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If you’re waiting to be convinced that computers offer more than pricey bells and whistles in the classroom, this is the book that will open your mind to technology’s potential. But even if you’re an early (and avid) adopter, you’ll discover intriguing new concepts for technology-based teaching strategies that help students really learn science concepts.

The featured technologies range from the easy to master (such as digital cameras) to the more complex (such as Probeware and geographic information systems). Among the chapter topics:
If you’re waiting to be convinced that computers offer more than pricey bells and whistles in the classroom, this is the book that will open your mind to technology’s potential. But even if you’re an early (and avid) adopter, you’ll discover intriguing new concepts for technology-based teaching strategies that help students really learn science concepts.

The featured technologies range from the easy to master (such as digital cameras) to the more complex (such as Probeware and geographic information systems). Among the chapter topics:
If you work with linguistically and culturally diverse students, you and your students will benefit from the foundation this book provides for teaching both science and language. Science for English Language Learners brings you the best practices from different but complementary fields of science education and English language teaching, integrating the two.

The book is designed so you can easily dip in and out of the topics you want. It’s organized into four sections:

1. Principles and practices that science and English teaching share
If you work with linguistically and culturally diverse students, you and your students will benefit from the foundation this book provides for teaching both science and language. Science for English Language Learners brings you the best practices from different but complementary fields of science education and English language teaching, integrating the two.

The book is designed so you can easily dip in and out of the topics you want. It’s organized into four sections:

1. Principles and practices that science and English teaching share
A classic resource for teachers is now back in an updated edition! Using an inductive and experimental approach, Animal Coloration aims to increase students’ awareness of the ways wild organisms are adapted to their environments. Even though the activities suggest a specific teaching procedure, each activity is also intended to be an investigation by the students and an opportunity for them to make and test hypotheses based on their observations. Through these activities, students will begin to appreciate how scientific knowledge and understanding are attained.
A classic resource for teachers is now back in an updated edition! Using an inductive and experimental approach, Animal Coloration aims to increase students’ awareness of the ways wild organisms are adapted to their environments. Even though the activities suggest a specific teaching procedure, each activity is also intended to be an investigation by the students and an opportunity for them to make and test hypotheses based on their observations. Through these activities, students will begin to appreciate how scientific knowledge and understanding are attained.
Behind the stereotype of girls’ not doing well in science are some reasons, mostly based on one fact: They are often—and most often inadvertently—treated differently in the classroom. The authors of Girls in Science engaged in years of working under a grant funded by the National Science Foundation on this all-too-real problem of gender-equitable science teaching.
Behind the stereotype of girls’ not doing well in science are some reasons, mostly based on one fact: They are often—and most often inadvertently—treated differently in the classroom. The authors of Girls in Science engaged in years of working under a grant funded by the National Science Foundation on this all-too-real problem of gender-equitable science teaching.
Introduce your students to the magic of stories—delivered through educational case studies that will help you put science into vivid context. Start With A Story offers an abundance of strategies, tips, examples, ideas, and resources to free your students (and you) from dry lecture formats.

Start With A Story is a collection of more than 40 essays published primarily as columns in NSTA’s member publication, Journal of College Science Teaching. The collection examines every aspect of the case study method.
Introduce your students to the magic of stories—delivered through educational case studies that will help you put science into vivid context. Start With A Story offers an abundance of strategies, tips, examples, ideas, and resources to free your students (and you) from dry lecture formats.

Start With A Story is a collection of more than 40 essays published primarily as columns in NSTA’s member publication, Journal of College Science Teaching. The collection examines every aspect of the case study method.
 

Critical science "skills"

By MsMentorAdmin

Posted on 2009-06-27

What are the critical skills you think students need to be successful in science?
—Niki, Baltimore, Maryland

In science department meetings, we often agonize over what and how much content to “cover.” We lament that students don’t seem to remember much content from one year or subject to the next. Inquiry and in-depth study often take a back seat to presenting content that will be on a final exam or state test.
When identifying skills critical to science, I wonder if we should include traditional skills such as balancing equations, calculating answers to problems, measuring, or memorizing definitions? Communications and mathematics are certainly critical in science, but they should be put in context. Most of us as adults read for a purpose such as entertainment or information. Most of our writing is purposeful, too: memos, reports, logs, journals, self-expression. Few of us do arithmetic calculations without a specific purpose (although I am addicted to KenKen puzzles).
One of my favorite quotations (often attributed to Albert Einstein) is “Education is what’s left after you’ve forgotten everything.” In other words, even though we might not remember everything, we take basic experiences from a learning environment with us into new situations. When I switched from teaching middle to high school, the principal asked about my philosophy of learning. I had never written any formal document, so I listed the “big picture” skills I wanted my students to take away from my classes. I also posted these in my classroom, discussing them with the students:

  • Problem solving: Not in the sense of the problems at the end of the chapter or “problems” such as global warming or pandemic diseases, but the ability to work through a situation by asking questions, defining problems, investigating, engaging in inquiry, observing, finding and evaluating information, communicating (both verbally and graphically), and active listening.
  • Risk-taking: We need to get students out of their intellectual comfort zones and try something where the answers may not be known ahead of time, if at all.
  • Imagination/creativity: Kindergarten students are wonderful at this, and then we somehow program it out of students. We insist they do things exactly as we tell them to do, or we give students a template (a good thing to start with), then never allow them to deviate from it or customize it to their own learning.
  • Dedication: It’s easy for students to be distracted, but seeing a task through to completion, knowing one’s strengths, working on one’s weaknesses, and striving for more than mediocrity are real boosts to self-esteem—even better than someone saying “good job.”
  • Enthusiasm (my students preferred the word enjoyment, which was fine with me): Learning is interesting and it’s part of what makes us human. Not all learning experiences are necessarily “fun,” but good teachers can make any topic interesting by showing their own passion and through engaging classroom activities.
These “skills” are not measurable in the sense of a standardized test, and they evolve as students progress through the years, gaining more exposure to content and in learning subject-specific skills. They require modeling by the teacher: if a teacher is not a risk-taker or has little enthusiasm for a topic, it’s hard for students to develop that attribute. I found it was important to make the classroom a “safe” place where students can develop and use these skills, to put them in the context of the content topics, to recognize and support student efforts in these areas, and to help students see the connections among the content, other topics in science, other content areas, and within their own lives.

Lifelong and independent learning beyond the classroom is based on these skills. We have to realize that not all students will pursue a science-related career or even have the same passion for the subject we have. But they will be voters, taxpayers, parents, employees, business owners, travelers, professionals, and hobbyists who will need not only basic content knowledge but also the skills to be lifelong learners in science-related issues. How many of our schools’ mission statements contain that phrase? What are we doing to make sure this happens?

What are the critical skills you think students need to be successful in science?
—Niki, Baltimore, Maryland

In science department meetings, we often agonize over what and how much content to “cover.” We lament that students don’t seem to remember much content from one year or subject to the next. Inquiry and in-depth study often take a back seat to presenting content that will be on a final exam or state test.

Where do rotten apples go after they fall off the tree? Does the temperature of the wood affect the heat of the fire? Can you make water boil faster? How large a mirror do you need to see your whole body? This second volume of 15 mystery stories examines more science concepts and reinforces the value of learning science through inquiry. Each mystery presents opportunities for students to create questions, form hypotheses, test their ideas, and come up with explanations.
Where do rotten apples go after they fall off the tree? Does the temperature of the wood affect the heat of the fire? Can you make water boil faster? How large a mirror do you need to see your whole body? This second volume of 15 mystery stories examines more science concepts and reinforces the value of learning science through inquiry. Each mystery presents opportunities for students to create questions, form hypotheses, test their ideas, and come up with explanations.
Science does not exist in a vacuum and, therefore, shouldn’t be taught that way. In that spirit, Activities Linking Science With Math, K-4, is a hands-on guide for preservice and inservice elementary school teachers who want to connect science instruction with other areas of study—including visual arts, social sciences, language arts, and especially math.
Science does not exist in a vacuum and, therefore, shouldn’t be taught that way. In that spirit, Activities Linking Science With Math, K-4, is a hands-on guide for preservice and inservice elementary school teachers who want to connect science instruction with other areas of study—including visual arts, social sciences, language arts, and especially math.
 

Celebrate pink!

By Peggy Ashbrook

Posted on 2009-06-23

What was your favorite color when you were five? Many young girls like pink, a stereotypically female color.
Do girls who love pink ever grow up to be women who do work that historically has more often been done by men? What can we do to encourage all children to think of themselves as capable and support an interest in science? Remember to alternate saying “boys and girls” with “girls and boys”? Monitor who we call on and call on girls 50% of the time? Be sure to display pictures of all kinds of people, including women, doing science?
Many women scientists say they pursued a career in science because a teacher or other mentor encouraged them, and believed in their capabilities, say Ashley Campbell and Gerald Skoog in Preparing Undergraduate Women for Science Career, (The College Science Classroom, March/April 2004 33 (5):24-26). This idea is echoed in many of the life stories of women scientists on the National
Aeronautics and Space Administration’s the “Women of NASA” page. Print out and post some of the photos to put in a display of scientists at work to inspire and inform children. and testify to women’s presence in science.
The Institute of Educational Sciences Practice Guide “Encouraging Girls in Math and Science” (2007) recommends five key practices. View it on the U.S. Department of Education website. The practical suggestions from Doing What Works are geared towards middle and high school age students but are food for thought for all of us.

A recent report from a National Research Council panel states, “women are not applying for tenure-track jobs at research-intensive universities at the same rate that they are earning Ph.D.s” although “those who do apply are interviewed and hired at rates equal to or higher than those for men.“ The report also noted that “The surveys revealed that most institutional strategies to try to increase the proportion of women in the applicant pool — such as targeted advertising and recruiting at conferences — did not show significant effectiveness, the report says.  One strategy did appear to make a difference: Having a female chair of the search committee and a high number of women on the committee were associated with a higher number of women in the applicant pool.
Implicit Association Tests taken by half a million people in 34 countries revealed that the stereotype of associating science with males is held by most of the test takers in a study published in the Proceedings of the National Academy of Sciences. Lead investigator Brian Nosek, an associate professor of psychology at the University of Virginia, said in UVA Today, “We found a general tendency, across every country that we investigated, that people on average have an easier time associating science concepts with male, rather than with female.”
Some tactics I use to try to reduce any suggestion of excluding girls from science are to be sure to call on girls at least half the time (yes, I count), use the pronoun “it” when talking about animals whose sex isn’t known or alternate “she” and “he”, post pictures of female and male scientists from many cultures, and ask girls as often as boys to help other children with science questions or problems. My take-away thought on this is that every early childhood teacher can do science activities with their class with eyes open to our own biases, in a way that creates a positive environment for all children for loving science. Much later in their education, some will decide not to pursue a career in science, but it won’t be because they think their gender prevents their success.
Share your tactics by clicking on the word “Comments” below!
Peggy

What was your favorite color when you were five? Many young girls like pink, a stereotypically female color.

Because you demanded it! Since publication of Volume 1 of this series, thousands of teachers are using these innovative classroom tools to improve student learning in science. Following in the footsteps of earlier volumes in the Uncovering Student Ideas in Science series, this all-new book provides short, easy-to-administer probes that determine what misconceptions students bring to the classroom about the nature of science and about physical, life, Earth, and space sciences.
Because you demanded it! Since publication of Volume 1 of this series, thousands of teachers are using these innovative classroom tools to improve student learning in science. Following in the footsteps of earlier volumes in the Uncovering Student Ideas in Science series, this all-new book provides short, easy-to-administer probes that determine what misconceptions students bring to the classroom about the nature of science and about physical, life, Earth, and space sciences.
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