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Two-year colleges are critical to science education’s future—in fact, some data indicate that half of future science teachers will take their first years of science at a two-year school. To address the unique challenges of this special setting, Teaching Science in the Two-Year College presents 24 articles featuring the most useful and relevant insights and advice from NSTA’s Journal of College Science Teaching. The collection is divided into four sections, all written from the two-year college perspective:
Two-year colleges are critical to science education’s future—in fact, some data indicate that half of future science teachers will take their first years of science at a two-year school. To address the unique challenges of this special setting, Teaching Science in the Two-Year College presents 24 articles featuring the most useful and relevant insights and advice from NSTA’s Journal of College Science Teaching. The collection is divided into four sections, all written from the two-year college perspective:
“Some forty percent of all new science teachers leave the profession within five years, and too many science teachers are wedded to their textbooks and the routines they acquired during their collegiate years." What can be done to retain new science teachers and reinvigorate more experienced science teachers? Allow Science Teacher Retention: Mentoring and Renewal to “mentor” you as you reach toward this lofty but attainable goal.
“Some forty percent of all new science teachers leave the profession within five years, and too many science teachers are wedded to their textbooks and the routines they acquired during their collegiate years." What can be done to retain new science teachers and reinvigorate more experienced science teachers? Allow Science Teacher Retention: Mentoring and Renewal to “mentor” you as you reach toward this lofty but attainable goal.
 

Classroom management

By Mary Bigelow

Posted on 2009-07-17

Science Scope cover, summer 2009“Would you like to be a student in your classroom?” This month’s guest editorial says it all when it comes to classroom management. A well-organized science lab with students that are engaged and enthusiastic—it doesn’t get any better than that! But it takes a lot of planning, effort, and reflection to make it so. The articles in this issue have variety of suggestions from many perspectives. I would encourage teachers at the upper elementary and high school levels to browse the contents, too.
The best way to solve discipline problems is to prevent them from happening. We science teachers have an advantage—interesting content and hands-on investigations to keep students focused and engaged. In Managing Inquiry-Based Classrooms, Classroom Management and Inquiry-Based Learning, and Classroom Management, Rules, Consequences, and Rewards! Oh, My!, the authors share their teacher-tested strategies for making the science classroom an engaging and safe place for learning. Classroom Management: Setting Up the Classroom for Learning illustrates several ways to configure a classroom for various learning activities. For information on laboratory safety, I’d recommend the NSTA publication Inquiring Safely: A Guide for Middle School Teachers and the NSTA Guide to Planning School Science Facilities.
In addition to the resources suggested at the end of the articles, check out SciLinks for more information on classroom management. I’d also recommend the work of Robert Marzano and his book Classroom Management That Works, in which he synthesizes current research on the topic and provides practical suggestions based on this research. If you or any of your colleagues are members of ASCD, you can read the book and the companion handbook online for free!
When students are off-task, our first question should be “what’s the task?” Most middle school students are motivated by interesting assignments and being able to work with each other. Science Scope always has suggestions for interesting and challenging activities and assessments, such as Cartooning Your Way to Student Motivation (I’ve also seen teachers ask students to respond in a haiku format or as a tweet.)
I was surprised by the content of the article Teaching: A Reflective Process. After using an asseement probe, the teachers developed an an interesting activity to model the water cycle and address the students’ misconceptions. SciLinks has more activities and information on the water cycle.

Science Scope cover, summer 2009“Would you like to be a student in your classroom?” This month’s guest editorial says it all when it comes to classroom management.

 

"I had a carrot for breakfast"

By Peggy Ashbrook

Posted on 2009-07-17

From The Early Years photo cache (click the pic for more).


I had a carrot for breakfast.” No, not me, this was a young child, a participant in the Early Sprouts program. Young children’s connection between growing food and appreciating it at the table is explored in the article “’Early Sprouts’: Establishing Healthy Food Choices for Young Children” by Karrie A. Kalich, Dottie Bauer, and Deirdre McPartlin in the July 2009 issue of NAEYC’s Young Children. This article serves as an introduction for early childhood teachers who want to do a similar “from garden-to-table” project and link it to nutrition education. I’m going to get the book Early Sprouts: Cultivating Healthy Food Choices in Young Children from Red Leaf Press, where the ideas are further developed and try the recipes! Sample recipes are available at the Early Sprouts website.
The author says that they teach children that taste preferences can change. They say “I like it a lot!” “I like it a little bit,” and “I don’t like it yet” to indicate strong positive, neutral, and negative or unfamiliar reactions to foods. And their students pick up and use these expressions.
Here’s my taste preference change story:
Once upon a time a friend brought me some spring rolls she made in the Vietnamese tradition, heavy on cilantro (an herb I had not yet eaten). My first bite I spit out, thinking that some non-food item had gotten mixed up in the spring rolls because I was tasting some kind of petroleum flavor. I soon had many more tastes of the cilantro leaf in Indian, Latin American, and more Vietnamese cooking–although I pushed it aside, I got small tastes. At some unnoted point I began thinking of it as a food flavor and now I love it and use it often. What exactly happened in my brain?
The Early Sprouts program is on-going, collecting scientific data on how growing food can enhance young children’s health through changing food preferences.
For more help in gardening with young children, the online newsletter Kids Gardening News from the National Gardening Association has tips for gardening, grant searches, and workshops. Find out what is happening in your area!
I’m going to try again to garden with the children and teachers in the programs where I’m a science teacher. This time I’ll try using a container with a water reservoir and plant peas and greens in September.
Peggy

From The Early Years photo cache (click the pic for more).

 

Students and cheating

By MsMentorAdmin

Posted on 2009-07-17

With all of the technology that students have (e.g., cell phones, laptops), I’m concerned about “cheating” on tests and writing assignments.
—Anne, Rochester, New York

This is a very timely question, in light of a recent report Hi-Tech Cheating: What Every Parent Should Know from Common Sense Media.
In the old days, students tried to get away with not studying or doing original assignments: turning in a “report” copied from an encyclopedia; writing notes on a shirt cuff or a piece of paper to use during a test; spreading the word about pop quizzes; discussing the content of a test; copying homework on the bus; sharing copies of old tests; forging parents’ signatures; paraphrasing information without citing sources; reading summaries of books rather than the originals.
I suspect this is a high-profile issue today because high-tech applications make it easier: copying and pasting, texting, downloading from online term paper factories, accessing online answers and solutions to textbook review questions and problems, getting online homework help, taking pictures of a test with a cellphone camera, storing information on an iPod. So is the solution to ban all electronic devices in the schools? The study indicates students still use them even in schools that do so. But there are many creative and legitimate uses of these tools in learning environments. The study suggests we need to discuss the appropriate uses of these devices in terms of “digital literacy.”
From the survey, it appears many students don’t know what cheating really means, especially in terms of these newer media, and they assume helping (or being helped by) a friend is acceptable in every situation. (The incidence of cheating was the same with honors and non-honors students.)
It might be helpful to discuss the topic as a faculty and develop a school-wide policy about academic integrity. What is your school’s definition of cheating (including examples)? What are the consequences? Is the policy published in the student handbook, on the school’s website, and in course syllabi? How will parents (who, according to the survey, are aware of cheating but not by their own children) be informed of the policy?
In addition to having consequences, it’s also important to be proactive with the students. Have a frank discussion about what is or is not acceptable. For example, in a cooperative learning situation, helping each other is desirable; in other situations, individual accountability is necessary. Review the differences between copying, paraphrasing, summarizing, and original thoughts. Set interim due dates for parts of a longer projects to help students organize their time instead of waiting until the last minute when the temptation to copy is greater. It’s easy to say “we shouldn’t have to do this” or “why didn’t they learn this in an earlier grade,” but the technology and the online resources change rapidly along with student access to them. We assume students know the boundaries, but the study suggests they do not.
Does how assignments are graded affect the temptation to cheat? Do we evaluate the process as well as the correctness of a response? Do we demand perfection on even practice assignments or is it permissible for students to make mistakes during practice exercises without a fear of failing the unit? Do we encourage students to submit interim drafts of important writing assignments for our feedback? (I realize this is time-consuming, but I’d rather have students submit original writing in need of a little tweaking rather than a perfect report simply downloaded from another source.) Do we give students interesting, meaningful assignments rather than busywork? Do students understand the purpose of these assignments?
In a practical sense, be aware or “with it” in the classroom. Resist the temptation to sit in the front of the classroom and grade papers while students take a test or work on an assignment. Use formative assessments during the lesson to check student understanding on-the-spot. There are lots of tools for creating multiple versions of an objective test (same questions but rearranged). Give different essay questions to each class—you’ll also get a broader view of what students learned. Some teachers encourage students to use their science notebooks during a test.
Model appropriate behavior yourself. Be sure to cite any sources you use for a handout or worksheet (and credit yourself if it’s original). Model how to cite direct quotes and paraphrased or summarized information. Review and model note-taking and study skills useful for your class. Resist the temptation to check your own e-mail or text messages during class. And learn more about the very positive and creative applications of these technologies that are part of our students’ everyday lives.

With all of the technology that students have (e.g., cell phones, laptops), I’m concerned about “cheating” on tests and writing assignments.
—Anne, Rochester, New York

This is a very timely question, in light of a recent report Hi-Tech Cheating: What Every Parent Should Know from Common Sense Media.

 

Summer reading

By Mary Bigelow

Posted on 2009-07-08

The Science Teacher cover, Summer 2009As I head off to the beach next week, along with a few mystery novels, I’m going to pack some of the books I ordered at the NSTA conference last spring, a few back issues of NSTA journals I want to review, and several of the resources listed in Current Research: Summer Reading Suggestions in this issue. It will be a full bag, but armed with my highlighter and sticky notes, I’m looking forward to catching up on my reading!
The connection between reading and science is a professional interest of mine, so I was especially interested in the article Reading Aloud: A Springboard to Inquiry. The author makes a compelling case for the value of reading trade books aloud in the classroom, especially if the class has many struggling readers. She provides a list of suggested titles of content-rich books that are written for students through grade 9 (or age 15). She also has suggestions for how (and when) to use the read-aloud strategy.
I was visiting a high school science class where, rather than using a “round robin” style of oral reading by students, the teacher read aloud sections of the textbook. The class had many struggling readers in it, and the advantage was that the students heard the text read fluently as they followed along. The teacher modeled what a good reader would do – stop and reflect, make connections to the graphics on the page, note the text clues, and highlight or add questions to the margin. When I asked the students what they thought, one said “It’s like a live podcast.” The teacher did not read aloud the entire chapter, just those sections with essential concepts or that were vocabulary-dense. For more information on think-alouds and other content reading strategies, check out the SciLinks Reading and Writing in Science websites.
Some research suggests that the quality of a mentoring program can affect teacher retention. The article Helping New Science Teachers has practical suggestions for mentoring teachers, beyond helping them with paperwork and school routines. These suggestions are directly related to science instruction. This article would also be helpful to new teachers whose mentor is not another science teacher (NSTA’s MsMentor is ready to assist with questions and there is a forum for new teachers on the NSTA Community site. New high school teachers could also benefit from reading Science Scope, the NSTA journal for middle school, especially if they are teaching students whose experiences in science have been minimal. And more ideas can be found in SciLinks’ New Teacher Resources list of websites.

The Science Teacher cover, Summer 2009As I head off to the beach next week, along with a few mystery novels, I’m going to pack some of the books I ordered at the NSTA conference last spring, a few back issues of NSTA journals I want to review, and several of the resources listed in Current Research: Summer Re

 

Getting (and staying) organized

By MsMentorAdmin

Posted on 2009-07-08

For the first time, I’ll be teaching two different subjects (biology and environmental science). Do you have any suggestions for how to organize my unit plans, lesson plans, and other resources?
—Don, Cedar Rapids, Iowa

I’m not an organized person by nature. So when I taught four different courses in two different labs, I had to force myself to create a system to coordinate four sets of resources and documents and archive them from one year to the next. It was a struggle, but eventually I was able to use my time to revisit and revise lessons rather than recreating them.
My colleagues used to call me the binder queen of unit plans (I’ve since progressed to electronic files). My school had a written curriculum for each course. Rather than storing the curriculum tome in the file cabinet, I took it apart and put each unit plan in a separate binder. I also inserted my lesson plans for that unit as well as copies of the assessments, handouts, and other notes.
For lesson plans, the best thing I ever did was to get rid of the spiral “Plan Book” with its 2×3 inch block for each class period. There wasn’t enough room to record the plan for an entire lesson, other than a cryptic “pp. 52-56 #1-5” or “Algae Lab” which was not much help the following year.
Does your school have an official lesson plan format? If you’re using a framework such as Understanding by Design or 5E, there may be sample lesson plans posted on the project’s website. If you don’t have a suggested template (and there are schools that don’t require teachers to have written plans) here are some features I would include (keeping in mind that a lesson may span several class periods):

  • Lesson title and dates
  • The unit goals (or themes, essential questions, big ideas) supported by the lesson
  • Lesson objectives
  • Materials needed (web resources, supplemental texts, technology, PowerPoints, handouts, assessments, lab materials, notebooks, office supplies)
  • Introduction to activate prior knowledge (e.g., an advance organizer; warm-up activity; recap of previous lesson; Know, Want To Know, Learned, or KWL, chart; an interesting anecdote or story)
  • Description of the lesson content (concepts, discussions, lab investigations, cooperative learning activities, informal assessments, vocabulary, opportunities for practice or application)
  • Lesson assessment (quiz, group presentation, lab report, notebook entry)
  • Homework related to the lesson objectives
  • Closure or bell-ringer
  • Adaptations for students with special needs or extensions for students beyond the basic objectives

Annotate the lesson and unit plan, either on the document or with a sticky note. Reflect on what went well as well as what did not work (and what you did to fix it). Describe in detail any modifications to activities or assessments. Correct any typos or other errors right away.
A colleague suggests color coding course materials and finding a clip art logo for each course (e.g., a microscope for biology, a tree for ecology). Put this in the upper right hand corner of any printed page and use it as you sort through the papers on your desk.
Ask your technology coordinator if your school already has any online organizational tools and take advantage of the organizational features on your computer. You can color code the folders and files on your computer or change the folder icon to your course logo. Have a folder for each course and a subfolder for each unit. With an electronic system you can archive PowerPoints, photos, podcasts, and video clips as well as hard copies of lessons, handouts, and assessments.
In addition to backups on the school’s server, invest in a flash drive, and backup to both regularly. Flash drives are especially helpful if you use different computers at home and in school. As an alternative, you could store your files in a file sharing site, such as Google Docs, which would enable you to access and edit the files from any computer. Files stored there also maintain a version history, so you can go back to earlier versions of lessons as needed.
In addition to electronic files, I still like the concept of binders, where I can flip through an entire unit or workshop without opening lots of files. Once a binder queen, always a binder queen!
Creating a system is time-consuming at first, and you’ll modify it as you discover what works best for you. This investment will pay off the next time you teach the courses. Good luck!

For the first time, I’ll be teaching two different subjects (biology and environmental science). Do you have any suggestions for how to organize my unit plans, lesson plans, and other resources?
—Don, Cedar Rapids, Iowa

As a science educator, you know the importance of using best safety practices to protect your students physically during hands-on science instruction. But do you also know how to protect yourself legally even in aging facilities and crowded labs? Learn the regulations and how to apply them with this clear, easy-to-use guide to both safety practices and legal standards.
As a science educator, you know the importance of using best safety practices to protect your students physically during hands-on science instruction. But do you also know how to protect yourself legally even in aging facilities and crowded labs? Learn the regulations and how to apply them with this clear, easy-to-use guide to both safety practices and legal standards.
This must-have tool for applying the Standards in real classrooms has been fully revised for 21st century high schools. Of course, the best parts haven’t changed! Our top-selling practical guide still demonstrates how you can bring to life the vision of the Standards for teaching, professional development, assessment, content, programs, and school systems. Throughout the book you’ll learn ways to form productive partnerships for reform, inside and outside your building, with other education stakeholders.
This must-have tool for applying the Standards in real classrooms has been fully revised for 21st century high schools. Of course, the best parts haven’t changed! Our top-selling practical guide still demonstrates how you can bring to life the vision of the Standards for teaching, professional development, assessment, content, programs, and school systems. Throughout the book you’ll learn ways to form productive partnerships for reform, inside and outside your building, with other education stakeholders.
Focus on frequent, accurate feedback with this newly expanded guide to understanding assessment. Field-tested and classroom ready, it's designed to help you reinforce productive learning habits while gauging your lessons' effectiveness. The book opens with an up-to-date discussion of assessment theory, research, and uses. Then comes a wealth of sample assessment activities (nearly 50 in all, including 15 new ones) in biology, chemistry, physics, and Earth science. You'll like the activities' flexibility.
Focus on frequent, accurate feedback with this newly expanded guide to understanding assessment. Field-tested and classroom ready, it's designed to help you reinforce productive learning habits while gauging your lessons' effectiveness. The book opens with an up-to-date discussion of assessment theory, research, and uses. Then comes a wealth of sample assessment activities (nearly 50 in all, including 15 new ones) in biology, chemistry, physics, and Earth science. You'll like the activities' flexibility.
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