Many instructors will argue that student participation in class is important. But what’s the difference between participation and engagement? What does good participation or engagement look like? How can you recognize it? And how can you tell if a student is not engaged?
Online teaching is growing at a rapid pace. To meet the increasing demand of online education, many courses have been designed to enable the instructor to be more of a facilitator rather than an active participant in the classroom space (Ragan, 2009). However, building an active, student-centered learning environment in online classes is needed to prevent instructors from becoming stagnant and to motivate and inspire them to take on a variety of roles as the students’ “guide, facilitator, and teacher” (Ragan, 2009, p. 6). This article will discuss the unique needs of the online student and suggest three strategies to meet these needs through effective, innovative online instruction.
It seems like everyone is talking about the flipped classroom. But how do you use this new model to construct lessons and assessments that reinforce student learning?
The liberal arts college where I teach recently underwent review for accreditation. Like many other colleges and universities, we were criticized for our lack of assessment. Faculty resistance, it seems, may be the biggest barrier to implementing institutional assessment measures (Katz, 2010; Weimer, 2013). Both Weimer and Katz accredited faculty resistance to fears that assessment data could be used for “comparison shopping” and “educational consumerism.” While these fears are justified, at my college another fear prevails; the fear that assessment will lead to hand-holding strategies that will discourage independent thought in our students and result in failure to adequately prepare them for professional life.
This study begins with some pretty bleak facts. It lists other research documenting the failure rates for introductory courses in biology, chemistry, computer science, engineering, mathematics, and physics. Some are as high as 85 percent; only two are less than 30 percent. “Failure has grave consequences. In addition to the emotional and financial toll that failing students bear, they may take longer to graduate, leave the STEM [science, technology, engineering and math] disciplines or drop out of school entirely.” (p. 175) The question is whether there might be approaches to teaching these courses (and others at the introductory level) that reduce failure rates without decreasing course rigor.
“Creating a climate that maximizes student accomplishment in any discipline focuses on student learning instead of assigning grades. This requires students to be involved as partners in the assessment of learning and to use assessment results to change their own learning tactics.” (p. 136) The authors of this comment continue by pointing out that this assessment involves the use of formative feedback and that feedback has the greatest benefit when it addresses multiple aspects of learning. This kind of assessment should contain feedback on the product (the completed task) and feedback on progress (the extent to which the student is improving over time). The article then describes a number of formative feedback activities that illustrate how students can be involved as partners in the assessment process. Their involvement means that formative feedback can be given more frequently.
