STEM disciplines.

The HEA's STEM group includes the following disciplines;

"       Biological Sciences;
"       Built Environment;
"       Computing;
"       Engineering;
"       Geography, Earth and Environmental Sciences;
"       Mathematics, Statistics and Operational Research;
"       Physical Sciences;
"       Psychology.
(See end for a comprehensive list of STEM subjects from which we welcome submissions)

The key conference themes applied to STEM disciplines are:

"       innovative practice in STEM learning and teaching;
"       gender issues in STEM subjects;
"       Mathematics and Statistics in an interdisciplinary context;
"       work-based learning in STEM subjects;
"       teaching and assessing large classes;
"       assessment and feedback;
"       employability;
"       flexible learning;
"       internationalisation;
"       retention and success.

We are interested in papers that apply to specific STEM disciplines as well as generically, across all STEM subjects.

Abstracts of up to 300 words should be submitted by Friday 16 December 2011 and are subjected to double-blinded peer review; a response will be sent by 16 January 2012. If an abstract is accepted for the conference, a full draft paper should be submitted by Friday 17 February 2012.  Full paper submissions and authors will have reviewers' comments by 2 March 2012.  Camera-ready papers should be returned to the conference committee by 16 March 2012 for inclusion in the proceedings.

The session submission form and guidelines can be found here:
http://www.heacademy.ac.uk/events/detail/2012/academyevents/STEM_annual_conf

STEM SUBJECTS
Biology, Zoology, Genetics, Microbiology, Molecular Biology, Biophysics and Biochemistry, Others in Biological Sciences, Psychology, Forestry, Food and Beverage studies, Agriculture, Chemistry, Physics and Astronomy, Forensic and Archaeological Science, Geology, Ocean Sciences, Others in Physical Sciences, Physical Geography and  Environmental Science, Mathematics and Statistics, Operational Research, Computer Science, General Engineering, Mechanical, Production and Manufacturing Engineering, Aerospace Engineering, Naval Architecture, Electronic and Electrical Engineering, Civil Engineering, Chemical, Process and Energy Engineering, Others in Engineering,  Materials and Minerals Technology, Maritime Technology, Others in Technology, Architecture, Building, Landscape Design, Planning (Urban, Rural and Regional), Others in Architecture, Building and Planning.

Best regards

Mary

Dr Mary McAlinden
Discipline Lead for Mathematics, Statistics & Operational Research
The Higher Education Academy

Email: mary.mcalinden@heacademy.ac.uk
Tel: +44 (0)7720 968849
www.heacademy.ac.uk



David Andrew,
Head of Academic Practice
 



The Learning Institute at Queen Mary, University of London

Mile End, London E1 4NS



02078822803

02081446753

 Book an appointment with me at http://doodle.com/DavidAndrew





Thursday 6 October 2011

Fwd: Creating Significant Learning Experiences: An HETL Interview with Dr. Dee Fink


Creating Significant Learning Experiences: An HETL Interview with Dr. Dee Fink

Dated: 03 October,2011

HETL note: Dr. Dee Fink is the author of Creating Significant Learning Experiences for College Classrooms: An Integrated Approach to Designing College Courses, published in 2003 (San Francisco: Jossey-Bass).  Dr. Fink asserts that to create more significant learning experiences for students, teachers need to shift from a content-centered approach to a learning-centered approach. In so doing he addresses the question "What kinds of learning will be significant for students, and how can I create a course that will result in that kind of learning?" HETL interviewed Dr. Fink via Skype to dig deeper into this question.

Bio: Dr. Dee Fink currently works as a consultant in higher education (www.finkconsulting.info). In the last several years, he has led numerous workshops on integrated course design at conferences and campuses in the US, Canada, Latin America, Europe, the Middle East, and Asia. He served as the founding director of the Instructional Development Program at the University of Oklahoma (1979-2005). He received two awards for teaching excellence: He was the University of Oklahoma recipient of the national teaching award presented by the American Association of Higher Education (AAHE), the Jaime Escalante "Stand and Deliver" Award, April, 1989, and the recipient of the Outstanding Faculty Award, College of Liberal Studies, University of Oklahoma, 1992. Dr. Fink has been active for thirty years in the POD Network [Professional and Organizational Development] in Higher Education. He served as President of POD in 2004-2005. Dr Fink can be contacted at dfink40@gmail.com

~~~~~~~~~~~~~~~~~~~~~~~

HETL: Dr. Fink, in your book Creating Significant Learning Experiences, you ask an important question faced by all educators who are interested in improving learning: Should we make the effort to change, or not? Some would say that major change is not necessary because the traditional model of higher education has worked well; it has helped create an explosion of new knowledge and has established a standard of living never seen before. So, why do you believe change is necessary?

Dee Fink [DF]: There are two major observations that make me believe change is necessary.  The first is all the evidence, using multiple criteria, that we are not currently doing a good job in higher education.  One of these is a study by Derek Bok[i], the former president of Harvard University.  He did some careful research on how well American students were achieving eight kinds of learning we would all like to see in college graduates, e.g., how to communicate, how to think, how to live with diversity, preparing for a global society, etc.  His conclusion for all eight kinds of learning was the same:  Students are achieving each of these desirable kinds of learning to a degree but nowhere near what they could be and should be achieving.   

The second source of concern is the new kinds of learning that are being identified as important in the 21st century.  AAC&U (Association of American Colleges and Universities) recently asked a major set of civic and corporate leaders what kinds of learning they thought were essential today.  They identified, among others: Information literacy, teamwork and problem solving abilities, intercultural knowledge and competence, ethical reasoning, integrative learning, preparing for lifelong learning.  These are similar to the kinds of learning in my taxonomy of significant learning.

The problem is that most professors are so focused on communicating the content of their discipline, that they do not even see these additional, possible kinds of learning.  Our students, though, are going to live their lives in the 21st century, and it is already quite clear that life in this century is going to require more than just "knowledge of the various disciplines."

HETL: Dr. Fink, what specific types and levels of change are you referring to, and do these changes require an investment by educators?

DF: We need changes at three levels: the classroom level, the organizational level, and the national level.

At the classroom level, college professors need to learn about and use the many new ideas about teaching and learning that have been developed in the last two decades.  The scholars of teaching and learning in higher education have generated a number of concepts and theories that can make a major difference in student engagement and student learning.  These include active learning, learning-centered course design, effective use of small groups, educative assessment, reflective writing and learning portfolios, a deeper understanding of how people learn, deep learning, and others.

If we want our students to achieve more powerful kinds of learning, college professors need to learn about and use more powerful kinds of teaching.

For this to happen, we will need the second kind of change, at the organizational level.  First and foremost, this means colleges and universities need to find ways to support and encourage college teachers in their effort to learn and use new ideas about teaching and learning.  This is likely to involve new ways of evaluating teaching, evaluating faculty work, and rewarding faculty – all challenging tasks.

A third level of change must occur at the national level.  Organizations involved in higher education that can influence individual universities – disciplinary associations, accrediting associations, quality assurance organizations, and ministries of higher education in the countries that have them – need to use their resources and leverage to encourage greater attention by universities to good learning and teaching.

In the USA, there is growing interest in such changes.  In Europe, the Bologna Process has begun to encourage institutions to set learning outcomes for the whole institution; they call them "campus-wide competencies."  In other regions of the world, I see a steadily increasing realization that better kinds of learning by university graduates are needed, more than just so many hours of seat-time and the ability to pass traditional tests.


HETL: Dr. Fink, how can resistance to change be overcome?

DF: The most effective way to deal with any resistance to change is to help people understand that a particular change is what they already want.

When working with professors, we need to recognize that they obviously do not enjoy seeing disinterested students in their courses, or the evidence of lackluster learning in the final exams.  If we can help them see that new ways of teaching can make dramatic changes in both these situations, it would go a long way toward helping professors take a more positive attitude toward learning about new ways of teaching.

At the university level, we badly need a means of measuring the general quality of the educational programs at different institutions.  Institutional leaders are well aware that they are competing for students, faculty, funds and prestige. If they could be "incentivized" to focus institutional attention on creating better curricula and promoting better teaching and learning across the whole campus, this would make a huge difference in higher education, nationally and globally.

HETL: Dr. Fink, if the reward system for faculty is based upon the research they do, i.e., "publish or perish", and not specifically on the quality of teaching or on learning outcomes, then how will faculty be motivated to invest in developing student- centered learning?

DF: This is part of the institutional change that I just mentioned.  Institutions need to find a reliable way to evaluate teaching, and then to give more weight to that in the overall assessment of faculty work.

Some institutions do a good job of evaluating teaching with procedures going beyond that of just collecting student questionnaires.  But there also needs to be a culture-change on most campuses.  When faculty vote (as is typical in most institutions in the USA) on annual merit raises or tenure questions, they need to put weight on the quality of teaching done and the learning outcomes – as well as on the traditional criteria of publications and grant dollars.  To do this, they have to have faith in the way teaching is evaluated locally.

In an article published in 2008[ii], I outlined a way of evaluating teaching that is focused on four major performance areas:

  1. The quality of the professor's course design, e.g., learning & assessment activities aligned with good learning goals;
  2. How well they interacted with students, e.g., enthusiasm, clarity, fairness;
  3. The quantity and quality of student learning; and
  4. Efforts to get better each year as a teacher, i.e., learning new ideas, changing the way they teach.
  5. Universities would need different sources of information and criteria for each of these.  Having standards for good teaching would accomplish two things.  It would alert teachers that this is what they need to pay attention to if they want high teaching evaluations, and it would allow the university recognize and reward those teachers who really are performing well in these areas.

    HETL: Dr. Fink, you make a distinction between a content-centered approach to course design versus a learning-centered approach. Can you briefly describe the differences between the two approaches, and why you believe a learning-centered approach is more effective?

    DF: When we design a course using the content-centered approach, we basically do two things only: Identify the major topics, and then decide how much time we are going to spend on each.   Our attention is focused on the relative importance of the different aspects of content.

    When we use a learning-centered approach, the first thing we need to do is identify the kinds of learning we want our students to engage in.  Then we need to identify the learning and assessment activities needed for each kind of learning:

    • What will students need to do, to achieve that kind of learning?  And,
    • What will they need to do, for them and us to know how well they are achieving each kind of learning?
    • One major problem with the content-centered approach is that it tends to put teachers in an "information dispensing" mode of operation.  We organize lots of information about the content of the course, and then try to "dump it" into students heads.  Unfortunately, after the course is over, they often "dump it out", i.e., they have the retention problem I mentioned earlier.

      Another major problem is that content-centered learning only supports one kind of learning, what I call "Foundational Knowledge": A basic understanding of terms, concepts, principles, possibly with some basic application knowledge.  Students today need a lot more than that.

      HETL: Dr. Fink, when you say students today need "a lot more than that", you are presumably referring to the concept of significant learning.  What exactly is significant learning?

      DF: Significant learning, as I use that term, refers to learning that meets two criteria:  (1) learning that lasts beyond the end of the course, i.e., students retain the learning, and (2) learning that has an impact on their personal, professional, social or civic life, i.e., it changes how they think, feel, or act in their lives.

      For several decades, I have been asking students: "Have you ever had a course that had a major impact on your lives, and when it did, what was it you learned that had an impact on your life?"  When I did my own 'factor analysis' of their answers, I came up with the six categories in the taxonomy of significant learning.

      Sometimes students said there was some content and basic application skills that were important.  But more often, they referred to the following kinds of learning (my label for each kind of learning is shown in parentheses):

      • complex application skills (Application),
      • how to connect one kind of knowledge with other kinds of knowledge (Integration),
      • understanding themselves and how to interact with others vis-à-vis a particular kind of knowledge (Human Dimension),
      • the values and interests that can be associated with new kinds of knowledge (Caring), and
      • how to keep on learning about a subject after the course is over (Learning how to learn).
      • HETL: Dr. Fink, you contend that traditional instructional methods are not very effective in achieving important kinds of student learning. Why do you believe this to be so and what are some of the problems faced by teachers using traditional instructional methods?

        DF: First, let me identify what I mean by "traditional" ways of teaching.  In general, this refers to a predominant reliance on lectures, homework and textbooks. In the humanities, this is often augmented by whole-class discussions, and in the sciences and engineering, by labs.  Good things can happen with these methods, but student learning can and needs to be made even better.  Here are the problems that teachers face when they cling to the traditional methods.

        First, there is a serious problem with students retaining their knowledge.  In one study[iii], students' performance at a "final" exam dropped 50% only two weeks after the initial taking of that exam.  In another study[iv] it was found that students who had completed a particular course performed only 5-10% better than people who had never had the course (on a test on the course topic, taken one year after finishing the course).

        Second, traditional teaching runs a serious danger of being boring.  We see evidence of that in professors' complaints about how often their students are reading newspapers in class, or checking their email. But think about it from the students' perspective:  How exciting can it be, to sit in a class day after day, where they only listen to one person and see nothing but the backs of other people's heads?

        Finally, teaching aimed primarily at conveying knowledge is simply outdated in the 21st century.  Students can look up all this information on their cell phones faster than we can talk about it!  They need to be doing something else, both in-class and out-of-class.

        HETL:  Dr. Fink, what is this "something else" that teachers need to be doing?  That is, if teachers accept your challenge of formulating learning outcomes for their courses such as you describe above, how can they achieve these new and ambitious kinds of learning?  They have difficulty achieving their current learning goals, which are more limited than what you propose.

        DF:  You are absolutely right in raising this question.  To achieve more powerful kinds of learning, teachers will need to use more powerful kinds of teaching.  The good news is that the scholars of teaching and learning have developed an extensive set of new ideas about teaching and learning in the last two decades.  Let me mention some.

        • Some of these are theories dealing with how students learn (e.g., learning styles, how the brain works; see also the recent book on the 7 principles of how students learn[v].
        • Others pertain to some of the fundamental tasks of teaching:
          • Learning-centered course design
          • Classroom Assessment Techniques
          • Service learning
          • Collaborative learning

          • Active Learning
          • Educative assessment
          • Assessment rubrics
          • Learning portfolios
          • Teaching strategies, e.g., problem-based learning, team-based learning, project-based learning, and inquiry-based learning.

          • Others deal with some of the special situations and needs in teaching, for example:
            • How to deal with large classes
            • How to deal with beginning students
            • How to teach creativity.

          Any teacher who can learn about and apply one or more of these educational ideas will see a substantial positive response from students.  If they can use two or three of these ideas, the impact will be even more dramatic.

          Anyone who aspires to the kinds of learning in my taxonomy will definitely need to start using several of these new, more powerful ways of teaching.  And if they do, they will start to see more significant learning start to happen – and for many professors, the joy of teaching will come back.  This is what many people who have read my book or taken my workshop report back to me:  "Teaching is exciting again.  This is why I wanted to be a teacher, to see students excited about learning."

          HETL: Dr. Fink, some might contend that this approach is culture-specific. What is your experience in implementing it in countries with different cultures?

          DF: One of the exciting aspects of my consulting experience have  been the invitations to do faculty workshops in 13 countries around the world, in Latin America, Europe, the Middle East, New Zealand, and in several countries in Asia.

          I can say, without reservation, that faculty members have responded enthusiastically to such things as learning-centered course design, small group work, and educative assessment.  I have also had feedback from teachers in all these regions that, when they tried these ideas in their teaching, students responded very positively.  Sometimes, especially in countries with strong traditions of lecturing, the teacher had to explain to students why they were doing what they were doing.  But when they did that, students liked the new ways of learning much better.  They liked the higher level of engagement and they could see the value [i.e., significance] of what they were learning much more clearly.

          HETL: Dr. Fink, you state that learning should be an experience and not just a set of activities and that the teacher plays a critical role in shaping that experience. So, what should be the proper relationship between teacher and student in achieving significant learning outcomes?

          DF: Obviously both teachers and students must fulfill their respective responsibilities for good learning to happen.  The teacher structures the learning experience initially but it is the student who does the work of learning.

          In her book[vi], Maryellen Weimer made the important suggestion that teachers can both empower and motivate students by sharing some of the decision-making power with the students.

          In addition professors need to learn how to use their expertise, not just to make an organized presentation of what they know, but to formulate valuable learning outcomes, create learning and assessment activities that embody authentic tasks and standards of performance for a particular subject, and develop a positive, supportive relationship with students.

          Students, the other major party in this process, need to develop a better understanding of what constitutes good learning and good teaching, and develop the skills for good learning.  This will require help from their teachers and from university programs for beginning students.

          It then becomes the responsibility of university leaders to find ways to encourage and support both faculty and students in the proper fulfillment of their respective responsibilities.

          HETL: Dr. Fink, in summary, you contend that improving student learning starts with developing a new way of thinking about teaching and learning.  How do we begin to do that?

          DF: The first thing that has to happen, obviously, is that someone has to care, to care about the quality of teaching and learning in higher education.  Then whoever cares has to develop a vision of what would have to happen to improve the quality of teaching and learning.  Finally, whoever has this vision has to find a way to promote that vision; this generally will require both "top-down" and "bottom-up" processes.

          For the bottom-up part, individual professors need to spend more time learning about the many new ideas about teaching and learning that are now available, and then use them.  This is what faculty development programs are trying to achieve, where they exist.

          The problem with many of these programs, though, it is often only the people inclined to be "early adopters of change", i.e., 15-20% of all faculty members, who participate.  To increase the proportion of the faculty who regularly and continuously engage in instructional development, there also needs to be change at the organizational level; this is the top-down part of the process.

          Campus leaders need to send a message:

          "This matters.  This is not optional; faculty improving their capabilities as professional educators is essential for this institution to fulfill its educational mission."

          This can be done by promoting a change in the campus culture and/or by changing campus policies for things like evaluating teaching.

          Institutions that succeed in making these changes are seeing a clear shift in the quality of teaching and, as a result of that, in the level of student engagement and the quality of student learning.

          ~~~~~~~~~~~~~~~~~

          Interview date & place:  9  September 2011 via Skype

          HETL interviewers: Patrick Blessinger and Krassie Petrova

          Copyright © [2011] Dee Fink and The International HETL Association

          Suggested citation:

          Fink, D. (2010, September 9). Creating significant learning experiences: An HETL interview with Dr. Dee Fink/Interviewers: Patrick Blessinger and Krassie Petrova.  Published in The HETL International Review.  Retrieved from:


          [i] Bok, D. (2006).  Our underachieving colleges: A candid look at how much students learn and why they should be learning more.  Princeton, NJ: Princeton University Press.

          [ii] Fink, D. (2008). Evaluating teaching: A new approach to an old problem. In To Improve the Academy, 26.   An annual publication of  the POD Network in Higher Education.   SF: Jossey-Bass, 2008.

          [iii] McLeish, J. (1978). The lecture method.  Cambridge, England: Cambridge Institute of Education.

          [iv] Saunders, P. (1980, Winter). The lasting effects of introductory economics courses.  Journal of Economic Education, 12, 1-14.

          [v] Ambrose, S., Bridges, M. W., DiPietro, M., Lovett, M. C., & Norman, M. K. (2010).  How learning works: 7 research-based principles for smart teaching.  SF: Jossey-Bass.

          [vi] Weimer, M. (2002).  Learner-centered teaching: Five key changes to practice.  SF: Jossey-Bass.



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          Friday 16 September 2011

          Science of the Invisible: The Digital Scholar: How Technology Is Transforming Scholarly Practice

          Science of the Invisible: The Digital Scholar: How Technology Is Transforming Scholarly Practice: "The Digital Scholar: How Technology Is Transforming Scholarly Practice
          Martin Weller has published his new book The Digital Scholar: How Technology Is Transforming Scholarly Practice in a variety of formats. You can buy hardcover or paperback versions from Amazon, or get the Kindle version if you prefer. But Martin has also arranged for a free, open access version of the book to be published online via Bloomsbury Academic."

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          @combi31: Teaching is a thoroughly overrated Practice http://t.co/YFIBYT9S #learning #coaching #Leadership

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          Friday 15 July 2011

          "A junior doctor in the West Midlands and...

          "A junior doctor in the West Midlands and a medical student at Cambridge University have kicked off a new movement in the medical community by launching the first ever Twitter Journal Club. Heralded as a 'revolution' in scientific communication, it has enjoyed positive coverage from publishers and practitioners alike (e.g it was mentioned today at the ASME Annual Scientific Meeting). Now in its seventh week, the initiative has amassed over 950 followers on Twitter and last Sunday generated 448 tweets during a discussion of the following BMJ paper: Effect of β blockers in treatment of chronic obstructive pulmonary disease: a retrospective cohort study"
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          Thursday 14 July 2011

          Times Higher Education - Knowledge is not enough...

          Times Higher Education - Knowledge is not enough...: "...lecturers must be able to impart what they know. Craig Mahoney, head of the HEA, believes training can make any academic a more effective and inspired teacher"

          Tuesday 12 July 2011

          Fwd: Technology Enhanced Active Learning at MIT



          ---------- Forwarded message ----------
          From: HETL <hetlportal@gmail.com>
          Date: 12 July 2011 08:44
          Subject: Technology Enhanced Active Learning at MIT
          To: d.andrew@qmul.ac.uk


          You are receiving this email because you are subscribed to new posts at Higher Education Teaching and Learning Portal

          Technology Enhanced Active Learning at MIT

          Dated: 12 July,2011

          Editors' note: We are pleased to publish part two of an interview with the distinguished researcher and internationally recognized innovator Professor Phillip Long who is interviewed by another distinguished educator and academic, Professor James L. Morrison.  The interview provides an engaging and mind opening perspective on the life of one of the most well-known computer science and engineering schools in the world.  How to teach programming and how to develop programming skills in students are questions which educators still struggle to find the best answers to. We hope that the reader will find the ideas discussed in this interview interesting and even inspirational.  If you would like to continue the discussion, we encourage you to submit your own article on the topic (see the Editorial Policies page on this portal for submission requirements).  More details about Phillip Long's career and achievements can be found at EDUCAUSE and his LinkedIn profile.

          Author's bio: Dr. James L. Morrison is professor emeritus of educational leadership at the University of North Carolina at Chapel Hill. He served as vice president (Division J) of the American Educational Research Association and received the Distinguished Scholar Award from AERA's Special Interest Group on Strategic Change. He served as consulting editor of The Review of Educational Research, The American Educational Research Journal, and the ASHE-ERIC Research Report Series and as founding editor of three peer reviewed publications: On the Horizon, The Technology Source, and Innovate. He is author and co-author of eight books and over 200 journal articles focusing on educational planning and on using information technology tools in educational organizations. He has made over 230 conference presentations and workshops around the world.  For more details about Professor Morrison,  see his full vita. Professor Morrison can be contacted at morrison@unc.edu.

          Patrick Blessinger and Krassie Petrova
          ~~~~~~~~~~~~~~~~~~~~~~~~~~~~

          Technology Enhanced Active Learning in the Electrical Engineering and Computer Science Department at MIT:
          An Interview with Professor Phillip Long

          Dr. Phillip Long, the immediate past associate director of MIT's Office of Education, Innovation, and Technology, is now serving as Professor of Innovation in Educational Technology in the Schools of Information Technology and Electrical Engineering and Psychology, and Director, Center for Educational Innovation and Technology, at the University of Queensland, Brisbane, Australia. In his former role at MIT, Dr. Long worked with faculty members and technologists to integrate innovative approaches into the MIT learning experience and provide support for the dissemination of these innovations around the world. Dr. Long continues to work at MIT as a visiting researcher in the Center for Educational Computing Initiatives, led by Professor John Belcher.

          I had the opportunity to interview Professor Long at the 2008 Campus Technology Conference in Boston. The initial part of the interview, published in the April/May 2009 issue of Innovate, presented some of the outcomes of iCampus, a MIT/Microsoft Research collaboration that focused on building technologies that enabled more effective learning (Morrison & Long, 2009). In the remainder of the interview we focused on how the electrical engineering and computer science curriculum redesign project facilitated technology-enhanced active learning at MIT.

          James L. Morrison [JLM]: Phil, tell us about the electrical engineering and computer science department at MIT.

          [caption id="attachment_1506" align="alignleft" width="312" caption="MIT, 2008. Photo credit: Scott Beale/Laughing Squid, laughingsquid.com"][/caption]

          Phillip Long [PL]: Programs at the School of Engineering at MIT are consistently ranked among the top programs in the world. The Department of Electrical Engineering and Computer Science (EECS) is no exception. The introductory class in this department, known as 6.001, The Structure and Interpretation of Computer Programs, is based on a very successful introductory textbook that's been translated into over 140 different languages. (The book is freely available online from MIT Press.) It is an unusual department in that it integrates computer science and electrical engineering. Graduates from this program are disproportionately represented among the faculties of the top schools of engineering around the world. Hence, the impact of the department is widespread and influential.

          JLM: When we talked earlier, you described the decision by the EECS faculty to redesign their entire curriculum in order to foster technology-enhanced active learning strategies. As I understand it, the courses produced by this department are among the most widely accessed and downloaded on MIT's OpenCourseWare (OCW) initiative used by many institutions around the world as a model for teaching the fundamentals of computer science and electrical engineering. Why are they revising such a successful course of study?

          PL: The original course was a traditionally structured lecture/lab/recitation course. Faculty thought that a more hands-on, engaged course would lead to better outcomes than one based on a preponderance of passive learning. Secondly, there was a recognition that this was an electrical engineering and computer science department. Separating the logic associated with understanding programming in computer science from its implementation and interaction with the physical world (which is electrical engineering) was doing a disservice to the students, who were in a joint, combined program. As a result, faculty began the process of redesigning the course. The new 6.001 was piloted and had its first major, large-scale implementation last term. We are just completing the analysis of student evaluation data for that term.

          To address the issues they saw in the original course, faculty decided to have students program robots and deal with the messiness that this involves. The outcome of programmatic logic development is to make a robot, which is a physical device that has gears and motors and everything associated with 'doing things'. A robot doesn't behave like programs behave. When you tell a program that it has to iterate sixty times, every time you tell it to do that task, it does it exactly sixty times. If you tell a robot to go sixty meters forward, it doesn't go sixty meters every single time. It goes 59.8; it goes 60.3. It's not perfect. That feedback and that recognition of the complications of implementing a logical construct into a physical reality and dealing with the messy translation that results is important for students to grasp.

          They also wanted to harness the powerful learning that takes place in peer-to-peer learning environments. One of the signature aspects of this course was that it had a one-to-four mentor-team ratio even though 260 students were registered in the pilot implementation. How? The course uses a four layered teaching model: senior faculty, graduate teaching assistants, learning lab assistants (undergraduate upper division students), and guest lab assistants (peers in the course who attend four hours of intensive instruction on a Wednesday night in preparation for the lab that is going to be taught on Thursday). Guest lab assistants teach as peers, as mentors to their team, on the assignment associated with that lab. The result is that every four students get a mentor or an assistant for the lab.

          It was fascinating to watch the pilot course. Any new course development process is messy and sometimes stuff doesn't work. Teaching staff had to fix the problems they found on Wednesday night with the lab that they were going to teach the following morning; the guest lab assistants were members of the team who were figuring out how to teach it. This is an incredibly powerful shift in perspective for those students, moving from being the recipient of the instructional process to working as a co-participant in its design and delivery. It opened up opportunities to scale a much more intimate small-group interaction that is otherwise not possible in the large-course delivery context.

          In the data we collected during the first implementation last semester, we found that the guest lab assistants did not fare as well as graduate students in the eyes of other students in terms of the quality of instruction that they provided and their background, although the differences were not large. We consider this encouraging because the guest lab assistants never had any formal training. They participated in helping configure the lab in those Wednesday evening sessions, but no one had the time to consider the right approach for guest lab assistants to take with their peers.

          One other thing that emerged from the preliminary data on the course outcomes was a positive correlation between prior programming experience and perceived success in doing coursework. This is an issue in part because, as the first course in the EECS curriculum, this class was designed with the hope that it would draw a wider spectrum of students to the discipline. If success in coursework is closely aligned with prior programming experience, we face a continuing challenge in meeting the goal of engaging those who haven't arrived with strong computer science backgrounds.

          JLM: How is the class technology enabled?

          PL: With funding from the iCampus project sponsored by Microsoft, EECS faculty developed XTutor, an online intelligent tutoring system that provides students with carefully structured sets of questions that require students to write code. The core of the system consists of problems developed by faculty for students to work through. Students type in parts of computer code, subroutines for example, that represent the answer to a question posed by the problem. The system evaluates the response and provides immediate feedback, but not just a "right" or "wrong" response. If the response is wrong, XTutor supplies hints that attempt to correct misperceptions so that the student can amend the solution and resubmit the answer. Ultimately, how well the student does, how many hints he or she needed, and the student's final assessment of the problem are all captured by the system for the instructor to use in evaluating student performance. By the way, although XTutor was specifically designed for this course, there is a layer of online tutorial capability that is accessible to anyone from around the world, as well. OCW provides the full content of the Structure and Interpretation of Computer Programs, Course 6.001.

          The robots also add a technology dimension. Students use a variant of the Python programming language to write routines to control the robots, which are provided by the department. They have to control the robot's behavior and get the robot to perform a set of project tasks. Course robots are programmed from students' laptops. Students work on developing algorithms, routines, and processes that have to be implemented on the robot. It is very much a hands-on project.

          JLM: You are talking about the redesign of the introductory course as opposed to the whole degree program.

          PL: This is the first course in a sequence. The entire program is being redesigned. The next course in the sequence, which is now being taught in an active-learning, team-based studio, is going to present an interesting contrast to the first year program. While the first year program is very discovery oriented–there are assignments and such, how the students implement assignments is entirely up to the teams; the second course will be taught by a professor who has a set of materials that he wants students to learn and a particular approach that he wants them to follow. So, while the course shares in the active learning and collaborative design approach, there is much less student-initiated discovery. We will be curious to see how that approach marries into the sequence and what the student reaction to it is.

          JLM: Phil, to put this in perspective, say that I accessed the introductory course via MIT's OpenCourseWare initiative. What differences am I going to see in the course before and after the redesign?

          [caption id="attachment_1514" align="alignright" width="170" caption="MIT - Stata Center by Frank Gehry Photo credit: Scott Beale/ Laughing Squid, laughingsquid.com"][/caption]

          PL: The original course was in a relatively traditionally organized course format. In the original 6.001 OCW course, you would see a series of lectures distributed in PDF from the course website. You would have available a set of narrated PowerPoint slides accessible to you from the XTutor intelligent tutoring system. Students taking the course at MIT met in twice-per-week recitation sections of 30-35 students to work on problem sets, ask questions, and generally get support on the course content. Finally, students worked on six major programming projects across the semester. In the early days of this course, there were experiments with eliminating the in-person lecture attendance and encouraging students to watch the lectures wherever they were from the XTtutor system. Interestingly enough, the students rebelled against that, saying, in effect, "By gosh, we came to this institution. We expect to see someone down at the podium. Where is that person? We are in the EECS department with all of these well-known, internationally recognized figures. I want to see them." The compromise then was to have six to eight classroom lectures by star professors and everything else online. Eventually, the course design moved back to a regular lecture-recitation approach.

          The redesigned version of 6.001 is heavily problem based with many more problem solving questions. We haven't produced an OCW version of the redesigned course yet, since the first iteration only happened last term. However, in an OCW version, the viewer might see lectures on each topic, but of the five hours a week of class time, they will see only an hour or an hour and a half of a talking head. OCW users will see the problem and lab assignments and the materials associated with those activities. And that is going to be it. The transition to a more active learning approach is less amenable to online distribution, because we can only provide outlines of what we intend to happen; we can't include what really goes on in the extensive period of team problem solving. The difference is that the expectation in the new 6.001 is that students must engage beyond problem sets, quizzes, and tests to produce code that programs the robots to perform certain tasks, and there is not necessarily a right way to do that. What happens and what makes the course work is the dialectic interaction that goes with those students working together to solve those problems.

          JLM: I can see where professors could benefit by the original course lectures and materials in designing their own courses. How can they use the materials from a course that is based on an active learning problem solving approach? Will MIT professors take the time and energy to describe the logic, structure, and rationale of their course designs?

          PL: This is a good question. The more interactive and discovery based the conduct of the course, the more the openly distributed materials must necessarily be guidelines and signposts. The faculty at MIT are keen on sharing their work in both research and teaching, but they have limits on their time, as well. More likely, as the course converges on a steady state, the artifacts that have gone into the planning and development of the course will be made available and a wider array of individuals knowledgeable about the program will be able to respond to initial inquiries about it. I think the people involved in this particular course are dedicated to sharing their work through OCW and other outreach efforts that characterize the open approach to sharing good teaching and research practice at MIT.

          JLM: So MIT faculty actually view their courses as resources for the world?

          PL: It's one of the many interesting and wonderful characteristics of this place. When faculty here design a class, they don't simply think about how they are going to do this class well. They think about how do they can do this class the best way that a class like this will ever be done and how to do it in a way that it can represent something of value to the world. It is remarkable, and it sounds amazingly egocentric, but you have to be in the room to hear the conversations to recognize that it is a really thoughtful and intentional way of approaching a course or curriculum design. They know that a lot of the courses taught in these departments are going to set standards or be looked upon as benchmarks. That is the way it's been the last forty or fifty years. That is the way it is now; I expect that will continue.

          JLM: So you are telling me, Phil, that in the courses that are available to the world, the professors take time to explain their pedagogical rationale for what they are doing so that other professors can have a grasp of the logic of the course design?

          PL: The OpenCourseWare Initiative presents a particular faculty member's point of view about how a course is taught. If you go to OCW and look at an introductory chemistry course, for example, you will see by its structure, by the way it  is put together, by the content and everything else the ideas that the faculty member used to construct this course. You won't see a parallel vetted description and narrative, "As I was doing this, thinking about this course, this was my intention." There are, however, lots of projects around MIT that have dissemination as their goal, and that activity happens within those projects.

          JLM: What's next for the EECS department at MIT?

          PL: The EECS curriculum revision effort is a major undertaking. Its goals are to provide more flexibility for students to design their own degree programs; to put a stress on the interactions and interfaces among foundational aspects of EE and CS; to provide more hands-on experiences to motivate students and contextualize the material; and to provide an opportunity for students to explore a selected set of topics in greater depth than in the past. After the completion of the introductory course sequence, the students are expected to take three courses selected from a set of foundational subjects: applied electromagnetics, circuits and electronics, signals and systems, computation structures, principles of software development, and introductory algorithms. These courses are all being reconsidered in the light of the themes mentioned above. So next up are pilots of newly redesigned courses for foundation subjects. Finally, the recognition that students will be working in a much more globally interconnected world means a new emphasis on summer internship and outreach experiences in Asia, Africa, Europe, and Central America. Exciting times are ahead!

          JLM: Phil, we greatly appreciate this insider's view of how a first rate department is using technology enhanced active learning instructional strategies to enhance the educational experiences of their students, and, thereby, provide an exemplar for other departments. Thanks!

          Sources

          Morrison, J. L., & Long, P. (2009). The iCampus technology-enabled active learning project at MIT: An interview with Phillip Long. Innovate, 5(4). Retrieved from http://www.innovateonline.info/pdf/vol5_issue4/The_iCampus_Technology-Enabled_Active_Learning_Project_at_MIT-_An_Interview_with_Phillip_Long.pdf

          Morrison, J. L., & Long, P. (September 2009). Technology-enhanced active learning in the electrical engineering and computer science department at MIT: An interview with Phillip Long. Unpublished manuscript submitted for critique in Ideagora. Retrieved from  http://www.webcitation.org/5pBUSNCDW.

          Copyright © [2011] James L. Morrison

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