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Organized into three practical parts, The Creation Controversy provides teachers with insights into modern science and the Book of Genesis, effective strategies for teaching evolution and other controversial topics, and the NSTA Position Statement on Evolution.
Organized into three practical parts, The Creation Controversy provides teachers with insights into modern science and the Book of Genesis, effective strategies for teaching evolution and other controversial topics, and the NSTA Position Statement on Evolution.
Here’s an interesting statistic: More than half of all chemists work on some aspect of polymers. For high school teachers who want to introduce polymer science basics, properties, and uses, this book is uniquely helpful—much deeper than simple monographs or collections of experiments, but much more accessible than college texts.
Here’s an interesting statistic: More than half of all chemists work on some aspect of polymers. For high school teachers who want to introduce polymer science basics, properties, and uses, this book is uniquely helpful—much deeper than simple monographs or collections of experiments, but much more accessible than college texts.
There’s got to be more to professional development than in-service workshops. This thoughtful book paves the way to change. It shows the circumstances under which professional development has the most impact on student learning, reviews programs that work, and offers practical ideas about how professional development can sustain science education reform. The following topics are addressed:
• Changing professional development to help with standards-based reform

• Building a professional development program
There’s got to be more to professional development than in-service workshops. This thoughtful book paves the way to change. It shows the circumstances under which professional development has the most impact on student learning, reviews programs that work, and offers practical ideas about how professional development can sustain science education reform. The following topics are addressed:
• Changing professional development to help with standards-based reform

• Building a professional development program
Make science teaching better for every student. Help learners from different backgrounds—and with different learning styles—by developing new skills, resources, and knowledge. This book discusses the ways in which professional development can help you handle equity and diversity issues in the classroom. Among the topics:

• How professional development can help teachers motivate and increase participation by women and minorities in science

• Using professional development to promote change

• Professional development’s role in leadership development and reform
Make science teaching better for every student. Help learners from different backgrounds—and with different learning styles—by developing new skills, resources, and knowledge. This book discusses the ways in which professional development can help you handle equity and diversity issues in the classroom. Among the topics:

• How professional development can help teachers motivate and increase participation by women and minorities in science

• Using professional development to promote change

• Professional development’s role in leadership development and reform
 

Teaching with the community

By Mary Bigelow

Posted on 2009-04-21

When I saw the theme for this issue, Teaching with the Community, what came to mind was students visiting community resources such as museums, zoos, and parks on field trips or students and teachers using the community as a classroom. But the articles in this issue have other interpretations of “community.”
The State High Biodiesel Project describes a collaboration between the science department and the agricultural science program to turn fryer oil from the cafeteria into an alternative energy source. Perhaps other institutions in the community can learn from these students (and their teachers). On the web, you can find out how to Make Your Own Biodiesel and the authors provide the details of their lessons on Alternative Fuels
The community engaged in Collaboration at the Nanoscale consists of high school classes and university faculty. They formed a scientific community to study microbes and viruses safely, using advanced technology. For more information on the topic of microbiology, go to SciLinks and enter the term “micro” for lists of websites related to microbes, microbiology, microscopes, and electron microscopy.
Student research on a topic of interest to their communities, such as indoor air quality, is demonstrated in the article The Big Sky Inside.According to the authors, the data collected by the students is being used beyond the project to investigate other air quality issues. If you want to get some ideas for other projects, check out Solving Environmental Problems in SciLinks.
Use the article EQUIPping Teachers to learn how to change your classroom into a community of inquiry. The authors describe a tool/rubric that can help you improve the level of inquiry in your class activities. It’s an excellent article that everyone should read. For more information on inquiry, see Making It Inquiry 9-12 in SciLinks.

When I saw the theme for this issue, Teaching with the Community, what came to mind was students visiting community resources such as museums, zoos, and parks on field trips or students and teachers using the community as a classroom. But the articles in this issue have other interpretations of “community.”

 

Recommended most highly

By AnnC

Posted on 2009-04-17

This may seem like a simple thing, but I get requests for a considerable number of letters of recommendation every year. I suspect you do, too. I almost always say yes–partly out of being somewhat flattered, I’ll admit, but also because the majority of students (and faculty) who ask me for these letters are perceptive enough to recognize ahead of time that I have a fairly high opinion of them. And I must just be very friendly.

Just for fun, I kept a count one year. I wrote 45 separate letters for 23 different individuals. And yes, that means I wrote 23 new letters starting with blank pages. Most of the others required modest modifications of text that I already felt described this individual well. But in any case, anyone who has plopped themselves down in front of a blank, white form replete with blinky cursor knows that this isn’t a small amount of time…or effort.
But truly, I usually don’t much mind. But in the middle of a difficult letter, in the midst of a mild bout with writer’s block, I started wondering if our increasing mutual scrutiny has resulted in ‘regard inflation’ in the same way we’re experiencing ‘grade inflation’. Of course, there’s no way to know. But, the scientist in me just itches to find a way to find out.
I’ve seen a few examples (possibly apocryphal) of letters with double entendre that appeared at first read to be supportive of a candidate’s application, but…. I’m wondering if any of my readers have any examples (either of their own creation, or anecdotal) they would be willing to share here. Any great bon mots out there???
And how has your own experience been with letters? If you have a request from a student for whom you know you won’t write a glowing report, how do you decline? And do each of you get hit with 45 letters in a year, or does it just feel that way???
Please let me know. If you don’t wish to comment here, write me at acutler@uindy.edu. 

This may seem like a simple thing, but I get requests for a considerable number of letters of recommendation every year. I suspect you do, too. I almost always say yes–partly out of being somewhat flattered, I’ll admit, but also because the majority of students (and faculty) who ask me for these letters are perceptive enough to recognize ahead of time that I have a fairly high opinion of them. And I must just be very friendly.

 

Handouts about science to share with families—add your favorite resources

By Peggy Ashbrook

Posted on 2009-04-16

“What kind of science do you teach young children?!” people sometimes ask when they hear that the preschool curriculum includes science. Being able to share how the science activities are age appropriate, lay the groundwork for deeper understanding in later years, and support literacy and math learning, helps families understand that science is a natural part of an early childhood program. Including science activities does not mean that the program is only for children whose thinking is advanced beyond their years, nor does the program exclude imaginative play and artistic work.
Communicating what early childhood science is all about encourages families to support science learning at home. Here is a book and a few downloadable resources that can help.
What is a Scientist? by Barbara Lehn with photographs by Carol Krauss (1999, Millbrook Press): beginning with “A scientist is a person who asks questions and tries different ways to answer them,” and ending with “A scientist has fun,” this book’s simple statements and clear photographs describe science as children (and scientists) practice it.
From Australian government, the National Science and Technology Centre’s Questacon—a 36-page pamphlet with wonderful photos and general instructions for activities which are easy to implement at home.
Center for Inquiry Science: sample “Science Out of School” newsletter articles describing simple activities with the goal of “communicating to parents that science activities can be accessible, fun, and informative.”
TryScience—the Parent Page:  download a generic or city-specific brochure providing useful information and hints on science activities for parents and families everywhere, and listing local science resources.
Will you list your favorite books or pamphlets in a comment (click on the word “comments” below)?
Peggy

“What kind of science do you teach young children?!” people sometimes ask when they hear that the preschool curriculum includes science. Being able to share how the science activities are age appropriate, lay the groundwork for deeper understanding in later years, and support literacy and math learning, helps families understand that science is a natural part of an early childhood program. Including science activities does not mean that the program is only for children whose thinking is advanced beyond their years, nor does the program exclude imaginative play and artistic work.

 

Easy clean up tip for fine-grained materials

By Peggy Ashbrook

Posted on 2009-04-15

Here’s a tip for simplifying the clean up of dry, fine materials. Put a smooth cloth down under the item, such as a Tenebrio beetle container or a tabletop sensory box. Use a cotton cloth that is larger than the container, perhaps a tablecloth—large enough so it covers the table or children can sit on it around the box on the floor. Any bran or sand or rice that spills can be contained by the cloth and transported to a trash can (or back into the container if still clean).
A cotton cloth will not become as charged with static electricity as a synthetic or silk cloth, so particles such as bran or feathers will more easily fall off when gently shaken over the trash can.
One year I used a white cloth with a realistic black insect print and some children were reluctant to sit on it! When a beetle was dropped on it, it became a lesson in camouflage.
Peggy

Here’s a tip for simplifying the clean up of dry, fine materials. Put a smooth cloth down under the item, such as a Tenebrio beetle container or a tabletop sensory box.

 

Science partnerships

By MsMentorAdmin

Posted on 2009-04-15

Have you had any experience with partnerships between K-12 teachers and higher education faculty? We’re thinking of writing a grant proposal for this type of project and we’re open to suggestions.
— David, Springfield, Massachusetts

I’ve been involved with several K-16 professional development projects with various “partnership” arrangements. In one case, it was very traditional: the teachers attended workshops or courses conducted by the university. The university staff structured the content and the course schedule specifically to meet the needs of the teachers. The courses were on-site and on-line. The advantage was teachers updated their content knowledge while becoming more familiar with technology and lab equipment. In such a project, it is important to describe and measure what the teachers are learning and determine how this new knowledge will affect their classroom instruction.
In another project, university professors worked with teachers over the summer on special topics aligned with the state science standards, and then the professors visited the schools to interact with the K-6 students. Spending one day each month in an elementary school was a new experience for the university faculty. They learned what challenges the teachers face, including the variety of students (and size of the classes), the obligation to address state science standards, the type of equipment available in the schools, and the emphasis on testing in reading and mathematics. But they enjoyed the students’ energy and enthusiasm and were impressed by their questions and interest. The students in the rural communities served by the project had the opportunity to meet real scientists. (The physics professor was very flattered when some 4th graders asked him to autograph their science textbooks.) The disadvantage of this type of project is that a “special event” atmosphere can occur. For lasting impact, this should be an ongoing collaboration between the teacher and the professor, not just a few gee-whiz demonstrations while the teacher watches from the sidelines. In this project, however, it was interesting to see the elementary teachers and the professors exchange roles as the year progressed.
At the 2009 NSTA conference, I attended a session in which two secondary science teachers described a mentoring project. They spent a summer working as research assistants at a nearby university. They had to learn the content, the lab procedures, and the research model being used. The teachers actually assisted with collecting and analyzing data. In the fall, they returned to their classrooms with new content knowledge, a new sense of accomplishment, and insights into scientific research. They have stayed in communication with their mentors, and because of their relationship with the university, they can borrow specialized equipment for their students to use. This required a long commitment over the summer on the part of both the teachers and the professors, and the professors had to provide background information and training for the teacher “newbies.”
In both of the projects described, the K-12 teachers and the university faculty were compensated for the time they spent beyond their normal teaching duties. Although the compensation was certainly appreciated, the real value was in the new opportunities for collaborative teaching and learning.
There are partnerships providing teachers access to higher education facilities: nature centers, museums, laboratory tours, library resources, special lectures or presentations, and field trip opportunities for students. Some higher education institutions have traveling science specialists who visit schools for demonstrations or assemblies.
Regardless of what your partnership project looks like, it will be important to ask “What happens at the end of the project? What knowledge, skills, and self-confidence will the teachers have to continue to improve student learning?”

Have you had any experience with partnerships between K-12 teachers and higher education faculty? We’re thinking of writing a grant proposal for this type of project and we’re open to suggestions.
— David, Springfield, Massachusetts

 

Astronomy

By Mary Bigelow

Posted on 2009-04-12

Science Scope cover, April - May 2009This is a timely theme, considering that 2009 is the International Year of Astronomy. And this month’s Science Scope is full of relevant teaching ideas and lots of background information, such as simulating the vast spaces in the solar system, working with models of the Earth, incorporating movement into lessons, and finding video resources on Teacher Tube
I must admit that I never had the chance to formally study astronomy in high school or college. But it’s been the focus of a lot of my informal learning – in museums, planetariums, observatories, and with my own telescope. It is certainly one of the oldest of human scientific endeavors in many cultures, as described in the article Solar Paths: An International and Integrated Look at the Sun and the Seasons.
Many of us have done lessons on the phases of the moon, but the authors of Inquiry, Argumentation, and the Phases of the Moon show how to embed this content into a lesson on scientific literacy, argumentation, and critical thinking.
For more information on astronomy, check out a special set of websites in SciLinks. One of my favorites here is NASA Quest, which has many learning activities in astronomy and the atmospheric sciences for grades K-12. One of my morning rituals is listening to StarDate program on my local public radio station. At the website, you can listed to the daily program, download a podcasts of the programs, read current astronomy news, and get lesson plans, classroom activities, and lots of visuals. Of course, if you have particular topics in mind related to astronomy, you can log into SciLinks and search for particular keywords.
I’d also suggest two other sources. One of my favorite sites is Windows to the Universe. This site (many sections of which are in the SciLinks database) takes a comprehensive look at the universe and Earth’s place in it. There are many graphics, lesson plan ideas, and the site is available in Spanish, too. Another good source is Teachers’ Domain. Use the index to get multimedia resources and lesson plan ideas on the topic of “Earth in the Universe.”
You don’t have to wait for a Science Scope themed issue for update in astronomy. The monthly column “Scope on the Skies” has information and suggestions for classroom activities. The author has his own website Current Skies with monthly star maps and other resources.
But getting back down to Earth…. Who would think playing with a pen (something that I do at meetings that once made my supervisor go crazy!) would inspire a science activity described in Everyday Engineering: What Makes a Bic Click? If you’re thinking of including this activity in a study of writing technology, check out the SciLinks topics for pencils and paper. Right now, SciLinks doesn’t have much on how to actually make paper. We’ll work on adding some (if you have any suggestions, put the URL in a comment, and we’ll take a look at it) but here are some directions for making handmade paper from the Exploratorium.

Science Scope cover, April - May 2009This is a timely theme, considering that 2009 is the International Year of Astronomy. And this month’s Science Scope is full of relevant teaching ideas and lots of background information, such as simulating the vast spaces in the solar system, working with models of the Earth, incorporating movement into lessons, and finding vid

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