Abstract This study investigates the degree to which biodiversity concepts are included within university curricula in Ontario and provides a baseline for tracking this. A keyword search of undergraduate and graduate academic calendars from six Ontario universities was conducted. A list of 28 relevant keywords was developed, and university program descriptors were searched for these keywords, while considering core and elective courses within each program. Almost half (49.5%) of the 386 undergraduate programs, and 29.4% of the 327 graduate programs featured biodiversity keywords. Science programs showed the highest degree of integration (74.5% for undergraduate and 37.4% for graduate programs), followed by business programs (57.6% and 38.4%, respectively). The arts and social sciences showed the least biodiversity integration (25.8% of undergraduate and 21.0% of graduate programs). This research method provides a depth of understanding of biodiversity integration within university curricula, although the analysis is limited to the content provided in academic calendars.
Résumé Cette étude évalue le degré d’intégration des concepts de la biodiversité dans les programmes universitaires en Ontario, et établit des repères pour suivre cette intégration. Une recherche par mots-clés a été réalisée dans les calendriers des cours de premier cycle et de cycles supérieurs de six universités ontariennes. Nous avons dressé une liste de 28 mots-clés pertinents, puis avons effectué une recherche de ces mots-clés parmi les descripteurs de programmes universitaires, en englobant les cours obligatoires et facultatifs de chaque programme. Près de la moitié (49,5 %) des 386 programmes de premier cycle et 29,4 % des 327 programmes de cycles supérieurs étaient assortis de mots-clés liés à la biodiversité. Parmi tous les programmes, les programmes scientifiques ont démontré le degré d’intégration le plus élevé (74,5 % pour le premier cycle et 37,4 % pour les cycles supérieurs), suivis des programmes en commerce (57,6 % pour le premier cycle et 38,4 %, pour les cycles supérieurs). Par ailleurs, les arts et les sciences sociales ont démontré la plus faible intégration de la biodiversité (25,8 % pour le premier cycle et 21,0 % pour les cycles supérieurs). Cette méthode de recherche permet de mieux comprendre l’intégration de la biodiversité dans les programmes universitaires, même si l’analyse se limite au contenu indiqué dans les calendriers des cours.
As the global marketplace becomes increasingly competitive and knowledge driven the potential social and economic benefits of education have increased. As a result, the past few decades have witnessed an unprecedented expansion in the demand for post-secondary education (PSE) worldwide.
The Canadian Council on Learning monograph series, Challenges in Canadian Post-secondary Education, was launched in November 2009 as a means of examining the impact of this expansion on the PSE sector.
How do you teach the same concepts and skills to students with diverse abilities and interests? Different learning profiles? And how do you do that in real classrooms, with limited time to plan?
Differentiated instruction is one answer that has been extensively documented (see “Recommended Resources” at the end of this post).
In a recent Center for Digital Education (CDE) survey, 74 percent of responding higher education decision- makers said improving student retention and graduation rates is the top goal of their college or institution. The ability to retain and promote students not only influences college rankings, reputation and recruitment of top talent, but also impacts the bottom line. Enrolled students provide a steady revenue stream via tuition and other purchases (e.g., books, parking passes and food services). Student retention also allows recruitment dollars to go further by decreasing the need to continually replace students who have dropped out.
The scientific study of human learning and memory is now more than 125 years old. Psychologists have conducted thou- sands of experiments, correlational analyses, and field studies during this time, in addition to other research conducted by those from
neighboring fields. A huge knowledge base has been carefully built up over the decades.
Given this backdrop, we may ask ourselves: What great changes in education have resulted from this huge research base? How has the scientific study of learning and memory changed practices in education from those of, say, a century ago? Have we succeeded in building a translational educational science to rival medical science (in which biological knowledge is translated into medical practice) or types of engineering (in which, e.g., basic knowledge in chemistry is translated into products through chemical engineering)?
Love or hate it, group work can create powerful learning experiences for students. From understanding course content to developing problem solving, teamwork and communica-tion skills, group work is an effective teaching strategy whose lessons may endure well beyond the end of a course. So why is it that so many students (and some faculty) hate it?
Overview
The majority of employers continue to say that possessing both field-specific knowledge and a broad range of knowledge and skills is important for recent college graduates to achieve long-term career success. Very few indicate that acquiring knowledge and skills mainly for a specific field or position is the best path for long- term success. Notably, college students
recognize the importance of having both breadth and depth of skills and knowledge for their workplace success.
Echoing findings from previous Hart Research employer surveys, employers say that when hiring, they place the greatest value on demonstrated proficiency in skills and knowledge that cut across all majors. The learning outcomes they rate as most important include written and oral communication skills, teamwork skills, ethical decision-making, critical thinking, and the ability to apply knowledge in real-world settings. Indeed, most employers say that these cross-cutting skills are more important to an individual’s success at their company than his or her undergraduate
major.
The latest Ontario government survey of graduates from undergraduate programs shows 94 per cent have secured employment two years after graduation. The average salary for university bachelor’s degree graduates in full-time jobs was $49,001 two years after graduation, up from the average $42,301 six months after graduation.
The survey of Ontario university students who graduated in 2012, conducted for the Ministry of Training, Colleges and Universities, concludes that university graduates get jobs related to their education. The best path to career success for Ontario students is still a university degree.
Step into any college lecture hall and you are likely to find a sea of students typing away at open, glowing laptops as the professor speaks. But you won’t see that when I’m teaching.
Though I make a few exceptions, I generally ban electronics, including laptops, in my classes and research seminars.
That may seem extreme. After all, with laptops, students can, in some ways, absorb more from lectures than they can with just paper and pen. They can download course readings, look up unfamiliar concepts on the fly and create an accurate, well-organized record of the lecture material. All of that is good.
A learning studio is a classroom or specialized learning space that typically features enhanced teaching and learning technologies, comfortable seating, flexible furniture and an open layout. The learning studio concept is gaining popularity in many educational institutions. The increasing use of the learning studios, with the concomitant construction and equipment costs, inevitably raises questions regarding their effectiveness.
This study poses and tests five questions concerning the effectiveness of learning studios when compared to the traditional classroom.
Do the students better achieve course learning outcomes in a learning studio?
Do the students experience greater course completion rates in a learning studio?
Are students more satisfied with the learning experience in a learning studio?
Are the instructors more satisfied teaching in a learning studio?
Does the learning studio enable and allow for greater use of technologies or alternative teaching methods than the traditional classroom?
As Lambton College converted a few classrooms into learning studios and the faculty migrated courses from the former to the latter, the opportunity arose to examine the effect of the learning studios. For this study, 11 courses were identified in which a section of the course was taught one year in a classroom and the following year in a learning studio. In the successive deliveries of each of these courses, the instructor, course outline, evaluation scheme and student academic program remained constant, and the student demographics remained relatively steady. With the classroom as the control and the learning studio as the experimental venue, the achievement of the learning outcomes and the completion of the course by the students, and the satisfaction of the students and of the faculty could be compared for the two venues.
Vision
Enriching lives and fulfilling dreams
Mission
Providing outstanding applied education and training for a changing world
A survey of faculty participation in paid consulting arrangements in Ontario Colleges of Applied Arts and Technology reveals that 34% were involved in at least one project during a specified one-year period. There was significant variation in participation by division of academic appointment and by gender. The authors suggest that further research should be undertaken concerning the nature and role of paid consulting in community colleges. A number of basic questions are raised in an attempt to induce further study on this important topic.
In November 2013, the Ontario Undergraduate Student Alliance (OUSA) asked students to comment on their experience with summer and in-study employment. Of particular interest were: the number of jobs students were working during these
terms; whether or not these opportunities were within a student’s field of study; and whether they positively impacted their academic performance.
Results of OUSA’s 2013 Ontario Post-Secondary Student Survey (OPSSS) were further broken down based on institution and field of study for questions of particular interest. This was done to easily compare the responses from these distinct groups to see how consistent the undergraduate employment experience was across academic disciplines and universities.
• Ontario has the world’s third-highest post-secondary attainment rate for young adults (ages 25 to 34). It produces more degrees per capita than the U.S. and most other countries and up to three times as many career-oriented diplomas and trades certificates. Nonetheless, those with disabilities and aboriginal people have a lower share of degrees.
• While 28 per cent of Americans who attend post-secondary institutions eventually drop out without a credential, the Canadian rate is much lower (seven per cent).
• In 2012, Ontario certified 57 per cent as many trades persons as a share of employment as the rest of Canada.
• Canada’s essential skills ratings for young adults are better than the advanced country average, but behind the Nordic countries, Japan and Korea. However, only 15 per cent at the lowest literacy level are engaged in job-related adult education each year.
Matching skills to jobs
• Ontario’s trades and diploma graduates play a key role in exports (manufacturing, resources and tourism), energy, infrastructure, real estate and health care. Typically, smaller communities rely more heavily on diploma and trades certificate holders – as business owners and employees.
• Ontario’s ability to match skills to job opportunities is above the advanced country average. But it is behind three provinces and 10 countries, notably Switzerland and Germany, which are highly regarded for their ability to match educational programs with employer requirements.
Why go to university? When asked, today’s students are openly careerist and materialist. In a 2012 survey by the Higher Education Research Institute in Los Angeles, almost 90 per cent held that “being able to get a better job” was a “very important” or “essential” reason to go to college. The rationales of being “very well-off financially” and “making more money” were almost as popular.
This report is a companion to a study that found that high school grade point average was a stronger predictor of performance in college-level English and math than were standardized exam scores among first-time students at the University of Alaska who enrolled directly in college-level courses. This report examines how well high school grade point average and standardized exam scores predict college grades by the urbanicity of students’ hometown and timing of college entry. Among recent high school graduates from both urban and rural areas of Alaska, high school grade point average was a better predictor of college course grades than were SAT, ACT, or ACCUPLACER scores. It was a more powerful predictor of college performance among students who entered college within a year of high school graduation than among students who delayed college entry. For students who delayed college entry, high school grade point average was a better predictor than were standardized exam scores in English, but that was not always the case in math.
This paper examines the relationship between individuals’ personal exposure to economic conditions and their investment choices in the context of human capital. Focusing on bachelor’s degree recipients, we find that birth cohorts exposed to higher unemployment rates during typical schooling years select majors that earn higher wages, that have better employment prospects, and that more often lead to work in a related field. Much of this switching behavior can be considered a rational response to differences in particular majors’ labor market prospects during a recession. However, higher unemployment leads to other meaningful changes in the distribution of majors. Conditional on changes in lifetime expected earnings, recessions encourage women to enter male-dominated fields, and students of both genders pursue more difficult majors, such as STEM fields. These findings imply that the economic environment changes how students select majors, possibly by encouraging them
to consider a broader range of possible degree fields. Finally, in the absence of this compensating behavior, we estimate that the average estimated costs of graduating in a recession would be roughly ten percent larger.
With growing concern for postsecondary degree attainment sweeping public discourse in state and national circles, the traditional emphasis on access and enrollment headcounts is expanding to include a keen interest in student progress
and completion.
In many cases, though, conversations among policy experts are well ahead of conversations on college campuses. Too often, many still think it is enough to provide opportunity to students: What they do with that opportunity is up to them.
Institutions that don’t make the shift — from focusing on access alone to focusing on access and success — aren’t likely to fare well in the new environment of performance-based funding and increasingly hard-edged accountability. More important, neither will their students. In this economy, “some college” won’t get young adults very far; we need to help more of them get the degrees that will.
Canada’s natural resource sector employs 1.8 million people and generates billions of dollars of tax revenues and royalties annually. Hundreds of resource projects are underway and many more are planned for the near future which, according to the federal government, could represent a total investment of $650 billion. Responsible resource management has significant implications for all Canadians, with revenues from projects supporting local and regional infrastructure development and social programs.
Under the broad research question, “Can multiple electronic learning resources improve students’ academic performance in a large first-year General Chemistry course?”, this study examines how students used a wide range of online resources during the Fall 2011 and Winter 2012 academic terms and correlates this information with their academic success, measured by their grades on two midterms, a final exam and their final course grade.
Since 1996, Professor Robert Burk has taught Carleton University’s large first-year chemistry course, CHEM 1000. The course was a full credit course and spanned the fall and winter terms. In 2010, the Department of Chemistry adjusted the curriculum and the course has since then been offered as two half-credit courses – CHEM 1001, which runs in the fall term, and CHEM 1002, which runs in the winter term. Only students who achieve a passing mark in the fall term are eligible to enroll in the winter section of the course. Course enrollment has increased from 350 in 1996 to 700 in 2011.