by editor | Jan 22, 2015 | Gardening, Farming, Food, & Permaculture

Figure 3: Students and teachers search for critters (aka, decomposers) in the raised garden beds at their school. Photo courtesy of Sybil Kelley.
Can School Gardening Help Save Civilization?
(An Essay in Four Parts)
by Carter D. Latendresse
The Catlin Gabel School
Abstract
This paper is an argument for gardening in schools, focusing on two months of integrated English-history sixth grade curriculum that explores the relationships between a number of current environmental problems—notably hunger, water scarcity, topsoil loss, and global warming—and the land-use practices that led to the downfall of ancient Mesopotamia. This paper suggests that world leaders today are repeating some of the same mistakes that caused desertification to topple the Sumerian empire. It then explains how our sixth grade class explores solutions to the existing emergencies by studying Mesopotamia, ancient myth, gardening, and contemporary dystopian fiction. Finally, this paper posits a new cosmology that might help to remake western civilization, saving it from the threat of present-day ecological crises.
See previous posts:
Part I: Four Enduring Understandings
Part II: Nine Reasons for a Garden
Part III: Mesopotamia and the Garden
Very early in our unit on ancient Mesopotamia, we show the students a twenty-minute video segment featuring writer and host Michael Wood (1991), who points out that the world’s first cities were developed in Iraq, in old Sumer, in the south of Mesopotamia, which means, in Greek, “the land between the two rivers,” the Tigris and Euphrates. The first law, science, astronomy, schools, literature, map of the world, writing, calendar, wheel, wheel-turned pottery, and war were in Iraq. “The history of Iraq,” Wood says, “is rich in splendors and sorrows, the most gifted of civilizations, and yet the most tragic, the first attempt by humankind to bring people together in organized societies with a measure of happiness.” We want to affirm our first enduring understanding—that people seek meaning in closeness, in relationship—before we turn to the catastrophes that we humans visit upon our planet and ourselves. We therefore point out that the Bible names Iraq as the cradle of the human race, containing the great cities of Ur, Nineveh, Babylon, and Uruk, which are some of the most famous in the history of the world, and source of some of the greatest stories in the world: the creation, the flood, the great ark, the Garden of Eden, the Tower of Babel, and the heroic quest for everlasting life. Gilgamesh was, in addition to being the first story ever written in 2500 BCE, also the king of the world’s first great city, Uruk, in southern Iraq.
We continue the celebration of the place so that the students can rise above the sterile, shallow, and sometimes racist TV news representations of Iraq. Today the marsh Arabs of southern Iraq, we show them in another short video segment, are trying to take back their reed bed towns from the genocidal attempt by Sadam Hussein to wipe them out. In a 60 Minutes (Pelley, 2009) feature that re-aired this past year, Azzam Alwash, an Iraqi-American engineer, returns to the land of Mesopotamia and reminds us that the marsh people of southern Iraq are named by the books of Genesis and Gilgamesh as the first people created by God, and their land has been identified as Eden.
After hopefully giving some profound depth to the region in this way, we return to our second and third enduring understandings—that multilayered, sequential problems of the past are repeating themselves today, and that they insist upon broad-based, commitments across a number of issues. Before turning our attention back to the beginning, though, we point out that today all that remains of the world’s first cities are sand storms and barren dessert. Now Uruk is mounds of sand and bones, a crumbling wall just visible under sand drifts, and a temple mound ziggurat that once held a great statue of the goddess Inanna. Uruk’s population, as already alluded to, doubled within a few decades, and the population’s hunger destroyed the fertility of the earth and their capacity to feed themselves (Wood, 1991).
How did it all happen, and why is Mesopotamia so significant? we ask. It all started with good dirt, water, and wheat, we tell our students, as we stand in our school’s garden in early September next to a bed of ripened and harvest-ready red spring wheat. We then cut, thresh, winnow, and grind the wheat in a lesson my colleagues and I learned at the Edible Schoolyard Project in Berkeley, California, a few summers ago. Our Director of our Food Services visits and does two lessons on cooking with local ingredients, and we being our study of chapters 3-6 of the textbook History Alive! Ancient World (Frey, 2004) that we use as a supplemental resource. The students see how adopting crop agriculture and domesticated animals in settled communities was the most fundamental shift in human history. Hunting and gathering in groups of 30 – 100 were egalitarian, but the settled agrarian communities of Mesopotamia saw the rise of specialization within society and “the emergence of religious, political and military elites and a state with the power to direct the rest of society. At the root of these social changes was a new attitude to the ownership of food” (Ponting, 1991, p. 53-54).
Soon after creating the flour, the students and I fire up the cob oven and use the flour to make a pita bread in a piece of technology very much like the ovens used in Mesopotamia five thousand years ago. Meanwhile, the students continue to distinguish between the hunting and gathering groups—who viewed food sources, whether plant or animal, as available to the entire group, owned by none—and the settled agrarian towns of Mesopotamia—who grew crops in fields and herded flocks, thereby coming to view these living beings as resources and property.
The main advantage of agriculture over hunting and gathering, the students learn, as they are chomping away on the tabouli and hummus and pita we make for our Mesopotamian feast, was that once the einkorn wheat, emmer wheat, or barley seed was saved and replanted, and once goats and sheep were domesticated for the milk and manure 10,000 years ago, the crops, grown year after year in wonderfully augmented soil, would produce surplus. The surplus wheat allowed the farmers to feed non-farming families that included craftsmen such as potters, weavers, masons, and toolmakers. One of the early tipping point moments, though, was when “ruling groups, probably religious at first and then political, rapidly took over the distributive functions. Societies emerged with large administrative, religious and military elites able to enforce the collection of food from peasant farmers and organize its distribution to other parts of society” (Ponting, 1991, p. 54).
Priests and warriors then emerged. What is interesting to us in the sixth grade is that the complex social arrangements and emerging hierarchies allow us to ask our students which jobs should be valued more than others, and in what ways do the jobs cooperate with one another to build a functioning society. Students are asked to research one of the city-states in Sumeria and create an artistic advertisement that entices others to move to their location. Each group, representing a different city-state, puts together a Visitor’s Center style presentation with at least two pieces of information, geographic and social, which are unique to their city-state.
More strands are woven in: we also teach that the great civilization of Mesopotamia was built on cereal, but the grandeur of the civilization was made possible by the intersections of water, draft animals, grain, and writing. The world’s first intensive agriculture system, J. Donald Hughes (2001) argues, was made possible by the ox-pulled plow and irrigation, which facilitated surplus yields and an expanded non-farming urban population (p. 36). Similarly, Jeremy Rifkin (2009) points out that the most successful large scale domestication of plants and animals, wherever it was in the ancient world—the Middle East, India, China, Mesoamerica—was made possible by “large engineering projects . . . including the establishment of elaborate hydraulic systems to irrigate fields” (p. 33). Digging canals and underground aqueducts to supply the fields with water were huge engineering projects. Ponting adds that the first farming was “dry farming,” precariously reliant on rainfall; however, in 5500 BCE, in the east of the Mesopotamian empire, irrigation was developed. The technology was mainstreamed and then thousands of irrigation workers had to be fed and housed, which required surplus food and buildings. Therefore the food production, food storage, home building, pottery, and irrigation industries developed apace in Mesopotamia in mutually supportive ways. To stretch this out to its end, one can also see that because the surplus was able to feed non-farmers, potters emerged that allowed farmers to store their seed for years, and the metallurgical arts developed gold, copper, silver, lead, tin, and, most important for empire expansion, as Jared Diamond (1999) shows in Guns, Germs, and Steel, iron.
To emphasize the hydraulic aspect of Mesopotamia, a feature most of us ignore when we think of the deserts of the Middle East, my teaching partner has her class create an Irrigation Treaty between the aforementioned city-state groups that answers the following questions: 1. Why must city-states cooperate to maintain the system? 2. What actions must each city-state take to maintain the system? 3. What consequences will happen for those city-states that do not follow the treaty?
After focusing for periods of time on food of the region, city-state uniqueness, and water, we present Rifkin’s notion that the writing of Mesopotamia, called cuneiform, was developed as a way to “oversee and supervise the vast complex operations required to maintain the whole hydraulic enterprise. Record keeping allowed Sumerians to track all of the operations, including monitoring the day-to-day storing and distribution of the grain” (p. 35). Ponting’s analysis goes further into the inequalities of power-relations when he suggests that once the seeds were collected and the irrigation system was established, writing was control for the religious and political elites, as they used writing to take over what he calls the “distribution functions” of the surplus food (p. 54).

From Preceden
Around 5000 BCE, Mesopotamia had a fairly uniform culture, with towns scattered along riverbanks between the Tigris and Euphrates, employing subsistence farming, hunting, and fishing to feed themselves. In southern Mesopotamia, however, beginning in around 4500 BCE, large temples began being built in eight large Sumerian cities, with populations of at least 10,000 people. This early urbanization with a central focus on massive, central temples, led to increased control over food production, storage, and distribution by the religious elite and specialized craftsmen, as the grain would be collected, stored, and distributed at or near the temple by the priests and their politicians. “Control of the surplus also involves determining who owns and works the land and who has rights to the food. From the start the temple played a key role in the organization” (Ponting, 1991, p. 57). Even in the first civilizations, we tell our students, the temple priests and administrators, in a move that prefigured the European feudal system by several millennia, came to own the land, collect the grain, mill it, and distribute it back, in rations, to the farmers who, ironically, had grown and harvested it. The power of the pen and the authority claimed from the gods invested the temple officials with their power to institute their own control and to visit targeted hunger upon those whom they chose.
By 3000 BCE, the city states were very stratified: slaves were on the bottom; most people were peasant farmers; craftsmen helped with irrigation, food collection, storage, transport, and distribution; administrators who could write tracked the food surplus; all the while, religious, military, and cultural elite secured their positions at the top (Ponting, 1991, p. 58).
Around this same time, beginning in 3000 BCE or so, private property was claimed by families, and by 2500 BCE the elite class of warriors, rulers, religious personnel and their administrators had risen to prominence by appropriating the agricultural surplus that they themselves could not produce. “Societies that were broadly egalitarian [hunter-gatherer] were replaced by ones with distinct classes and huge differences in wealth” (Ponting, 1991, p. 65).
At this point, we ask the student to do a compare and contrast activity between ancient Sumeria and modern America. How different is our society, with its top 1% and the other 99%, from ancient Mesopotamia? What would an Occupy Wall Street movement look like in Sumeria?
Also at this same time, I have started my contemporary dystopian novels literary circles unit that imagines ecological catastrophes of the 21st century. Simultaneously, too, students continue their reading of nonfiction and receiving mini-lectures on how Ponting goes on to detail, in ways that prefigure Jared Diamond’s argument in his book Collapse, exactly how the Sumerian empire falls. To recap: first, draft animals are used to plow fields, which are planted in flood plains of fresh water rivers, where massive hydraulic construction projects are undertaken to tame the seasonal floods and use a series of interconnected dikes, canals, and underground aqueducts to irrigate the fields. Nearby, settled communities develop with rising populations and surplus food that is used to feed non-farmers, including growing military, temple, and cultural elite, who claim ownership of the surplus food, using writing to track the food surplus. Then, these new elite classes employ military with metal to invade other lands for more surplus food to feed their swelling populations. However, an irreversible strain has been put upon the land because the empire has outgrown its capacity to feed itself.
In a sequence of events already covered in this essay, more land is cleared of native trees and natural ground cover, which exposes the land to wind and rain erosion. Greater manure from animals is needed to make up for the topsoil loss, and greater water is needed from canals to irrigate stripped soils, since the natural biodiversity of the humus has been removed by erosion and the monocropping of wheat or barley decade after decade. Eventually the extra water drains but stacks upon the water table, causing waterlogged clay soils, the rising of deep minerals brought up in suspension, and the salinization of the land. The irony that we want our students to see is that the very majesty and success that we celebrate—abundance, cultural diversity, job specialization, surplus food—led to the first civilization’s downfall. In order to support both the growing population of the Sumerian empire and the growing trade with other peoples, more and more land was pressed into service in shorter periods of time. “Farmers shortened the period of fallow, overplanted, plowed marginal lands, and intensified irrigation, practices which led to salinization” (Hughes, 2001, p. 27).
Not only do we explain this process of desertification as it happened in Mesopotamia, but we also teach that this dangerous process is today claiming 25 million acres of our world’s fields each year (Pearce, 2006, p. 25). For our purposes, then, as sixth grade teachers, as we look backward into the distant past of Mesopotamia, we are also looking at our expanding world of deserts today—just as Jared Diamond finds disquieting similarities between the current salinization of Montana state’s soils and the salt-caked fields of Mesopotamia (2005, p. 47-49). What’s more, we also have to admit to our students that in the near future, some reports suggest a worldwide population of 9.4 billion people in 2050, when my students are fifty years old (Suddath, 2011, para. 6). These swollen numbers will only ratchet up the need to convert more woodland to farm land and restart the process elucidated in this essay section—unless, of course, the students can think up another better way of feeding everyone.
We can follow the history of Mesopotamia as a kind of warning, then: in 3000 BCE Sumerian became the first literate society in the world, producing in 2500 BCE the first written story, Gilgamesh, which our sixth graders read. By 1700 BCE, due to high levels of salt in the soil of southern Mesopotamia, wheat production was gone. “Between 1300-900 BCE, there was an agricultural collapse in the central area [of Mesopotamia] following salinization as a result of too much irrigation” (Ponting, 1991, p. 72).
We remind our students of sequence of environmental missteps in Mesopotamia before sharing Vandana Shiva’s five-step process that she uses in her book Earth Democracy (2005) to explain how the food corporations gained control of the contemporary industrial food system. The parallels between 3,000 years ago and today are unnerving:
- The exclusion of people from access to resources that had been their common property or held in common.
- The creation of ‘surplus’ or ‘disposable’ people by denying rights of access to the commons that sustained them.
- The creation of private property by the enclosure of common property.
- The replacement of diversity that provides for multiple needs and performs multiple functions with monocultures that provide raw material and commodities for the market.
- The enclosure of minds and imagination, with the result that enclosures are defined and perceived as universal human progress, not as growth of privilege and exclusive right for a few and dispossession and impoverishment for the many. (p. 20)
Even though Shiva is critiquing the world of this decade and the seizure of family farms and waterways in India, Africa, and South America by giant agribusiness corporations like Monsanto, Cargill, Phillip Morris, Nestlé, Suez, Bechtel, and Vivendi (again, we leave out the names of these corporations, as our intention is not to guilt trip or demonize, but to think of solutions), it is startling just how precisely her analysis also applies to the fall of Mesopotamia and the Sumerian empire. One is reminded of George Santayana’s pithy line, “Those who cannot remember the past are condemned to repeat it.”
As a counterpoint to both current agribusiness and to the ancient seizure and commodification of the surplus Sumerian wheat and barley by the elite in that empire, we point our students to examples of what Vandana Shiva calls earth democracy, small farmers and local food communities who stand up to global food export corporations by insisting on healthy local economies while honoring indigenous knowledge and biodiverse food traditions. A local example includes Growing Gardens here in Portland, the organization that organizes “hundreds of volunteers to build organic, raised bed vegetable gardens in backyards, front yards, side yards and even on balconies. [They] support low income households for three years with seeds, plants, classes, mentors and more” (Growing Gardens, 2012). On a national level, the Slow Food USA movement joins an international group of over 225 chapters that “envisions a world in which all people can eat food that is good for them, good for the planet, and good for those who produce it” (Slow Food USA, 2012). An exemplary international movement embodying earth democracy is the bi-annual conference in Turin, Italy, called Terra Madre. The last Terra Madre conference, in 2010, was attended by over 5,000 delegates from over 100 countries, and it featured seminars on a variety of topics including GMO foods, water rights, organic food, and the threats that globalization poses for indigenous cultures (Terra Madre, 2010). These three movements implicitly overlap in their commitments to combatting poverty, food insecurity, topsoil and water scarcity, and empty calories.[1]
These movements provide our children with avenues for healthy food choices in healthy communities; however, without a change of global consciousness, they may be fighting uphill battles their whole lives long. At this point in the unit, just after they have finished their dystopian novels, the students are asked in groups to create a civilization somewhere in the world right now that articulates policies for topsoil and water conservation, green energy sourcing, employment for the employable, economic justice, and quality education. They are told that if they choose the site of London, for example, they are to imagine that the place is empty; however, they have to explain why they selected that site. The last and perhaps trickiest civilization characteristic they have to provide is cosmology, or what the civilization tells itself about its relation to Earth’s beginning, its bioregions, and its other animals.
At this point, to provide the students with a little background, I look backward one more time, this time to southeastern Turkey. Before Mesopotamia was founded, another astonishing event took place in 9600 BCE. The Ice Age has just ended and Hunter-Gatherers were finding more abundant vegetation and wildlife. Their wonderment led, simultaneously, to the birth of religion and to farming in Gobekli Tepe in southern Turkey, 500 miles northwest of Gilgamesh’s great city, Uruk. There, near the town formerly known as Urfa, hunter-gatherers build the world’s first temple, 11,000 years ago (Mann, 2011). Archaeologists had long assumed that agriculture had predated religion, as Ponting and Diamond assumed, but the discovery in Turkey in 1994 has changed the way historians view ancient life in the Middle East. The devotional space and figurines for worship suggest that religion, in fact, predates agriculture, or at least was contemporaneous with it rather than following it—which also suggests that the thirst for the divine, or instinctual awe of humans for the “mysterium tremendum,” as Rudolf Otto (1958, p. 12) calls it, is hardwired into homo sapiens as we gaze up into the night sky and contemplate our place in the seemingly infinite cosmos. In any case, the students are asked to account for their cosmologies after they tell us where they get their jobs, justice, dirt, water, food, and energy for their new civilization.
I want to return now to the original question, “What does the garden have to do with English or history class?” In his book, An Environmental History of the World, J. Donald Hughes (2001), answers the question succinctly: “In Mesopotamia, of all regions studied by ancient historians, there is the clearest relationship between environmental devastation caused by humans and the decline of cities and their civilizations” (p. 38). Simply put, we study Mesopotamia in our garden so that we can understand, with our minds, hands, and taste buds, what they did to both build up and then drive their empire to extinction. In doing so, we hope to analyze the entwined mistakes made several thousand years ago so that we can provide our students with mutually-supporting and variable alternatives to avoid such a miserable end in the coming century, as they face some of the same interlocking problems such as overpopulation, deforestation, desertification, water scarcity, and hunger.
We are intuiting here that new strategies and technologies aren’t enough. Without new paradigms, new cosmologies, we can only borrow faddishly temporary liberal or conservative practices, but we cannot adopt reliable and flexible orientations that will remain sturdy enough and economically and environmentally just for all when problems multiply, overlap, and worsen across the globe. In short, we need a new story for our species, one about a global, empathic civilization, which brings me to the last section of this essay.
[1] I also return to favorite resources throughout this unit when needing reminders about balanced relationships between humans and their complicated biomes, including the following: Gardening at the Dragon’s Gate, by Wendy Johnson (2008); How to Grow More Vegetables, by John Jeavons (2006); Big Ideas, by the Center for Ecoliteracy (2008); The One-Straw Revolution, by Masanobu Fukuoka (2009); Gaia’s Garden, by Toby Hemenway (2009); Growing Vegetables West of the Cascades, by Steve Solomon (2006); Seed to Seed, by Suzanne Ashworth (2002); and the books and pamphlets of the Biodynamic Farming and Gardening Association.

by editor | Jan 3, 2015 | Environmental Literacy, Learning Theory
Bias and the Educator in the Mirror
Our inherent perspectives color the world we share with our students.
by Victor Elderton
Many of us in environmental education strive to create lessons and activities which we hope will facilitate greater understanding and stimulate higher levels of environmental inquiry among our students. The number of positive programs and initiatives which have been started is not vast compared to Language, Social Studies or Mathematics curriculum materials, but at the same time there are enough representative samples around to say there is significant interest in the field.
The very fact that CLEARING can publish articles about different points of view as to the most effective ways of teaching and learning about the environment is testament to how interested a number of us are in how we teach and how students should be instructed about the environment. I have found this a very healthy debate, which has led me to question my own teaching and methodology. How often in our teaching zeal do we question what we are actually teaching, though? We often discuss at length and with passion how we teach, but do we really ask the question: what are we teaching? What are the biases we inherently teach as environmental educators?
If we look at locally developed materials or materials that are produced for a wider educational milieu, what are the perspectives and examples which are used to help students understand the world better? It is my experience that the topics and examples reflect who is writing them – namely homo sapiens sapiens. As a result, our best attempts at writing and developing programs about our investigation of the environment, with few exceptions, come from our own narrow biological bias. In many ways this makes perfect sense because we have to write this way because we are writing for our species. We have a natural interest in those things that are like us.
It seems to me there are some basic biases that we need to recognize when it comes to better understanding of the environment.
The deepest of these is that we are sepraphilic. We like to see ourselves as separate from everything else. I’d argue that if we saw ourselves as intraphilic – part of something else, we would have no environmental dilemmas because the separation of ourselves from the Earth would not be recognized. My experience tells me that there are other world views which recognize a closer integration with the earth but I would also argue that this is not a basic human characteristic. Being separate is very much about who we are.
We are also tremendously macrophilic. What triggers our imaginations are the big things that we see around us. Most of this is due to the fact that our eyes are limited in their perception so thinking about small microscopic things is not common. Yet we know that it is really the microbes which run the planet biologically. How many inverted food pyramids have you seen lately? Imagine what a different teaching straegy we would use if we drew those pyramids so that everything worked from the microbes down to us. Imagine if mammals and birds were at the bottom and we were under everything else. Perhaps it would have a humbling effect on our view of the world.
Since sight is our dominant sense, how we design programs and what we do in environmental education is often built around daylight observations and conclusions based upon those findings. While at any time we may be in daylight, half the Earth or more is in darkness or the half-light of dusk or dawn. For the Earth, no light is more the reality than daylight. How often do our programs look at the systems in darkness as opposed to light? Even at an environmental field study centre, like the North Vancouver Outdoor School, breaking from species and cultural tradition and doing things which are designed to investigate the planet at night are rare.
If being macrophilic and photophilic are part of being, so is being terraphilic. Seldom do we consider that Earth is 75% seawater. Even though our blood has the salinity of salt water, we have lost our connection with it. When we consider world depletion of forests, do we also put equal or greater importance on the real phytoplankton producers of the oceans? Think of the examples that we use to get students thinking about human concern about the Earth. They all stem from issues like forest depletion.
I feel that there are many more of these basic perceptions of the Earth that we as environmental educators perpetrate and continue to embellish. Think about it – we’re kinetaphilic (things that move), and zoophilic (animals as opposed to plants), just to mention a few. These examples don’t even cover perceptions which may be cultural.
In fact, because we have created these limits to our interpretation that are often better covered when we develop programs/curriculum. What I am more concerned about is the fact that they permeate so much of what we teach and we never engage in discussing them. We don’t talk about how we can work to introduce these basic perspectives. I also do not believe that perspectives will be discovered by students by themselves because some of them go against our very make-up as a species. They are not natural perspectives for our kind.
I am hoping that in some small way this article generates some discussion and starts the process of looking at what we teach and how we can better teach based on what we have come to understand as the way Earth systems work. How do we open the doors of understanding and interpretation for ourselves and our students instead of continually limiting them? I believe that artists and poets are attempting to do this, but I also believe our ecological investigations could do a better job as well.
We have never lived at a time when our physical perceptions could be more acute with the prospect of becoming even more refined and immediate. Isn’t it time that we made our mirror two-way and put it on a pivot and gave it a mighty spin?
Victor Elderton is the former principal at the North Vancouver Outdoor School, in addition to being a member of the Board of the Environmental Educators of BC and director of the Pacific Foundation for Understanding Nature Society.
by editor | Oct 21, 2014 | Gardening, Farming, Food, & Permaculture, STEM
Integrating STEM and Sustainability Education through Learning Gardens:
A Place-Based Approach to the Next Generation Science Standards
by Sybil S. Kelley and Dilafruz R. Williams; Portland State University
ur ecological and social problems are deeply interconnected. Climate change, habitat destruction, loss of biodiversity, food insecurity, air and water pollution, along with innumerable other environmental problems, are increasingly related to issues of equity and social justice. Addressing these problems requires a citizenry that is both scientifically and ecologically literate, ensuring that all people are empowered with the understandings, dispositions, and skills to address the challenges of this modern world.
CLEARING readers are likely familiar with another crisis of our times, the idea of “Nature Deficit Disorder” that Richard Louv (2005) so poignantly described in his landmark book, Last Child in the Woods: Saving our Children from Nature Deficit Disorder. Louv and numerous other leaders of the No Child Left Inside initiative have done a remarkable job pointing out the parallel phenomena of increasing numbers of children with ADHD and loss of time spent in nature, particularly unstructured time to explore, engage in imaginative play, and utilize all the senses. Nonetheless, time that children spend in school has become more rigid, siloed by discipline (e.g. 90+ minute literacy blocks), and disconnected from students’ daily lives and lived experiences.
As a society, we place unrealistic demands on educators. Classroom teachers are continually expected to do more with less—less money, less support, less time—with increasing mandates and pressures of accountability, whether from No Child Left Behind or Race to the Top. Informal educators provide a remarkable array of learning experiences, yet many teachers do not have the time or capacity to make use of these opportunities, particularly since in most cases, field trips have to be rigorously defended and justified in context of the school-day curriculum. However, since the early 1990s, the school garden movement has been working to mitigate traditional schooling taking place within the four walls of the classroom by bringing students outdoors on school grounds right where the schools are housed.
The adoption of the Next Generation Science Standards (NGSS) by 26 states has the potential to transform teaching and learning in and out of schools. The focus of the NGSS is on 12 “big ideas” in science (the Disciplinary Core and Component Ideas, NRC, 2012), bringing these together into process oriented learning goals (learning performances) that bridge scientific content with the practices of science and engineering, and crosscutting concepts that span all the disciplines of science (e.g. patterns, cause and effect, and systems and system models). The NGSS raises the bar for science in schools, and will require that much more attention be paid to science starting in elementary school. To help in this process, the NGSS are integrated by design. First, science education has been integrated into STEM education (Science, Technology, Engineering, and Math), elevating the practices and content of engineering design to the level of scientific inquiry. Further, the NGSS provide connections and links to the Common Core State Standards (CCSS), making them much more useful for developing integrated, project-based units of instruction. We believe that school gardens provide a rich milieu to put the NGSS into practice, making science relevant to the lives of students as they engage with their own place in meaningful ways across disciplines.
STEM and Sustainability Education: Sense of Place
As an individually and socially constructed phenomenon, relationship to place is complex and so is the creation and development of meaning, attachment, and identity based on this relationship. To know one’s place is prerequisite to knowing one’s self. According to several scholars, sense of place is recognized as a key component of sustainability and sustainability education. Wendell Berry (1990) tells us that if we do not know where we are, we cannot know who we are. David Orr (1992) explains that people with a sense of place become “inhabitants” who dwell deeply, steeped in connections. Similarly, David Sobel (2004) asserts that people tend to protect what they love and know; therefore the actual places where we live, work, and play, become an explicit part of sustainability initiatives.
Sustainability education takes a holistic, systemic view of the world, is place-based, experiential, and transformative. Effective, high-quality STEM teaching, which should include learning experiences that are relevant and meaningful to students’ lives, are active and interactive, and make use of observation and evidence to develop meaning and understanding (knowledge claims). STEM and sustainability education are complementary and should be brought together in mainstream education.
Not only do we need to weave STEM and sustainability education together, we need to elevate both more prominently in schools. Recent studies have illuminated statistically significant reductions in science instructional time in elementary classrooms (Blank, 2013). These findings are quite troubling considering the need for scientifically and ecologically literate graduates. If we wait until middle and high school to emphasize science, we have already lost a tremendous number of students, most typically students who are already marginalized in mainstream educational (and other) systems. Making use of learning gardens can provide a solution. Teaching and learning in gardens is a way to increase student engagement in learning, and also to support different learning styles, integrate various disciplines, and revitalize schools and neighborhoods.
Using “living soil” as a metaphor for re-envisioning education, Williams and Brown (2012) state,
Gardens present an appropriate life-enriching ecological practice that guides curriculum, teaching, and learning. In an era characterized by educational malaise and apathy and amidst a repetitive discourse of racing to the top, gardens offer an alternative and regenerative model for bringing schools to life that differs significantly from mechanistic techno-scientific reform efforts oriented toward economic globalization. (p. 22)
In other words, school gardens and the living soil within them can provide a place-based context for teachers and students to learn together, alongside other community members, including the non-human members, developing a sense of interconnectedness and understanding of our place in ecological systems.
Williams and Brown (2012) outline seven pedagogical principles that are foundational to garden-based education, and that shift learning from a dry, disconnected model to one that is active and alive. Learning gardens cultivate a sense of place, awaken the senses, and foster wonder and curiosity; further, through practical experience, learners observe rhythm and scale, develop understandings of interconnectedness, and value biocultural diversity. Much of schooling focuses on visual and auditory learning modalities. Learning gardens on the other hand provide multisensory, kinesthetic learning experiences for children (and adults). They provide accessible places to build connections to nature—allowing learners to see, feel, hear, smell, and taste the wonders of nature. In our own teaching and working with teachers in low-income schools in particular, we have found the desperate need for this connection among adults and children alike.
As districts, schools, and individual classroom teachers work to implement the NGSS, innumerable, place-based opportunities exist to address national, state, and local goals within the context of learning gardens. Nonetheless, it will require leadership at many levels to reach the vision of the NGSS and the school garden movement. Principals need to see the value of garden-based education and embrace this type of teaching and learning by supporting and protecting their teachers. As professionals and leaders working directly with students, teachers will need support in developing relevant, place-based lessons that address the NGSS. Teachers must be integral players, bringing their expertise and experiences to the process.
In our summer professional development course entitled, Integrating STEM and Sustainability Education through Learning Gardens, classroom teachers, garden-based educators, and graduate students in the Leadership for Sustainability program work together to implement a place-based curriculum with elementary students in a summer garden program through SUN Schools (Schools Uniting Neighborhoods). In the afternoons, this diverse group of educators has the opportunity to grapple with the content and design of the NGSS, and to work collaboratively to develop integrated, standards-based instructional units that are contextualized in school learning gardens. For the NGSS to become a reality, teachers will need more professional learning experiences that empower them to put their expertise and knowledge of their students (their place) into the design and implementation of well-planned instructional units. NGSS and the Framework for K-12 Science Education (NRC, 2012) from which they were developed provide the structure and scaffolding for building curriculum, but efforts led by teachers and partners from higher education and the local community will provide the flesh and details for implementation.
In the following paragraphs, we will highlight some examples of what the NGSS in learning gardens can look like in practice. The first scenario provides an example of an engaging encounter that could open the door to numerous explorations, while the second is an actual lesson we have used in the summer garden program. Both highlight the rich learning opportunities that emerge and are literally just outside the classroom door.

Figure 1: An unexpected discovery of a Goldenrod Crab Spider feasting on an unsuspecting honey bee yielded immediate fascination and interest among students and teachers alike.
In science, teachers are often encouraged to use the “5E” instructional model (Bybee et al, 2006) that includes “Engage, Explore, Explain, Extend, and Evaluate.” In the garden, all five E’s can be woven together, but “engage” and “explore” are particularly ripe. Last summer, a group of teacher candidates and youth ranging in age from four to twelve years old were thoroughly engaged and excited by this predator-prey discovery. For teachers, such wonders provide an anchor for numerous learning experiences.
For example, a Kindergarten teacher could help her students investigate the needs of different plants and animals in the garden. By gathering age-appropriate data (perhaps a simple table with a name and/or drawing of the organism and what the students observe each organism eating), students can develop an explanation of how different animals eat different (and in some cases the same) things. This would directly address the Kindergarten NGSS related to structures and processes in organisms, specifically the component concept about matter and energy flow in organisms (from NGSS (2013), K-LS1-1. Use observations to describe patterns of what plants and animals (including humans) need to survive). First grade teachers and students could build on foundations laid in kindergarten by focusing on the structure and function of plants and animals, and how an organism’s structures help it survive and grow (1-LS1-1. Use materials to design a solution to a human problem by mimicking how plants and/or animals use their external parts to help them survive, grow, and meet their needs).
As another possible direction, this initial discovery could serve as the platform for introducing the 3rd grade standards related to heredity and biological evolution. By combining hands-on data collection in the garden with internet research, or perhaps inviting a local scientist/arachnologist to visit the class, students could compare the variations among this particular species of spider (e.g. some have red strips, others do not), as well as traits of other spider species. Using their data, they could construct an argument about why some species are more likely to survive in particular habitats over others (3-LS3-2. Use evidence to support the explanation that traits can be influenced by the environment; 3-LS4-2. Use evidence to construct an explanation for how the variations in characteristics among individuals of the same species may provide advantages in surviving, finding mates, and reproducing (NGSS, 2013)).

Figure 2: Students collaborate to gather data about the number and diversity of species they can observe and record in their habitat sampling area.
In each of these possible scenarios, there are also numerous interdisciplinary connections to reading and math expectations in the Common Core State Standards (CCCS) and to real world issues. For example, as third graders learned about the relationships between species and their specific habitats, they could also read a variety of texts describing the flora and fauna, as well as abiotic components, of different ecosystems. They could read and discuss the role of pollinators in ecosystems, and how pollinators are so crucial to our own food sources, particularly those in a specific location—i.e. for this place. As a culminating product, students could create a short video or poster that argues why sustainable agriculture practices are vital to food security and the planet as a whole.
The second example is one that we have experienced first-hand in the summer garden program connected with the Integrating STEM and Sustainability Education through Learning Gardens course—Is Soil Alive?—the driving question behind two days of soil explorations. The first day was spent collecting samples to test for soil composition. As students waited for the layers of sand, silt, and clay from various locations around the school yard to settle in their jars, they explored decomposers in the compost and worm bins, and those found in the garden. As a culminating activity (that could also serve as an assessment), students were given a worksheet that asked them to draw what they had observed above and below ground in the garden. The overarching question, “Is soil alive? Explain your thinking” guided students.

Figure 3: Students and teachers search for critters (aka, decomposers) in the raised garden beds at their school.
This cluster of lessons provides several clear connections to the NGSS, particularly related to “Interdependent Relationships in Ecosystems,” “Cycles of Matter and Energy Transfer in Ecosystems,” and “Biogeology” of Earth’s systems. But equally important, an open-ended question such as “Is the Soil Alive?” helps students and teachers grapple with the nature of science. In this particular example of viewing soil as an ecosystem, students were provided with a concrete example of some relatively abstract, complex ideas. It let them think and learn about systems, interconnections, cycles, and flows, laying a strong foundation for further exploration and learning in upper grades. Students had the opportunity to engage in logical reasoning and discourse, using empirical observations to support their claims. Some of the more complicated explanations of why the mineral portions of soil are non-living while the system as a whole can be considered alive, at the most basic level, were understandable to the elementary-age students. If teachers had given “the right answer” as is traditionally related to properties of living and non-living elements of soil, they would have discouraged students from thinking, imagining, inferring, and looking for evidence. Furthermore, a response that declared soil as not being alive because it is made up of sand, silt, and clay could have denied students a deeper exploration into the microbial ecology of soil and compost.

Figure 4: While observing and recording the decomposers found in the compost bin, a student observed this black soldier fly emerge from its pupa. It is hard to imagine doing a better job of explaining life cycles than an experience such as this can provide
Recommendations/call to action:
School and community learning gardens provide rich, easily-accessible contexts for integrating STEM and sustainability education. Learning experiences that are multisensory, place-based, and interconnected come to life in the garden, making teaching and learning relevant and meaningful to students and teachers alike. The recent adoption of the Next Generation Science Standards, which emphasize application of knowledge, higher-order thinking skills, and demonstration of proficiency through performance, present the educational community with a unique opportunity to make better use of such spaces for teaching and learning. To help move our community closer to this vision, we offer a few suggestions to help in this process:
- Think big, start small—meaningful change takes time. It is important to spend time envisioning and planning in the early stages so that your garden-based aspirations can be turned into reality.
- Whether you are new to outdoor, garden-based education or an experienced practitioner, it is important to set shared expectations and norms with your students. Too many children have not spent a lot of time outside in nature. Furthermore, when they have been outside during school hours, it is often recess, not learning time. It is important to be clear that even though students are outside the classroom, it is still time for learning.
- Related to number two, get outside regularly. As students become more familiar with the garden routines, they will be more comfortable and “on-task.” Consider learning outdoors to be equally essential as learning with technology. Nature time is as important as screen time.
- Share your successes (and challenges)—with colleagues, your principal, parents, and your students.
- Connect with other educators and resources. For instance, the following websites can provide even more links to others interested in learning gardens: Oregon School Garden Summit (http://www.ode.state.or.us/search/page/?id=4202), OSU Extension’s gardening program (http://extension.oregonstate.edu/gardening/), Learning Gardens Laboratory (http://www.pdx.edu/elp/learning-gardens-laboratory) and many other local, regional, and statewide organizations.
- Most of all, have fun! Learning should be a fulfilling lifelong endeavor. That will only happen if it is fun, engaging, and meaningful. Learning gardens are the perfect mileau!
Photo Inspiration:

Figure 5: Learning gardens also provide numerous opportunities for arts integration.

Figure 6: Arts integration and bilingual language development—gardens can provide a cultural entry point for many students from diverse backgrounds.

Figure 7: Collecting daily measurements of temperature and weather conditions helps students develop understandings of hard-to-grasp, abstract concepts. Additionally, they can observe change over time, make predictions, and record and analyze data.

Figure 8: A one-on-one exploration of roots and soil.

Figure 9: Early literacy skills can be developed and enhanced through journaling and data collection. Even the youngest learners can feel successful.

Figure 10: Teacher candidates discuss and reflect on the day’s activities with a small group of students.
References:
Berry, W. (1990). What are People For? Berkeley, CA: Counterpoint.
Blank, R. K. (2013). Science instructional time is declining in elementary schools: What are the implications for student achievement and closing the gap?. Science Education, 97(6), 830-847. DOI:10.1002/sce.21078.
Bybee, R., Taylor, J. A., Gardner, A., Van Scotter, P., Carlson, J., Westbrook, A., Landes, N. (2006). The BSCS 5E instructional model: Origins and effectiveness. Colorado Springs, CO: BSCS.
Louv, R. (2005). Last child in the woods: Saving our children from nature-deficit disorder. North Carolina: Algonquin Book of Chapel Hill.
National Research Council [NRC]. (2012). A framework for K–12 science education: Practices, crosscutting concepts, and core ideas. Washington, DC: National Academies Press.
NGSS Lead States. (2013). Next generation science standards: For states, by states. Washington, DC: The National Academies Press.
Orr, D. W. (1992). Ecological literacy: Education and the transition to a postmodern world. Albany: State University of New York Press.
Sobel, D. (2004). Place-based education: Connecting classrooms & communities. Great Barrington, MA: The Orion Society.
Williams, D. R. & Brown, J. D. (2012). Learning gardens and sustainability education: Bringing life to schools and schools to life. New York, NY: Routledge.
About the authors:
Sybil S. Kelley, PhD,is Assistant Professor of Science Education and Sustainable Systems at Portland State University in the Leadership for Sustainability Education program. In addition, she teaches the Elementary Science Methods courses in the Graduate Teacher Education Program. Sybil has spent nearly 15 years working in formal and informal educational contexts. Her programming and research focuses on connecting K-12 students and educators in underserved schools and neighborhoods to authentic, project-based learning experiences that contribute to community problem solving. Taking a collaborative approach, Sybil supports teachers and community-based educators in aligning out-of-school learning experiences with state and local academic requirements. Her research focuses on investigating the impacts of these experiences on student engagement, thinking, and learning; and teacher self-efficacy, pedagogical content knowledge, and instructional practices. Prior to her work in education, Sybil worked as an environmental scientist and aquatic toxicologist. Correspondence can be sent to sybilkel@pdx.edu.
Dilafruz R. Williams is Professor, Leadership for Sustainability Education program, in the Department of Educational Leadership and Policy at Portland State University in Portland, Oregon. She is co-author of Learning Gardens and Sustainability Education: Bringing Life to Schools and Schools to Life (Routledge, 2012), and has published extensively on garden-based learning, service-learning, urban education, and ecological issues. She was elected to the Portland Public Schools Board, 2003-2011. She is co-founder of Learning Gardens Laboratory and Sunnyside Environmental School in Portland. Additional information about her can be obtained at www.dilafruzwilliams.com
by editor | Oct 13, 2014 | Place-based Education, Service learning
To view this article in .pdf format, click here: MyMcKenzie

An environmental education professional development program using
place-based service-learning
by Kathryn Lynch
University of Oregon Environmental Leadership Program

here does your drinking water come from? It is a simple question, and given that humans can survive only a few days without water, a critical one. Yet, too many people cannot answer this most basic question. In Eugene, this lack of connection is often compounded by the transient nature of a large sector of the population (university students) who are often just passing through on their way to careers elsewhere.
To respond to this serious disconnect with nature, the Environmental Leadership Program (ELP) launched a set of new EE projects in 2012 focused on helping students develop a connection to the sole source of their drinking water, the McKenzie River. This stunning 90-mile long river provides many gifts: clean drinking water, fish and wildlife habitat, recreation, hydropower, and inspiration. The watershed offers fascinating and complex geology and geomorphology, multi-faceted and controversial land use issues, and a strong sense of community and history tied to place. Many organizations are doing work in the watershed, which provides opportunities for students to directly engage in conservation issues. In sum, the watershed provides a great laboratory for interdisciplinary, place-based education and service learning.
The two main goals of the new EE effort were to: 1) create a year-long program for UO students interested in EE careers (that would provide them with the knowledge, skills and confidence to develop and implement place-based, experiential programs) and 2) develop age-appropriate, engaging MyMcKenzie curricula for local youth, grades 1-8, that promotes the stewardship of the McKenzie River.
To prepare the undergraduates for their service projects, we offered a new fall course called Understanding Place: the McKenzie Watershed. The goal was to provide the necessary foundation for them to become effective place-based educators. During the 10-week course, we examined the geological, ecological, historical, social, and political influences that shape the McKenzie watershed. Six field trips took us from the headwaters to the confluence, where we explored lava flows, springs, hiking trails, dams, hatcheries, restoration projects, historical sites and more. Guest speakers provided diverse perspectives on Kalapuya culture, salmon restoration, water quality and management, and sustainable agriculture, among other topics. We wanted students to hear directly from the farmers, anglers, residents, scientists, policymakers and regulatory agencies that shape the watershed’s past, present, and future. Through diverse hands-on, student-led activities, the class gained a spatial and temporal understanding of the McKenzie, and contemplated the meaning of “place,” what contributes to a sense of place, and how it influences people’s worldviews and choices.
In the subsequent winter course, Environmental Education in Theory & Practice, UO students learned how to transform their new knowledge of the McKenzie River into engaging place-based educational programs. Participants gained a working knowledge of best practices in EE through readings, guest lectures, field trips, and most importantly, their service-learning project in which they developed educational materials for their community partners. The “Critters and Currents” team worked in partnership with Adams Elementary School to develop two classroom lessons and one field trip for each grade level. The “Canopy Connections” team developed and facilitated field trips for middle-schoolers that included a canopy climb, building watershed models, and mapping, among other activities. All the activities used the McKenzie River as the integrating context, and placed particular emphasis on systems thinking, and how the health of the river directly affects us, as the river provides our drinking water.
While the specifics of the curricula were left up to the teams to determine, all teams were required to: 1) incorporate an interdisciplinary approach, 2) include multicultural perspectives, 3) use experiential, inquiry-based methods, 4) promote civic engagement, and 5) articulate assessment strategies. Their materials were pilot-tested at the end of winter term, and then the teams worked with their community partners to implement their EE programs throughout spring term. Each UO student completed approximately 120 hours of service, which entailed facilitating field trips, classroom visits and developing supplemental educational materials (e.g. websites, presentations). What follows next are descriptions of the two 2013-2014 projects, written by the team members themselves.
Case Study 1:
Critters and Currents
By Leilani Aldana, Leah Greenspan, Courtney Jarvis, Claire Mallen, Anna Morgan, Trevor Norman, Makenzie Shepherd, Tony Spiroski, Britney VanCitters, Cheyenne Whisenhunt, Alicia Kirsten (graduate project manager).
iking along the McKenzie River trail is unlike anything else in its breathtaking beauty and awe. The trees tower above, the firs paint the horizon green, and the moss blankets the forest floor. Squirrels dart back and forth, winged insects buzz through the misty air, and regal ospreys circle above the river, spying on possible prey below. All these organisms work together in the carefully orchestrated equilibrium that is a Pacific Northwest forest. And although the forest can be serene, delicate, and quiet, it also tells a bold and enduring story to those who are willing to listen and fortunate enough to hear.
The forest’s tale is told by the many plants, fungi, animals, and humans that call it home. At one point, the entire McKenzie watershed told this story; the indigenous Kalapuya and Molalla people lived closely with their varied and unique plant and animal neighbors, constructing a narrative out of the reciprocity that encouraged a long-lasting relationship. Eventually the plot of this story was thrust in another direction, as the influx of newcomers would alter the face of this territory through extensive land management techniques and exploitation of natural resources. Today, the story of the McKenzie River watershed illustrates the growing disconnection between forests and our society brought by global urbanization. But the story is not yet over, and we have the unique opportunity to transform it.
The prominence of technology and urbanization in the 21st century has established an obvious distinction between the urban and natural worlds. Younger generations, increasingly disengaged and separated from their local natural environments, exhibit symptoms of what is colloquially called “nature-deficit disorder” (Louv 2008). Marked by rising levels of ADD/ADHD, obesity, depression, and muted creativity, nature-deficit disorder will accelerate if not immediately and holistically addressed.
Nature has the ability to inspire us, teach us, and transform our lives. By giving children the chance to explore the natural world, we allow them to experience the story nature has to tell. Utilizing place-based lessons and hands-on activities, environmental education helps students gain an ecological awareness and an understanding of natural processes. Infusing curricula with environmental themes and concepts has proven to foster stewardship and improve support for conservation (Jacobson 2006).Communities need to work collaboratively to ensure that children are provided with the awareness, knowledge, attitudes, and skills necessary to tackle future environmental problems. As environmental educators, we have enthusiastically decided to face this task; we are working to encourage deep and meaningful connections between students and nature, with the goal of nurturing responsible and active citizens.
The 2014 Critters and Currents team worked to help students connect to and build kinship with the McKenzie watershed.Our team of ten undergraduate students and project manager collaborated for six months with Adams Elementary School to bring children to visit the Delta Old-Growth Forest, the H.J. Andrews Experimental Forest, and Green Island which is managed by the McKenzie River Trust. We created curricula that promotes environmental awareness, inspires respect and compassion for the natural world, and encourages positive environmental action now and in the future.
Building connections and gaining understanding is crucial to implementing environmental education. David Sobel, whose work focuses on place-based education, states, “If we want children to flourish, to feel truly empowered, let us allow them to love the earth before we ask them to save it.” (Sobel 1996:39). By encouraging children to experience and explore the McKenzie River, students will become empathetic and compassionate toward their local ecosystems.
Throughout the spring, students at Adams Elementary School in Eugene, Oregon were able to participate directly in the narrative of the McKenzie River watershed. By constructing and decorating fabric bird wings that they can wear, our students were able to become the birds that live in the McKenzie River watershed; by developing proper habitats for real life decomposers such as pill bugs, sow bugs, and earthworms, our students were directly responsible for the lives of those who prolong McKenzie River ecosystems; by intimately learning about a particular McKenzie River critter through storytelling and haiku writing, our students became empowered to protect and defend that critter and its home. Providing our students with activities that nourish empathy for the McKenzie River watershed and its inhabitants inspires a sense of love and awe that lasts, like the narrative itself, a lifetime.
As adults, we often overlook the joys of simply being in the natural world. A childlike sense of wonder allows us to tap into long-forgotten natural connections that help foster a symbiotic relationship with nature once again, one that not only takes our breath away but also fills us with life. We stand in awe of the towering pines and vibrant mosses that carpet the old-growth forest floor; we are struck with silence as the wings of the great osprey beat the air above us and the tiny patterns of a water skimmer are drawn across a serene pond. These subtle, yet profound, experiences allow us to narrate our own story about the environment that surrounds us and how we as a community will care for it.
Let us persist with our place-based environmental education movement, where classrooms shift from hard desks and chalkboards to engaging the senses and producing first-hand experiences; where students can form intimate relationships with the story told by an old-growth forest or the wetlands of a floodplain forest, rather than reading about it in a textbook. Let us begin the shift to the great outdoors, where we can learn from the greatest storyteller of all: nature itself.
Case Study 2:
Canopy Connections
By Justin Arios, Brandon Aye, Jen Beard, Cassie Hahn, Megan Hanson, Tanner Laiche, Hannah Mitchel, Christine Potter, Meghan Quinn, Christy Stumbo, Jenny Crayne (graduate project manager).
he 90-foot tall Douglas-fir swayed gently in the wind. Multiple ropes hung from the top, waiting to be climbed. The students buzzed with excitement and nervousness as Rob and Jason from the Pacific Tree Climbing Institute prepared them to climb. On their own effort, most students ascended to the top of the tree, swaying with the tree and seeing the forest with a bird’s-eye view.
Canopy Connections 2014 was developed and facilitated by 10 undergraduate students and included a 50-minute pre-trip classroom lesson and an all-day field trip to HJ Andrews Experimental Forest. Through our field trip, we sought to immerse students in nature, foster a connection to place, and teach students about the processes and biology of an old growth forest. Connecting to nature at an early age combats Richard Louv’s theory of “nature-deficit disorder” and instills a culture of respect and awe for the natural world and hopefully, the long-term protection of natural places.
We built our field trip around the theme of “Students as Scientists,” integrating both science and the humanities. In addition to ascending into the canopy of a Douglas-fir, participating students collected scientific data, sketched native plant species, creatively expressed their observations through journaling, and built a debris shelter. Each lesson incorporated activities of various disciplines and catered to different learning styles. This rationale is supported by Howard Gardner’s multiple intelligences theory which argues that students learn and process information many different ways. We used this reasoning to construct activities that engaged students’ learning habits via kinesthetic, linguistic, visual, inter- and intrapersonal, naturalist, and logical learning methods.
Our first interaction with the students was during the pre-trip lesson. We built upon their knowledge of geography to construct a map of Oregon, highlighting cities, mountain ranges, and rivers connected with the McKenzie River. At Fern Ridge Middle School, the students were eager to add other features to the map as well, including the Long Tom, the small river flowing behind their school. Once complete, half the class was given a term relevant to the field trip such as “geomorphic” and “species richness” while the other half was given definitions. The students mingled in the class, helping each other to match the terms with the definitions.
On the morning of their field trip, the students arrived at HJ Andrews, armed with the knowledge gained from the pre-trip lesson. As they filed off the bus, we were there to greet and guide them to the staging area. After an introduction to HJ Andrews, the community partners, and the field trip agenda, each group journeyed into the forest to the first of their four stations.
Nestled at the end of the Discovery Trail was the River Reflections station. Here students learned about the complex interactions and disturbances that occur in a riparian zone through scientific observation and personal reflection. This station reflected the essence of the ongoing work at HJ Andrews by focusing on the Long Term Ecological Research and Long Term Ecological Reflections programs, highlighting the value of using both scientific and artistic lenses to understand the natural world. As scientists, the students compared the temperature, humidity, canopy cover, and species composition between two plots, one adjacent to the river and another 10-15 meters from the river. From our position on the creek bed, students saw a gravel bar in the middle of the river that provided a perfect example of the species found in newly disturbed areas. The students then journaled quietly by the river. To our surprise, students were so engaged in the journaling activity, they did not want to leave the station! Every student filled his or her own page in journals dedicated to collecting Canopy Connection’s Ecological Reflections.
At another station, students discovered the diversity found in old-growth forests, both in terms of composition and structure. They did this by identifying plants as tall as a western redcedar and as small as stairstep moss. Each student sketched and learned about a different plant and reported back to their group. After getting a close up view of forest biodiversity, the students embarked on a riddle quest to discover what makes an old-growth forest different from other forests. Every hidden riddle led them to a location on the trail identifying snags, woody debris, old trees, and canopy layers, which are the 4 main features of an old-growth forest. The students gathered in a circle to discuss how to mitigate threats to biodiversity through conservation measures.
At the “Stewardship in Action” station, the students reflected on the importance of taking care of nature by learning about and applying the Leave No Trace principles. Each student described their favorite place in the outdoors and how they felt there. This led to a discussion about the Leave No Trace principles. Students creatively expressed the principles through a short rap, poem or skit. The highlight of this station was applying the Leave No Trace principles by constructing and deconstructing a survival shelter using only debris found in the forest. The students were excited to get their hands on the branches and debris to build a shelter and crawl in for a picture!
The most profound experience was the tree climbe at the “To Affinity with Nature and Beyond” station. Each student had the opportunity to climb into the canopy of a 90-foot tall Douglas-fir tree using a system of ropes. Ascending the tree was a unique experience because students had to overcome any fears they might have had to get to the top of the tree. While climbing, students observed the change in temperature in the canopy layers and were surprised to discover that (on sunny days) it was 10 degrees F warmer at the top. While this station incorporates scientific observation, what most students will remember for the rest of their lives is the sheer wonder of viewing the old-growth forest from the canopy.
Between each station, the students found a compass bearingwritten on a slip of paper and hanging on a tree. This bearing led them to a riddle hidden 20-30 feet down the trail. The riddle related to the previous station the students had left not long before. This activity was a fun way to keep students engaged during the transition time between stations, while helping them reflect on what they learned at each station. The students learned how to read and use a compass, a valuable skill, while we were able to quickly assess if we met our learning objectives.
All in all, the Canopy Connections team spent over 1,800 hours to create and facilitate field trips for 6 middle schools and 230 students. While each field trip held the same content, every student left with his or her own distinct experience.
One student from Roosevelt Middle School said, “I learned a lot about old growth forests that I did not know before, and I think I am more likely to participate in activities taking place there.”
Throughout this program, our team and our students gained a great deal of knowledge, while fostering a connection to place and respect of old-growth forests. We have inspired our students to be curious, and want to learn more, about old-growth forests and the natural world. Ultimately, we hope these students will be more environmentally aware and will continue to care about the forest and natural environments as much as we do. As much as we hope to have touched their lives, the overall experience of working with these students has motivated us to continue pursuing careers in environmental education and work to nurture a healthier environment in the future.
Acknowledgements
We would like to thank the Luvaas Family Foundation of the Oregon Community Foundation and Steve Ellis for their generous contributions that made these projects possible. Special thanks also to our community partners: the children, teachers and staff at Adams Elementary School, the McKenzie River Trust, Kathy Keable and Mark Schulze from HJ Andrews Experimental Forest, who hosted the field trip, and Rob Miron and Jason Seppa from the Pacific Tree Climbing Institute (PTCI), who facilitated the tree climb.
Works Cited
Jacobson, Susan Kay, Mallory D. McDuff, and Martha C. Monroe. Conservation Education and Outreach Techniques. Oxford: Oxford UP, 2006. Print
Louv, Richard. Last Child in the Woods: Saving Our Children from Nature-deficit Disorder. Chapel Hill, NC: Algonquin of Chapel Hill, 2008. Print
Sobel, David. Beyond Ecophobia: Reclaiming the Heart in Nature Education. Great Barrington, MA: Orion Society, 1996. Print
Kathryn Lynch is Co-Director of the Environmental Leadership Program. Katie is an environmental anthropologist who has a strong commitment to participatory, collaborative and interdisciplinary approaches in both her research and teaching. She has worked in Peru, Ecuador, Indonesia and the United States examining issues of community-based natural resource management. This has included examining the role of medicinal plants in Amazonian conservation efforts and the potential for engaged environmental education to promote conservation. Before joining UO she was a researcher at the Institute for Culture and Ecology, where her research focused on the relationships between forest policy and management, conservation of biodiversity, and nontimber forest products. She has also facilitated various courses and workshops that examine the nexus between environmental and cultural issues.
by editor | Jul 24, 2014 | Environmental Literacy, Learning Theory
Cultivating Ecological Teachers and Learners Using Project Learning Tree

by Jaclyn Stallard
from The Branch, Project Learning Tree’s E-newsletter Summer 2014
“Ecological teaching and learning is not just a matter of pedagogy, but also philosophy. Ecological teaching and learning represents a new life-affirming mindset that all teachers—and, to a larger extent, all citizens and all Earth’s human inhabitants—must adopt for a sustainable future. This philosophy embraces interconnectedness and systems thinking, challenging the Western notion of separateness. This type of teaching and learning develops and fosters an individual and collective ecological consciousness as humans move through life and relate to themselves, others, and the world around them.”
Read the full article here