By Amy America
Posted on 2010-04-29
As the great Dr. Seuss once said, “The more that you read, the more things you will know. The more that you learn, the more places you’ll go.” In Jodi Wheeler-Toppen’s new book, Interdisciplinary Activities to Create Confident Readers, she utilizes the parallels between how people learn science and how people become better readers. This book is geared towards teachers of middle and high school life science who want to improve students’ reading abilities while supporting science content learning. In her quest to create confident readers, Wheeler-Toppen strategically organized this book by lessons, which consist of an activity, a reading based on an important life science concept (as defined by the National Science Education Standards), and an application that asks to correlate the activity with the reading. Wheeler-Toppen’s inclusion of the three-phase learning cycle, which consists of exploration, concept introduction and concept application, is established on the notion that students’ base new knowledge on information they already have. This interdisciplinary book will ensure that your students’ improve their reading skills, increase their science knowledge and become more confident learners.
By Mary Bigelow
Posted on 2010-04-28
We are applying for a grant to upgrade the technology in our science department, and we’re thinking of buying “clickers.” Do you have any advice?
—Iris, Salem, Oregon
Clickers (personal response devices) look like calculators Students use keypads to respond to a question, often multiple-choice, and the results are tabulated and displayed—similar to popular television game shows that survey the audience and reveal the percentage choosing each response.
Clickers have become quite popular in classrooms at all levels. Unlike a show of hands or holding up index cards, students’ individual responses are not publicly displayed, although they can be recorded on the teacher’s computer. The teacher gets immediate results during the lesson and can modify the learning activities to correct misunderstandings, provide more in-depth examples or explanations, or move on to the next activity.
In a high school class I visited, the teacher was conducting a lesson in which students were solving chemistry problems. The teacher used a variety of instructional techniques, including a graphic organizer and guided practice at the interactive board. When the students indicated they understood the concept, the teacher displayed several problems on the board. The students did the calculations and entered their answers via the clickers. The teacher displayed a graph showing the percentage of students who entered the correct answer. Everyone had the first two answers correct, but several students missed the third one. He used the clicker software to display the number of students who chose each response and noted that one of the incorrect answers had been chosen by quite a few students. He then asked the class to figure out why that answer, although incorrect, was popular. After some thought, one student volunteered, “Maybe they thought Ca stood for carbon and they used the wrong atomic mass.” “That’s what I did,” another student remarked, and so the class experienced not just getting an answer correct, but figuring out the thought processes involved. The teacher knew he could move on to more complicated formulas, and the students were ready for the challenge.
In this class, the clicker system and its software was a component of the interactive board. The clickers were in a storage case, and as the students came into the lab, they retrieved the clicker assigned to them by number. The teacher had a record of responses, and although he did not “grade” these lesson checkups (formative assessments), he could monitor the progress of individual students from one lesson to the next
A middle school math colleague used clicker data to determine which students needed additional help. He worked with those students—re-teaching or providing more guided practice while the others worked on more challenging topics. He certainly could have used a paper-and-pencil quiz, but the immediate feedback gave him more time for the alternative instruction rather spending it checking more than 100 quizzes. He also used clickers for pre- and post-tests to show the students their progress.
Many college classes use clickers (see the two references at the end), and I’ve used clickers with third-graders who caught on very quickly. I’ve also used them to gather feedback during professional development workshops and at parent meetings to compile their opinions in an attitude survey.
In one project I was involved with, the classrooms did not have interactive boards. The system was portable, with a remote receiver connected to a laptop. A projector displayed the questions. It was a lot of equipment to set up, but we could use it in different venues.
There are many systems to choose from, ranging from simple numeric keypads to more complicated options for entering data. Ask your technology coordinator for input on what system would meet your instructional needs and your school’s technology capabilities. Other questions to consider: Is the system compatible with the test generator/test bank you have? How easy is it to import or copy/paste questions? Can graphics be included in the questions? What kind of analyses does the software perform beyond calculating the percent correct—simple statistics (mean, standard deviation, median), graphs, or an item analysis? Can you export the data into Excel or other statistical programs? Does it produce reports for individual students as well as class summaries? When you’ve narrowed your choices, ask other teachers about their experiences, including teachers in the NSTA Communities (you’ll get a lot of information from your online colleagues).
Regardless of what system you ultimately decide on, it does take class time to administer the questions. You’ll have to adapt or create questions related to the concepts and skills being learned. The systems lend themselves to multiple-choice format (including true/false questions) and would not be useful for open-ended questions or more creative solutions, although I’ve seen ways to capture text messages from cell phones or other devices that sound intriguing.
The clickers by themselves are not a solution to improving student learning. Much depends on the quality of questions that are presented and what the teacher and students do with the results. The clickers can be an expensive, high-tech “quiz machine” or they can be an integral part of a teacher’s strategies to improve participation, determine students’ misconceptions and misunderstandings, and adjust instruction to help all students learn.
Resources:
Clickers in the Large Classroom: Current Research and Best-Practice Tips
Building Acceptance for Pedagogical Reform Through Wide-Scale Implementation of Clickers
By Peggy Ashbrook
Posted on 2010-04-27
The seeds of maple trees are shaped like single wings and rotate around the heavy seed end when tossed into the air. The twirling motion is unexpected because most leaf-like objects fall in a less regular fashion. Collect some for a rainy day. Have children spread out so no one bumps heads, then toss the seeds into the air. The children in one class leaped to catch then bent low to pick up the seeds, over and over again. The seeds will keep for a few weeks.
Maple Seed Helicopters by NASA has a lesson with plans for making additional rotating “seeds” from stiff paper, with information on the “why” of it. My grandfather showed us how to carefully split the seed casing, opening it to reveal the sticky cotyledons (first leaves and food for the sprouting seed). Then he put the sides on his nose so he looked like a rhinoceros! See a photo of how to do this on The BIG Fieldtrip, the Kirkman family blog, October 13th, 2009 entry, Bella’s Seeds (thanks, Kirkman family!). Some maple trees produce seeds in the fall and some in the spring so we get two chances a year to play with these seeds.
Peggy
By Mary Bigelow
Posted on 2010-04-23
Using More Picture-Perfect Science Lessons: Using Children’s Books to Guide Inquiry, K-4 in your classroom is easier than ever! NSTA’s ClassPacks, each sufficient for a class of 28 students, are lesson-specific collections of materials—an unmatched time-saver and a great deal.
Picture-Perfect Science/STEM Lessons are created by classroom veterans Karen Ansberry and Emily Morgan. They know elementary educators are crunched for science instructional time and could often use refresher explanations of scientific concepts.
Using More Picture-Perfect Science Lessons: Using Children’s Books to Guide Inquiry, K-4 in your classroom is easier than ever! NSTA’s ClassPacks, each sufficient for a class of 28 students, are lesson-specific collections of materials—an unmatched time-saver and a great deal.
Picture-Perfect Science/STEM Lessons are created by classroom veterans Karen Ansberry and Emily Morgan. They know elementary educators are crunched for science instructional time and could often use refresher explanations of scientific concepts.