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Can Science Teachers Save Our Democracy?

By David Evans, NSTA Executive Director

Posted on 2015-10-14

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A few months ago, I started to write an op-ed with the statement that science teachers are saving our democracy. Why do I believe this? Because science teachers provide the tools our children need to remain well-informed, participatory citizens. Jefferson said, “Whenever the people are well-informed, they can be trusted with their own governance.” Today there are (well-financed) anti-science campaigns against teaching evolution or teaching about climate change that represent serious threats to the very basis of our democracy. The only viable defense against these threats is scientific literacy, and the defensive lineup consists of science teachers. “Scientific” knowledge, shared among all citizens, should be the basis for public policy as opposed to an appeal to “revealed knowledge” or authority.

Recently, while looking through old books at the local library book sale, I came across the Winter 1940 volume of Science and Society. The lead article underscored the role of science teachers as critical links in preserving democracy. J. D. Bernal, one of the fathers of crystallography, wrote “Science Teaching in General Education” and much of it sounds as if it were written yesterday afternoon. He presaged the Next Generation Science Standards (NGSS) when he said:

The old methods of teaching, with their formal approach, and their rigid separation between science and the humanities, are plainly incompetent to deal with these developments [the development of the importance of science]. The attempt to apply them results in parrot-like learning, in a stifling of intelligence and criticism, and in the production of individuals who know so little of the major factors affecting their lives that they are more at the mercy of demagogues and quacks than an illiterate population…. The reform of education is not a luxury; it is a necessity if we are to safeguard existing democracy.

And speaking of traditional science education, Bernal goes on:

At its worst, it simply handed out information that was so out of relation with life as to become meaningless and impossible to remember. The greatest defect of scientific education in the past has been its inability to transmit the most characteristic aspect of science, namely, its method. It is most important that all, and particularly those who are not continuing in scientific careers, should learn scientific method by practicing it.

 And how did he characterize the objectives of science education?

The first objective is to provide enough understanding of the science in society to enable the great majority that will not be actively engaged in scientific pursuits to collaborate intelligently with who are, and to be able to criticize or appreciate the effect of science on society.

The second objective, which is not entirely distinct, is to give a practical understanding of the method of science [i.e., scientific practices] sufficient to be applicable to the problems that the citizen has to face in his individual and social life.

Finally, Bernal discusses the critical role of science teachers in achieving those objectives and the need for educators to use real-world problems to connect with their students and their community. Perhaps most importantly, he reflects on the role of the science teacher in the face of the “anti-scientific and anti-social forces [that] are powerfully entrenched in the school system.” The widespread adoption and implementation of NGSS by teachers, even in non-adopting states, is a testament to their enlightened commitment to reason.

Sadly, anti-scientific and anti-social forces are still powerfully entrenched in the school system. As we move ahead into the 2016 election season, and as we continue to address almost daily threats to the teaching of evolution and climate change, we must insist that our thought leaders are committed to supporting science education that emphasizes the practices of science over those hard to remember “facts.” We must recognize that science education is for all students, our future citizens. The very fate of democracy may well depend on it. I hate to consider the alternative.

David EvansDr. David L. Evans is the Executive Director of the National Science Teachers Association (NSTA). Reach him at devans@nsta.org or via Twitter @devans_NSTA.

The mission of NSTA is to promote excellence and innovation in science teaching and learning for all.

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Flow of Matter and Energy in Ecosystems

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The Flow of Matter and Energy in Ecosystems Interactive E-book* explores the systemic interplay and flow of matter and energy throughout ecosystems, populations, and organisms. Webs and pyramids are used to model and communicate about the transfer of energy and cycling of matter within an ecosystem, representing how the total living biomass stays roughly constant—cycling materials from old to new life—accompanied by an irreversible flow of energy from captured sunlight into dissipated heat.

Earth, Sun, and Moon

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The Earth, Sun, and Moon Interactive E-book* uses diagrams, illustrative visual aids, and multimedia to help teachers, students, and other readers understand the interplay between Earth, Sun and Moon, and the characteristics that make Earth unique. It focuses on topics related to the heating of Earth's surface by the Sun, the phases of the Moon, and the apparent changes in the position of objects in the night sky.

Chemical Reactions

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The Chemical Reactions Interactive E-book* describes the abundance of chemical reactions in our environment and the variety of reactions involved in biological, chemical, and physical phenomena and how it relates to the electron configurations of and bonding between atoms. This e-book provides an in-depth view of chemical reactions in our everyday world and explains what causes them to occur.
 

Teachers learning new content

By Mary Bigelow

Posted on 2015-10-14

My background is in engineering and now I’m teaching middle school general science. I’m comfortable with the topics in physical and earth science, but I’m a little shaky on the life science topics, including cells, genetics, and evolution. Could you suggest some strategies or resources I could use to get up to speed quickly?  —T., Minnesota

Teachers often find themselves reassigned to different subjects, and even the subjects we prepared for have ongoing discoveries and developments. Many of us can identify with your situation of keeping a few steps ahead of the students for a while (I was a chemistry major whose first teaching assignment was middle school life science).

For the content areas you identified in your question, here are several websites with information in a visual, understandable format (there are many others, of course):

  • Learn Genetics has tutorials and readings on cell biology, genetics, neuroscience, human health, and ecology.
  • Bozeman Science has brief videos geared toward high school students with good explanations of key concepts.
  • Understanding Evolution has a collection of resources for students and teachers on the science and history of evolutionary biology.

Books geared for middle or high school students on the topics you’re discussing can provide a quick update at a level that your students will also understand. Check out the suggested reading lists in the NSTA journals or search the NSTA Recommends site.

Look for seminars or speakers at nearby colleges/universities. Professional societies., museums, zoos, nature centers, or botanical gardens often have lectures open to the public or special programs for teachers.

The resources at the NSTA Learning Center will help you, too. These resources include online web seminars and podcasts, as well as SciPacks. These collections of interactive, self-paced learning opportunities (called Science Objects) guide you through specific areas of science. In addition to the information you’ll learn, you also have access to an online mentor who can answer content questions for you. There are several related to life science, including Cell Structure and Function, Cell Division and Differentiation, Heredity and Variation, and Cells and Chemical Reactions.

Reading NSTA journals such as The Science Teacher, Science Scope, and Science & Children is an easy way to stay current, and your NSTA membership includes online access to all of them, including the archives. Even though you’re teaching middle school, the other two journals will have additional teaching ideas and content updates.

Participating a professional learning community through social media offers a just-in-time way to share ideas and information. NSTA has e-mail lists related to biology, middle school, and general science. NSTA also hosts discussion forums in life science and general science. Twitter has many hashtags for science teachers, including #nsta and #biologyteachers. In all of these resources, you’ll find colleagues are eager to offer just-in-time information, suggestions, and resources.

Check with your administrator to see if and how your independent studies could be considered part of your professional development plan.

With your expertise in engineering, you can be a resource for your colleagues as they learn more about the engineering practices in the Next Generation Science Standards (NGSS) and integrated science, technology, engineering, and mathematics (STEM) topics. You might be interested in the TeachEngineering site, in which topics and practices in life, earth and physical science are taught, connected, and reinforced through real-life problems or scenarios. There is an option to search the site by grade level, topic, and NGSS standards. The lessons have been designed by university engineering faculty and teachers. For example, Engineering and the Human Body illustrates the format and design of the units. 

 

My background is in engineering and now I’m teaching middle school general science. I’m comfortable with the topics in physical and earth science, but I’m a little shaky on the life science topics, including cells, genetics, and evolution. Could you suggest some strategies or resources I could use to get up to speed quickly?  —T., Minnesota

In the fourth book of this award-winning series, author Richard Konicek-Moran explores 15 new mysteries children and adults encounter in their daily lives. Relating the mysteries to experiences familiar to elementary and middle school students—Party Meltdown examines ice cubes melting at different rates; Baking Bread explores the importance of yeast; Stuck! uses a playground sliding board to explore properties of friction—the stories show how science is part of everyday life and initiate inquiry-based learning by leaving each mystery without an ending.
In the fourth book of this award-winning series, author Richard Konicek-Moran explores 15 new mysteries children and adults encounter in their daily lives. Relating the mysteries to experiences familiar to elementary and middle school students—Party Meltdown examines ice cubes melting at different rates; Baking Bread explores the importance of yeast; Stuck! uses a playground sliding board to explore properties of friction—the stories show how science is part of everyday life and initiate inquiry-based learning by leaving each mystery without an ending.
 

Have a question about science teaching? #askNSTA

By Lauren Jonas, NSTA Assistant Executive Director

Posted on 2015-10-12

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Bring your science teaching questions to the National Science Teachers Association (NSTA) this Fall. At our area conferences on science education in Reno, Philadelphia, and Kansas City, visit us at the #askNSTA booth in the exhibit hall or see what others are asking via Twitter using #askNSTA. Who will answer? Real people! Below are common reader questions. Read and learn more about us, and please send us questions when you have them.

Q. Who runs NSTA?

A. NSTA is supported by a staff that works to produce the materials you rely on–like our journals and conferences. They are guided by the NSTA Board of Directors and Council of District Directors, all of whom are science teachers and educators who have been elected by NSTA members. Read more about the Board and Council, and meet many of them at the NSTA Fall conferences at the #askNSTA booth in the exhibit hall.

NSTA President Carolyn HayesJoin the NSTA governance! We are holding elections now and calling for volunteers for various committees, advisory boards, and review panels. Read more about how to get involved with NSTA. –NSTA President, Carolyn Hayes; follow Carolyn @caahayes

Q. I want to get my elementary students outside more. Do you have any suggestions?

A. I’m thrilled to answer this, because getting outside is every child’s right and has been linked to better attention in students. It’s a wonderful way to get them interested in science, improve their connection to the natural world, and keep them healthy. Creating a garden is one of our readers’ favorite ways to engage students in outdoor learning. There is a great conversation happening in the NSTA Learning Center Early Childhood Forum and an Early Years blog post is devoted to it (The Joys of Gardening with Young Children). To continue the connection with nature, read trade books with good science content, such as Nature in the Neighborhood by Gordon Morrison (HMHarcourt 2004), an NSTA Recommends resource.

Peggy AshbrookUse the CBC/NSTA yearly list of Outstanding Science Trade Books for Students K-12 and your local library to find great reading material. Science topics engage students and reach even your most reluctant readers. –Early education expert, Peggy Ashbrook; follow Peggy @PeggyAshbrook

Q. I’m an NSTA member. What does that mean?

A. You’ve joined an amazing community of science educators who come together to share resources and information about how to bring the very best science learning to all students. Many of our members get their information through our journals. But at our core are people like the ones Caroline Hayes mentions above. Teaching is a challenging job, and having access to trusted resources and answers is something that our members tell us they like best.

Teshia BirtsRead more about NSTA member benefits, and please feel free to get in touch with me at tbirts@nsta.org to let us know what you need or tell us how we’re doing. –-Teshia Birts, NSTA Senior Director of Membership; follow Teshia @TeshiaBirts

Q. How can I use Twitter in the classroom?

A. Twitter is an excellent way to build your professional learning network. I have compiled a playlist of Twitter videos you can use to get started. Because of the global nature of Twitter, I have been able use it to introduce my students to scientists from around the world. My students and I talk with scientists on Twitter every month using #SciStuChat in addition to smaller scale conversations in class daily/weekly.

Adam TaylorRecently we talked about a year in space. You can find the archive of the chat on scistuchat.com. You are welcome to join us in the future. –High school science teacher, Adam Taylor; follow Adam @2footgiraffe


Q. How can I get funding to attend an NSTA conference?

A. That’s a great question and there are several ways we can help. First, all NSTA members get a great discount to all of our conferences and other resources. And look through our teacher awards–many of them give conference attendance as one of the prizes!

Delores HowardAt our conferences this Fall, we will be raffling off travel vouchers from Southwest Airlines at the #askNSTA booth. If you’ll be onsite, stop by and enter to win tickets to our national in Nashville this spring. –-Delores Howard, NSTA Assistant Executive Director, Conferences and Meetings

The mission of NSTA is to promote excellence and innovation in science teaching and learning for all.

Future NSTA Conferences

2015 Area Conferences

2016 National Conference

2016 STEM Forum & Expo

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Becoming familiar with leaves

By Peggy Ashbrook

Posted on 2015-10-07

Leaves tied to a stick to make a paint brush.

Gill Robertson shared her idea for using leaves as paint brushes.

A photo shared with a social media group—leaves bound to a stick to create a paintbrush—raised memories of children engaging with leaves in many ways. Thank you to Gill Robertson of Teddy Bear Day Care in Manitoba for sharing this interesting way to explore leaves. Using leaves in art activities is a way to draw children’s attention to the parts of plants, how they are used by the plant and how we can use them.

Cylindrical grain silos in a row

“Ralls Texas Grain Silos 2010” by Leaflet – Own work. Licensed under CC BY-SA 3.0 via Commons

While acronyms such as “STEM” and “STEAM” are useful for reminding us to include all areas of investigation and learning in the curriculum we teach, they also may seem to exclude areas not listed. Children don’t see the world as separate “silos” of engaging experiences or divisions of knowledge. They will not limit themselves to learning in a single curriculum area as they explore leaves. I like the image that “Braided Curriculum” brings to mind. Wayne Watkins and Jeffrey Bock of the University of Hawai‘i at Manoa Children’s Center write about the strands of their curriculum. Let’s braid science, technology, engineering, math, social skills, art, and all the rest into our curriculum.

Child touching leaf gently.An inquiry into the needs of plants can begin with walking through a garden. The fun of grabbing and pulling off the lower leaves is difficult to resist so when we are walking in the garden, I urge children to use “one gentle finger” to touch the plants. (I remember the fun of stripping the leaves off the willow branches of a tree at my childhood home.) We also sniff leaves and look closely with magnifiers. The children see the leaves as part of the plants, parts that can be discarded and grow again. Once a tree is “no longer using a leaf” and it’s fallen to the ground, we can do more—tearing, crumpling, cutting, painting, gluing….

When I shared Gill’s idea with early childhood friends, they said:

Cool!

I’ve also used paintbrushes that are simply the branches of the trees, especially evergreen, cut into appropriate lengths.

Very cool. I saw something similar made with pine needles. 

Love it! We could use pine needles or dandelions too…

Here are some ways to engage children closely with the function, feel, size, shape, structure, and use of plant leaves. As teachers of children who may still use their sense of taste, we choose the leaves carefully to limit them to non-toxic plants. These photos are of work in my program and in others.

These sometimes-brief encounters with leaves teach a little bit about the structures of leaves and needles, and the variety of shapes and sizes–science and math.  

 

 

 

Leaves tied to a stick to make a paint brush.

Gill Robertson shared her idea for using leaves as paint brushes.

 

Teaching Climate Change With Stories of Success

By Guest Blogger

Posted on 2015-10-07

Science teachers often find teaching about climate change challenging; when they discuss the dire consequences of rising CO2, students have a propensity to shut down. The common belief has been that if people understood climate change science, they would want to do something about it. But years of speaking to students about environmental issues made it clear to me that messages of gloom and doom elicit reactions of fear, demoralization, and hopelessness. However, when I shared inspiring stories about youth actions to, for example, preserve land or clean up rivers, it allowed young people to hear the bad news because they understood they had the power to change things. Positive, solutions-oriented stories motivated students to try to make a difference. And social science research confirms the importance of a positive approach.

“Motivated avoidance” is the tendency of people to avoid learning about troubling issues and seemingly intractable problems. The 2012 study, “On the Perpetuation of Ignorance: System Dependence, System Justification, and the Motivated Avoidance of Sociopolitical Information,” published in the Journal of Personality and Social Psychology, showed people are motivated to avoid learning more about problems that they think they can’t do anything about. People become blind to facts when confronted with disturbing scientific information. A study by the Yale Project on Climate Change (2014) corroborated this, showing that alarmist images were the least likely to motivate viewers to action.

These studies make it clear that social science must be considered when teaching about climate change; they show that environmental education and information itself does not motivate people to act. In fact, depressing environmental information delivered without the counterbalance of solutions can be counterproductive, turning some people into climate “ostriches” who bury their heads in the sand. The appeal of “ostriches” and “deniers” is that they say what people wish to be true and psychologically wish to hear—unless an alternative scenario espousing action is presented.

Realizing the power of success stories to provide inspiration and role models for young people, photojournalist Gary Braasch and I founded the nonprofit Young Voices on Climate Change. Our Young Voices for the Planet (YVFP) films showcase youth reducing C02 emissions through many creative win-win scenarios, engaging local governments, businesses, and school administrators and helping their peers develop confidence in themselves as agents of change in the world. We champion and publicize these inspirational, authentic, and positive youth-led models of social action, filling an important niche in climate education.

In teaching about climate change, it is essential to begin teaching about troubling issues with hope and inspiration. Youth success stories need to precede the teaching of climate science and other wrenching environmental issues. Stories of youth “taking the reins” provides a wonderful engagement point for teachers wanting to help students who are interested in becoming agents of change and helping to protect the planet. These relevant stories also act as a lens through which to teach climate science.

Some of the youth documented in the YVFP films include 12-year-old Alec, who erects Sea Level Awareness posts along coastal California, speaks to Congress, and advocates for putting a price on carbon; Team Marine, who helped pass bans on plastic bags; 11-year-old Olivia, who raised $200,000 to clean oiled birds after the BP spill and advocates for renewable energy; and high school students who created a healthy school lunch through their school garden and local community partners.

The most recent YVFP film, Save Tomorrow, documents the motivational power of the other YVFP films. After watching the YVFP films, nine-year old Alice founded a “Save Tomorrow” club that helped solarize her school and town and save a forest. Once they realized they, too, had power, Save Tomorrow has become unstoppable. As Olivia states, “If they can do that, then so can I.”

Youth action can act as an antidote to the fear surrounding climate change. By making the teaching of climate change hopeful and relevant, students can absorb the science that is essential that they learn, as they will inherit a warmer world and will bear the brunt of climate disruption. Studies show the importance of beginning any teaching about the science of climate change with stories of hope, empowerment, and solutions. Your students are no different from the youth in the YVFP films and can become exemplars of hope and empowerment, as well as how we all can, and must, make a difference.

Lynne Cherry is the author and illustrator of 30 award-winning children’s books including best-sellers The Great Kapok Tree and A River Ran Wild. She is also the producer/director of the Young Voices for the Planet film series: short films that champion youth solutions to the climate crisis. These films are used by institutions such as National Geographic, PBS, National Wildlife Federation, and the United Nations Foundation. Cherry emphasizes the importance of sharing hopeful messages as a way to educate people and help motivate them to take positive action regarding climate change. She has received science-writing fellowships and has been awarded a Metcalf Fellowship and the Brandwein Medal. View and learn more about the films at YoungVoicesonClimateChange.com.

This article originally appeared in the October 2015 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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Science teachers often find teaching about climate change challenging; when they discuss the dire consequences of rising CO2, students have a propensity to shut down. The common belief has been that if people understood climate change science, they would want to do something about it. But years of speaking to students about environmental issues made it clear to me that messages of gloom and doom elicit reactions of fear, demoralization, and hopelessness.

 

The STEM in Volcanoes

By Becky Stewart

Posted on 2015-10-05

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My parents are currently in Hawaii, visiting Maui, Oahu, and the big island, Hawaii itself. They’ve wanted to go for many years, and on the occasion of their 50th wedding anniversary they decided to do it. I had been to Oahu and the big island about 25 years ago to see my college roommate, who did her masters degree in planetary geology at the University of Hawaii Manoa. My parents trip got me thinking about volcanoes again, and I thought they’d make a good STEM topic.

At the time of my visit to Hawaii I was living in northern Virginia, and I remember thinking that I had gone almost as far away from home as I could get without a passport. Hawaii is close to 5000 miles from Washington, and that felt just about far enough for a week. The Hawaiian islands are beautiful and amazingly tropical—there are native plants there that people grow in greenhouses on the east coast of the United States. The volcanoes on Oahu are all extinct now. Diamond Head outside Honolulu has been extinct for about 150,000 years. One of the craters now forms Hanauma Bay, which is world famous for snorkeling. This crater formed about 40,000 years ago.

The island chain and a number of related islands and seamounts have all formed over an active hotspot in the middle of the Pacific Ocean, where magma is upwelling from deep in the Earth. As the Pacific plate moves over the hotspot (as a result of plate tectonics), new volcanoes form. There is currently a new seamount forming in the chain, called Loihi. The summit of the volcano is still almost 1000 meters below the surface of the ocean, while the base is 5000 meters below the surface. Recently scientists have discovered a new kind of bacteria that feeds on iron, at the base of the seamount. These bacteria may help to balance ocean chemistry. The hydrothermal vents at the top of the Loihi seamount also host a variety of life, all of which survives without benefit of light from the Sun. The base of the food chain here is chemosynthetic organisms, which produce energy from the superheated fluids that spew from the vents.

On my visit to Hawaii I determined that I wasn’t going all that way to not get inside a volcano, so I bought a ticket for an interisland flight to Hilo, rented a car (a red Mustang convertible—did I mention it was a fantastic trip?), and drove to the Hawaii Volcanoes National Park. Behind the visitor center you can walk or drive into the Kilauea caldera see several craters. The caldera covers several square miles, and the Halemaumau crater, where an eruption is currently occurring, is almost a mile across itself. The national park is not closed to the public, even though Kilauaea has been erupting continuously since 1983. This is because there is a high level of confidence that the Kilauea eruption will not become explosive.

There are several kinds of volcanic eruptions, and Hawaiian eruptions are generally less violent than other types. The lava in Hawaiian volcanoes is less viscous than other types, which allows gas to escape and release some of the pressure gradually. Other types of volcanoes trap gas in the lava, and pressure builds up until the volcano explodes. The geologic setting of the volcano affects the type of magma that forms to feed the volcano and eventually erupt as lava. The common simple system of volcano classification into three types—stratovolcanoes, shield volcanoes, and cinder cones—is currently up for debate, due to new evidence about whether mantle plumes exist or not.

The volcanoes on Hawaii are known as shield volcanoes, which have not been explosive volcanoes in the past. One very famous example of an explosive volcanic eruption is that of Krakatau in Indonesia in 1883. There is a very readable book about the eruption called Krakatoa: The Day the World Exploded, by Simon Winchester. Krakatoa is an alternate spelling for the name of the island.

Volcanic eruptions are slightly more predictable than earthquakes. Volcanoes are easier to study and understand because they are fixed in one place, while a fault zone may extend for hundreds or thousands of miles and contain numerous branches. The San Andreas Fault in California, U.S.A, is one of the longest in the world, stretching for almost 2,000 miles. Prediction of earthquakes is a game of probability, accomplished by a combination of historical research to identify large earthquakes in a fault’s past and monitoring the build up of strain on the fault. In 2011, six scientists were accused of manslaughter and tried for failing to predict the 2009 L’Aquila earthquake in Italy, which killed more than 300 people. They were initially convicted but another Italian court recently overturned the conviction, claiming that the original judges had failed to understand modern seismology.

The prediction of all sorts of natural hazards is an important field of engineering. The goal of natural hazard assessment and risk management is to prevent a hazard from becoming a disaster. The National Association of Engineers has published research on this issue and on how population growth affects planning for natural hazards. A useful engineering unit on natural disasters is available here. It is designed for Grades 3–5, but with a little creativity could be adapted for middle or high school use.

Produced by the National Science Teachers Association (NSTA), science writer Becky Stewart contributes monthly to the Science and STEM Classroom e-newsletter, a forum for ideas and resources that middle and high school teachers need to support science, technology, engineering, and math curricula. If you enjoy these blog posts, follow Becky Stewart on Tw
itter (@ramenbecky).

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