Brock University envisions itself as a dynamic postsecondary educational institution that:
1) Makes a difference in the lives of individuals in our Brock community, the Niagara Region,
Canada, and the world;
2) Demonstrates leadership and innovation in teaching and learning across disciplines; and 3) Extends knowledge through excellence in research, scholarship, and creativity.
ALGONQUIN COLLEGE KEY AREAS OF DIFFERENTIATION
Algonquin College delivers a comprehensive range of applied education and training experiences to
serve the diverse learner choices and the breadth of employer labour demands across Eastern Ontario
and the province.
Algonquin College works with industry partners to:
• Develop labour-market informed programs and services;
• Provide opportunities for work-integrated learning, and experience inside and outside the
classroom; and
• Engage in applied research and commercialization activities that support student success,
employee growth, and social and economic development in the region and beyond.
Algonquin College employees are engaged in the strategic direction of the College to:
• Lead the transformation of Ontario’s postsecondary system;
• Deliver high-quality teaching methods and modalities that leverage technology to enhance the
educational experience; and
• Improve student learning outcomes for career and life success.
Algonquin College broadens learner access to applied postsecondary education and training in
Ontario, demonstrating leadership through:
• Alternative learning modalities and options to suit multiple learning styles and learner
preferences;
• New, targeted approaches to programs and services that improve pathways for learners of diverse
demographic characteristics; and
• Smart investments in technology that enhance the Algonquin learner experience.
Encouraging benchmarking in e-learning supported the dissemination of e-learning benchmarks developed by the Australasian Council on Open, Distance and ELearning (ACODE). Dissemination activities, including provision of web-based
information and of training, were required to enhance the accessibility to the sector of the benchmarks and the guidelines for their use.
A brash tech entrepreneur thinks he can reinvent higher education by stripping it down to its essence, eliminating lectures and tenure along with football games, ivy-covered buildings, and research libraries. What if he's right?
The New Technologies: New Pedagogies project endeavoured to take an innovative approach not only in the creation of new, authentic pedagogies for mobile devices but also in the action learning approach adopted for the professional development of participants. The project involved 19 people including teachers, IT and PD personnel. It was a large and ambitious project that resulted not only in a range of innovative pedagogies, but in the creation of more knowledgable and confident users of mobile technologies among teachers and students in the faculty of Education at the University of Wollongong.
The Canadian economy faces serious short-term macroeconomic challenges, the most important of which is addressing the burden of our slow-growth recovery. The sources and consequences of this slow growth are the focus of this Commentary.
Canadian monetary policy has little ability to further stimulate Canadian growth. Given the large amount of uncertainty now faced by Canadian firms, further reductions in the policy interest rate are unlikely to be effective in stimulating aggregate demand. In addition, the ongoing problems associated with very low interest rates cannot be ignored and may soon present the Bank of Canada with a compelling case for rate increases.
The Blended Synchronous Learning Project sought to investigate how rich-media technologies such as web conferencing, desktop video conferencing and virtual worlds could be used to effectively unite remote and face-to-face students in the same live classes. Increasingly university students are opting to learn from off-campus, often due to work, family and social commitments (Gosper, et al., 2008; James, Krause, & Jennings, 2010). Often universities will cater for remote students by providing access to asynchronous resources via Learning Management Systems, meaning that off-campus students miss out on the benefits of synchronous collaborative learning such as rapid teacher feedback, real-time peer discussions, and an enhanced sense of connectedness.
The Blended Synchronous Learning Project sought to investigate how rich‐media technologies such as web conferencing, desktop video conferencing and virtual worlds could be used to effectively unite remote and face‐to‐face students in the same live classes.
Increasingly university students are opting to learn from off‐campus, often due to work, family and social commitments (Gosper, et al., 2008; James, Krause, & Jennings, 2010).
Typically universities will cater for remote students by providing access to asynchronous resources via Learning Management Systems, meaning that off‐campus students miss out hronous Le
on the benefits of synchronous collaborative learning such as rapid teacher feedback, realtime
peer discussions, and an enhanced sense of connectedness.
This is the final evaluation report for the Blended Synchronicity (BlendSync) Project as required by the project reporting requirements of the Office for Learning and Teaching.
The evaluation addresses the broad evaluation question: “To what extent was the BlendSync project successful at meeting its stated outcomes and producing its deliverables?”
The connection between classroom learning and practical experience in the workplace has been recognized as a significant aspect of student development in postsecondary institutions (Kuh, 2008). Internships have been associated with many benefits for each party involved, including the student, postsecondary institution and industry professional. Internships provide opportunities for students to transfer theoretical knowledge to a practical setting; they serve as recruitment avenues for postsecondary institutions and provide industry professionals with access to high-quality students with current academic knowledge. Despite the perceived importance of internships for student development, researchers and practitioners have a limited understanding of what constitutes an “internship” and of how to deliver these experiences effectively. Therefore, the purpose of this research was to examine the internship opportunities currently offered by direct-entry programmes (e.g., undergraduate degree or diploma) in Ontario postsecondary institutions.
institutional context, a variety of priorities and issues will be identified by participants and a variety of solutions will be proposed and attempted. It is appropriate then that support for distributed leadership allows for a variety of situations rather than providing a single prescription.
This Resource Portfolio for the P.A.C.E.D Distributed Leadership Model provides support for a range of elements of distributed leadership through the provision of resources that will assist in actioning initiatives. These resources include templates for role identification, reflection, provision of feedback, presentations, posters and websites. The Resource Portfolio provides integrated examples of distributed leadership in action, based on experience in the RMIT Student Feedback and Leadership Project.
The examples reinforce the diversity possible when a single project is actioned through distributed leadership.
This scoping study was conducted as part of a boarder study funded by the Australian Learning and Teaching Council Fellowship (ALTC) on Building Leadership Capacity for Undergraduate Students. The present scoping study is phase one of the project (see aim below).
Before outlining the current study, it is important to briefly summarise the literature on leadership development and theories.
Background information: Literature on leadership development and theories
Since the late 1970s scholars have criticized the traditional theories of leadership (e.g., Greenleaf, 1991). From the literature (see reports from Anderson & Johnson, 2006; Marshall, 2008), these more traditional theories include: personality theories (which propose that leadership depends on traits that are either inherited or emerge in early life development), trait theory (which involves the assumption that there are characteristics for leadership deeply embedded in the personalities of leaders), and finally theories of power and influence (which assume that leaders are people in positions of formal responsibility within an organization).
A different kind of learning occurs when there is no exam to study for, no essay to write – just the opportunity to apply the knowledge and skills that have been learned to a real life project. From medicine to engineering and fine arts, experiential learning is where curiosity gets tested in the real world.
Applied, or work-integrated, learning is one of the fastest-growing areas for universities in Ontario, a testament to its tremendous value to students and employers. It began with practicums for students in health sciences, expanded later to those studying business and engineering, and today, spans all disciplines and faculties with hundreds of programs on university campuses. Through internships, co-op programs, community service learning and placements, students are working in businesses, sports franchises, community organizations and international development agencies. Students can also acquire experiential learning through programs on campus that encourage them to take on roles such as investment managers, campaign planners and entrepreneurs.
For several decades, policymakers have embraced the goal of preparing students for college and careers, particularly for careers in the area of mathematics and science. The recent emphasis on these STEM (science, technology, engineering,
and mathematics) subjects is due to the growth of STEM occupations and the perceived shortage of qualified workers to fill these positions. There is a concern that many students do not currently have the level of STEM capabilities necessary for high-skill STEM professions such as engineering or even for low-skill STEM positions in fields such as manufacturing.
Most astronomers teaching undergraduate astronomy aspire to connect their students directly with the night sky. In the same way that a biologist might want her students to actually handle live specimens or a geologist for his students to chip away at real rocks, astronomers want their students to actually see and observe planets, stars and galaxies. Sadly, the combination of urban light pollution, unpredictable weather and daytime teaching schedules make this impractical. This is especially the case for high-enrolment survey courses, which present the additional complication of huge numbers of students to schedule.
An increasingly common strategy is to teach astronomy in digital planetariums: domed rooms on whose ceilings can be projected fantastically detailed representations of the night sky. Planetariums are, in many ways, more useful than the actual sky: they can be used during the day, are not subject to changeable weather, and can be manipulated to show sights not normally visible in the actual sky. Even better, digital planetariums can have control interfaces which are simple enough that almost anyone can use them – ours uses an off-the-shelf video game controller.
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.
Though they are private businesses operating in a competitive market, they intersect with public interests on several fronts. They must register with government and are subject to consumer protection requirements (including student contracts, tuition refund policies, contribution to a train-out fund that takes care of students in the event of a sudden closure). Their programs of study must be government-approved following an external, third-party quality review. They are subject to sanction (financial penalties, even closure) if they fail to meet these requirements.
impact on education at all levels. In the past, new technologies such as the telephone, radio, television, cassettes, satellites, and computers were all predicted to bring about a revolution in education. However, after the initial hype, these new technologies left a marginal impact on the general practice of education, each finding a niche, but not changing the essential process of a teacher
personally interacting with learners.
However, the Internet and, especially, the World Wide Web are different, both in the scale and the nature of their impact on education. Certainly, the web has penetrated teaching and learning much more than any other previous technology, with the important exception of the printed book. Indeed, it is possible to see parallels between the social and educational influence of both mechanically printed books and the Internet on post-secondary education, and these parallels will be explored a little further in this chapter.
The application of the Internet to teaching and learning has had both strong advocates and equally strong critics. Electronic learning has been seized upon as the next commercial development of the Internet, a natural extension of ecommerce.
John Chambers, the CEO of the giant American Internet equipment company, Cisco, described education as the next Internet “killer application” at the Comdex exhibition in Las Vegas in 2001 (Moore and Jones, 2001). Chambers linked several concepts together: e-learning is necessary to improve the quality of education; e-learning is necessary to improve the quality of the workforce; and a highly qualified technology workforce is essential for national economic development and competitiveness.
The Internet and, in particular, the World Wide Web have had a remarkable impact on education at all levels. In the past, new technologies such as the telephone, radio, television, cassettes, satellites, and computers were all predicted to bring about a revolution in education. However, after the initial hype, these new technologies left a marginal impact on the general practice of education, each finding a niche, but not changing the essential process of a teacher personally interacting with learners.
However, the Internet and, especially, the World Wide Web are different, both in the scale and the nature of their impact on education. Certainly, the web has penetrated teaching and learning much more than any other previous technology, with the important exception of the printed book. Indeed, it is possible to see parallels between the social and educational influence of both mechanically printed books and the Internet on post-secondary education, and these parallels will be explored a little further in this chapter
The 2014 Universitas 21 ranking of national systems retains the methodology of the 2013 rankings, but supplements this with an auxiliary ranking that takes account of stages of economic development. 24 desirable attributes are grouped under four broad headings: Resources, Environment, Connectivity and Output. The Resources component covers government expenditure, total expenditure, and R&D expenditure in tertiary institutions. The Environment module comprises a quantitative index of the policy and regulatory environment, the gender balance of students and academic staff, and a data quality variable. The Connectivity component has been extended by including measures of interaction with business and industry, in addition to numbers of international students, research articles written with international collaborators and web-based connectivity. Nine Output variables are included that cover research output and its impact,
the presence of world-class universities, participation rates and the qualifications of the workforce. The appropriateness of training is measured by relative unemployment rates.
CACUSS is pleased to support the second edition of this guide to “Researching Teaching and Student Outcomes in Postsecondary Education.”
The first edition was a useful resource for our members in working collaboratively to understanding academic and co-curricular learning in postsecondary contexts. The guide offers an accessible introduction to the issues and techniques in conducting research and we believe that it is a good resource for student affairs staff who are considering a research project to measure outcomes in their departments, programs, or campus.
Student affairs professionals are involved in various research and assessment projects seeking to understand the student experience. We are asked more and more frequently to provide evidence of how our work impacts student learning, wellbeing, development and success rates. In addition, the need to refine programs, build outcomes-based plans and engage with faculty on academic initiatives to support student success also persists.
We congratulate the authors and collaborators on their work in updating this useful tool.