• Recognition for excellence in polytechnic education.
Mission
• To champion innovation and excellence in career-focussed education, training, and applied research.
• To serve the ever-changing needs of our diverse and growing community.
• To inspire students and employees to strive towards their highest potential.
PREAMBLE
The traditional pathway into postsecondary education (PSE) is to enter college or university directly after graduating from high school. Not all students follow the traditional pathway into PSE. The Ontario government recently set a goal “to raise the postsecondary [attainment] rate to 70 per cent” (Speech from the Throne, 2010). In 2011, 64 per cent of Ontario residents aged between 25 and 64 held a PSE credential.1 One way to help reach the target educational attainment rate of 70 per cent is for Ontario colleges and universities to attract and retain learners who follow non-traditional pathways. Therefore, one of the priorities of the Higher Education Quality Council of Ontario (HEQCO) is to evaluate the adequacy and efficiency of non-traditional pathways in obtaining a PSE credential. This study mainly examined one non-traditional pathway, delayed
entry into PSE. Graduates who have taken more years than expected to graduate are also included in the discussion. The purpose of this paper is to address the following research questions:
• What is the demographic profile of these non-traditional graduates?
• Are their program choices and pathways through PSE different from those of direct entrants?
• Do their labour market outcomes differ from those of direct entrants?
Is it just that time of the semester, or are academics more and more stressed out? In the past week alone, I’ve talked with:
-A colleague emotionally reeling from counseling two students who each had a parent die this semester.
-Another unsettled colleague who received an expletive-filled email from an angry student demanding to "speak to your supervisor."
-A friend at another institution buried under a mountain of papers — the product of a fourth course that he’s teaching on overload to make a little extra money.
This report presents the findings of a research project undertaken at OCAD University (OCAD U) from 2013 to 2014 examining the implementation of a cross-disciplinary collaborative course design process. While there is some research that investigates collaborative course design, especially in the development of courses for online and hybrid delivery, there is little research to date that investigates cross-disciplinary collaborative course design, in which faculty members from different disciplines come together to combine their expertise to create more robust resources for student learning. The research was undertaken in the development of professional practice courses offered in the Winter 2014 term to students enrolled in the Faculty of Design. Online learning modules were developed by faculty members from across multiple disciplines for delivery on the Canvas learning management system (LMS) in studio-based courses. Collaboration between faculty members was led and facilitated by an instructional support team with expertise in hybrid and fully online learning from OCAD U’s Faculty & Curriculum Development
Centre.
The BYOD Concept
The days of students carrying heavy, book-laden backpacks to school are numbered. Increasingly, students at all
levels expect to access learning materials electronically. And students expect their school to support access to the Internet from anywhere, not just from a classroom computer with a wired connection.
The push for mobile learning options isn’t just coming from students. Teachers also have high opinions of the educational value of these new tools. A PBS/Grunwald survey in 2010 reported that teachers view laptops, tablets and e-readers as having the highest educational potential of all portable technologies. The movement to mobile and digital learning reflects the exploding popularity of mobile devices among consumers and the parallel growth in wireless network services to support them. Instead of using shared or enterprise-owned computers at work, school or libraries, people now want to use their personally owned mobile devices everywhere, a trend called bring your own device (BYOD). In fact, personal computing devices are fast becoming not just a luxury in both primary and secondary education, but a necessity. The growth of more virtual, personalized learning experiences throughout the educational spectrum is engaging students like never before.
The 2010 ”Speak Up” education survey conducted by Project Tomorrow found that more than one quarter of middle school students and 35 percent of high school students use online textbooks or other online curricula as a part of their regular schoolwork. The survey also found that nearly two-thirds of parents of school-aged children see digital curriculum as a key component of the ”ideal” classroom for their student, making access to computing devices a key part of today’s educational experience.²
This trend is creating tremendous new demand levels for wireless networks. For example, one market research firm reports growth of 40 percent in enterprise wireless local area networks (WLANs) in Q2 2011, attributable in part to the BYOD trend and the tremendous popularity of the Apple iPad.³ Gartner Research supports this notion as well, concluding that without adequate preparation, iPads alone will increase enterprise WiFi demands by 300 percent.⁴
Support for this trend is also found in Center for Digital Education (CDE) interviews with K-12 district IT staff. A notable 27 percent of school IT decision-makers interviewed expressed an intent to pursue a BYOD policy.
While the percentage of higher education students with their own devices is significantly higher than at the elementary level, CDE’s Digital Community Colleges Survey reveals that they grapple with many similar technology challenges. A full 92 percent of community colleges report expanded distance learning offerings for online, hybrid and Web-assisted courses, providing ample support for their No. 1 identified technology priority: mobility. The growing popularity of mobile devices isn’t the only factor straining the capacity of educational networks today. Video, interactive learning games and other media-rich content are being
watched, created and shared by students and teachers to foster learning of both skills and subject matter. These media not only gobble up bandwidth — they may also require priority over other network traffic in order to deliver acceptable performance for in-class use. From a technical perspective, the challenge for educational institutions is supporting BYOD for students and staff with secure wireless and remote access network capabilities. Yet the movement to mobile learning isn’t just about supporting new technologies. It’s also about shifting to new ways of teaching and learning.
It’s 4 a.m. in Alaska — not a time when you expect many people, much less teenagers, to be awake. Yet, about 100 eager sophomore world history students are gathered in three high schools spread across the Kenai Peninsula on Alaska’s southern edge, excitedly looking at video screens mounted on their classroom walls. The teens are here to connect with students from the Arab Minority school in Nazareth, Israel. They are joined by students in schools in Louisiana and South Dakota.
For an hour, a moderator in Manhattan bounces the conversation back and forth, pinging questions from school to school as the students get to know a little more about each other and the different — and similar — worlds in which they live.
”It was so cool,” says Emily Evans, a 16-year-old in Greg Zorbas’ world history class at Kenai Central High School. The students from Israel ”thought so highly of us because we were from America.”
Now, says Evans, when the Middle East is a topic in school, ”it’s a lot more interesting. Before it was just, we’re reading a book on it and it’s not very real to us. But it’s real and you can see them and talk to them and see firsthand how it is. Now I pay more attention in history class.”
The videoconferencing session Evans and the other students experienced is the type of video communication that is becoming more common in education at all levels around the world, as the walls between classrooms disappear. This Center for Digital Education white paper shows how video collaboration is an essential part of the K-20 education environment that enables cost savings, engages students and creates a more productive learning experience. It prepares students with the skills to thrive in a future workforce that will depend on video collaboration technologies. Indeed, today’s video collaboration is rapidly moving from a ”nice to have” classroom enhancement to a ”must have” necessity.
The Higher Education Report 2011-2013 is part of a suite of technical publications which report on the Australian higher education sector for the period 2011-2013. The Higher Education Report 2011-2013 provides:
• an overview of the higher education sector for the period 2011 to 2013;
• details of funding allocations under the Higher Education Support Act 2003 (HESA); and
• an overview of the outcomes of funding and other departmental programmes (including the
allocation of places).
Analysis of student, staff and financial data is published separately and available at:
http://education.gov.au/higher-education-statistics and https://education.gov.au/finance-
publication.
There are about 420 registered private career colleges (PCCs) in Ontario – the number is in constant flux. 60% of schools are ten years of age or younger. They serve 53,000 full time equivalent (FTE) students, or about 1 in 15 Ontario postsecondary students. Their overall vocational revenues are in the order of $360M annually. They are mostly small; 70% have total revenues under $1M and average enrolment is under 200.
If you’re interested in using technology tools to enhance your teaching, it’s easy to get overwhelmed by the mountain of information out there. To make matters worse, much of it is either highly technical or simply not very practical for the college classroom.
Teaching with Technology: Tools and Strategies to Improve Student Learning approaches teaching technologies from your perspective — discussing what works, what doesn’t, and how to implement the best ideas in the best ways.
These articles were written by John Orlando, PhD, program director at Norwich University, as part of the Teaching with Technology column on Faculty Focus. You’ll find the articles are loaded with practical information as well as links to valuable resources. Articles in the report include:
• Using VoiceThread to Build Student Engagement
• Wikipedia in the Classroom: Tips for Effective Use
• Blogging to Improve Student Learning: Tips and Tools for Getting Started
• Prezi: A Better Way of Doing Presentations
• Using Polling and Smartphones to Keep Students Engaged
Whether the courses you teach are face-to-face, online, blended, or all of the above, this report
explains effective ways to incorporate technology into your courses to create a rich learning
experience for students, and a rewarding teaching experience for you.
Mary Bart
Editor
Faculty Focus
In a longitudinal, randomized field experiment, we tested the impact of transformational leadership, enhanced by training, on follower development and performance. Experimental group leaders received transformational leadership training, and control group leaders, eclectic leadership training. The sample included 54 military leaders, their 90 direct followers, and 724 indirect followers. Results indicated the leaders in the experimental group had a more positive impact on direct followers' development and on indirect followers' performance than did the leaders in the control group.
Technology and the Problem of Change
The National Student Financial Wellness Study (NSFWS) is a survey of college students examining the financial attitudes, practices, and knowledge of students from institutions of higher education across the United States. The purpose of the 2014 NSFWS is to gain a more thorough and accurate picture of the financial wellness of college students. The NSFWS was developed and administered by The Ohio State University in collaboration with co-investigators from Cuyahoga Community College, DePaul University, Iowa State University, Oberlin College, Ohio University, and Santa Fe College. The survey was administered online during autumn 2014 or winter 2015 to random samples of students from 52 participating institutions. Please see the following page for a complete list of the institutions that participated in the study. More information on the study is available at go.osu.edu/nsfws or by emailing the NSFWS team at nsfws@osu.edu.
Mismatches between workers’ competences and what is required by their job are widespread in OECD countries. Studies that use qualifications as proxies for competences suggest that as many as one in four workers could be over-qualified and as many as one in three could be under-qualified for their job. However, there is significant variation across countries and socio-demographic groups. Our meta-analysis of country studies suggests that over 35% of workers are over-qualified in Sweden compared with just 10% in Finland, with most other OECD countries located between these two extremes. There is also extensive evidence that youth are more likely to be over-qualified than their older counterparts and the same is found to be true for immigrant workers compared with a country’s nationals. On the other hand, no definitive evidence has been found of the persistence of qualification mismatch, with some papers showing that over-qualification is just a temporary phenomenon that most workers overcome through career mobility and others finding infrequent trantisions between over-qualification and good job matches. Across the board, over-qualified workers are found to earn less than their equally-qualified and well-matched counterparts but more than appropriately-qualified workers doing the same job. Under-qualified workers are found to earn
more than their equally-qualified and well-matched counterparts but less than appropriately-qualified workers doing the same job. Over-qualified workers are also found to be less satisfied about their job and more likely to leave their work than well-matched workers with the same qualifications.
Canada’s universities develop globally aware graduates with the internationally competitive skills suited to the jobs of today and tomorrow, while fostering globally connected research and scholarship. Results from a new survey by Universities Canada highlight how universities across the country are highly engaged in and committed to internationalization – and where there is room for improvement.
Although research on Canadian higher education has advanced considerably over the past few decades, the opportunities for university level study of higher education in Canada are still quite limited . Only four universities offer higher education programs; only one has a higher education department; and only a handful of other institutions offer even a course in higher education. The number of students enrolled in higher education programs in Canada is about 200, compared to about 6,000 in the United States; the number of faculty about 15 compared to 700 in the U.S.
Grade Change - Tracking Online Education in the United State is the eleventh annual report on the state of online learning in U.S. higher education. The survey is designed, administered and analyzed by the Babson Survey Research Group, with data collection conducted in partnership with the College Board. Using responses from more than 2,800 colleges and
universities, this study is aimed at answering fundamental questions about the nature and extent of online education.
In recent months, there has been much discussion in the media and among academics about the skills acquired by Canadian university graduates. The issues being raised are threefold. The first concerns the question of whether Canada is facing a “skills gap”. While the Conference Board of Canada (2013a) has argued that we definitely are (and that the long-term economic consequences will be severe), reports by economist Don Drummond and TD Bank indicate that the skills gap is largely a
myth (TD Economics, 2013; Goar, 2013). Others have indicated that current discussions about a skills gap often lack an appropriate level of specificity, making it difficult to assess the merit of these arguments or to generate potentially necessary
solutions (Weingarten, 2013)
The digital revolution is transforming our work, our organisations and our daily lives. Driverless cars are now legal in three American states. One third of payments in Kenya are made via mobile phones. Wearable computing will soon mean that your jacket will monitor your heart rate (should you want it to). I have seen a violin - played beautifully - that was 3-D printed.
This revolution is already in homes across the developed world and increasingly in the developing world too. And there, it is transforming the way children and young people play, access information, communicate with each other and learn. But, so far, this revolution has not transformed most schools or most teaching and learning in classrooms.
Survey fielded between August 16-28, 2013 among a nationally representative sample of American adults (N = 1,000) conducted via landline and cell phone. The margin of error for a sample of 1,000 is ±3.1%.
The national poll was supplemented by a survey of business hiring decision-makers (N = 263) fielded online during July 10-15, 2013. The business elite sample included hiring decision-makers and hiring executives from a cross-section of companies, ranging from small companies to larger businesses with a global presence.
Aboriginal people in Canada are sharply under-represented in science and engineering occupations; more can be done to increase the relevance of learning and engagement of Aboriginal students in science and technology. Choosing careers in science and technology will benefit Aboriginal students directly through employment, but more importantly they can make a
tremendous contribution to Canada from the unique perspectives to science and technology based on the values implicit in Aboriginal knowledge and ways of knowing. Past experience has shown that filling positions in science and technology with Aboriginal people is highly desirable, as non-Aboriginal people hired by Aboriginal organizations typically remain in their positions for less than two years. In contrast, Aboriginal professionals remain in their positions much longer and bring stability and pride to their communities. Aboriginal people in Canada are sharply under-represented in science and
engineering occupations; more can be done to increase the relevance of learning and engagement of Aboriginal students in science and technology. Choosing careers in science and technology will benefit Aboriginal students directly through employment, but more importantly they can make a tremendous contribution to Canada from the unique perspectives to science and technology based on the values implicit in Aboriginal knowledge and ways of knowing. Past experience has shown that
filling positions in science and technology with Aboriginal people is highly desirable, as non-Aboriginal people hired by Aboriginal organizations typically remain in their positions for less than two years. In contrast, Aboriginal professionals remain in their positions much longer and bring stability and pride to their communities.