Since the 1960s, there has been growing and sustained interest in small-group learning approaches at the school level and in higher education. A voluminous body of literature in this area addresses theory, research, classroom practice, and faculty development. The approaches most highly represented in the literature are cooperative learning, collaborative learning, and problem-based learning (PBL). In this article, the authors compare and contrast these approaches through answering questions such as the following: What are the unique features of each approach? What do the three approaches have in common? How are they similar, and how are they different?
The authors address three questions: (1) What are the foundational practices of team-based learning (TBL)? (2) What are the fundamental principles underlying TBL’s foundational practices? and (3) In what ways are TBL’s foundational practices similar to and/or different from the practices employed by problem-based learning (PBL) and cooperative learning (CL)? Most of the TBL vs. CL and PBL comparisons are organized in relation to the size of and strategies for forming groups/teams, the strategies for ensuring that students are familiar with the course content, the nature of the group/team assignments, the role of peer assessment, and the role of the instructor.
Cooperative learning is an example of how theory validated by research may be applied to instructional practice. The major theoretical base for cooperative learning is social interdependence theory. It provides clear definitions of cooperative, competitive, and individualistic learning. Hundreds of research studies have validated its basic propositions and demonstrated that cooperative learning (compared with competitive and individualistic learning) increases students’ efforts to achieve, encourages positive relationships with classmates and faculty, and improves psychological health and well being. Operational procedures have been derived from the validated theory to implement cooperative learning in university classes, including those needed to implement formal cooperative learning, informal cooperative learning, and cooperative base groups.
Faculty developers and others who specialize in research on teaching and learning recognize that much of the research is convergent. Positive teaching and learning practices do not operate in stand-alone vacuums. A savvy university teacher draws eclectically from a number of sources and resources to design coherent teaching and learning plans. This article will examine symbiotically how cooperative learning and deep learning together can promote greater success both in and out of the classroom.
In this article we describe our experiences with using small-group instruction in college settings for a combined total of 60 years. Since others, including Johnson and Johnson (1989), Kagan (1994, 2009), Sharan (1994), and Aronson (2011), have developed specific forms of group work, such as structured controversy, jigsaw, and group investigation, we will focus on how we have used group work as a core technique and have developed additional procedures that seem to potentiate the power of group work, regardless of the specific procedure and discipline.
Problem-based learning (PBL) is an instructional method where student learning occurs in the context of solving an authentic problem. PBL was initially developed out of an instructional need to help medical school students learn their basic sciences knowledge in a way that would be more lasting while helping to develop clinical skills simultaneously. Although PBL ad- dresses this specific need, it is also based in sound educational theories and paradigms. The author addresses those theoretical foundations of PBL, which, in turn, help readers to understand why PBL can be effective as well as enable them to diagnose and improve PBL applications when things are not going quite as planned.
If instructors desire students to gain a deeper understanding of the content and begin thinking like experts, then they need class time for active, collaborative learning. In the flipped classroom, primary knowledge acquisition occurs before class, which
creates space for students to practice applying the information of the discipline with their peers. Team-based learning is an effective in-class, instructional-strategy that (1) assesses and enhances student content acquisition from pre-class study, and (2) uses the majority of class time for activities that enable them to discuss, take-risks, and make mistakes while developing their
expertise.
But it was the “non-official” leadership work—reading and writing professionally, webinars for groups like the Center
for Teaching Quality, interdisciplinary collaboration with colleagues, building community partnerships for my students, and summer residential graduate work at Middlebury College’s Bread Loaf School of English—that really kept me energized as an educator. The extra work, connections, and opportunities I got from these endeavors kept me motivated to remain in the classroom.
Looking out at our students in classrooms today, with their texting, Facebook updates, Instagram messages, e-mail checking, Google searches, and tweeting, it’s hard to imagine what was so distracting for college students more than 100 years ago when James made this statement. Yet, even then, he recognized the propensity of the mind to constantly seek novel material, to leap from thought to image to belief to fear to desire to judgment and back again — all following one’s own quirky train of thought resembling the chaotic movements of a swarm of bees around a hive. Time passes through a warped dimension when the student finally returns to some semblance of attention, unaware of all the cognitive detours taken between points A and B. And that’s just the internal process, prompted by nothing in particular. How much more distraction is invited by today’s mobile technology?
In early 2014, two incidents engulfed the University of Ottawa in the debate over sexual violence
that has affected many postsecondary institutions in recent years. In February, members of the University of Ottawa men’s varsity hockey team were involved in an alleged sexual assault, resulting in the suspension of the men’s hockey program for the 2014-15 season. Following this incident, a Facebook conversation involving five male students that included sexually derogatory and violent comments about the female President of the Student Federation of the University of Ottawa (SFUO) was made public.
The purpose of this document is to provide a high-level introduction to economic impact analysis
(EIA) in a postsecondary education (PSE) context, written for a non-subject-expert audience of postsecondary institution stakeholders. It is intended to serve as broad context for individuals in the postsecondary education community who may wish to measure the economic impacts of their institutions or understand the methods, findings and limitations in studies done elsewhere. The information contained herein is of a general nature and is not intended to be an exhaustive, detailed quantitative textbook in actually conducting such studies, nor is it intended to address the circumstances of any specific individual or entity.
The Canadian Trans Youth Health Survey was a national on-line survey conducted by researchers from several Canadian universities and community organizations. The survey had 923 trans youth participants from all 10 provinces and one of the territories. The survey included somewhat differ- ent questions for younger (14-18 years) and older (19-25
years) trans youth about a wide range of life experiences and behaviours that influence young people’s health. This national report is a first snapshot of survey results.
It is generally understood that skills make critical contributions to Canada’s prosperity. However, there is uncertainty about precisely which skills are needed to thrive in tomorrow’s economy, how skills directly contribute to innovation and productivity, whether some skills are more connected to these goals than others, and whether there is an optimal combination of skills that fosters growth. Many skills are required to advance human knowledge and social and economic development. However, in a complex and uncertain global economy, science, technology, engineering, and mathematics (STEM) skills are in the spotlight, as countries aim to maximize their economic competitiveness and productivity. As a result, governments, policy-makers, educators, and business leaders are particularly concerned about how well equipped Canada is with the STEM skills needed to fulfil labour market demands and promote innovation.
University Works uses empirical data to report on the outcomes of university graduates in terms of employment levels
and earnings, as well as average debt upon graduation.
University graduates experienced the highest employment growth of any educational attainment group over the last decade.
In fall 2009, the Chattanooga State Community College math department faced a problem not uncommon to colleges around the nation: Online course offerings had high failure rates and were not a quality experience for students. After examining the data, the department made a bold decision to put a moratorium on online math courses for two years. This move provided time to improve the quality and success of online courses. Since re-offering online mathematics courses again in fall 2011, the college has seen a significant increase in student learning and success. This article outlines the reasons for the decision, the steps taken to improve the program, and the results since reintroducing the courses.
The choice of whether and where to attend college is among the most important investment decisions individuals and families make, yet people know little about how institutions of higher learning compare along important dimensions of quality. This is especially true for the nearly 5,000 colleges granting credentials of two years or fewer, which together graduate nearly 2 million students annually, or about 39 percent of all postsecondary graduates. Moreover, popular rankings of college quality, such as those produced by U.S. News, Forbes, and Money, focus only on a small fraction of the nation’s four-year colleges and tend to reward highly selective institutions over those that contribute the most to student success.
Drawing on a variety of government and private data sources, this report presents a provisional analysis of college value-added with respect to the economic success of the college’s graduates, measured by the incomes graduates earn, the occupations in which they work, and their loan repayment rates. This is not an attempt to measure how much alumni earnings increase compared to forgoing a postsecondary education. Rather, as defined here, a college’s value-added measures the difference
between actual alumni outcomes (like salaries) and predicted outcomes for institutions with similar characteristics and students. Value-added, in this sense, captures the benefits that accrue from both measurable aspects of college quality, such as graduation rates and the market value of the skills a college teaches, as well as unmeasurable “x factors,” like exceptional leadership or teaching, that contribute to student success.
The condition of the U.S. science, technology, engineering, and mathematics (STEM) workforce figures prominently in discussions of national competitiveness, education policy, innovation, and even immigration. But the relevant analyses and conversations are hindered by differing understandings of the composition and character of the STEM workforce and the varied, dynamic career pathways enabled by STEM knowledge and skills.
Since the turn of the 21st century, universities in Canada have undergone significant changes. Student enrolment has exploded. Between 2000/01 and 2012/13, the number of full-time equivalent students in universities grew from 676,000 to 1,050,000, an
increase of 55%. The number and proportion of international students in universities have doubled during the same period, from 45,800 to 132,000, or from 5% to 10% of total university students. The number of academic staff has also increased, but the growth in full-time positions has not matched the increase in student numbers. Between 2000/01 and 2012/13, the number of full-time permanent university professors increased by 32%.Meanwhile, the number of part-time and temporary academic staff grew by 69% and 49% respectively, and the number of international visiting professors or lecturers increased by 66% since 2004.
These changes took place while the population, aged between 17 and 24 years, which makes up the bulk of post-secondary
students, grew by only 15% since 2000.
The University community has an interest in improving the happiness and well-being of graduate students for a straightforward reason: to enable graduate students to do their best work. Balanced, happy people are more productive, more creative, more collaborative, better at pursuing long-term goals, more likely to find employment, and more physically and psychologically resilient, among other things. Positive emotion is associated with curiosity, interest and synthetic thinking. In contrast, depression is associated with loss of interest, helplessness, difficulty concentrating and remembering details, and worse. For more on this, see Part VI, “The Objective Benefits of Subjective Well-Being,” from the World Happiness Report.
The Government is fulling its promise to balance the budget in 2015. pursuant to its long-standing commitment to responsible fiscal management. Economic Action Plan 2015 will see the budget balanced and Canadians can rest assured that Canada's fiscal house is in order.