3 Ways to Make Research Fun

A MiddleWeb Blog

 

Anne Jolly began her career as a lab scientist, caught the science teaching bug and became an award-winning middle grades science teacher. Today she works on an NSF-supported team, developing standards-based STEM curricula for grades 6-8. Anne’s blog appears weekly at MiddleWeb, and one important focus is to engage readers in chats around STEM subjects. See all of Anne’s posts here.

by Anne Jolly

R~E~S~E~A~R~C~H. I could almost see the students shudder. The teacher in the class I was visiting announced that students were going to do some research for their engineering challenge. I knew what was going through their heads. They were conjuring visions of poring over volumes of print material and filling in the blanks on a research handout.

Well, that is one way to research. But it’s not a particularly appealing approach for most middle grades kids.  No wonder the whole class gave a collective “sag and sigh” — and the teacher looked like she wanted to join in.

It doesn’t have to be that way!

Before you warm up the copy machine and drag out the books, let’s look at the role research has in the engineering design process. What is it?  What do we use it for?

Consider this definition for engineering challenges: Research is the systematic process of collecting and analyzing information to increase our understanding of our challenge. And part of the process involves communicating our understanding to others.

With that definition in hand, you’re set to broaden students’ grasp of what STEM research is all about. Let’s look at three ways you could engage students in research that won’t involve them in poring over musty books looking for discrete bits of information.

1. Scientific investigation

In one STEM project, students needed to construct an effective set of barriers for slowing down the flow of sediment from a model streambed. In order to make good decisions about this, they first needed to find out what barrier properties would work best. For example, would the length of the barrier matter? What about the shape? What about the distance between the barriers? Student teams needed to test these kinds of properties using a scientific approach that carefully controlled all variables except the one being tested. Then data from all teams could be compiled and analyzed.

This investigation was actually the research phase of the project because teams were collecting and analyzing information they would use to make decisions about their final barrier design (their engineering challenge). Hands-on investigations are exciting ways to engage students in research. Be sure students know exactly what information they need to collect for their engineering challenge.

2. Digital investigations 

Students need to be efficient, smart users of media and the Internet. One engineering project required students to investigate genetically transmitted diseases. Students worked in pairs on computers to investigate websites specified by the teacher and collected the information they needed for their project. The websites could include text, infographics, video and more.

In another engineering challenge, students developed environmentally friendly plastics that could be used to replace petroplastics for making hockey pucks – or, maybe they should make hockey balls. Which would be better? Teams used eLab books to research this question and get information they needed to make that decision. These eLab books were actually on DVDs that students accessed through a computer.

You probably have a variety of digital tools that students can use for researching, gathering, and sharing information – wikis, podcasts, VoiceThread, and so on. For ideas, check out 6th grade teacher Bill Ferriter’s Digitally Speaking wiki.

3. Talk with an “expert”

Provide ways for students to interact with a person who has information students need to make decisions for their projects.  This can happen face to face, or through a program such as Skype or a video conferencing service, if you have one in your school or district. It can even happen in an instant messaging type format that you project on the screen so all students can see it.

In one of our engineering challenges, students set out to solve a real problem at the school. They wanted to build a wetland to help with the runoff from their newly constructed school site. An environmental engineer from a nearby university came in and discussed with students what they would need to know about building a wetland. He and the students walked around the campus as he guided them with questions that would help them choose a good site. He and his college class remained a resource for the students as they constructed the wetland. A Master Gardeners group helped students select plants suited to live in the wetland. How about that for “research”?!

I know that many readers have used inventive and engaging ways to involve your students in research. I hope you’ll share one of those ideas here!


Posted on Sep 14, 2012 under STEM Imagineering, Student Research

Anne Jolly

Anne Jolly began her career as a lab scientist, caught the science teaching bug and was recognized as an Alabama Teacher of the Year during her years as a middle grades science teacher. Today, she works with teacher teams in schools across the Southeast to help them take control of their own professional learning. Her practical how-to book Team to Teach is published by Learning Forward. Anne is also a curriculum consultant for a Mobile-based, NSF-supported project to develop engaging, standards-based STEM lessons that are easily integrated into middle school curricula. One important focus of her MiddleWeb blog is to engage readers in conversations around STEM subjects.

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8 comments

  • Reply → Sep 15, 2012 11:25 AM Amy Johnson said:

    I find it helpful to let the children participate in the decision of WHAT they will research or investigate. If they are interested in a topic, they will be more motivated to use the tools available to achieve the outcome. I present a set of “problems” and give them “space” to discuss the problem, possible solutions, and then investigate the part that interests them the most.

    • Reply → Sep 17, 2012 2:37 PM Anne Jolly replied:

      I love the part about giving them space to discuss the problem and possible solutions. That’s probably the most mind-developing part of the process. What sort of topics do you give them to investigate?

    • Reply → Sep 22, 2012 10:57 AM Marsha Ratzel replied:

      Dear Amy,

      I think the WHAT is an interesting idea. Building enthusiasm is always key…and as they get into the real work of doing the investigating, they will get into it more and more.

  • Pingback: Three Ways to Make Student STEM Research Fun | MiddleWeb | Aprendiendo a Distancia | Scoop.it
  • Reply → Sep 19, 2012 10:22 AM Melissa Dean said:

    Your description of student reaction to “Research” is so true! When I was in school, that was what research meant, and I hated it. What I love about research during an engineering challenge is that it broadens the research horizon for students (and sometimes teachers).

    • Reply → Sep 22, 2012 11:06 AM Anne Jolly replied:

      You’re so right! Who’d have ever thought that “research” would mean digging in to a hands-on investigations to get information? I think this might actually be a breakthrough idea for some teachers and students (and professors).

  • Reply → Sep 22, 2012 10:56 AM Marsha Ratzel said:

    Dear Anne,

    You said “This investigation was actually the research phase of the project because teams were collecting and analyzing information they would use to make decisions about their final barrier design (their engineering challenge). Hands-on investigations are exciting ways to engage students in research. Be sure students know exactly what information they need to collect for their engineering challenge.”

    I think you’ve raised a helpful perspective. So often people ignore that students can build models of real-life and do some testing. This week I did something similar. We built bridges from paper….first looking at how bridges can be strengthened by adding layers and then changing the investigation to the length of the span for a single layer.

    What we did to elevate the learning was to then combine all the research outcomes. As students completed their testing, they entered their results into an Excel spreadsheet we posted on the SmartBoard. By the day’s end, we had 45 different sets of experimental data. The next day, we were able to talk about why an individual pair’s data might be the same or different than what the class, as a whole experienced. Then we compared each class to the other three hours.

    I think this kind of researching from their own investigations is powerful. Using Excel amps it up and helps them generalize. Do you think that this might be an interium step before they build a prototype?

    • Reply → Sep 23, 2012 3:02 PM Anne Jolly replied:

      Marsha, this is a really solid, useful practice. One thing we preach in science is that the more data you have, the more reliable the results are. You can make much better decisions using multiple sets of data. Think how much higher the reliability was with 45 sets of data than with one.

      Was this a difficult process to set up? Did you set up a spreadsheet and did the kids understand how to enter the data? What would make this way of collecting data a smooth process for teachers?

      I love the idea!

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