by editor | Oct 26, 2015 | Forest Education
Seeking Environmental Maturity at Starker Forests
Helping students climb the ladder to responsible citizenship
by Richard Powell
tarker Forests is a family-owned tree farming business of about 80,000 acres, mostly within an hour’s drive in the Coast Range west of Corvallis, OR. For many years, we’ve taken people on trips to the woods. These might be field trips for school children, university students, visiting foresters/scientists from around the world, or the general public. We’ve hosted a number of workshops for teachers.
As our society becomes increasingly urbanized, we see people becoming increasingly unaware of the origins of the things they use in their daily lives. We’ve had high schools students identify their electric hair dryers and modeling clay as not coming from natural resources. A senior remarked that he didn’t know Oregon had rock quarries (apparently the concrete floor we were standing on just magically appeared)! A group of high school students weren’t even sure what natural resources were but thought a dairy cow might be related to natural resources – although, they weren’t sure. As an example of something not related to natural resources, middle school students often point to their classroom’s television.
To become a wise user of natural resources, it is imperative that people understand where things come from. Our intent is to help them re-connect with the natural world and, more specifically, get a better understanding of the forest and the origins of all the wood products they use.
At the same time, we find people have little sense of the history of a landscape. Students are taught the science of the environment but they do not connect that science with the landscape’s history. We want people to understand that biology and history have worked in tandem to shape what they see; the landscape is a function of both biology and history.
Of the school groups we take on field trips, most come from elementary schools; a few come from middle schools; only rarely, do they come from high school. Being so close to Oregon State University, we do get some university students and we get a lot of people from the general public. We get a number of foreign visitors – foresters, scientists, landowners, etc.
Even though we take many school classes to the woods, we get very little feedback from the teachers. [The best feedback is that most teachers come back year after year.] The absolute best feedback we get is when we see a child a year or two later. It takes very little time for us to realize we’d seen them before and that they remember quite a bit from their earlier field trip.
With adult groups, we commonly hear someone remark how a forester has to know about and care for so much more than just the trees. Sometimes, we’ll hear someone say they have to re-think what they know about forests and forestry. Now and then, they’ll remark how they still don’t like some of the things we do in forestry but they begin to understand there is a reason for what we do and it is based on science – it is not just about the money.
Though we take around 2000 people a year to the woods, we are foresters; we are not trained in pedagogy. For years, we’ve had a nagging question: is what we’re doing working? Do people “get” what we are trying to teach? Does any of this stick with them for the long term? Or, are we wasting our time and money?
This past summer, I attended the World Forestry Center’s International Educator’s Institute (IEI). As an environmental educator without any formal pedagogical or interpretive training, I found this week-long workshop enlightening and very worthwhile.
The part of IEI that I found most useful was called the “Pedagogic Steps in Environmental Maturity”. It validated what we’re doing.
In essence, the “Steps” is a ladder and, to get to the top rung (i.e., “Environmental Maturity”), one has to climb up from the rung below. For example, it would be futile to talk to someone in Swahili if they had not first learned and become fluent in that language. Without that prior knowledge, we’d quickly see a bunch of glazed-over stares and we’d find we’re pretty much wasting everyone’s time.
Step #1 — Learn to enjoy the outdoors.
Just get people outdoors. Adults enjoy a nice drive or hike in the woods. Take the kids hiking or camping or go canoeing on the neighborhood pond or river. Let them have fun. We’ve always felt people had a good time, but, did they learn anything from their field trip and did any of that learning stay with them?
Step #2 — Experience and observe nature.
Smell the flowers, feel the sun’s warmth, or get soaked on a cold, rainy day. Explore around a beaver pond and see where the beavers had burrowed into the bank to build their dens; look for a tree’s stump or a branch the beavers had chewed. Have people simply stop, close their eyes, and listen; it is incredible what they’ll hear for the very first time. In a few minutes time, people will never become an expert at identifying a tree but we can get them to see that the leaders, buds, needles, color, feel, bark, flowers, smell, taste, pollen, etc. vary greatly between tree species (no, they do not all have pine cones nor do they all have pine needles).
Step #3 — Understand the ecological web.
Now that we have them outdoors, they are having fun, and beginning to experience and see things, they can begin to understand what they see. Pick up and look at and feel a handful of dirt. As they see and feel the litter layer, moss, worm holes, roots, bugs, fungi, moisture, texture, etc. they begin to understand it is not dirt at all – it is soil! (Dirt is what we wash off our hands before lunch; soil is the good stuff.) Likewise, they can sample the water’s pH, dissolved oxygen, and temperature and see how those might affect the macro-invertebrates in the water. They can see a tree’s cross-section and associate the narrow growth rings with a dense forest canopy or maybe see that the wider rings are due to a more open canopy.
Once they’ve seen the differing buds, leaders, bark, leaves, etc., they can begin to see how some tree species are similar while others are different. They can begin to group similar trees into a genus, name those groups and the individual species, and begin to understand a tree.
Step #4 — Understand the interplay of man and nature.
Yes, we play in nature and we like to see and experience nature. But, more than that, nature is the source of life’s very existence! Nature provides the air, nutrients, energy, and moisture required by all life forms on the planet. Take away any one of these and life ceases to exist; alter any one and life is changed. This is the food chain. Or, put another way, life is totally dependent on the extraction and use of natural resources for its very existence.
In addition to the food chain, nature is the source of everything people use. Iron, sulfur, wood, cotton, plastic, gasoline, concrete, clothing, electricity, coal, food – in some way, all of our wants and needs are extracted from the environment.
Looking back at those tree rings, maybe they can see how those narrow rings became wider. This was likely due to opening up the canopy by either a natural means (a tree died or blew over in a storm) or the forest had been thinned.
Step #5 — Make decisions on environmental issues.
This step is one we really wrestle with. We know there are a lot of controversial issues over the use of natural resources so we strive to just stick with the science and the history of the land – on these, there should be little controversy. [Unless asked, we endeavor to keep our biases or personal philosophies/opinions to ourselves.] As Project Learning Tree says, we’d rather “teach how to think, not what to think”. We’d prefer to let people take what they saw and learned and make their own decisions.
Step #6 — Be responsible for the future.
We’d hope, after going out and experiencing the woods, our visitors are better able to make more informed and better choices. With choices comes responsibility and this would be the perfect time for a community service project.
As a practical matter, we see most people for just a brief time and it is hard for us to do steps 5 and 6 with them. With students, we hope to plant some seeds that, during the course of the school year, the teacher can help germinate and grow. With that, the students may make some decisions and then take responsibility.
That said, we’ve sponsored Tree Planting Day annually for more than twenty years. We take a harvested unit, make sure it is safe, there is a reasonable traffic flow, etc. and then invite youth and their parents to come out and plant a few trees. We’ve had as many as 400 youngsters and 200 parents on a Saturday morning though 140 youngsters and 90 parents is more the norm. They have fun (step #1); we do this rain or shine and, usually, in the mud (step #2); they plant little seedlings that, hopefully, will grow into large trees (step #3); it’s on a unit that was harvested for all the products made from wood (step #4). Further, they’ve chosen to spend a Saturday morning in the cold, rain, and mud (step #5) and help ensure that that harvested unit is reforested (step #6).
A few months ago, we took a pre-school class to the woods; these were three and four-year olds. Other than having a good time (step #1), what could these little guys possibly get from a mile-long hike in the woods; could they even get above that first step?
A few days after their field trip, I had a wonderful surprise delivered to my desk. There was a nice poster with a picture of me kneeling down and surrounded by the kids; I was showing them a stick some beavers had chewed on. Concentric, brown circles drawn around this picture gave this poster the appearance of a tree’s cross-section.
The good part was on the backside of the poster. The teachers evidently sat down with the kids to debrief and find out/reinforce what the kids had learned.
“We made duck, cougar, bear, beaver, and a raccoon print”. [Some years ago, we made some “sand boxes” across the road so kids could make animal tracks with some rubber prints.] — Step #1
“The bear foot print was the biggest; we heard birds; we learned a fir cone; we saw lots of trees”. — Step #2
“We count the rings of the tree to find out the age of the tree; trees need water; if trees don’t have water, they will not grow; trees need sun, water, air, just like us”. — Step #3
“We saw the letter ‘S’ on trees. ‘S’ trees were dead”. — [This particular plantation was on ground that had been burned around 1850 and, post-settlement, it was a pasture. We’d planted this pasture and, since it had not previously been a forest and there were no large trees, snags, downed logs, stumps, etc. for wildlife habitat, we created some snags when we thinned this forest. To help people see these snags, we’d painted an ‘S’ on several snags.] — Step #4
We were truly amazed how much these three and four-year olds took home from their mile-long hike. We were especially pleased their teachers had followed up with their students. Their comments in step #3 were especially gratifying.
About a month and a half later, a parent/teacher sent me a note. Her son was one of those pre-school students and he was still talking about this field trip!
It would have been nice if they had gotten to steps 5 and 6 but that would be quite a lot to ask of a three or four-year old.
Richard Powell is the Public Outreach Forester for Starker Forests, Inc., in Philomath, Oregon.
by editor | Sep 17, 2015 | Questioning strategies
What’s the Difference…
…between a single performer and an energetic band? Can students teach themselves?
by Jim Martin
CLEARING Master Teacher
n an earlier set of blogs, we followed a middle school class whose science teacher had started them on a project to study a creek that flows at the edge of the school ground. The last time we saw them, groups were analyzing and interpreting the data and observations they collected on their first major field trip to the creek, and preparing a report to the class. The blog focused in on the group doing macros, macroinvertebrate insect larvae, worms, etc., who live on the streambed; aquatic invertebrates large enough to distinguish with the unaided (except for glasses) eye.
They eventually organized themselves into three groups, one to cover the process of collecting the macros, one to describe how they identified and counted them, and a third to find out how to use their macro findings to estimate the health of the creek. Sounds like they’re on a learning curve, moving from Acquisition to Proficiency. They would need some feedback, both from withn the group and from their teacher. She gave each group one more task, to find out what they could about effective student work groups.
The macro group prepared the presentation they would make to the class. Each of their groups prepared their part, then they gave their presentations within the group, and used this experience to tweak them into a final, effective presentation. Their presentation included the interpretation they made based on their collected data that the creek’s current health was Fair, tending toward Good.
They used the rest of their prep time to begin a search for information on effective student work groups. During their web search, they were surprised there was so little there about middle school work groups, since they are finding their work invigorating, and feel they are learning a lot. Some of the sites they visited were confusing, some targeted high schools, but most described college work groups. Among those things related to effective work groups they found and were interested in were those which described the work, maintenance, and blocking roles individuals play within work groups, and those which described how groups can make their work visible while they’re processing by using whiteboards, posters, etc. They saw how these aids would help clarify concepts as they were learning. They decided to report on these two findings, roles group members play and making the work visible so that it is easier to discuss and process.
Of the two group characteristics they decided to report on, the idea that individuals play roles in a group, and these roles affect the work of the group were the most interesting to them, and a bit of a revelation. They were especially intrigued by one of the Blocking roles, which interfere with a group’s capacity to complete its work. The one they found most interesting was the Avoidance Behaver role. Each of them had engaged this role when they were madly fighting for the D-net while first collecting macros. (By joisting to control the D-net and collecting tray, they were avoiding the work in the way in which they behaved. They had employed Avoidance Behaviors; each of them, as they joisted, was an Avoidance Behaver.) They still laughed at the fun they had been having, but also felt the odd juxtaposition of this role with the Work and Maintenance roles they also played to move the work along, clarify the processes they used and identifications they made, keeping communication lines open, and sending out consensus queries about what they thought they were finding out.
They were encouraged that most of the roles they assumed were positive ones which lead to a successful project. As they talked, they also came to consensus that this was a finding of their work as important as their findings indicating that the health of the stream was Fair, tending toward Good. A revelation for them, and would become one for their teacher.
This group has made good progress on their new learning curves, macroinvertebrates and group roles. One curve is facilitating their conceptual understanding of macros; the other curve is empowering them to understand the dynamics of an effective work group. They entered these learning curves because (1) their teacher set them up in the first place, and (2) the Acquisition phase included finding out about macros. And, perhaps inadvertently, their, and their teacher’s discovery of the importance of developing effective work groups. Because the students were first finding macros, then learning about them, they started their work seeking information and patterns which would help them know who was living on the bottom of the creek. They didn’t consciously couch their investigation in these terms, but this is what they were experiencing.
The experience of seeing if they could actually capture macros, and the fun involved in collecting and seeing them stimulated the limbic’s Seeking system in their brains, which added dopamine to the neural soup that facilitates human efforts to make work interesting. These feelings and felt interests, in turn, drove them to the books and the web to follow up on the needs to know generated by their inquiries. Under their own power. First, the excitement of learning how best to capture macros, then residual interest carried them to the manuals to begin to identify who was there. ‘Finding Out’ is a powerful student (and human) motivator, one we stamp out as students move through the grades we teach. Perhaps because many of us don’t understand the content we teach well enough to allow our students to have their own thoughts about it. (Parenthetical comment on the 50%)
We could learn to use this motivator to engage conceptual learnings in ways that involve and invest our students in their learnings, and empower them as persons. There is a big difference between memorizing for a test and trying to find out the same information. The difference between a single performer and an energetic band. One way that difference expresses itself is in our standing in global scales of learning, where we are consistently near the bottom, rarely in the upper half. Our current model of school is memorizing for tests. How well does that work? We need to rediscover this active, group-centered, collaborative way of being human, and exploit it in our classrooms and outdoor sites. Telling students what is before them doesn’t stimulate long-term conceptual memory; helping them find out does. I’d like to say, “Freeing them to find out,” but for many teachers those words, especially the first one, might be intimidating to hear.
Building effective work groups takes time and patience. Fortunately, it goes quicker if the process takes place while the groups are pursuing an inquiry. Engaging in this kind of work develops needs for just the sort of group processes which make inquiries successful. While she may not have consciously planned it, dividing the class into groups, each with its own part of the creek to study, set the stage with students who were ready to learn about effective work groups. They weren’t consciously aware that they were ready, but their needs to do the work did the job for them.
(I’m interested in Jaak Panksepp’s work at Washington State University on the brain’s limbic system’s Seeking System. It’s important to learning for understanding because this is one of the few instances in which engaging the relatively primitive Limbic System leads to effective activity in the cortex, where critical thinking happens. When educators speak of the brain and learning in the same sentence, eyes in just about any audience tend to either roll or glaze over. Even though the brain is our organ of learning, teachers and administrators tend to think of learning and publishers’ products as the only bundle that matters. No room for neuronal bundles. Connecting. In effective ways. Evolved bottom up, and may work best that way.)
First, by sending students to find out, the emotions of the Seeking system move them to the cortex and critical thinking. Then we organize the learners’ environment so the information they (their cortices) need to know is readily available. And we can watch as our students learn for understanding. My experience was this: First engage students in their inquiries, then see how much of the reading I would have assigned or lectured on that they get into on their own. My observations on learners over the years told me that any movement away from total inertia on the part of the student indicates a determined effort to learn even if it’s a small move, say 10% of the way to mastery. Perusing the research on the brain eventually clarified that particular parts of the brain, when they were working, elicited the learning behaviors I observed, and clarified students’ involvement and investment in the learning, and empowerment as persons, and prepared them to form effective work groups.
So, the teacher and her class were learning that one thing which will enhance student performance is to learn how to get group members to interact. You can facilitate this by ensuring that students’ work calls for the communication skills it takes to develop consensual decisions about complex topics. The teacher whose students we just followed did this by asking each group to research information about effective student work groups. They do the work, she gleans the information. Win-win. A further step would be deciding how to include minority opinions in final reports. Simple to do; you just announce that you allow it. In my experience, this helps students achieve ownership of their learnings. A surprise for me was that sometimes students presenting a minority report saw something other groups presented from a new perspective, that of observer, not of learner. Whether that altered their interpretation of findings wasn’t as important as the fact that they were developing the capacity to hear another view and think about it. And validate the right to hold it. And, holders of the majority opinion often did review their thoughts.
The macro group is moving through its own learning curve. Does their progress look like a learning curve? Where did they start? Where are they now? How does the learning curve differ for an individual student vs. an effective work group? I picture this difference as one between a single, good performer, and an energetic band; the interactions between group members, while they’re working, can make a routine school activity become an exciting experience, a performance to be remembered. If you’re a teacher, listen to that last word.
This is a regular feature by CLEARING “master teacher” Jim Martin that explores how environmental educators can help classroom teachers get away from the pressure to teach to the standardized tests, and how teachers can gain the confidence to go into the world outside of their classrooms for a substantial piece of their curricula. See the other installments here, or search Categories for “Jim Martin.”
by editor | May 26, 2015 | Outdoor education and Outdoor School
Tips for bringing students into the field: Strategies for success
By Joshua Klaus
Director of Academic Programs, Ecology Project International (EPI)
aking students into the field can provide an endless array of occasions to learn new skills, see theoretical concepts enacted, make connections, and learn about the world around us. Given the endless places that offer valuable learning opportunities, it must just be a matter of heading out the door for students to have impactful educational experience, right?
Though it would be nice if it were that easy, there are a few key strategies that will allow any educator (novice or veteran) to make the most of their time – before, during, and after their field experience.
Educators will have a higher likelihood of success if they keep the following things in mind:
• Go outside! The natural world offers limitless educational opportunities. Given the amount of time students spend in front of computers, screens, and isolated from weather, plants, and animals, exposure to the natural world is a fantastic way to engage students’ bodies and minds.
• Real-world projects: Involving students in applied research, service-learning, and conservation or community-related projects will give them a sense of connection to something larger than themselves.
• Find good partners: Working with established land managers, non-profit organizations, or government agencies can help provide additional resources, information, expertise, and motivation.
• Incentivize good work: Offer students school credit, lab hours, or community service credits if they meet or exceed your expectations while in the field.
• Have fun! Focusing on specific learning outcomes is a good idea, but balancing learning with fun, exploration, and freedom will increase the likelihood that students will have a positive, meaningful experience.
Preparation:
As the old adage instructs, failing to adequately plan and prepare often means planning for failure. Preparing students for a field experience is of paramount importance and should include setting clear expectations about goals and behavior, in addition to providing students with the tools, background, vocabulary, and knowledge necessary for success and high-quality outcomes. Advance preparation might include proper gear and equipment, safety protocols, practicing field methodology in advance, and providing a theme or integrating context for learning. At the very least, prior to heading into the field students should be given a structured opportunity to determine what they already know about a particular place or activity in addition to the chance to articulate what questions they have and what they’d like to learn. This could be as simple as asking students to draw a picture, make a list, or tell a partner what they know about a concept. Additionally, individuals could make a K-W-L chart, and the entire group could share the information in the ‘W’ column.
Adequate advanced preparation will help students stay comfortable, safe, and well-fed! By engaging students in managing risks they might encounter in the field – whether hiking on a trail or crossing a busy street – they’ll have a better understanding of the potential dangers they’ll encounter as well as the rationale for making appropriate decisions that will help keep them safe. When students understand why they should do something (instead of just being told they should) they’ll cultivate a deeper sense of ownership and personal responsibility.
Collaboration/ maximizing resources
Many organizations, government agencies, and companies are more than willing to host a group of visiting students. Call the local fisherman to take a tour of his boat, approach the university about a tour of the wet lab, or ask a conservation group to give an on-site presentation to your class about their restoration projects. Experts often love to talk about what they do and are happy to share their knowledge with students. When teaching in Oakland, CA one teacher took his physics class to a boat yard a couple blocks away and a crusty sailor taught them about mechanical advantage and pulley systems used for dry docking and offloading cargo. When the Pixar Studio in nearby Emeryville was under construction, his students crawled around the open foundation with a bunch of engineers who were delighted to tell them all about how they designed the building to withstand a 9.0 earthquake. Think creatively about what you consider a ‘field’ experience, and likely you’ll discover a long list of wonderful opportunities right within your community.
The wheel already exists
Talk to your local conservation group, nature center, government agency, or tourist outfitter about what you would like to do and ask if they can help. Many of these groups have some kind of educational mandate associated with their work, and if you can help them achieve their goals by involving your students in their work, they will likely be accommodating.
Go for it!
For beginning teachers, it’s a great idea to keep things simple until you establish a track record of success with your students and within your community. Start with small, accessible field experiences before making too large a commitment. That being said, despite the importance of preparation (as described above), don’t over-think your first field experiences. Once you’ve covered your bases and the basics, it really can be as simple as heading out the door. The world awaits, so don’t worry – once you get there, your students will thank you.
by editor | Mar 25, 2015 | Indigenous Peoples & Traditional Ecological Knowledge, Marine/Aquatic Education, STEM
CMOP: The Best Environmental Education Program You’ve (Probably) Never Heard About
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Coastal Margin Science and Education in the Era of Collaboratories
by Vanessa L. Green, Nievita Bueno Watts, Karen Wegner, Michael Thompson, Amy F. Johnson, Tawnya D. Peterson and António M. Baptista
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nterdisciplinary science is needed to make big decisions when it comes to complex and fragile ecological environments such as the Columbia River estuary. Effective communication of that science is necessary to engage students and to work across scientists, educators. policy-makers and the general community. For these reasons, the Center for Coastal Margin Observation and Prediction (CMOP) has developed a “coastal margin collaboratory,” which brings together sensor networks, computer models, cyber-infrastructure, people and institutions to better understand the Columbia River coastal margin ecosystem as a whole (Baptista et al. 2008).
CMOP scientists study the Columbia River and transform the openly shared data and tools into a better understanding of current conditions and into the anticipation of future trends from increasing climate and anthropogenic pressures. Many types of users access CMOP data for their own needs and/or collaborate with CMOP on joint scientific and educational efforts. Through the collaboratory, CMOP enables a common understanding among interested groups such as natural resource managers for local, state, federal and tribal agencies, enabling effective discussions and long-range planning.
WHAT ARE COASTAL MARGINS?
Coastal margins, broadly defined as the interface between land and ocean, contain important and highly productive ecosystems. They often mitigate the negative impacts of human activities from local to global scales, for example ‘filtering out’ excess nutrients that enter watersheds from fertilizer applications. Coastal margin environments are naturally variable because of tides, seasons and year-to- year differences in the forcing from rivers, oceans, and the atmosphere. Ecosystems adapt to that natural variability, but are often less well equipped to adjust to major shifts caused by population growth, economic development and global climate change. CMOP seeks to understand how biological and chemical components of the Columbia River interface with and are affected by physical processes, with the ultimate goal of predicting how they might respond to climate change and increased regional development.
A recent study (Frontier Economics Limited 2012) estimates that the world’s ten most populated river basins account today for l0% of the global gross domestic product, and that by 2050 that share will grow Io 25%, which will be more than the combined gross domestic product of the United States, Germany and Japan. This type of growth could be ecologically devastating, locally and globally, should it not be managed in a perspective of long-term sustainability and with the support of sound science. The datasets and predictions provided by the CMOP collaboratory can serve as useful examples that can be “exported” to other similar river and estuary systems worldwide.
THE COLUMBIA RIVER-TO-OCEAN ECOSYSTEM
The Columbia River watershed extends across seven states in the United States and two provinces in Canada, and contributes about 70% of the freshwater input to the Pacific Ocean between San Francisco and Juan de Fuca (Barnes et al. 1972). Big decisions are needed to determine policy about the hydroelectric dams, protection and regulation of the migratory salmon, and changes in water quality such as ocean-driven estuarine hypoxia and acidification. All of this is set in the context of continued population growth, economic development and climatic change-and amidst a complex regulatory environment that includes the Endangered Species Act, a federal treaty between the U.S government and Native American tribes, and a soon-to-be renegotiated treaty between the U.S. and Canada.
CMOP science has already led to the identification of previously unrecognized environmental issues, from a benign but ecologically relevant seasonal red water bloom in the Columbia River estuary (Hertfort et aI. 2012) to the development of seasonal and severe ocean-driven estuarine hypoxia (Roegner et al. 2011) and potential acidification- and is showing how those apparently distinct processes are tied together. CMOP science is also contributing to an understanding of anthropogenic and climatic changes to estuarine and ocean processes, which affect salmon habitat and life cycle.
THE CMOP EDUCATIONAL PATHWAY
Progress towards our scientific goals has opened exciting opportunities to entrain a new and diverse workforce in coastal margin science. CMOP offers an educational pathway that includes a broad range of age-appropriate activities for students and teachers. Our pathway includes short courses; camps; sustained professional development programs for teachers; curricula for high school classes; individualized research experiences through high school, undergraduate and teacher internships; interdisciplinary graduate curricula through Oregon Health & Science University (OHSU) and affiliated degree programs at partner universities; and lifelong opportunities for scientists and natural resources professionals to incorporate outcomes of CMOP science in their activities and decision-making processes (Figure 2).
From left, Sam Case third-grade teacher Fanny Drews, Newport Intermediate fifth-grade teacher Christie Walker, Taft Elementary fifth-grade teacher Valerie Baker and sixth-grade teachers Beth Parsons and Kara Allen identify microbes that live on marine debris. Photo courtesy of NewsGuard of Lincoln County, Oregon.
Teachers and informal educators engage with CMOP in a variety of ways. Teachers access data through user-friendly modules that can be used to plot time series and explore correlations between estuary variables. As an example, teachers could design an experiment that demonstrates how red water blooms influence dissolved oxygen levels, using CMOP’s models to explore various scenarios. CMOP offers a regularly updated activity archive on the CMOP website (Science Activities and Curriculum URL). Lessons are designed for adaptability between age groups and data are appropriate for math, science, and social science classrooms. These lesson plans align with the essential principles of Ocean Literacy and the Next Generation Science Standards (Ocean Literacy Guide URL) and were generated through an interactive teacher professional development workshop. Teachers can engage in individualized internships of their own, conducting original research within CMOP teams and incorporating their experiences into their classroom curricula.
A three-year collaboration of the Oregon Coast Aquatic and Marine Partnership (OCAMP) consisting of CMOP, the Lincoln County School District, Hatfield Marine Science Center, Oregon Sea Grant, Oregon Department of Fish and Wildlife/Oregon Hatchery Research Center, the Oregon Coast Aquarium, and the Bureau of Land Management’s Yaquina Head Outstanding Natural Area aimed to provide teachers with the tools needed to carry out meaningful field experiences and inquiry driven learning while improving ocean literacy during sustained, year-round professional development colloquia as well as summer workshops. A follow-up program, entitled the Oregon Coast Regional STEM Center, extended OCAMP’s partnership to include Tillamook School District, Western Oregon University, and a variety of local businesses and agencies, and seeks to support teachers in their use of problem-based learning to improve student outcomes in STEM disciplines through engagement and the incorporation of 2lst century skills. The latter program is being carried out in a blended model of professional development, with in-person and web-based activities. CMOP can also engage with an entire school community through the CMOP- School Collaboratories (CSC) program. Cohorts of teachers from CSC partner schools can engage with CMOP to develop an integrated curriculum that emphasizes an inter-connected environment (Hugo et al. 2013).
THE VALUE OF A SCIENCE AND TECHNOLOGY CENTER
The structure of the National Science Foundation Science and Technology Center program (NSF STC) has greatly enabled the development of this educational pathway through the decade-long investment in exploratory yet rigorous, potentially transformative science. lt is this structure that allows CMOP to expose students to a multi-disciplinary approach, engaging scientists from a broad range of relevant fields and from several collaborating universities, as well as practitioners from many state, federal and tribal agencies and from industry. The longevity of the STC investment has also contributed to our ability to effectively engage in sustained efforts to broaden participation among Native American, Alaska Native (Bueno Watts and Smythe 2015) and other groups underrepresented in Science, Technology, Engineering and Math (STEM) disciplines.
The synergy among anchoring academic partners (OHSU, Oregon State University and University of Washington, in the case of CMOP) is critically important to the success of a STC. Also critical is the engagement of regional stakeholders, which offer a natural, realistic, enriching and often pressing context for our science and education programs. For instance, Native American tribes of the Columbia River have historically been active and effective stewards of the land, water and natural resources in the basin. The Columbia River lnter-Tribal Fish Commission (CRITFC) has partnered with CMOP to identify potential threats to salmon and lamprey through investigation of factors that influence habitat quality. This collaboration has effectively engaged several Native American students in the CMOP education pathway and has also educated non-Native students on tribal cultures and natural resource management strategies.
DEVELOPING THE COASTAL MARGIN WORKFORCE
CMOP students are engaged at all levels of the collaboratory. They participate in the development of sensors and models, and take active part in oceanographic cruises that might range from research to mariner-training vessels, autonomous underwater vehicles (Figure 3) and even kayaks (Rathmell et al. 2013). CMOP students, from high school to graduate, conduct research projects that relate to important biological hotspots, attempting holistic descriptions of their underlying physics and biogeochemistry that cover gene-to-climate scales. Students learn, shoulder-to-shoulder with researchers and practitioners, how to characterize, predict and inter-relate processes driving estuarine hypoxia and acidification. plankton blooms, and the biogeochemistry of lateral bays and of estuarine turbidity maxima (ETM)-turbid water regions located at the heads of coastal plain estuaries near the freshwater/saltwater interface. CMOP students also gain an understanding of broad topics that provide context to CMOP research science initiatives, such as global nutrient cycles, climate change, managing natural resources, mitigating natural hazards, and protecting fragile ecosystems.
Within the curriculum or with their mentor teams, students conduct fieldwork in the Columbia River estuary and in the coastal waters of Oregon and Washington using a variety of approaches, ranging from simple 
river-front water sampling from a dock to participation in major research campaigns aboard University-National Oceanographic Laboratory System (UNOLS) vessels. Students gain hands-on experience within laboratories, using state-of-the-art equipment such as imaging flow cytometers (FlowCAM), an Environmental Sample Processor (ESP), a Conductivity, Temperature, and Depth Sensor (CTD), or a Scanning Electron Microscope. Students also gain exposure to the “Virtual Columbia River,” a data-rich simulation environment that offers multiple representations of circulation and ecological processes, including their variability and change across river-to-shelf scales (Virtual Columbia River URL). The models that form the Virtual Columbia River simulate estuarine conditions, enabling predictions of changing physical properties (tides, currents, salinity and temperature) and biogeochemical cycles (e.g., nitrogen and carbon) important to ecosystem management. Comparisons between field observations and model simulations allow for continued learning and refinement of the process.
INCORPORATING CMOP SCIENCE INTO THE CLASSROOM
Curricula available on the CMOP website combine elements of coastal oceanography, environmental microbiology, biogeochemistry, computational sciences, and information technology. Student participants in K-12 activities have continued working with CMOP, ‘graduating” to more sophisticated, longer-term participation as undergraduate interns. Likewise, undergraduate interns have continued their research by matriculating into the CMOP-affiliated M.S./Ph.D. Environmental Science and Engineering degree program offered through the lnstitute of Environmental Health (IEH) at OHSU. IEH graduates have gone on to related careers in academia, private research, and with related federal and state agencies. To date, CMOP has served over 800 K-l2 students, over 70 teachers, over 100 undergraduate students, and has graduated 28 M.S. and Ph.D. students. CMOP students have graduated from the Environmental Science and Engineering Program at Oregon Health & Science University; the Ocean, Earth and Atmospheric Sciences Program at Oregon State University; the Computer Science program at Portland State University; the Marine Estuarine Environmental Sciences program at the University of Maryland; the Computer Science program at the University of Utah; the Physical Oceanography Program and the Biological Oceanography Program at the University of Washington. Students who have engaged in the CMOP Education “pathway” have become citizen scientists with a nuanced knowledge of coastal-margin science issues, and many have gained expertise and skills that have enabled them to contribute to a growing professional workforce in coastal margin science.
For middle- and high-school students, CMOP offers classes. day-camps and high-school internships in partnership with Saturday Academy, a non-profit organization dedicated to providing hands-on, in-depth learning and problem-solving activities. Past topics have included microbiology, marine biology, oceanography, and ocean technology. The curriculum is designed to enable students to easily identify the importance of coastal-margin related issues to their own academic interests and personal lives.
Undergraduate interns join CMOP mentor teams, which include a “Frontline Mentor” and a “senior Scientist.” The Frontline Mentor-typically a graduate student, staff member or post-doctoral fellow-establishes a project relevant to one or more CMOP research initiative. The Senior Scientist mentor provides guidance and ensures academic caliber. Over the course of the ten-week program, interns gain autonomy within their mentor teams as they gain contextual knowledge and skills. lnterns regularly interact with each other and with other CMOP participants through professional development seminars encompassing scientific themes, career opportunities and scientific ethics. lnterns visit sites along the river from Bonneville Dam to downtown Portland and to the mouth of the Columbia River estuary, to gain a first-hand understanding and appreciation of the complex interactions of biological, chemical, and physical processes. lnterns document their work through a daily lab notebook, a weekly blog (Undergraduate lnternships URL), a final presentation and a synthesizing paper. lntern research projects have been thoroughly incorporated into CMOP research; interns have co-authored CMOP publications in peer-reviewed journals (Publications URL) and have presented at national and international conferences (Presentations URL).
ASSESSING IMPACT
The CMOP Education program seeks to make full use of the resources available to this NSF STC to enable a wide range of teachers, students, and other users to learn more about and contribute to place-based knowledge of coastal margins. The University of Washington’s Office of Educational Assessment regularly evaluates the effectiveness of our program. Evaluations include surveys and focus groups with each participant cohort as well as follow-up surveys for longitudinal data. Data analyses demonstrate that high school and undergraduate participants in CMOP programs have increased interest in STEM education; increased confidence in their ability to engage in STEM research; enhanced relevant technical and professional skills, and, for undergraduate students, clarified research foci both within their degree programs and related to their decision of graduate programs. Eighty-seven percent of undergraduate survey respondents who obtained bachelor degrees went on to matriculate into STEM graduate programs, 4O% in fields related to their internships. All of these graduates agreed or strongly agreed that “Being part of the [CMOP] summer internship strengthened my application to this graduate degree program.”
ACKNOWLEDGEMENTS
CMOP is primarily supported by the National Science Foundation, through cooperative agreement OCE-O4246O2. Crant CEO-I034611 extended our CSC program to Native Alaskans.
REFERENCES
Baptista, A., Howe, B., Freire, J., Maier, D., & Silva, C. T. (2008).
Scientific exploration in the era of ocean observatories. Computing in Science & Engineering, l0 (3),53-58.
Barnes, C. A., Duxbury, A. C., and Morse, B. (1972). Circulation and selected properties of the Columbia River effluent at sea. ln: The Columbio River Estuory and Adjocent Oceon Woters: Bioenvironmental Studies, edited by A.T. Pruter and D.L. Alverson. Seattle: University of Washington Press, pp. 71-80.
Bueno Watts, N. & Smythe, W F. (2013). It takes a community to raise a scientist:A case for community-inspired research and science education in an Alaska Native community. Current: The Journal of Morine Educotion 2B(3).
Frontier Economics Limited. (2012). Exploring the links between woter ond economic growth: A report prepared for HSBC. London, England: Frontier Economics Limited.
Herfort, 1., Peterson, T. D., Prahl, F. C., McCue, L. A., Needoba, J. A., Crump, B. C., Roegner, C. C., Campbell, V., & Zuber, P. QO12). Red waters of Myrionecto rubrq are biogeochemical hotspots for the Columbia River estuary with impacts on primary/secondary productions and nutrient cycles. Estuories ond Coqsts,35 (3), B7B-891.
Hugo, R., Smythe, W., McAllister, S., Young, B., Maring, B. & Baptista, A. (2013). Lessons learned from a K-’12 geoscience education program in an Alaska Native community. Journal of Sustainability Education,5 (SSN 2-51:7452).
Ocean Literacy Cuide URL http:,/www.coexploration.orgl ocean literacy/documents/Ocea n LitC u ide_LettersizeV2.pdf
Presentations URL http://www.stccmop.orglknowledge_transfer/presentations
Publications URL http://www.stccmop.orglpublications
Rathmell, K., Wilkin, M., Welle, P., Mattson, T., & Baptista, A. (2015). A very smart kayak. Current: The Journal of Marine Education QB)3.
Roegner, C. C., Needoba, J. A., & Baptista, A. (20I). Coastal upwelling supplies oxygen-depleted water to the Columbia River estuary. PLoS ONE, 6 @), e18672.
doi:1O.137 1 /journal.pone.00l 8672
Science Activities and Curriculum URL http://www.stccmop.org/education/teacher/activityarchive
Undergraduate lnternships URL http://www.stccmop.org/education/undergraduate
Virtual Columbia River URL http://www.stccmop.org/datamart/virtualcolumbiariver
AUTHORS
Vanessa L. Green M.S. serves as Director of Student Development and Diversity at the NSF Science and Technology Center for Coastal Margin Observation and Prediction. Having earned a M.S. in Higher Education Administration she has focused her career on broadening participation and increasing engagement, persistence and retention among first-generation and underrepresented students in high school, undergraduate and graduate programs. She served as a founding faculty member and Dean of Students at the King George School in Vermont and served as a member of the Board of Trustees at Marlboro College. She currently serves on the Education and Outreach Steering Committee for the Center for Dark Energy Biosphere lnvestigations (C-DEBI).
Nievita Bueno Watts Ph.D. is a geotogist, science educator and Director of Academic Programs at the NSF Science and Technology Center for Coastal Margin Observation & Prediction. She conducts research on broadening the participation of underrepresented minorities in the sciences and serves on the Board of Directors of the Geoscience Alliance, a national organization dedicated to building pathways for Native American participation in the geosciences.
Karen Wegner MSW was rhe first Director for K-12 Education for the NSF Science and Technology Center for Coastal Margin Observation & Prediction. She brought years of experience as a wildlife biologist and environmental educator to CMOP. Along with education partners Saturday Academy and the SMILE Program she developed K-12 programs initially offered at CMOP. She credits the success of the K-12 program to the fantastic support offered by CMOP researches and students. Karen is now a Palliative Care Social Worker and Program Manager in Montana.
Michael Thompson Ph.D. is the Education and Outreach Coordinator at the NSF Science ahd Technology Center for Coastal Margin and Observation. He has an M.S. in Biochemistry and a PhD in Chemical Education with a focus in Engineering Education. He has been instrumental in the establishment of the EPICS High-school program, development and implementation of teacher training workshops, STEM learning communities for undergraduates, and service-learning experiences for high-school and undergraduate students.
Amy F. Johnson M.S, serves as the Managing Director for the NSF Science and Technology Center for Coastal Margin Observation and Prediction. Having earned an M.S. in Management in Science and Technology, she has years of experience managing in science and technology companies and education institutions. Prior to joining CMOP she was the Assistant Dean for Craduate Education at the OCI School of Science & Engineering at the Oregon Health & Science University.
Tawnya D. Peterson Ph.D. is an Assistant Professor in the Institute of Environmental Health at Oregon Health & Science University. She holds a Ph.D. in Biological Oceanography and carries out research that seeks to identify the factors that shape planktonic community diversity and function in aquatic systems. ln addition to scientific research, she is interested in the development and implementation of professional development programs for K-l2 teachers.
Antonio M. Baptista Ph.D. is a professor and director of the lnstitute of Environmental Health, Oregon Health & Science University and the director of the NSF Science and Technology Center for Coastal Margin Observation & Prediction. He has 25 years of experience in team science and graduate-level teaching, and uses leading edge coastal-margin science and technology as a catalyst for informed management decisions, workforce development and broadening participation.
PHOTO CREDITS
All Photos: Courtesy of CMOP staff member Jeff Schilling
Reprinted from Current, the Journal of the National Marine Education Association
by editor | Feb 23, 2015 | Learning Theory
Do We Learn As Our Students Learn?
by Jim Martin
CLEARING Associate Editor
We propose that an essential feature of learning is that it creates the zone of proximal development; that is, learning awakens a variety of internal developmental processes that are able to operate only when the child is interacting with people in his environment and in cooperation with his peers. Once these processes are internalized, they become part of the child’s independent developmental achievement.
– Lev Vygotsky
Vygotsky continued, “. . . (f)rom this point of view, learning is not development; however, properly organized learning results in mental development and sets in motion a variety of developmental processes that would be impossible apart from learning. Thus, learning is a necessary and universal aspect of the process of developing culturally organized, specifically human, psychological functions.”
t is the words, “properly organized learning,” that are key here; at least to me. When we initiate new learning by asking a question of objects in the world, we set in motion a set of processes which heighten our awareness of the world outside our bodies (parietal lobes), set up working memory to deal with what we find out (prefrontal cortex), tie relevant memories to the objects outside and working memory inside (associative cortex), and heighten our awareness, interest, and excitement about the new learning (limbic system). We are ready to absorb new learnings; others’ thoughts influence ours, and we incorporate learnings we may have been ready for, but hadn’t achieved; and, altogether, move to a higher and broader developmental level. When we use care and insight in planning the delivery of our curricula, we directly influence our students’ development in a positive way.
Fine words, but how do we go about it? Let’s start with something familiar, students working in groups. The work they will do is organized around vegetation mapping along a new path the city’s Bureau of Environmental Services (BES) is developing to connect two relatively natural areas within your school’s boundaries. The school has been notified about the project, and has been offered a BES liaison if teachers are interested in using the project to engage students in their community. (Interesting how such a sensible project is alienated from most people’s concept of school.)
You decide to contact BES and meet with its liaison. Let’s see how this might pan out. Hopefully, in a developmental way. The class will set up vegetation mapping as the thing they’ll do. You tell the liaison the class will all go out and map the site together. The liaison suggests BES does it with crews in particular areas. You’re not quite ready for this, so agree to start with the whole class working together, then build in groups as you become familiar with the work. The idea of groups does ring a bell, and you decide that, when you do organize the class this way, you will call them, “crews.” While you’re not working in groups yet, you have taken that first step – visualizing what it might be. That’s developmental.
The BES liaison asks you how much experience you have in mapping, and you reply, a little nervous, “None.” She seems pleased with that, and says that a good way to start is to lay out a simple grid, and use that to organize your mapping. Talking about doing this, you both decide to organize the grid with one axis parallel to the path. Then, you’ll label units on that axis with letters, and the other axis, stretching away from the path, with numbers. You and the liaison pause to talk about what the students will be doing within the grid. Then, at your request and her hint, you decide that, over the next two years, the class will move from the physical grid laid out with stakes and twine, to one designed with compasses and tape measures. The project covers two years, and you can continue working there after that, if you wish.
Now you feel comfortable enough to let your class in on the plan. You’ve also, with the liaison’s help, moved through Vygotsky’s zone of proximal development. You brought with you all of your previous knowledge and intuitions about learning, lined them up at the threshold for fully engaging this new way of teaching, then talking with and being quietly coached by the BES liaison, crossed the threshold (Vygotsky’s zone), and entered a world broadened by your new understandings, vision, potential, and capacity. You could have made this journey on your own, but it would take longer, and might have become discouraging. Instead, you entered this new place as if it had always been there. The catalyst was the liaison mentioning “crews,” and your previous experiences and understandings about the relationship between groups, the structure of work, and the dynamic which exists between the two. This new, incipient capacity is now part of who you are; one of the ways in which our professional lives evolve.
(The process was facilitated in part by your brain, its parietal lobes, prefrontal cortex, associative cortex, and limbic system. We talk about the structure which underlies teaching and learning – inductive:deductive, hierarchy of cognitive function, science concepts, science processes, etc. These are important to know, understand, and use. I say that it is also important to understand the brain’s role in these processes. The brain is the organ of learning; the brain working together in partnership with the rest of the body. All have evolved as a wonderful, autonomous learning machine. Don’t shy away from it.)
On to the project. When they hit the ground, and you observe them in action, groups seem more real and realistic to use. In the end, you decide on groups, or “crews;” next year, working with compass and tape measure. And you also begin to recognize the work’s potential for the mathematics embedded in it. You hadn’t considered mathematics until you saw the grid going up, students making measurements, and problems they had locating various trees and shrubs. When they finished laying out the grid, you began working with the embedded mathematics by having them calculate the surface area defined by one cell in the grid, then extrapolate from that to the project’s total surface area.
Next, you ask the groups to describe the plants in each cell of the matrix, and to map their location within the cell. As they work, they learn to identify plants, check their biologies, and recommend further plantings. You’re on your way. In future, your eyes will be on planting, with mapping the first step. Eventually, you might cross the threshold to restoration.
The following summer, when your mind is fully functioning again, you return to your transition from classroom teacher to classroom teacher who uses the world outside the school for context and curricula, and begin to see how it was like the transformation described by Lev Vygotsky that you’d read about years ago. You were ready for the new learning, had all of the pieces together in your mind, but needed a small catalyst to bring them together in a developmental whole. This, and the way students became more involved and invested in their learnings as they began to develop into effective work groups. Could they have also been entering, and moving through, Vygotsky’s zone of proximal development? Would they have experienced it if they had remained in the classroom? How do you find out?
Ultimately, you realize that you needed to recognize that zone first, and understand its potential. Understanding that, you think you can exploit its potential in any environment. And, you think you might explore this next year. How might this play out in a developmental way? How might you use this with your class? Your crews? Think about how you felt as you moved through the zone, and visualize how this might be felt by your students. These insights are as important to effective teaching as knowing and understanding content. It is that person moving through the zone that we are teaching. Not a name or classroom seat, but an actively developing, becoming, person. We play a huge role in those lives.
This is a regular feature by CLEARING “master teacher” Jim Martin that explores how environmental educators can help classroom teachers get away from the pressure to teach to the standardized tests,and how teachers can gain the confidence to go into the world outside of their classrooms for a substantial piece of their curricula. See the other installments here, or search Categories for “Jim Martin.”
At the same time, we find people have little sense of the history of a landscape. Students are taught the science of the environment but they do not connect that science with the landscape’s history. We want people to understand that biology and history have worked in tandem to shape what they see; the landscape is a function of both biology and history.
In essence, the “Steps” is a ladder and, to get to the top rung (i.e., “Environmental Maturity”), one has to climb up from the rung below. For example, it would be futile to talk to someone in Swahili if they had not first learned and become fluent in that language. Without that prior knowledge, we’d quickly see a bunch of glazed-over stares and we’d find we’re pretty much wasting everyone’s time.
A few months ago, we took a pre-school class to the woods; these were three and four-year olds. Other than having a good time (step #1), what could these little guys possibly get from a mile-long hike in the woods; could they even get above that first step?
