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“The U.S. Preventative Services Task Force issued new guidelines for mammograms in 2009. What does this mean for someone with a family history of breast cancer? Congress periodically votes on a piece of legislation called the Farm Bill. What does its current iteration mean for the safety of supermarket eggs? Understanding how the latest science affects real people—patients, consumers, voters, and taxpayers—is at the heart of science literacy.”
—From Chapter 1 of Front-Page Science
“The U.S. Preventative Services Task Force issued new guidelines for mammograms in 2009. What does this mean for someone with a family history of breast cancer? Congress periodically votes on a piece of legislation called the Farm Bill. What does its current iteration mean for the safety of supermarket eggs? Understanding how the latest science affects real people—patients, consumers, voters, and taxpayers—is at the heart of science literacy.”
—From Chapter 1 of Front-Page Science

Front-Page Science: Engaging Teens in Science Literacy

“The U.S. Preventative Services Task Force issued new guidelines for mammograms in 2009. What does this mean for someone with a family history of breast cancer? Congress periodically votes on a piece of legislation called the Farm Bill. What does its current iteration mean for the safety of supermarket eggs? Understanding how the latest science affects real people—patients, consumers, voters, and taxpayers—is at the heart of science literacy.”
—From Chapter 1 of Front-Page Science
“The U.S. Preventative Services Task Force issued new guidelines for mammograms in 2009. What does this mean for someone with a family history of breast cancer? Congress periodically votes on a piece of legislation called the Farm Bill. What does its current iteration mean for the safety of supermarket eggs? Understanding how the latest science affects real people—patients, consumers, voters, and taxpayers—is at the heart of science literacy.”
—From Chapter 1 of Front-Page Science
 

Asking for help

By Mary Bigelow

Posted on 2012-01-10

During class, students seem to understand the concepts. However, they don’t do well on the tests. I offer extra help before and after school and at lunch, but few students take advantage of it. I’m a first-year biology teacher, so I’d appreciate some suggestions on how to encourage students to ask questions or seek help when they need it.
— Alisa, Boston, MA
It sounds like your question has several components. First of all, how do you know your students understand the lesson concepts? Teachers often say “Any questions? Good.” When there are no questions, the teacher assumes that everyone understands. Try to provide a context or focus, such as “Any questions about the difference between eukaryotic and prokaryotic cells?” And then wait a few seconds for students to think about their learning and formulate their questions. Frequent formative assessments—bellringers, “ticket out the door,” brief quizzes, responses via clickers or white boards, thumbs up—may also help students to reflect on what they know or don’t know and give you some concrete feedback on their understanding during each lesson.
When can your students get extra help? It’s hard for students who ride busses to come in early or stay late. Many students are involved in extracurricular activities or have afterschool responsibilities. And it’s hard to blame students for not wanting to give up lunch, often the only chance they have to socialize or relax. Some teachers have virtual “office hours” in the evenings or on weekends to provide assistance via e-mail or a discussion forum. But as today’s students seem to prefer social media to e-mail, you could take advantage of this interest. For example, even though Edmodo looks like Facebook, it’s a microblogging site that a teacher can set up for students to collaborate, ask questions, and share resources. Teachers can also post their own resources such as quizzes or study guides. It’s accessible 24-7 via computers or smartphone apps. The teacher can moderate the site and delete inappropriate posts.

The class period may be the only time you can interact with students. Is your classroom a “safe” place for them to ask questions? Do students know how to ask for assistance? Is asking considered a sign of weakness? Are students embarrassed to ask questions? No matter how trivial the question or comment, never belittle it, reply with sarcasm, or allow other students to laugh at it.
After you’ve gone over directions for an activity, it’s frustrating when students raise their hands and ask, “What are we supposed to do?” If you say “I already told you. Figure it out,” students may assume that other kinds of questions will get the same response. Model how to refer to the printed directions or how to ask a partner.
It may also be helpful to model the type of questions students could ask related to understanding: “Could you please explain that again?” “I don’t understand… Does this mean that” “But what about…” “What would happen if… ”
If you notice more than one or two students have the same question during an activity, offer some “group therapy:” meet with a small group of students to go over the concept or procedures. If you find all of the groups are struggling with a concept or procedure, have a brief mini-meeting to review.
Teachers need to walk a fine line between being helpful and taking over a student’s thinking. Some students become dependent on teachers, constantly asking questions for verification (“Is this correct?” “Am I doing this right?”) Show them how to refer to the rubric or to the directions to help them develop initiative and independence.
As a student, I enjoyed figuring out something for myself. I became annoyed with teachers who hovered over my shoulder, asking if I needed help. You’ll have to determine when students really need help and when they need time to think through a problem themselves. I had a student who constantly asked questions in a soft voice. I thought at first he needed my help, but it turned out that he was thinking out loud. We made a deal—if he did indeed require some help, he would raise his hand. Otherwise, I left him alone with his thoughts.
In the classroom, teachers are usually the ones asking the questions. I’m glad you’re trying to foster students as questioners.
 
Photo: http://www.flickr.com/photos/rongyos/2686415336/

During class, students seem to understand the concepts. However, they don’t do well on the tests. I offer extra help before and after school and at lunch, but few students take advantage of it. I’m a first-year biology teacher, so I’d appreciate some suggestions on how to encourage students to ask questions or seek help when they need it.
— Alisa, Boston, MA

 

Science and literacy

By Mary Bigelow

Posted on 2012-01-07

Table of Contents


There is much in the literature about the importance of reading in science, not just pronouncing or decoding words but comprehending informational text. Unlike what students might see in a reading or English class, science resources are not usually written in a story-telling style. Science text often uses headings, subheadings, abstracts, summaries, sidebars, footnotes, specialized vocabulary, and graphics. Students may not realize reading science text can be a slower process than reading a novel or story, and rereading a section is appropriate and even encouraged. Likewise, writing in science is usually purposeful and informative.
This issue of The Science Teacher examines topics related to literacy: reading, writing, information literacy, visual literacy, and data literacy. [SciLinks: Reading and writing in science] You may want to supplement this issue by reading the January Science Scope: Science and the Common Core Language Arts Standards
If a secondary student cannot decode words, there is certainly a need for intervention by reading specialists. But helping students develop strategies to comprehend text material is an important job of all content teachers, science included. I wonder if many secondary students’ reading “problems” are, in reality, a lack of guidance and experience in interacting with informational text. Reading to Learn describes some strategies for helping students make sense of informational text, including annotation and double (or triple) entry journals. The authors suggest making copies of text so that students can mark them up, since in most schools writing in the textbook is not permitted. (I wonder about the expense of duplicating). I’ve seen online textbooks with the capability for highlighting and creating sidebar notes or questions. The students were truly interacting with the text. The teacher I observed did a great job of modeling how to render the text by doing a think-aloud as he read the text and annotated it.

Writing and Science Literacy has suggestions for writing in categories such as technical writing (notebooks and lab reports) and has a protocol for lab notebooks. But it’s interesting to see that the authors also include creative writing as an option in science classes (including cartoons and poems). I visited a biology class where the teacher asked the students to post a haiku about the lesson on the class blog site. Even though a haiku is a very structured form of poetry, the students’ creative responses were enjoyable to read and showed their ability to recast their learning in a different format. I’m also a fan of cinquain poems, acrostics, and three-words (similar to a morning TV show’s feature). Environmental Science Lab Reports outlines  the components of a report that could be generalized to other sciences. Rather than a traditional “book report,” the author of Reading, Writing, and Physics outlines a project in which students use journaling to respond to a book.
The authors of The Way They Want to Learn suggest that technology has a role in building student literacies and communication skills. They describe several Web 2.0 tools that students can use to create visual concept maps (CMAP), graphic organizers (Webspiration) presentations (Prezi), and graphic displays (Tagxedo, VoiceThread, Museum Box). But don’t worry if you’re not familiar with these—students can be very good at figuring things out if you give them the opportunity.
“But I read it on the Internet!” Students may naively think that all Internets sources are created equal. Climbing the Pyramid describes an activity in which students create a hierarchy as they evaluate science news sources to become informed critical readers (and viewers). This would be a good article/activity to share with your school librarian. (Isn’t it ironic that as information literacy becomes an even more important issue, schools are laying off the library staff—the people who are trained to assist students and teachers? Hmmm.) In addition to reading the news, students can apply their literacy skills by writing news articles, using the ideas in Science Journalism.
Using Online Data has many resources at the end for the analysis and interpretation of data, including NOAA and USGS. [And in SciLinks, you can search for sites on a given topic that include data sets to manipulate].

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To our Chapter and Associated Group Leaders: HAPPY NEW YEAR!

By Teshia Birts, CAE

Posted on 2012-01-06

So, another year, another set of goals (or resolutions) made. That goes for us at NSTA as well. Over the past few months, we’ve discussed lots of new ideas and projects to support our members and other constituents. I’ve focused on what will benefit our state chapters, associated groups and student chapters.  Resources that will help these leaders set a direction that will move their organizations forward.
During the fall conferences, our team (Howard Wahlberg, Ken Rosenbaum and myself) listened to a lot of teachers; they discussed their challenges both in and outside the classroom.  I know from experience that when you add running a small association (local, state or national) to that mix, those challenges are multiplied.
So, we’re wondering, what can we do to help? Here are a few ideas…some are already in the works; others we’re still batting around.

  1. Re-establish quarterly newsletters to the chapter and associated group leaders. This project is actually in the works and we hope to have the first edition in your e-mailbox by March.
  2. Frequent conference calls and webinars. In talking to a few chapter leaders in Districts I and II, they asked if we’d create a forum for them to come together more frequently to share ideas and network. We’re certain doing this in targeted regions across the country will help a lot of leaders.
  3. Creating a Chapter & Associated Group Resource Center on the NSTA website. As staff, we’re connected in more ways than one.  We receive great ideas from many of you; we also network with other association execs that do what we do.  We’ve collected and have access to content, templates, samples and just general information on an array of topics like membership, programming, social media, board relations and so on.  This knowledge needs to be centrally located and shared among all of you!

We have other ideas percolating as well, but these are just a few.  The main point we want you to remember: NSTA is here to support you!  Having strong, grassroots partner organizations is essential to supporting (and growing) this profession and NSTA is committed to do what we can to help!
What do you think we can do to support your efforts and strengthen your chapter or associated group? Add a comment below or e-mail us at chapters@nsta.org.

So, another year, another set of goals (or resolutions) made. That goes for us at NSTA as well. Over the past few months, we’ve discussed lots of new ideas and projects to support our members and other constituents.

 

Moon and the Earth and the Sun, and more

By Peggy Ashbrook

Posted on 2012-01-06

Happy New Year! This year I look forward to more conversation in the early childhood community about science education.
Science & Children, January 2012The January 2012 Early Years column adapts an activity about making craters from Marie Faust Evitt’s book, Thinking BIG, Learning BIG. A book and a tub of sand are part of learning about crater formation.Craters on the Moon are visible without a telescope, even in daytime, a time when teachers can point out the Moon to their students. Children enjoy making craters in snow, damp sand, or other fine material, by dropping balls of varying sizes and weights into the material. There are many ways to use imaginative play to allow children to explore the topic of Space, and the ideas they have already learned through media and at home. Some of what we learn as children (Think of “The cow jumped over the Moon”) may lead to misconceptions that, if teachers learn of them through conversation, we can help students replace with accurate information. Simply talking about the accurate information will not correct misconceptions, but through activities and discussion students can discard them.
Learn more about the Moon and its relationship to the Earth and Sun by using some of the resources in the National Science Teachers Association’s Learning Center such as the a collection of resources I created titled “Moon and sky—observations.” Register at no cost, go to Advanced Search and enter Keyword: Moon, Author: Ashbrook, and Type of Learning Resource: User created collections (select in both menus) to see resources in the “Moon and sky—observations” collection. Photos of features of the Moon can be viewed on GeologyRocks site by Dr. Katie Davis and Dr. Jon Hill.
Young children may know the word “gravity” but we don’t expect them to understand yet that it is a force between any two objects and that it pulls the objects together. In the case of the Earth and the objects on it, the gravitational pull of the Earth on the objects is greatest, so objects are pulled down to the Earth (ground). The January 2012 Teaching Through Tradebooks column, “Gravity and Weight”, by Emily Morgan and Karen Ansberry uses the 5E Learning Cycle in activities for grades K-2 and 3-5. These authors are sometimes referred to affectionately as “The Picture-Perfect ladies” because their “Picture-Perfect Science” books are very helpful to elementary teachers (note that the picture trade books they suggest are available through NSTA).
Shadow play can happen anytime children are outside on a sunny day.The article “Shadow Play” by Kathy Cabe-Trundle and Margilee P. Hilson is free to all—read about how students can observe shadows to learn about seasonal change. I recommend reading it (even if some of the activities are too advanced for your class) to see the authors’ approach to teaching concepts about which students commonly have misconceptions. I find the articles for older students a useful review of concepts at an elementary level, for myself.
Let me know what your plans are for the New Year, and what you’d like to see discussed on this Early Years blog by commenting below. Best wishes for the new year,
Peggy
 

Happy New Year! This year I look forward to more conversation in the early childhood community about science education.

 

Extra credit?

By Mary Bigelow

Posted on 2012-01-03

My students are asking for “extra credit” work. I’m having second thoughts about doing this, especially since it seems that students wait until the end of the marking period to ask. Is there a good rationale for giving (or not giving) extra credit work?
—Wayne, Kansas City, Missouri

“Extra credit” seems to be part of school vocabulary. When students don’t complete assignments, don’t do well on tests, or are seeking a higher grade, they (or their parents) ask the teacher for additional assignments or activities.
I suspect this is more common in classes where the students’ grades are based on accumulating points. Students may view class assignments or tests in terms of earning these points. Teachers may reinforce this notion with statements such as  “You’re 10 points away from a passing grade” or “Three more points and you’ll have an A+!”
Let’s assume your class activities and assignments such as lab reports, notebooks, or projects align with the unit or lesson learning goals and students are evaluated on the extent to which they meet those goals. It doesn’t seem to be productive to have a student who has not achieved the learning goals or who has not met the course requirements do an unrelated task just to “pull up a grade.” These tasks require time on the part of the teacher to create and assess. Ask yourself if activities such as reading and summarizing an article, completing puzzle sheets, or doing an extra book report allow the students the opportunity to demonstrate their understanding of a concept.
In previous years, your students may also have been awarded extra points for tasks or behaviors that have little or no relation to learning goals: bringing in classroom supplies, assisting with chores such as cleaning glassware, putting up a teacher-created bulletin board, participating in nonacademic events at school, or their parents attending an open house. These are good activities, but it would be hard to align them with learning goals in science.
The bottom line: Can (or should) students earn a passing grade by doing activities not directly related to the learning goals? Should exemplary grades reflect an advanced level of academic performance or the completion of extra busywork?

If you have students who do not turn in assignments (such as lab reports) and then ask for extra credit, perhaps you should allow them to turn in the original assignments. If a student had a poor test performance, you could offer a retake or an alternative that shows the student has met the learning goals, at least at a minimum level. If projects do not meet the requirements, have the student review the rubric and make revisions.
I know teachers who provide students with a list of the unit’s learning goals and several options or alternatives for each to demonstrate their learning. Having choices can give students more ownership of the learning process and capitalize on their interests. The literature on differentiation has many suggestions, such as choice boards or alternate assessments (NSTA journals have had many articles on the idea of differentiation. Click here to see a few of them. Also check the work of Carol Ann Tomlinson).
Another response would be to put the responsibility back on the students: “These are the learning goals for the lesson/unit. How will you demonstrate you have accomplished them?” If the students give you a blank stare, you could offer suggestions. However, you might be surprised at what some students come up with. Their ideas can become alternative activities in the following year.
Some students who are interested in a topic may ask for opportunities to expand their knowledge, with no thought of earning extra points. (Pinch yourself to make sure you’re not dreaming!) Encourage them to pursue their interests, especially those that relate science to other subjects or personal interests. For example, a student in my life science class was interested in finding words relating to arthropods that had origins in mythologies (e.g., the Luna moth, nymphs, arachnids, the Cyclops copepod). I shared this with the language arts teacher (who did a unit on mythology) and we both encouraged her to pursue this interest. She shared a journal in which she kept her notes on the subject. She had an intrinsic “extra interest” rather than a need for extrinsic bonus points.
 
Photo: http://www.flickr.com/photos/daviddmuir/1410227652/sizes/m/in/photostream/
http://farm2.static.flickr.com/1328/1410227652_e0f5cf7f0e.jpg

My students are asking for “extra credit” work. I’m having second thoughts about doing this, especially since it seems that students wait until the end of the marking period to ask. Is there a good rationale for giving (or not giving) extra credit work?
—Wayne, Kansas City, Missouri

 

Instructional technology

By Mary Bigelow

Posted on 2011-12-26

SC Cover Dec 2011I recently talked with a high school senior who wants to become an elementary teacher. “Working with younger students, one thing I won’t have to think about is technology,” she said. She certainly has some misconceptions about elementary students! I thought about her as I read this issue of Science and Children and the examples of young students using technology for many tasks and in many contexts.
Space and technology seem to go hand in hand. To the Moon and Back show how students in Grades 2 and 3 used the Starry Night resource to gather data on phases of the moon and look for patterns and develop questions. The article includes a rubric, an example of a student journal entry, and a discussion of other technology application on the topic, including iPad/iPhone apps and online simulations. [SciLinks: Moon Phases]
The authors of Caught on Video use videos to document student projects. Students were both the subjects and the videographers as they demonstrated their work. The article has suggestions for incorporating more local videos in instruction. [SciLinks: Engineering Structures]
“No child left inside” could be the subtitle for Trail Blazers. The article describes a project in which 4th-graders created field guides (on iPods) for the school’s nature trail. Starting with a site study, they also created kits for teachers to use with students to study weather on the trail. [SciLinks: Identifying Trees, Nature]

What technology (if any) is appropriate for primary students? Harness Your Tech Side includes resources from the NAEYC on technology integration in the younger grades and a lesson plan on using technology to create a class book. Smart Boards Rock has pictures of students (not the teacher) at the board, manipulating objects and words. [SciLinks: Rocks]
Virtual Inquiry Experiences incorporated technology into a study of pond insects. Students shared their specimens with scientists who shared (through videoconferencing) the use of an electron microscope—quite an experience for these young students. Another option for younger students as described in Time for Slime, is a digital microscope connected to a projector. The pictures of students show the benefits of  the large projected images. The formative assessment probe Representing Microscopic Life looks at student conceptions and misconceptions about microscope pond organisms. [SciLinks: Microscopes, Insects, Protozoa]
Classroom communications is changing, too. Not an Unfeasible “Extra” shows how students in 4th grade are blogging about their science learning. The teacher-author offers suggestions for starting a blogging project and a rubric to assess the blog content. In Turtles and Technology, other 4th graders took on a challenge to protect and advocate for an endangered species. They raised turtles to release in the wild used a variety of technology (blogging, producing videos, creating webpages, and even developing an online game) to inform the community of threats to the turtles.
After reading and reflecting on these articles, future elementary teachers have a lot to look forward to, with students who are very comfortable with technology. Secondary teachers have a lot to look forward to, also, as younger students become more familiar with technology as a tool for learning, communicating, and creating.
Several other articles have SciLinks connections: One Hungry Dinosaur  [SciLinks: Dinosaurs] and Simple Machines [SciLinks: Simple Machines] And check out more Connections for this issue (December 2011). Even if the article does not quite fit with your lesson agenda, there are ideas for handouts, background information sheets, data sheets, rubrics, and other resources.

SC Cover Dec 2011I recently talked with a high school senior who wants to become an elementary teacher. “Working with younger students, one thing I won’t have to think about is technology,” she said. She certainly has some misconceptions about elementary students!

 

The dynamic earth

By Mary Bigelow

Posted on 2011-12-26

Table of Contents


Why is it that the earth sciences bring out the lifelong learner in people? We spend time stargazing at night, watching the weather channels, learning about geologic features at national and state parks, reading about topics such as climate change and prehistoric events, and wondering when (and where) the next earthquake, tsunami, or volcanic eruption will occur. And yet, for many students, their experiences in elementary and middle school are the capstone of any formal classes in the earth sciences. In high schools, earth science is often an elective (if it’s on the schedule at all). So hats off to all teachers who spark an interest in lifelong learning in this branch of science, including the authors featured in this issue!
As I was growing up, my family had an interest in geography. Most get-togethers usually included someone digging out an atlas to look something up. If Google Earth had been around in those days, we would have never left the dinner table! Three articles in this issue illustrate how web-based mapping projects can spark and build on student interest: Dynamic Lessons with Google Earth, Global Environmental Issues, and Teaching with Current Events. Investigating Continental Margins uses the GeoMapApp to compare and contrast the East, West, and Gulf coasts of North America. [SciLinks: Mapping]

Krakatoa Erupts! takes an interdisciplinary approach to capitalize on student interest in volcanoes. By studying a historic event, student can correct misconceptions and ask their own questions about volcanic eruptions. A rubric is provided (actually the rubric is not specific to this project and can generalized to other inquiry activities). [SciLinks: Volcanoes, Volcanic Eruptions, Volcanic Zones, Ring of Fire]
The authors of Going Underground describe how to help students learn about groundwater and karst systems with both field studies and classroom simulations [SciLinks: Water Cycle, Caverns (and Karst Topography), Groundwater]
The earthquake centered in Virginia last summer dispelled the misconception that these seismic events happen only on the west coast of the North America or elsewhere in the Pacific region. The activities described in Its YOUR Fault can help students understand concepts in seismology such as faults, fault zones, and tectonic boundaries by studying historic data and using current monitoring tools.  [SciLinks: Earthquakes, Seismographs, Tectonic Plates, Plate Boundaries]
Although Color Code is not directly related to earth science, the activities help to dispel common misconceptions. In this case, misconceptions related to heredity and inherited traits, using hair color as an example. Although students would have to consider that for many people, their hair color has been altered chemically! [SciLinks Genotype/Phenotype, Pedigrees, Genes and Traits]
Don’t forget to look at the Connections for this issue (December 2011). Even if the article does not quite fit with your lesson agenda, this resource has ideas for handouts, background information sheets, data sheets, rubrics, etc.
 

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Technology integration in science

By Mary Bigelow

Posted on 2011-12-23

As a principal, I’d like to work with the teachers to develop some indicators to use during walkthroughs and classroom visits to assess how instructional practices in our science classes are changing as a result of the technology we’re using. Rather than reinventing the wheel, are you familiar with existing protocols we could use?
–Delores from Washington
It’s a good idea to develop a common language regarding what effective teaching could look like, especially when an entire school or department is engaged in a project. This common language clarifies discussions and fosters collaboration. You’re very wise to consider existing resources first to find descriptions and examples of this language.
I’m familiar with several protocols, including a few relating to science teaching in general.  These protocols do not have indicators for technology integration per se, so you would have to determine how your technology initiative would relate:

  • The Science Classroom Observation Guide from the North Cascades and Olympic Science Partnership is a user-friendly and concise tool. This one-page document includes indicators (or look-fors) on classroom culture, science content, instruction for understanding, and organizing/applying scientific knowledge. This protocol is different in that it focuses on what the students are doing as a result of the teacher’s instruction, rather than strictly on the teacher’s performance.
  • Inside the Classroom Observation and Analytic Protocol from Horizon Research is a comprehensive instrument that can be used in both science and mathematics classes. It’s very lengthy, however, and could be overwhelming for the observer and the teacher. But you might get some ideas from it.
  • The Reformed Teaching Observation Protocol (RTOP) is used in many math-science partnership projects. RTOP is divided into five sections with statements related to lesson design and implementation, content (propositional knowledge and procedural knowledge), and culture (communicative interactions and student/teacher relationships). Each of the five sections has statements that further define the section and assist in documenting what was observed in the classroom. RTOP is an excellent tool for understanding the culture of the classroom and what the students are engaged in to enhance their learning experiences. The website includes not only the instrument but also professional development resources, such as videos of classrooms.

The HEAT framework can be used to look at how students are integrating higher order thinking, engaged learning, authentic connections, and technology use. It’s not related to science specifically. The website includes a one-page document that summarizes look-fors.
A tool I’ve recently learned about is the Technology Integration Matrix from the Florida Center for Instructional Technology. The matrix shows the relationship between levels of technology integration (entry, adoption, adaptation, infusion, and transformation) and characteristics of the learning environment (active, collaborative, constructive, authentic, and goal directed). This matrix is applicable to K-12 and includes detailed descriptors and sample lessons in science, mathematics, social studies, and language arts. The samples can be searched by grade level and type of technology. The matrix site also has resources for professional development, including presentations, videos, and handouts of the matrix. I’m considering it for some projects I’m involved with because it considers not just doing things better with technology (taking notes from a PowerPoint instead of an overhead or looking up answers on a website instead of a textbook) but also doing better things with technology (collaborative activities, authentic learning, student reflection, or creative problem solving).
In my experience, however, it’s not the technology itself that changes classroom practices. Providing effective teachers with technology can make them more effective; providing technology to less effective teachers will not guarantee that instruction will improve. The key is focused and continuous feedback and professional development.
 
Photo: http://www.flickr.com/photos/nooccar/5495911044/
 

As a principal, I’d like to work with the teachers to develop some indicators to use during walkthroughs and classroom visits to assess how instructional practices in our science classes are changing as a result of the technology we’re using. Rather than reinventing the wheel, are you familiar with existing protocols we could use?
–Delores from Washington

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