Even in the most supportive of middle schools, students’ performance in math and science can decline sharply. With a larger peer group to judge themselves against, many students who exuded confidence in elementary school no longer feel they can measure up, and stop trying—harming not only the students but society at large. Fortunately, new research from McREL and IMPAQ International shows that math teachers can help by significantly boosting their use of formative assessment, without sacrificing other responsibilities.
The alarm bell has been sounding for a while now about a shortage of skilled STEM workers in the U.S., with business leaders often calling on schools to do a better job of preparing students for a hypercompetitive global economy. As a result, we’ve seen a dramatic, nationwide rise in STEM initiatives—from large federal programs like Educate to Innovate to your local elementary school’s afterschool robotics program.
Others, however, say there is no evidence of such a shortage and that other factors are at play, such as businesses not being willing to pay higher wages that would attract more skilled workers. Some critics have even suggested that focusing too much on math, particularly algebra, is taking away from other, more critical skills students need to be learning.
So what’s an educator to do? In the December 2016/January 2017 issue of Educational Leadership, McREL’s Bryan Goodwin and Heather Hein try to get some answers by taking a look at what the research says about the skills gap and how to best fill it.
In 1989, I became the principal of a technology magnet school. Nine years later, I was named an Apple Distinguished Educator. As the lead author of Using Technology with Classroom Instruction that Works, 2nd Ed. (2012), I remain an active proponent of technology-infused learning. Technology enables learners to do or create things that might not otherwise be possible. Knowing all of this, you might ask why I, of all people, would ever advise educators to restrict technology in the classroom.
How do we teach our students to pursue a line of inquiry that connects personal, community, and global decisions to an understanding of relevant science, technology, engineering, and math? “GreenSTEM” is an engaging and innovative approach for both students and teachers.
In an effort to distinguish traditional science, technology, engineering, and math (STEM) programs from those with a focus on ecology and sustainability, some educators have recently been adding “green” to STEM programs. The concept is so new that a standard definition of GreenSTEM—one that fuses the real-world connections intrinsic to STEM learning with the deeper concept of sustainability—has yet to be penned.
Educators face many challenges each day—large and small—that when addressed effectively have the ability to inspire better teaching, leading, and learning. Our staff continually ask themselves the same question you might ask yourself: As educators, how can we make a bigger, better difference in student engagement and knowledge?
STEM is a hot education initiative these days, with numerous schools investing energy and resources to create more, and more robust, learning experiences for students in science, technology, engineering, and math, all with a goal of boosting student interest and readiness for post-secondary STEM education and careers. Yet despite the investment and focus, research studies show that many of these efforts fall flat, producing few, if any, gains in student achievement and interest.
For most occupations, routine continuing education is necessary to keep current with new and changing policies, procedures, and technologies and is critical to job expertise and career advancement. Why is it, then, that educators too often view professional development (PD) opportunities with a touch of dread and angst?
How does student work inform instruction? I read Katrina Schwartz’s MindShift blog post, “How Looking at Student Work Keeps Teachers and Kids on Track,” and immediately found connections to McREL’s Institute of Education Sciences (IES) study of a formative assessment model for middle school math, now completing its third year. Not only does Ms. Schwartz highlight the use of student work as a method for improving student learning and teacher practice—a cornerstone of our study—but she also relates this to mathematics.
Meaningful careers. Financial stability. Happiness. That’s what we all want for the future of our students, right? This might feel like an abstract, far-off concept when working with elementary school students. However, the foundation built during these formative years is exactly what supports achieving those goals. How do we cultivate the curiosity, tenacity, and student empowerment to help our students realize that future? Think: Science… Technology… Engineering… Math.
Do American students view struggling in areas such as mathematics and science to be synonymous with failure? Research on American and Asian students suggests so.