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Inquiry resources for early childhood teachers of science

By Peggy Ashbrook

Posted on 2010-12-31

Close up observation and drawing of caterpillars eating leaves.Children documenting the growth of caterpillars.Does your (or your child’s) early childhood program include science inquiry experiences? Here are a few resources to get started, or to expand on, your understanding of science inquiry. These resources are on my list because I have read them (some—not all, yet), or other works by the authors, or read the reviews on NSTA Recommends or another source. I’m sure there are others—use the comment feature below to add your list to this one. Thanks to Nick dePreter, teacher who I met at his session at a NSTA conference, for asking a question which inspired this list. Online community–another great resource!

In print

  • Building Structures with Young Children (Young Scientist Series) by Ingrid Chalufour and Karen Worth. 2004. St. Paul, MN: Redleaf Press.
  • Growing and Changing by Robert E. Rockwell, E. Sherwood, R. Williams, and D. Winnett. 2001. While Plains, NY: Dale Seymour Publications. Activities for students to make observations and collect data in about themselves and other organisms.
  • The Inquiry Matrix by Julie Grady. The Science Teacher, November 2010. Note that NSTA members can access all journals online.
  • Investigating Real Data in the Classroom: Expanding Children’s Understanding of Math and Science by Richard Lehrer and Leona Schauble, eds. 2002. New York, NY: Teachers College Press. Education researchers and classroom teachers paired up to describe how children can collect and analyze data as they go about answering questions.
  • More Picture Perfect Science Lessons: Using Children’s Books to Guide Inquiry, K-4 by Karen Ansberry and Emily Morgan. 2007. Arlington, VA: NSTA Press.
  • The Pillbug Project: A guide to investigation by Robin Burnett. 1999 revised. Arlington, VA: National Science Teachers Association.
  • Preschool Pathways to Science: Facilitating Scientific Ways of Thinking, Talking, Doing, and Understanding by Rochel Gelman and Kimberly Brenneman, Gay Macdonald, Moisés Roman. 2009. Baltimore, MD: Paul H Brookes Pub Co.
  • Scaffolding Science Inquiry Through Lesson Design by Michael Klentschy and Laurie Thompson. 2008. Portsmoouth, NH: Heinemann. Note: written for teachers of grades 3-5.
  • Science in Kindergarten by Ingrid Chalufour and Karen Worth, Reading #56 from the CD accompanying Developmentally Appropriate Practice in Early Childhood Programs Serving Children from Birth through Age 8, Third Edition by Carol Copple and Sue Bredekamp, eds. 2009. Washington, D.C.: National Association for the Education of Young Children.
  • Science Is Golden: A Problem-Solving Approach to Doing Science with Children by Ann Finkelstein. 2001. East Lansing, MI: Michigan State University Press. For parents and teachers—how to guide children’s questions toward investigation, including gathering data.
  • The Teaching of Science in Primary Schools by Wynne Harlen and Anne Qualter, 2009. London, Great Britain: David Fulton Publishers.
  • Worms, Shadows, and Whirlpools: Science in the Early Childhood Classroom by Karen Worth and Sharon Grollman. 2003 Portsmouth, NH: Heinemann, Washington D. C.: NAEYC.
  • A Head Start on Science: Encouraging a Sense of Wonder: 89 Activities for Children Ages 3-7 by William C. Ritz. 2007. Arlington, VA: NSTA Press.
  • Outdoor Inquiries: Taking Science Investigations Outside the Classroom by Patricia McGlashan, Kristen Gasser, Peter Dow, David Hartney, and Bill Rogers. 2007. Portsmouth, NH: Heinemann. From the staff of First Hand Learning, Inc.
  • Squishy, Squashy Sponges by Beverly Kutsunai, Susan Gertz, and Lynn Hogue. 2003. Middletown, OH: Terrific Science Press.

Online

  • Annenberg, Learning Science Through Inquiry

http://www.learner.org/workshops/inquiry/videos.html?pop=yes&pid=1452

  • The Cat in the Hat Know a Lot about That! Explorer’s Guide, on doing science with young children.

http://www.pbs.org/teachers/includes/content/catinthehat/Teachers_UnitDownloadables/CITH_Teachers_ExplorersGuide.pdf

  • Entries from a Staff Developer’s Journal . . .Helping Teachers Develop as Facilitators of Three- to Five-Year-Olds’ Science Inquiry by Robin Moriarty

http://cse.edc.org/products/pdfs/YCMoriarty.pdf

  • Foundations, volume 2, Inquiry :Thoughts, Views, and Strategies for the K-5 Classroom

http://www.nsf.gov/pubs/2000/nsf99148/start.htm

  • Exploratorium, Institute for Inquiry

http://www.exploratorium.edu/IFI/resources/index.html

  • Inquiry Science in the Elementary Classroom: A Study Guide, from Educational Development Center, Inc.

http://cse.edc.org/products/inquiryscienceelemclassroom/inquiry.asp

  • K2S Bitesize BBC Interpreting Data, site has ‘bitesized’ interactive learning content including on interpreting data using tally charts.

http://www.bbc.co.uk/schools/ks2bitesize/maths/data/

  • National Association for the Education of Young Children (NAEYC), Teaching Young Children, Picturing Good Practice. You Can Count on Math Handout 2: Math-Related Children’s Books, Songs, and Finger Plays for Preschoolers

http://www.naeyc.org/files/tyc/file/BooksSongsandFingerPlays.pdf

  • Science News for Kids, an online science news journal—a resource to learn age appropriate vocabulary and new science content.

http://www.sciencenewsforkids.org/articles/20101006/Note1.asp

  • A Try Science Conversation with Wynne Harlen, author of The Teaching of Science in Primary Schools

http://scienceonline.terc.edu/harlen_conversation/index.html

  • Understanding Science website, especially the Understanding Science 101 section

http://undsci.berkeley.edu/

  • Young Children’s Inquiry chart by Hubert Dyasi, CCNY; and Karen Worth, Education Development Center, Inc.

http://cse.edc.org/products/inquiryscienceelemclassroom/Inquiry.pdf
What resources can you add to this list? (Authors and publishers: don’t be shy!)
Peggy

Close up observation and drawing of caterpillars eating leaves.Children documenting the growth of caterpillars.

 

Physics videos

By Eric Brunsell

Posted on 2010-12-29

December’s Science 2.0 includes a brief example of how Dale Basler (physics teacher and co-host of Lab Out Loud) creates his own videos for use in his physics classroom.  Here are a few examples:
Bobber Meets Roundabout from Dale Basler on Vimeo.
Grocery Store Conveyor Belt Stops from Dale Basler on Vimeo.
See more here.

December’s Science 2.0 includes a brief example of how Dale Basler (physics teacher and co-host of Lab Out Loud) creates his own videos for use in his physics classroom.  Here are a few examples:
Bobber Meets Roundabout from Dale Basler on Vimeo.
Grocery Store Conveyor Belt Stops from Dale Basler on Vimeo.

 

Activities and investigations

By Mary Bigelow

Posted on 2010-12-28

Click here for the Table of Contents


I was once on a planning committee for a citizen-science  project. Several of the other teachers on the committee remarked that it was a great project but that they probably wouldn’t be able to use it in their own classrooms. “It’s an awesome project, but we have too much content to cover first” was their reason. I can still see the puzzled look on the face of one of the scientists on the committee. “Why is there a need to ‘cover’ content before engaging students in real-world science. Why can’t the students learn content within the context of these projects and experiences?” A good question.
Integrating content and activities/investigations in a planned and purposeful way is a challenge for teachers. The articles in NSTA publications have many examples of how this can be done, including planning tools, rubrics, connections to standards, and assessments. Tools such as SciLinks can provide just-in-time content and background information for both students and teachers.
For example, The Hudson River Plume uses a combination of online and laboratory activities (the authors include a detailed overview) to explore the impact of human activity on watersheds and coastal environments. The content addresses water movement and characteristics beyond a textbook discussion. (SciLinks: Watershed, Water Movement, Eutrophication, Pollution)

A Life-Cycle Assessment of Biofuels focuses on the context of alternative fuels (ethanol in this case): what resources are used to produce them, how they are processed, what does it take to transport them. Students may find it interesting to look at the “life cycle” of other products such as cell phones, pencils, bottled water. (SciLinks: Carbon cycle, Alternative fuels)
Wolves in the Wild incorporates a jigsaw cooperative learning activity with content related to social, economic, and ecological issues.  (SciLinks: Wolves, U.S. National Parks)
Your principal may do a double-take seeing high school students use a sandbox or Rubik’s cubes. but you can reassure her that real learning is taking place.  In Puzzling Science: Using the Rubik’s Cube to Teach Problem Solving, the teacher-author had mastered the cube before designing this problem-solving activity. It might be an interesting action research project to study what happens when the teacher learns along with the students! The Classroom Sandbox shows how a physical model can be used to illustrate concepts, manipulate variables, or test hypotheses. See Deformational Sandbox in the Classroom
You probably have some athletes in your classes. In another real-life connection (using the 5E Learning Cycle) students consider Why Do Athletes Drink Sports Drinks? (SciLinks: Osmosis, Electrolytes, Sports Drinks)
This month’s HealthWise column What’s the difference between an x-ray, a CAT scan, and an MRI? describes these medical processes that students hear about in the news and family discussions. (SciLinks: CAT Scanning Fossils, MRI).
In conversations with teachers and administrators, I’ve often heard these terms used interchangeably: activities, experiments, labs, investigations. Are they the same? How would you explain the differences?

Click here for the Table of Contents

 

Micronaut

By Eric Brunsell

Posted on 2010-12-27

From January’s Science 2.0 column: Picture This Assessment

“I have often used microscopic images of everyday objects as warm-up exercises to start class, and to get kids involved in making observations and asking questions,” says John Burk, a ninth-grade physics teacher at Westminster Schools in Atlanta, Georgia.

Check out this example from Burk’s class blog (Note: He uses this cheap microscope and a camera to get the pictures):

Ok, so we’re rocking through these. Here’s one more. Remember, questions are more important than answers. But I do have one for you. How many yellow jacket antennae hairs would fit in this?

ps. If anyone wants to share their own “What is this photos”, feel free.

And here are some of the student responses:

Student: A crack in the sidewalk maybe?
Student: Its 20 micrometers, or 20 millionths of a micrometer. It could be part of skin, like a fingerprint.
Student: Yeah, I agree with Wendy. It might be a trench or a ditch in the ground.
Burk: Look closely at the image. How big is this crack or ditch?
Burk: How big is it? How big is a normal sidewalk crack?
Student: totally random but i think its pencil lead.
Burke: But how do you know? Questions are more important than answers. How big is this thing?
Student: I think that it looks a bit like an indentation in clay. Like someone dragged their finger through it. So that would mean the actual crevice is about the size of a finger. The roundedness of the indentation makes me think that it is a clay or a softer materials. Any other soft materials that could have indentations like that?
Burke: This is progress! But look closely at the picture what does 20 um mean? (The symbol is actually the greek letter mu) Is that equal to 1cm (which is your finger)? And why would you be making indentations, anyway?

For more of the discussion…and the answer, go here.

From January’s Science 2.0 column: Picture This Assessment

“I have often used microscopic images of everyday objects as warm-up exercises to start class, and to get kids involved in making observations and asking questions,” says John Burk, a ninth-grade physics teacher at Westminster Schools in Atlanta, Georgia.

 

Science 2.0 suggestions!

By Eric Brunsell

Posted on 2010-12-26

A blog (and column) works best when it focuses on community. We would love to hear your feedback and suggestions. Let us know if you want us to write about something specific. Also, we are always looking for cool tech projects to showcase. Let us know how you are using technology in your classroom.
You can either complete this form or leave a comment.

A blog (and column) works best when it focuses on community. We would love to hear your feedback and suggestions. Let us know if you want us to write about something specific. Also, we are always looking for cool tech projects to showcase. Let us know how you are using technology in your classroom.
You can either complete this form or leave a comment.

 

Young scientists publish their work

By Mary Bigelow

Posted on 2010-12-23

One of the many blogs I subscribe to is Not Exactly Rocket Science from Discover magazine. It’s good reading about science (Bad Astronomy is also published here). A recent entry Eight-year-old children publish bee study in Royal Society journal describes how a class of students in Devon, England, designed and conducted a study of what factors bees use when selecting which flowers to visit. The results of their study, complete with their pencil drawings, was published in Biology Letters by the UK’s Royal Society (there’s a link to the publication from the blog). The students did have guidance from a scientist and their teacher, but the work is theirs. What an exciting accomplishment! I’m sure these students learned much about insect behavior and scientific inquiry. (You might also be interested in the related entry, Turning secondary school children into research scientists).

It’s not common for student work to appear in a peer-reviewed professional publication such as this. But I’ve heard of various opportunities (both print and online) for students to publish their work. The one that I’m most familiar with is Classroom BirdScope from the Cornell Lab of Ornithology. If anyone has had experiences with others, please let us know in a comment!
Sharing what is learned and creating new knowledge is part of scientific inquiry. How can students share the results of their investigations? A class blog or wiki? Press releases to local media? The school website? A locally-published journal? Presentations to their classmates?
Insects are a common unit in the elementary grades. I’ve created a collection of some articles in NSTA publications related to Bees and SciLinks has collections of websites related to

Photo: http://www.flickr.com/photos/124330160/23764566/#/

One of the many blogs I subscribe to is Not Exactly Rocket Science from Discover magazine.

 

Cameras in YOUR classroom

By Eric Brunsell

Posted on 2010-12-23

In the November and January issues of The Science Teacher, we wrote about using digital cameras in the classroom. November’s column (read it free) focused on using high speed cameras during inquiry.
Wingspan makes affordable cameras that do just the opposite. With their Plantcam, you can easily make time lapse videos by setting the camera to take an image at specific intervals. Their Birdcam has a built in motion sensor that activates a video camera or time lapse photo setting.
You can win one of these cameras by participating in their Cameras for Classrooms essay competition. All you need to do to enter is write a 500-750 word essay on how you would use one of these cameras in your classroom.
Check out the cool time-lapse video below. Imagine what your students could do if you let them loose with one of these!
[youtube]http://www.youtube.com/watch?v=c0En-_BVbGc[/youtube]
(Note: This video was not taken using a Wingspan camera.)

In the November and January issues of The Science Teacher, we wrote about using digital cameras in the classroom. November’s column (read it free) focused on using high speed cameras during inquiry.

 

What can you do with this?

By Eric Brunsell

Posted on 2010-12-23

December’s Science 2.0 column focused on using rich media to spark questioning and inquiry.  Here is a fully developed example from Dan Meyer’s blog that could work well in a physics classroom.
First, the video:
[youtube]http://www.youtube.com/watch?v=zR3X9hJpbDo[/youtube]
The set – up:
Ask your students what questions they have about the video?
Which of these questions are related to our topic (speed, time, distance)?
What information do we need?
Possible Questions:
How fast is the car going?
How many pictures or frames? OR How long is the vinyl?
The Details:
Read the post at Dan’s blog for background details (car speed, camera frame rate, etc.) and the solution to the length of vinyl.
More:
Check out Meyer’s WCYDWT archive here.
Check out a blog of starter media for WCYDWT Science.

December’s Science 2.0 column focused on using rich media to spark questioning and inquiry.  Here is a fully developed example from Dan Meyer’s blog that could work well in a physics classroom.
First, the video:
[youtube]http://www.youtube.com/watch?v=zR3X9hJpbDo[/youtube]
The set – up:
Ask your students what questions they have about the video?

 

Lesson planning

By Mary Bigelow

Posted on 2010-12-21

Our middle school science department has started using the BSCS 5E instructional model. We like this framework, but we’re having a hard time fitting in all the components every day. It doesn’t seem possible, given that the class periods are 45 minutes long. Are we missing something? What has been your experience with this model?
—Mary, West Palm Beach, Florida
The 5E Model suggests stages or phases to be included when designing inquiry-based instruction: Engage, Explore, Explain, Elaborate (Extend), and Evaluate. According to BSCS (the developers of the model) this teaching sequence can be used for entire programs, specific units, and individual lessons.
I must admit I’ve not had the opportunity to use 5E in the classroom. But I have used other models and frameworks such as Understanding by Design (by Jay McTighe and Grant Wiggins) and—I’ll show my age here—the Madeline Hunter model. I’m also familiar with the Art and Science of Teaching (by Robert Marzano). Some teachers suggest models or frameworks are too prescriptive, discourage teacher creativity, and result in cookie-cutter lessons. But, depending on the model, I found quite the opposite could be true. Having some guidelines helped me create purposeful lessons within cohesive units of instruction, rather than collections of activities and laundry lists of content topics to “cover.”
It may be helpful to differentiate among units, lessons, activities, and class periods. A unit of instruction (e.g., stoichiometry, forces, air quality, microorganisms) consists of connected lessons. A lesson incorporates individual or group learning activities (lab investigations, assessments, lecture, demonstrations, reading, writing, discussion, etc.) focused on related objectives or learning goals. Depending on the length of a class period, there may be time for a complete lesson. There might be time for only a few of the activities, or a single activity may take several periods. My big “aha” moment occurred when I realized that a lesson could extend over several class periods, depending on the number and types of learning activities I used to help students achieve the learning goals.

What constrained my thinking was the spiral-bound lesson plan book with a 2×3 inch box in which to describe each class period. The box wasn’t large enough to write much more than a list or agenda, such as Discuss Photosynthesis, Read Chapter 6, or Do the Lab on p. 144. If I taught multiple class periods of the same subject, I could just write “ditto” in the box. There was little room for annotations or reflections, so in the following year, these boxes weren’t helpful to me in terms of improving the lesson.
So I decided to think outside the lesson plan box and file the spiral book. I switched to an electronic template for lesson planning and a 3-ring binder (for ready reference during class). Each lesson was a separate document where I described the learning activities in detail. Lesson plans also included space to record the date(s) of the lesson, how far each section progressed, and other notes for reviewing and refining the lesson. This was a lot of work the first year, but after that I could revise the electronic documents easily.
In the NSTA journals, there have been many articles describing lessons and units of instruction designed with the 5E model, many of which appear to extend over several class periods. So perhaps you’re a little ambitious in trying to use all 5 Es in every class period as a daily checklist rather than as a framework for an entire lesson or unit. Does your current lesson plan format facilitate the 5E model? If not, perhaps a revised template may help.
If a lesson does last for more than one class period, it’s important to recap or summarize the activities at the end of the period and show how they will carry over to the next day. Reviewing the previous activities could be the bell-ringer at the beginning of the next period.
Using the NSTA Learning Center, I created a resource library of articles from NSTA journals (Science Scope and The Science Teacher) and the URLs of a few websites related to the 5E model. Feel free to browse through these to see how other secondary teachers are using this model.

Our middle school science department has started using the BSCS 5E instructional model. We like this framework, but we’re having a hard time fitting in all the components every day. It doesn’t seem possible, given that the class periods are 45 minutes long. Are we missing something? What has been your experience with this model?
—Mary, West Palm Beach, Florida

 

Sulfur + iron + tantalum …

By NSTA Web Director

Posted on 2010-12-20

What on earth could this be a recipe for?
Season's Greeting from NSTA

What on earth could this be a recipe for?
Season's Greeting from NSTA

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