By Carole Hayward
Posted on 2018-01-08
Elementary teachers have to balance the challenges of literacy instruction with high stakes testing and content area instruction. What teachers need to achieve this delicate balance is a text that can be both an instructional tool and a step-by-step guide for building thought-provoking lessons. Enter Eureka! Grade 3-5 Science Activities and Stories by Donna Farland-Smith and Julie Thomas.
What makes this book unique is the focus on the lives and discoveries of famous scientists and inventors. The book includes 27 lessons and recommends children’s trade book biographies to accompany each lesson. Biography subjects include astronomer Galileo Galilei, primatologist Jane Goodall, astronomer Annie Jump Cannon, and engineer William Kamkwamba. Also, each chapter has literature-based lessons that support the Next Generation Science Standards (NGSS).
“Our bold new idea is that biographies of scientists can allow you to highlight the human dimension of scientists and engineers while you encourage science learning. We think these stories will broaden students’ perceptions of scientists and engineers as real people and add explicit and implicit opportunities for them to consider science and engineering careers,” Farland-Smith and Thomas state in the introductory chapter.
An interesting dimension of the book is the focus on character traits. “Each featured scientist and engineer is introduced with a character trait. These capture the unique human qualities of the scientists and introduce the human assets of scientists’ dispositions. It is important to mention that every individual has such traits, and the focus here is on helping students understand that scientists and engineers are people and express personal, human traits that enable them to be successful,” the authors state.
The book helps to make science more real and relatable. Students can explore the character traits, processes, practices, successes and failures of scientists who have helped to change our society and improve our lives, and imagine themselves making important discoveries of their own.
For example, in the second chapter, which focuses on the trait of “thinker,” students will learn about Philo Farnsworth, who invented television. Using their thinking and tinkering skills, students will develop their own inventions or create a replica of an invention from recyclables or everyday materials. With this lesson, teachers can spark a conversation about how inventions can have a great impact on a society during a particular time in history.
Students will practice asking questions, troubleshooting, and working through the steps of the design process to create something that just about every child loves: a TV. In addition, the lesson connects to the NGSS by asking students to define and delimit engineering problems, as they learn how to eliminate materials and unsuccessful designs in the creation of their invention. They will also get to practice communicating with their peers about proposed solutions and their design process.
To learn more about Eureka! Grades 3-5 Science Activities and Stories, read the sample chapter here.
This book is also available as an e-book.
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Elementary teachers have to balance the challenges of literacy instruction with high stakes testing and content area instruction. What teachers need to achieve this delicate balance is a text that can be both an instructional tool and a step-by-step guide for building thought-provoking lessons. Enter Eureka!
By Peggy Ashbrook
Posted on 2018-01-05
Resources that support early childhood science learning may be ideas or lesson plans for specific investigations by children, or be information for educators about children’s learning progressions, research into how children learn, science content information for adults, or an extensive analysis of the state of early science education.
Where do you get the support you need to grow your science teaching skills and knowledge?
An investigation
Have you used the tops of carrots or the bottoms of celery to grow new leaves? A turnip with stubs of green leaves still present will also continue growing if it is set into a cup of water, just touching the water. Children observe the parts of plants and, through experience, learn that plants need water if (when) the water is used up and the leaves wilt. The turnip “greens” can be harvested with a pair of scissors and fed to worms in the classroom vermicomposting bin or to other “compost critters” in a terrarium. The February 2013 issue of Science and Children has several articles about worms and composting (free to members of NSTA and a small fee for others). I like to keep a turnip on the windowsilll as a winter garden, adding to children’s experience with plants and promoting thoughts of spring gardening.
Learning progressions in science education
If you haven’t yet been introduced to the Next Generation Science Standards for K-12 (NGSS), or just want a refresher, I recommend starting with the NGSS “Appendix E – Progressions Within the Next Generation Science Standards” where you can read about the approach that is “intended to increase coherence in K-12 science education” and learn how less complex ideas explored in early childhood (K-2) build to more sophisticated and difficult concepts appropriate for upper grades. For example, if you wonder what kindergarteners should know about the planets in our solar system, see Earth Science Standards ESS1.A and ESS1.B K-2 progression: “Patterns of movement of the sun, moon, and stars as seen from Earth can be observed, described, and predicted” and begin with having children make observations and drawings of the Moon in daytime for a few minutes each time you can be outside when it is visible. Over several months the drawings will reveal a pattern of the phases of the Moon, a phenomenon to think about as children explore making shadows.
Research
Research into how children (people) learn grounds the 3 dimensional structure of the NGSS—science or engineering practices, a core disciplinary idea, and a crosscutting concept. These two books are part of the research behind the NGSS. They are available at no cost online and can be easily searched online or downloaded.
National Research Council. 2000. How People Learn: Brain, Mind, Experience, and School: Expanded Edition. Washington, DC: The National Academies Press.
https://doi.org/10.17226/9853
National Research Council. 2007. Taking Science to School: Learning and Teaching Science in Grades K-8. Washington, DC: The National Academies Press. https://doi.org/10.17226/11625
Science content information for adults
When talking about science phenomenon with children I may find myself wondering about it longer than the children are interested. Other times they ask questions I don’t have answers to. On these occasions I turn to resources meant for people older than 8 years old. Sometimes a non-fiction book in the children’s section of the library provides the additional information in language that is easy to understand. See the books listed in the NSTA Recommends pages to find books with accurate, engaging science content. See also the lists of just the Outstanding Science Trade Books, chosen by a book review panel appointed by the National Science Teachers Association (NSTA) and assembled in cooperation with the Children’s Book Council. The gorgeous book covers and informative descriptions will help you choose the books you need.
Other NSTA resources for adult learning include the “SciPacks” in the Do-it-yourself Learning section of the Learning Center or the “Science 101” columns from Science and Children. Some resources are free but many require membership or a small fee. See other resources listed in on the page Books & Resources: NSTA Initiative for Learners 0–5.
Analysis of the state of early science education
Transforming the Early Education Workforce: A Multimedia Guidebook is an online resource from New America about the National Research Council’s 2015 report, Transforming the Workforce for Children Birth Through Age 8 which explores the “science of child development, looks at implications for the professionals who work with children through examining the current capacities and practices of the workforce, the settings in which they work, the policies and infrastructure that set qualifications and provide professional learning, and the government agencies and other funders who support and oversee these systems.” The report makes recommendations to improve the quality of professional practice and the practice environment for care and education professionals, creating “a blueprint for action that builds on a unifying foundation of child development and early learning, shared knowledge and competencies for care and education professionals, and principles for effective professional learning.”
New America’s guide opens through portals for policymakers, for the workforce, and for higher ed, but has a place to “start from the beginning” to get an overview of this transformation. You can follow a guided path through the multimedia guidebook or jump around, going to the Child Development and Early Learning section, checking the glossary, or viewing videos where they are embedded in the guidebook or out of context.
As early childhood educators we need a wide range of resources! I hope you found something here that is helpful and that you will share other resources you use in a comment below.
Resources that support early childhood science learning may be ideas or lesson plans for specific investigations by children, or be information for educators about children’s learning progressions, research into how children learn, science content information for adults, or an extensive analysis of the state of early science education.
Where do you get the support you need to grow your science teaching skills and knowledge?
An investigation
By Kate Falk
Posted on 2018-01-05
This week in education news, state officials want to keep more candidates in Nebraska’s teacher-preparation pipeline by easing testing requirements; Maine considering relaxing certification standards to get more teachers into the classrooms; new study finds that merit-based bonuses help raise student test scores; vocational education classes play a role in math and science education in California schools; preparing today’s students for the future workforce is a society-wide effort; and different data needed to track the quality of STEM undergrad education.
Nebraska Aims To Ease Path For Future Teachers
State officials want to keep more candidates in Nebraska’s teacher-preparation pipeline by easing testing requirements. What’s clogging things up, they say, is a test Nebraska adopted three years ago to screen applicants for teacher-education programs. Read the article featured in the Omaha World-Herald.
Pa. Can Do More To Upgrade STEM Education
As a practicing Pennsylvania classroom science teacher for more than 30 years and a National STEM Teacher Ambassador, I appreciate the good work Gov. Tom Wolf has done for education and his advocacy to increase resources for education. His recent Op-Ed “Why it’s essential for Pennsylvania to invest in education” points out how far the state has come in regard to education. I agree we have come a long way, but there are two significant impediments that state lawmakers and leadership could be addressing in regard to the state of STEM education in Pennsylvania. Read the opinion piece featured in The Delaware County Daily Times.
Should Maine Relax Certification Standards To Get More Teachers In Classrooms?
Like a lot of states, Maine has a shortage of teachers. According to the U.S. Department of Education, schools are struggling to find people to fill positions ranging from librarians to Spanish teachers. Proposed rules from the Maine Department of Education could make it easier to certify some teachers and bring them into the system. But at a hearing on the proposal, some educators worried that the new rules could lower the bar, and bring unqualified teachers into the classroom. Read the article featured on Mainepublic.org.
Big New Study Finds That Performance Bonuses For Teachers Boost Test Scores (A Bit)
A new study, released by the federal government, suggests that merit-based bonuses are the way to go, as they help raise student test scores without making a significant dent in teacher morale. It offers the latest evidence that programs of this sort can help schools and students, despite the common perception that they are ineffective. Read the article featured in Chalkbeat.
Despite Cutbacks, Auto Shops Play A Role In Math And Science Education In California Schools
Thirty years ago, auto shop was as much a part of California high schools as frog dissection, typing classes and Friday night football. But due to budget cuts, teacher shortages and a push for more academic course offerings, fewer than half those auto shops remain in California — even though they have the potential to complement hands-on math and science curriculum, education experts say. Vocational education classes, such as auto shop, can provide training and career options for students less likely to go to college, but also can be useful for students who are on academic tracks, educators said. Read the article featured in EdSource.
Newsflash: Preparing Students For The Future Workforce Is A Society-wide Effort
Today’s jobs are changing, and they are changing at such a rapid pace that many of the jobs our students will hold in the future do not even exist today. But just because we don’t know what those jobs are doesn’t mean we can’t do our best to prepare today’s students, and tomorrow’s workforce, for the opportunities awaiting them. A large part of that preparation will rely on equal technology access to all students. Read the article featured in eSchool News.
More And Different Data Needed To Track Quality Of STEM Undergrad Education
Improving STEM undergraduate education will require tracking student demographics, instructor use of evidence-based teaching practices, student transfer patterns and other yet-unmeasured dimensions of science, technology, engineering and math education. That’s the main conclusion from a new report published by the National Academies of Sciences, Engineering and Medicine. Read the article featured in Campus Technology.
Marshawn Lynch’s ‘Scientist’ Talks Future Of Research And Importance Of Strengthening The Pipeline
Michael Pravica and Marshawn Lynch are at first glance (and second glance, third, fourth and fifth glances) an unlikely pair. But what the professor of physics at the University of Nevada, Las Vegas and the star running back of the NFL’s Oakland Raiders have in common — besides their joint appearances on the Bleacher Report’s new Facebook show, “No Script with Marshawn Lynch” — centers around explosions. For Lynch, it’s his explosive runs on the field, and for Pravica, it is the study of “things that go boom.” Read the article featured in Education DIVE.
Feds Set Stage for ESSA ‘Innovative’ Testing Pilots. But States, Vendors May Move More Slowly
The U.S. Department of Education has given states an official heads-up to get ready to apply to pilot “innovative assessments” under the Every Student Succeeds Act. But it seems likely that states will approach the feds’ offer cautiously—rather than in a headlong rush. Read the article featured in Education Week’s Market Brief.
Stay tuned for next week’s top education news stories.
The Communication, Legislative & Public Affairs (CLPA) tea strives to keep NSTA members, teachers, science education leaders, and the general public informed about NSTA programs, products, and services and key science education issues and legislation. In the association’s role as the national voice for science education, its CLPA team actively promotes NSTA’s positions on science education issues and communicates key NSTA messages to essential audiences.
The mission of NSTA is to promote excellence and innovation in science teaching and learning for all.
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By Debra Shapiro
Posted on 2018-01-05
As part of a NASA CP4SMPVC grant to Fairchild Tropical
Botanic Garden in Coral Gables, Florida, middle and high
school students have identified 91 varieties of edible plants
suitable for zero-gravity growth. Photo courtesy of Andrew Kearns, Jose Marti MAST 6–12 Academy
Grants from NASA’s Competitive Program for Science Museums, Planetariums, and NASA Visitor Centers (CP4SMPVC) enable the agency to partner with informal education venues to enhance their space science related–programs and engage teachers and students in NASA’s mission. But the CP4SMPVC hasn’t awarded new grants since early 2017. Why should science, technology, engineering, and math (STEM) teachers care about this?
Teachers and students partnering with Fairchild Tropical Botanic Garden in Coral Gables, Florida, on the Growing Beyond Earth (GBE) STEM education program care because in the first two years of Fairchild’s $1.25 million, four-year CP4SMPVC grant for the program, middle and high school students identified 91 varieties of edible plants suitable for zero-gravity growth in the International Space Station’s plant growth facility. GBE students have tested 106 varieties of plants so far as part of the Fairchild Challenge, a Miami-based environmental science competition, according to Amy Padolf, Fairchild’s director of education. Padolf and Carl Lewis, Fairchild’s director, designed GBE with researchers at NASA’s Kennedy Space Center.
According to Padolf, 136 classrooms in Miami-Dade, Broward, and Monroe counties participate, and GBE will expand to “another 15 in Palm Beach County” and be tested at the Franklin Park Conservatory and Botanical Gardens in Columbus, Ohio.
With the grant funding, which began in 2016 and will last until 2020, “we give schools all the equipment necessary to conduct the research, along with rigid research protocols from NASA scientists, and provide training for the teachers,” Padolf explains. The schools grow the plants, collect data, and “input it into spreadsheets that are shared with NASA researchers… It’s one of the few NASA grant projects that is feeding their research,” she points out.
Students are getting real-world experience “working with plant research, statistics, and data collection; writing proposals; and presenting research posters that NASA will review,” Padolf relates, “and NASA scientists are communicating with students regularly via Twitter [@GrowBeyondEarth].”
Teachers report that “students have a greater interest in plant science and STEM careers…Kids who have never grown anything are [feeling] empowered,” she contends.
Teachers and students who visit the Flight aerospace exhibit at EdVenture, an educational museum in Columbia, South Carolina, would care if EdVenture hadn’t received its three-year, $893,224 CP4SMPVC grant. The grant provided funds to design and build the exhibit—including a real Boeing 757 cockpit attached to the museum—and create programs that draw on students’ interest in flight, space, engineering, and physics. “The exhibit [conveys] the excitement of flight to children to get them interested in science,” says EdVenture President and CEO Karen Coltrane.
The funding also enables teachers to bring students to the museum as part of a field study experience in which students do an activity chosen by their teachers and hear about aerospace careers and opportunities in South Carolina. “More and more this has to be funded because schools don’t have a budget for field trips, which are memorable for students,” Coltrane maintains.
EdVenture is leveraging the grant to gain funds from other sources to provide professional development (PD) for K–8 teachers in using NASA and STEM content and resources. “We recognize that teachers may not be familiar with airplane manufacturing. We knew we could be helpful” in educating teachers about it so they can help students understand why advanced degrees are needed to work in 21st-century factories, Coltrane observes.
“We’re starting with the youngest students to give them real-life experiences to prepare them for the workforce,” remarks Nikki Williams, EdVenture’s executive vice president. “There aren’t a lot of varied opportunities for [PD] for teachers of grades 4–8 [in our area]… We want to make sure teachers have opportunities to feel confident in their delivery [of the content].”
Teachers and students in Maryland’s Prince George’s County Public Schools (PGCPS) district would care if the Howard B. Owens Science Center in Lanham, Maryland—which is owned and operated by the district—wasn’t awarded a CP4SMPVC grant in 2014. The center’s NASA Earth, Solar, and Planetary Science Infusion Project received the five-year grant of $409,047 to hold programs for grades 3–8 featuring NASA Sun-Earth connections, comparative planetology, and NASA Space Weather Action Center data.
“We do a lot of PD with teachers [to give them] tools to use NASA resources,” says Russell Waugh, an Owens outreach teacher. The grant funding is used to purchase supplies and materials for these workshops. In one workshop, “teachers learn about telescopes and build a small telescope to use in their classrooms…[In another,] we show third-grade teachers how to use NASA data.”
“We try to help teachers meet the Next Generation Science Standards (NGSS) [because] a lot of teachers aren’t familiar with them yet. Our curriculum is based on [the NGSS],” says Patricia Seaton, the center’s planetarium specialist. “Our county curriculum aligns with this grant,” she adds.
“The funds mainly go to teachers for their time here,” Waugh points out. “We give teachers time out of class to gain additional experiences with science content and related fields, and tools to use with students in hands-on activities.”
“Teachers get a stipend for participating [in our activities] and free materials,” notes Seaton.
“We [also] use the PD to introduce teachers to our programs for students, to generate enthusiasm for teachers to bring their students here,” Waugh explains.
“We have a Challenger Center spacecraft simulator mission called Earth Odyssey [that shows students] the advantages of remote sensing…It’s as if they’re flying in space. The kids are impressed,” Waugh relates. Student Challenger missions are regularly enhanced with new NASA content, and the grant funds “have enabled us to keep [the Challenger simulator] updated so we can keep running it,” he reports.
“Our aim is to develop a pipeline of students who would get experience with NASA data and missions and have different experiences in each grade [that would inspire them] to pursue STEM studies and careers,” Waugh contends.
Without the grant, “we’d be losing the possibility of developing opportunities for students and the public to learn what NASA is doing,” Seaton and Waugh maintain.
This article originally appeared in the January 2018 issue of NSTA Reports, the member newspaper of the National Science Teachers Association. Each month, NSTA members receive NSTA Reports, featuring news on science education, the association, and more. Not a member? Learn how NSTA can help you become the best science teacher you can be.
The mission of NSTA is to promote excellence and innovation in science teaching and learning for all.
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As part of a NASA CP4SMPVC grant to Fairchild Tropical
Botanic Garden in Coral Gables, Florida, middle and high
school students have identified 91 varieties of edible plants
By Peggy Ashbrook
Posted on 2017-12-28
Through visits to other programs, reading books, attending conferences and webinars, and having conversations with colleagues, I continue to learn about teaching young children. In conversation, preschool teacher Barbara Foster related how children used engineering design to make a model that represents their experience. She helps children deepen their understanding of natural phenomena through documentation of experiences and observations, making models, and reflecting on the documentation. The program uses emergent curriculum—they “believe that children learn best when engaged in work and play that is meaningful to them.”
Here’s Barbara:
A group of older children were working with their teacher on developing a model of a forest by posting paintings on the walls of the stairway landing. I approached my group of students to see what they wanted to add to the forest. The resulting project the class worked on involved using science and engineering practices (making a model, using tools), redesigning the process when it wasn’t working, and seeing how the part fit into the whole (core idea in science PS1.A Structure of matter. See page 108).
We took a really long time to make a model of the paper wasp nest that had been removed from a tree in summer. First we made paper, beginning with tearing scrap paper up and soaking it for a very long time. But that didn’t work so we tried using hand beaters but that wasn’t sufficient so I found out how to do it—put the paper and water in the blender to make the paper pulp. With adult help the children used a screen frame to lift out a small amount of pulp to make a page of new paper. The pulp was smelly and a little too tactile for the children’s comfort so I took the it home to make a few more pages.
Once we had the paper we began making a piñata type structure using a balloon in the center and gluing on the pieces of paper. By the time it all dried, it stayed together and the pieces of paper that did not lie flat made it look like the real wasp nest. After removing the balloon we put a piece of the real nest that we had saved into the opening at the bottom of the structure. Looking at photos of real nest, the children and teacher compared it to their model of the nest and decided it needed to be painted to more closely match the real nest.
Then we added our model of the wasp nest to a tree in the model of the forest being established by another class in the stairwell landing. We also added water, clouds, and raindrops and a sun. The children have a real interest in the sun, perhaps inspired by one child whose family has a special interest in space. It’s interesting how different things come together—two children’s favorite color is yellow.
We’ve been taking photos of the sun from the same place and at the same time in the morning, about 10:15, a couple of times a month. The children aren’t really looking at the photos although they do want to take the photos. Sometimes they’ll say, “Come over here to take the photo,” moving closer to it at the edge of the play area, as though that will produce a better photo. I’ve been making sure to take the photos each month in case the children notice a change in position in it in the spring and want to compare it to the sun’s location in the sky earlier in the school year.
It takes a skillful teacher to see the significance of a child’s favorite color in science learning. Emergent curriculum means that instead of “doing” a theme or topic such as insects, weather, or sky, in a week of activities, teachers plan curriculum in response to children’s interests. Children’s ideas develop from their limited experiences. Teachers use their observations and the children’s work to plan additional experiences, help children revisit their earlier experiences, and build their understanding. With additional experiences and discussions, and as they mature, children replace early ideas that are not scientifically accurate with knowledge built from their experiences. Read about how models support children’s developing understandings in the Next Generation Science Standards APPENDIX F – Science and Engineering Practices in the NGSS.
There is much in common with Harlen’s work in Teaching Science for Understanding in Elementary and Middle Schools (Heinemann 2015) where she notes that children who are motivated by what they are doing and learning persevere and seek out new information. Consider using the “Action Points” at the end of the chapters for guidance when planning curriculum, even though Harlen is not writing for preschool educators. Two examples from Chapter 2, How Should We Teach Science?:
Reading about the directions emergent curriculum takes in other programs is another way to explore this philosophy:
Children Need Nature: An Emergent Curriculum Study by Kristina Eaddy, The Schuylkill Center blog. January 30, 2017.
http://www.schuylkillcenter.org/blog/an-emergent-curriculum-study/
The Command Center Project: Resolving My Tensions with Emergent Curriculum (Voices of Practioners column) by Luvy Vanegas-Grimaud.
Young Children. July 2017.
https://www.naeyc.org/resources/pubs/yc/jul2017/command-center-project
Dutton, A.S. 2012. Discovering My Role in an Emergent Curriculum Preschool.Voices of Practitioners. Young Children. 7(1): 3-17.
Through visits to other programs, reading books, attending conferences and webinars, and having conversations with colleagues, I continue to learn about teaching young children. In conversation, preschool teacher Barbara Foster related how children used engineering design to make a model that represents their experience. She helps children deepen their understanding of natural phenomena through documentation of experiences and observations, making models, and reflecting on the documentation.
By Carole Hayward
Posted on 2017-12-27
Argument-Driven Inquiry in Physics Volume 1, Mechanics Lab Investigations for Grades 9–12 is the latest addition to the popular NSTA Press Argument-Driven Inquiry (ADI) series. The book includes 23 field-tested labs, along with reproducible student pages, teacher notes, and detailed instructions for running lab investigations, all designed to make it easier to teach complex concepts.
The authors, who are veteran teachers, want to shift instruction from students’ passively receiving information to instead learning how to ask questions and determine conclusions.
“Traditional instructional approaches, which were designed to help students ‘learn about’ the concepts, theories, and laws of science rather than how to ‘figure out’ how or why things work, were not created to foster the development of science proficiency inside the classroom,” the authors write in the book’s introduction.
Times are changing. The innovative and engaging ADI approach focuses students on the practices of questioning, data analysis, argument development, evaluation, double-blind peer review, and report revision—all of which can prepare students for real-world application in a science career, while also meeting current science instructional standards.
“To help students become proficient in science in ways described by the National Research Council in A Framework for K–12 Science Education, teachers will need to use new instructional approaches that give students an opportunity to use the three dimensions of science to explain natural phenomena or develop novel solutions to problems,” the authors state.
The field-tested labs cover topics related to mechanics, including forces and interactions, energy, work, and power. Each lab is designed to help students to understand the disciplinary core ideas in the physical sciences, to use crosscutting concepts that span across various scientific disciplines, and to learn how to use fundamental scientific and engineering practices.
“Current research suggests that all students benefit from three-dimensional instruction because it gives all students more voice and choice during a lesson and it makes the learning process inside the classroom more active and inclusive,” the authors state.
The ADI approach promotes and supports three-dimensional instruction because it gives students an opportunity to construct and critique claims about how things work or why things happen. The labs can provide ways to make physics instruction more authentic and meaningful for students. In addition, the lab activities will allow students to develop the literacy skills outlined in the Common Core State Standards for English Language Arts by creating presentations, reports, and evaluations.
Read the sample lab “Falling Objects and Air Resistance: How Does the Surface Area of a Parachute Affect the Force Due to Air Resistance as an Object Falls Toward the Ground?”
Also check out the Student Lab Manual for Argument-Driven Inquiry in Physics, Volume 1: Mechanics Lab Investigations for Grades 9–12 by Victor Sampson, Todd L. Hutner, Daniel FitzPatrick, Adam LaMee, and Jonathan Grooms.
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Argument-Driven Inquiry in Physics Volume 1, Mechanics Lab Investigations for Grades 9–12 is the latest addition to the popular NSTA Press Argument-Driven Inquiry (ADI) series.
By Kate Falk
Posted on 2017-12-22
This week in education news, a new paper released by Education First suggests that a lack of focus on curriculum is the missing piece in the preparation of teachers; professional sports teams are becoming more involved in math and science education; the Girls Scouts announce the Girl Scout STEM Pledge; Rep. Lamar Smith believes that to fill STEM jobs, federal programs need to focus on results; new study shows that girls in Korea score and enroll in more STEM classes when assigned female teachers; Louisiana is trying to improve the number of students who pursue careers in STEM; and there is more to STEM than hard skills.
Let Science Educators Build New Science Standards
The Utah Science Teachers Association believes that all citizens should have a scientifically based understanding of the natural world in order to engage meaningfully in public discussions, be informed voters and discerning consumers. Problems arise when nonscience ideals impede the teaching and learning of science, either through the use of pseudoscience or the avoidance of topics because they are politically charged. This unfortunately occurred, to no avail, during the process of developing the sixth-eighth grade SEEd standards with regard to evolution and climate change, in particular. Read the article featured in The Deseret News.
A Novel Way To Improve Teacher Prep: Give Teacher Better Curriculum
Is a focus on curriculum the missing piece in the preparation of teachers? That’s the argument made by in a new paper released by Education First, a global education consulting group. It’s part of a project, partly funded by the Bill & Melinda Gates Foundation, bringing together teacher-preparation experts from Finland, Brazil, Australia, and the United States. Read the article featured in Education Week.
From The Field To The Classroom: Pro Sports Teams Are Becoming Players In Math, Science Education
An emergency has occurred at the 49ers football museum in Santa Clara: the stand holding the famous football from “The Catch” has broken, and a classroom of 3rd-graders must build a replacement. Using drinking straws, scissors and tape, the students are tasked with building a device strong enough to hold a 14-ounce, 22-inch football without collapsing. Read the article featured in EdSource.
What STEM Students Need To Know
The U.S. is about to spend a small fortune on teaching science, technology, engineering and mathematics, or STEM. The White House has promised $200 million a year to expand K-12 computer-science education. Several large tech firms have pledged another $300 million to the effort. That’s a good investment in theory, but the American education system is in no position to make the most of it. Read the article featured in The Wall Street Journal.
How Girl Scouts Helped Astronaut Reach For The Stars—And Is Going All In On STEM Education for Girls
The Girl Scouts announced the Girl Scout STEM Pledge, challenging CEOs across the country to join us in growing the number of girls in the STEM pipeline by 2.5 million by 2025. Read the article by The74.
To Fill STEM Jobs, Federal Programs Need To Focus On Results
The U.S. Department of Labor (DOL) forecasts that next year U.S. employers will be unable to fill nearly 2.5 million job openings in STEM and STEM-related occupations. At an average pay of $85,000 per year for jobs in STEM fields, 2.5 million unfilled positions means working Americans will lose $200 billion in lost wages. Lost productivity will decrease U.S. economic growth. Read the article featured in The Hill.
A study of schools in South Korea has found that seventh-grade girls who are assigned to female teachers perform better on standardized tests, enroll in more advanced classes, and are more likely to make plans to attend college. The effects were observed from middle school into high school and are particularly pronounced in STEM disciplines like math and science. Read the article featured in The74.
Louisiana Pushing To Make STEM More Pronounced Among Students
Despite daunting hurdles, Louisiana is trying to make a big leap in the number of students who pursue careers in science, technology, engineering and math. The fields, known as STEM, provide a pathway to lucrative careers, including engineering, digital media and cybertechnology. But the state’s longtime effort to improve public education achievement is even more pronounced when it comes to science and related fields. Read the article featured in The Advocate.
More and more instructors are choosing open educational resources over traditional textbooks, a survey of more than 2,700 faculty members reveals. Read the article featured in Inside Higher Ed.
Majority Of Teachers Say Reforms Have Been ‘Too Much’
Change is hard—particularly for teachers, who are generally taking dozens of students along for the ride. Yet the majority of teachers say they’ve faced major changes—related to what and how they teach, as well as how they’re evaluated—over the last couple of years in their schools and districts, according to a recent survey by the Education Week Research Center. Read the article featured in Education Week.
Cross-Curricular Critical Thinking Is Integral To STEM Success
Whether you’re teaching STEM (science, technology, engineering and math), STEAM (STEM with art) or STREAM (STEAM with reading), the proof of success is in preparing students to be ready for everything. While upgrading the acronym to include elements of visual learning and literacy shows that we’re striving for equal importance for all education topics, having a strong cross-curricular, well-rounded cohesive education is what is really important. Read the article in Ed Tech Magazine.
Improving Educational Outcomes Of Underserved Students
Only 50.4 percent of Orange County’s more than half-a-million students met the academic standards to apply to a University of California or a California State University in the 2014-2015 academic year. The outcome is that approximately 250,000 local students are underserved, resulting in reduced access to higher education and other workforce development programs. But how can we, as educators, ensure that each and every student (and their families) have the same educational opportunities? One solution that is being explored locally is connecting charter schools — public schools open to all students that are granted the ability to operate as a separate entity by a local district, county board of education or by the state of California — and school districts. These collaborations show promise and help facilitate the spread of effective innovations in areas such as STEM education and dual language immersion programs throughout the county. They allow educators and community members to keep the focus on the children rather than other bureaucratic details that can often get in the way of providing the best learning experience possible. Read the article featured in the Orange County Register.
Stay tuned for next week’s top education news stories.
The Communication, Legislative & Public Affairs (CLPA) tea strives to keep NSTA members, teachers, science education leaders, and the general public informed about NSTA programs, products, and services and key science education issues and legislation. In the association’s role as the national voice for science education, its CLPA team actively promotes NSTA’s positions on science education issues and communicates key NSTA messages to essential audiences.
The mission of NSTA is to promote excellence and innovation in science teaching and learning for all.
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