by editor | Sep 20, 2025 | Data Collection, Environmental Literacy, Experiential Learning, Forest Education, Inquiry, Integrating EE in the Curriculum, Learning Theory, Marine/Aquatic Education, Questioning strategies
Building a Community: The Value of a Diack Teacher Workshop
Teachers are being asked to do more than ever before. We are inundated with meetings, grading, analyzing data and curriculum development. The idea of taking kids outside to do field-based research can be daunting and filled with bureaucratic hurdles. Given all this, why should we take our precious time to implement this new type of learning?
by Tina Allahverdian
It is a warm summer day at Silver Falls State Park and a group of teachers are conducting a macroinvertebrate study on the abundance and richness of species around the swimming hole. The air is filled with sounds of laughter from children playing, parents conversing on the bank, and the gentle babble of the stream below the dam. The teachers, armed with Dnets, clipboards, and other sampling equipment, move purposefully through the water collecting aquatic species. Being a leader at this unique workshop, I am there to support the teacher’s inquiry project and also help brainstorm ways to bring this type of work back to their classrooms.
The buckets on the bank soon host a variety of species like water beetles, caddisflies, and stonefly nymphs, offering a snapshot of the rich biodiversity in the stream. We teachers sit on the bank, peering into the tubs, magnifying lenses and field guides in hand. We fill out data collection forms and discuss our findings. On this particular summer day, several young children at the park gather to see what we are doing. Their curiosity is piqued by the idea of discovering the hidden inhabitants of the aquatic ecosystem they are swimming in. The teachers and I patiently explain the project to the children and their parents. While some of the crowd goes back to swimming, two little girls stay for over an hour to help identify species. Later, while we pack up a mother stops to thank us for including her daughter in the scientific process. She shares that discovering the magic of the stream with us is her daughter’s idea of a perfect day. This moment is a testament to the power of experiential learning and the unexpected magic that can happen when we take learning into the field.
After the field work is completed, we all gather back at the lodge to create posters and present our results to the rest of the workshop participants. Based on individual interests and grade levels, teachers work in small groups to analyze their data and share their conclusions and questions. There are various topics that groups are curious about — from lichen or moss, to bird behavior and effects of a recent fire on the tree species. Teachers take on the work of scientists so they can get a feel for the experience their students will have in the future.
Teachers often want to backwards plan, knowing the end product their students will experience and learn. But this type of scientific inquiry requires us to let go of control so that students can ask authentic, meaningful questions that are not yet answered. Teachers come to learn that teaching the process of science is often more valuable than teaching the content. They are engaging in the work of true scientists and learning how to be curious, lifelong learners along the way. Being a part of inspiring projects and trips such as these is an experience that teachers, students, and even parent volunteers will remember for years to come. As an upper elementary teacher myself, I often hear about the power of our work when families come back to visit and reminisce about their time in my classroom. I know that this work will impact future generations and their enthusiasm for science learning. Not only that, we are teaching students to do, read and understand the work of a scientist so they can make informed choices in their adult lives.
Every time I help lead this workshop, I witness a transformation among the participants over the course of the three days. On the last day we give a feedback form which is always filled with so much enthusiasm for taking the learning back to the classroom and to colleagues; I often hear this is the best professional development they have experienced in a long time because it is so practical and hands-on. One of my favorite parts about the Diack field science workshops is witnessing the teacher’s excitement for learning about nature that I know will be passed on to students back in the classroom. Twice a year we meet at a beautiful location in Oregon where teachers from many different districts have the opportunity to carry out the mini-inquiry project and plan curriculum that promotes student-driven, field based science inquiry for K-12 students.
Perhaps one of the most significant outcomes of the Diack Ecology Workshop is the formation of a community of educators passionate about outdoor learning. Teachers exchange ideas, share success stories, and collaborate on developing resources for implementing field-based inquiry projects. They share ideas across grade levels to get a sense of where their students are going and have come from. This sense of community not only strengthens the impact of the program but also creates a support network for educators venturing into the world of environmental education. I always leave the workshop inspired by the creativity, collaboration, and joy from teachers. It is one of my favorite parts of the summer and I would encourage anyone who works with students to come join us and experience the magic.
Tina Allahverdian is passionate about connecting students with science in the natural world. When not teaching fifth graders, she can be found reading in a hammock, kayaking through Pacific Northwest waters, or hiking in the mountains. She currently teaches in West Linn, Oregon, and resides in SE Portland with her husband, twin boys, and their dog, Nalu.
by editor | Sep 17, 2025 | Data Collection, Environmental Literacy, Experiential Learning, Inquiry, Marine/Aquatic Education, STEM, Student research, Teaching Science
Making Science Engaging at Camp
Connecting art and science helps students find STEM classes more engaging and enjoyable
By Elli Korthuis
4-H is a youth development organization that focuses on helping members, ages 5-19 years, grow as individuals through their mastery of their passions, referred to as their spark. The more traditional 4-H program offers clubs in projects such as sewing, presentations, and livestock. However, 4-H reaches a broader audience through its non-traditional programs including camp and in-school instruction.
We attempt to offer a broad range of classes at our 4-H camps including those in STEM (science, technology, engineering, mathematics). One of the reoccurring themes we see in 4-H camp evaluations is that the science classes are “boring” while the craft classes have remained highly popular. With the growing need for STEM education, we needed to find a way to make these classes more engaging and enjoyable for the youth.
Over 2017, my colleague, Robin Galloway, and I developed a camp class to teach aquatic science, microscope skills, and basic nature terminology. To engage the youth in the STEM themed class, we incorporated art lessons since this was where their interest resided according to past evaluations. It was initially to be taught at the Oregon 4-H Center in Salem for campers in grades 4 – 8 along with their camp counselors. The facility is in a forested region with camp cabins, several buildings for lessons, and a pond.
During the class, we started indoors with a discussion of what organisms and materials could be found in the pond. I opened by asking which youth would want to drink the water from the pond. To my surprise, nearly half the class agreed that it would be safe to drink the unfiltered pond water. Several more said they wouldn’t because it was “gross” but didn’t have an explanation for their answer. We talked about the flora and fauna that may leave their traces in the water all the way down to potential microscopic organisms. Terms were explained along the way but there was nearly always at least one youth that could define a scientific term for the class. It was also an opportunity to gauge how in depth their knowledge was of water particles from different sources.
After our discussion, we went as a group to the pond and they could compare their discussion to what they were seeing. We got a bucket of pond water for a water sample and the youth had the chance to identify some of the particulates. Clipboards with water color paper and a pencil were given to each youth and they were asked to draw the macroscopic world they were seeing on the top half of their paper. The drawing time gave us the opportunity to delve into how some of the organisms present could affect us if we drank the water and what other organisms and materials may be present at different sources such as the ocean, a river, or a swimming pool.
The class finished their drawings and we took our supplies and the water sample inside. I put a drop of the water sample on a microscope slide, making sure to include the particulates that had filtered to the bottom of the bucket. We had brought a digital microscope that included a small LCD screen to view the slide. In a larger group setting, this microscope could have been attached to a projector to show a greater audience. With our water sample under the microscope lens, we identified the materials and organisms. One of the highlights was when we found a mosquito larva and were able to use the highest magnification to view the blood platelets flowing through its open circulatory system. It wasn’t an original part of the lesson but an added bonus. Although some youth were disgusted by what they saw, the majority were fascinated and wanted to continue in the discoveries. The class was then asked to draw the microscopic organisms and particulates they had seen on the bottom half of their paper. We wanted to encourage the scientific fascination so after a quick explanation of how to use a microscope, the youth were free to continue searching for other organisms if they wished to during the allotted drawing time. We also discussed how some of the organisms they had seen impact our health and environment.
Although many of the youth were comfortable drawing what they saw, there were a few in each class that didn’t feel confident in their drawing skills. We encouraged them in different ways including saying perfection was not the goal and joking that it could be called abstract instead. The time constraint also helped encourage the youth that weren’t as confident drawing because they understood high quality drawings could not be expected in the given time.
Water color pencils were distributed after the initial drawings were done so the campers could fill in the color. While they were coloring, I poured our water sample into several cups and passed them around with paint brushes. The youth then created the water color painting by brushing the water sample over the water color pencil areas. While painting, they remarked on how the particulates from the pond water changed both the texture and color of their painting. We talked about how the results would be different if they had used another water source and they were overflowing with ideas.
Their views on whether they were willing to drink the pond water were drastically different from when we started the class. Not one camper wanted to drink the water and many were quick to offer their explanations why.
We ended with a quick evaluation to gauge how their opinions about both art and science had changed after taking the class. Some of the highlights from the evaluation include:
- • 71.11% agreed or strongly agreed science is not boring after taking this class.
- • 76.09% agreed or strongly agreed they want to learn more about science as a result of this class.
- • 63.64% agreed or strongly agreed they would do more art in their free time because of this class.
The evaluation method was also an experiment for our program. We were trying to encourage higher levels of participation since regular paper survey evaluations are turned down by a large percentage of attendees normally. Instead, we had larger flip chart papers with each evaluation question stuck to the wall with columns for strongly agree, agree, disagree, and strongly disagree. Each youth was given a set of numbered stickers to share their opinion. This made the evaluation more engaging while remaining anonymous and encouraged more honest opinions. It was an extremely successful evaluation method that I will continue to use in the future.
After successfully conducting the class with 4th to 8th grade youth, we decided to offer it at a day camp for youth ages 5-8. The concepts were simplified but the class was still a high level science lesson for youth in this age group. They still discussed what the water sample contained, defined terms such as microscopic and macroscopic, learned how to use a microscope, and exceeded our expectations for their ages. These youth were not formally evaluated but from my individual conversations and the group discussions, I observed that the youth were engaged and excited about the entire class.
Since conducting the classes, this concept has been taught at the American Camp Association (ACA) 2017 Oregon Trail Fall Education Event where camp staff and directors from Washington, Oregon, and Idaho all enthusiastically agreed that they would like to incorporate it in their own classes. It will also be taught at the Western Regional Leaders Forum held in San Diego, CA in March 2018.
I am excited to expand this lesson into several 4-H camp STEM classes in the future. I believe that bridging the gap between art and STEM has proven itself to be a sound method for teaching “boring” science concepts to campers in an innovative and engaging way.
Elli Korthius is a 4-H Youth Development Educator for Benton County, Oregon.
by editor | Sep 16, 2025 | Environmental Literacy, Marine/Aquatic Education, STEM, Teaching Science
Bringing the Ocean into the Schools…and Schools to the Ocean
By Catherine and Joachim Carolsfeld
“I like the discoveries of the sea tank each time I look at it.”
(10 year old Elementary School Student)
“Some specimens in our tank that are local I didn’t even know of, and I’ve been around the oceans since I was really little.”
(Grade 11 student)
A few years back, a group of elementary school students in Victoria noticed an empty salmon tank in their classroom. They wondered: could it be used to study a marine ecosystem?
Those students didn’t stop too long to wonder. Instead, they became the driving force behind setting up and caring for a chilled, saltwater aquarium in their school. Parents and other community volunteers, some of whom were marine biologists and divers, helped find the chiller, pump and other supplies they needed to build a prototype tank. Then they obtained the necessary permits to stock it with plants and animals from their local shorelines, and students began to study their new ocean ecosystem.
Six months later, they decided to share what they had learned with the rest of their community. They chose a school assembly to make their presentations about the plants and animals they had been getting to know, and invited their parents to listen.
Jamie, a grade seven student who had been loathe to engage in classroom learning, spoke with passion and enthusiasm about a nondescript marine animal called a sea squirt for which he had gained new-found respect. A parent sitting in the audience commented, “That can’t be right. They’re just creatures, not animals!”
Creatures as Teachers
By the end of the assembly, that parent knew that creatures like the lowly sea squirt were animals, and they were teachers too. Students, staff and parents had already begun to think about their world in a different way, thanks to the passion and commitment of those grade six and seven students. We began to understand the power of our youth as educators, and the seed for Seaquaria was planted.
British Columbians are all proud of the marine and freshwater habitats that help define our province and our identity. Yet many of us under-value the aquatic wealth at our doorsteps, and are unaware of how our activities affect oceans, rivers and lakes in our own communities. As population growth continues to stress aquatic ecosystems, British Columbians who care about maintaining their waters for future generations need to be aware, to be concerned, to act. How can educators help?
As educators, we have a duty to create opportunities for our youth to discover the beauty and complexity of their world for themselves. Only then can we expect them to begin to understand and value their world, and to want to take the steps needed to protect it.
How do we create this desire to change how we think and behave? The example of those first “Seaquaria pioneers” back in 1999 showed that the school system can be very effective, and on two levels: by reaching youth during their formative years, and through ‘vertical learning’ where these students, as loveable messengers, take their lessons home and to the general public. However, careful thought has to go into how we engage students as messengers. While there are many excellent educational resources and programs that can be utilized in British Columbia (Snively, 1998, 2001; Arntzen et al, 2001; Boire et al, 2003; Fisheries and Oceans Canada, 2002), many schools still rely on the “three Ps”: Passive teaching, with Printed materials and Preserved specimens. This approach sparks little enthusiasm and often uses examples far removed from the local environment (Orion, 1993; Orion et al, 1997). Common problems with the “three Ps” approach include lack of a local “hook” for the students, lack of continuity with other materials, and the scarcity of integrated and easy-to-use formats.
Seaquaria in Schools is one successful example of a more effective approach that we call “active learning” (Bonwell & Eison, 1991). In active learning, students are involved in discovery through field trips and “place-based learning” (Gruenewald, 2003) that begins right in their own classrooms and communities (Cummins & Snively, 2000; McBean & Hengeveld, 2000).

Why Seaquaria?
In 2000, a group of southern Vancouver Island environmental educators decided to combine water-themed programs (e.g. “Opening Minds with Water”) into a more integrated package that stressed ecosystems. They produced an integrated package of field and classroom activities which is called “Living Watersheds.”
At the same time that “Living Watersheds” was starting out, WestWind SeaLab Supplies, a local biological supply company, decided to take the idea of aquaria in schools beyond the freshwater salmon tank that the previous year’s students had put to such good use. Freshwater tanks had long been used to raise baby salmon as part of the Canadian Department of Fisheries and Oceans’ “Salmonids in the Classroom” program (Fisheries and Oceans Canada, 1998), but Westwind decided to go a step further: –to place chilled seawater aquaria (“Seaquaria”) in schools.
WestWind’s first Seaquarium was just a seasonal conversion of a salmon aquarium, but the marine creatures were so popular that an aquarium designed specifically for saltwater was soon built, stocked with a local marine ecosystem, and maintained throughout the year by the students.
A new showpiece for the school had been created; ever since, students have been able to study the ocean environment “almost as if they were a part of it,” and have eagerly shared their learning along the way.
“Seaquaria in Schools” is about enrichment of education. In each participating school, the Seaquaria tanks are permanent fixtures that afford a unique window into the local marine environment. Because the aquaria are continually available to the students, they can be used to weave environmental awareness into the students’ everyday lives – no matter what the season. Learning outcomes are met easily, in an ever more engaging fashion. They are also a springboard to new learning opportunities; their impact is limited only by the imagination of the children and their teachers.
The marine ecosystem in Seaquaria is ever-present and ever-changing, an exceptionally effective catalyst that draws students into hands-on learning. With aquaria over 60 gallons (240 litres) in size, the systems are remarkably stable, each evolving their own character over 3-6 month periods. As students care for their aquarium, they build an understanding and respect for the organisms in their care, and they develop the stewardship skills essential for the preservation of our natural resources.
Husbandry sheets for the different organisms and the aquaria themselves are continually evolving, with student and teacher input. As students learn to deal with everything from slowly changing conditions to sudden spawning and other unexpected emergencies, they also begin to formulate personal, ethical values and develop important problem solving skills. Related programming helps them recognize interconnectivities, and to link their insights and skills to the real world. In so doing, the aquaria foster a passion for learning and critical thinking in many areas of the students’ lives, which is anchored in responsible environmental stewardship.
Cummins and Snively (2000) link success in learning to the availability of opportunities that are personally meaningful to students. The Seaquarium is an excellent real-world example of their findings: it has been described as a “gateway” to community-wide learning initiatives, with many “hooks” that help achieve successful learning. These hooks include local context (creates a “sense of home”), opportunities to interact with living organisms (adds a feeling of personal connection), a venue to observe the novelty and complexity of nature, and endless opportunities for acquiring and sharing special knowledge. In addition, the basic “user-friendliness” of Seaquaria means they have come to be appreciated as manageable tools that remove some of the ‘fear of science’ at the elementary and middle school levels (Carolsfeld, 2001).
Increasing awareness of environmental issues in the Asia Pacific Region suggests that these countries of immense marine riches may be another natural fit for Seaquaria – especially at a time when the marine environment is increasingly stressed. In Japan, for example, numerous new environmental initiatives involve school children (www.japanfs.org). An Asia Pacific-Canadian exchange based on Seaquaria would introduce an open-learning tool into a non-Western society. The experience would afford rich opportunities for research, helping us to better monitor, evaluate and define the most successful common approaches to meaningful environmental education.

Victoria West Elementary School Marine Team gathers together to help celebrate the unveiling of the Victoria West Visions map.
Mentoring in Action
Here, we introduce a few representative classroom and field programs that illustrate the basic framework for our approach. You might think of them as open-ended recipes—each with a unique flavor that reflects individual teachers, classrooms, schools, communities and ecosystems.
Project by grade 6 students, Lansdowne Middle School, Victoria, B.C.
1. The Marine Team
The phone rings at work and the voice of an anxious elementary school student greets me. Their beautiful Painted Anemone has a death grip on their lumbering but lovable Sea Cucumber. What should they do? I suggest that they wash and rinse their hands well, so that they don’t introduce any harmful chemicals into their ecosystem, reach into the tank, and gently remove the cucumber from certain death. “No…” they say, “we need Joseph,” a younger, but experienced student who they have identified as their first line of contact in times of emergency. They say that they will take care of it and I ask them to call me back.

Thinking like an ocean.
Ten minutes later the phone rings again. The cucumber is safe. Joseph has gently rescued their team mascot from certain death and with skill and compassion, placed the anemone into a bucket of seawater and into the refrigerator. They wonder if they should send their anemone to the WestWind seawater system. They think it is too big and aggressive to live in their Seaquarium. They recognized that the Painted Sea Anemone, a high level predator with stinging tentacles, was tipping the balance point of the ecosystem in their tank.
These eight to ten year old students have taken their job as Seaquarium guardians very seriously. Just as Cummins and Snively (2000) have documented, they are learning to work co-operatively, to learn at a deeper level and to hone their leadership skills as they encounter problems that need to be solved—largely because of the deep emotional tie they have developed with the animals and plants in their Seaquarium.
We begin our classroom studies by introducing our stewards to the job at hand: caring for an ecosystem full of plants and animals that share many of the needs the students have, but who have to meet those needs for food, shelter, protection, and nurturing in very different ways than we do. In this way the students also begin to think about how different creatures are adapted to the world they live in, and to appreciate the diversity of life. The conversation includes their responsibility to care for these unique neighbours and to share their new knowledge with others in the community.
In this way, the students begin to notice and understand how these creatures meet their needs, while also honing their observational skills. They also become very adept at troubleshooting and recognizing signs that the system is not working as well as it should, so that it can be fixed before any problems arise. The discoveries made during these routine checks prompt many interesting discussions, and often lead to new projects and announcements that help the rest of the school benefit from what they are learning.
Together, we set up teams of students who are responsible for monitoring the health and well being of their Seaquarium. Then we set up a marine team log book with data sheets, a feeding schedule and a list of community contacts in case of emergencies. Each day, they record the group name, date, time, temperature, salinity, water colour, water and air flow, whether the tank has been fed and any other observations that they think are important (for example, the behaviour of the animals).
Before we know it, links to nearly all areas of study, including science, language arts, social studies, math and personal planning, begin to emerge. As students meticulously log information each day, their observational skills are honed and they begin to notice connections. Soon they begin to submit articles to the school newsletter, make announcements on the PA system, offer guided tours to teachers and younger students and start training the next teams, so that the entire school community becomes aware of the exciting events happening in the aquarium.
2. A Picture Book Project
Picture book projects have been very successful and powerful learning tools at all grade levels, because they allow students time to carefully observe, gently touch, and get to know animals and plants from their seaquarium, in a very personal and respectful way. Only after doing their own observations do they begin their research about the natural history of the creature they have chosen. They quickly realize that it’s not always easy to find answers to their questions, and that they might actually be the one to discover something that’s seldom, if ever, been seen before.
This particular project was especially powerful because students used their self-published books to teach others about what they had learned. In this way, the Seaquaria program also helped develop students’ leadership and reading skills. We still use these books as classroom resources, and can’t begin to count the number of adults who have read them when they are on display at public events. The most common comment is “I had no idea….”
3. Liaison with field trips
The fit between Seaquaria and complimentary field programs of the “Living Watersheds” was a natural one, and the two have worked together ever since. New networks of community partners have provided innovative expertise and resources that make the classroom presentations and field studies relevant and exciting.
The connections between the classroom and the outside world have parallels with the connections between the aquarium and the ocean, and bringing the enhanced sensitivity and knowledge of the Seaquarium teams into established field programs has remarkable synergistic effects.
4. Community Connections
The students primed by the Seaquaria are exceptional resources for contributing to environmental awareness in the community and even community planning. As one example, I received a phone call from the manager of our local Community Center who informed me that the center was planning its first neighborhood celebration. Since some of their daycare students were on the Seaquarium Marine Team at the local school, he wondered if we could set up a display at their event.
In short order, students, staff, parents and community educators worked together to refurbish and set up a Seaquarium at the Community Centre. Grade six and seven students then introduced several hundred visitors to the weird and wonderful creatures they had been studying all year. Our youth were the centre of attention. At the end of the day, one of the students commented, “I didn’t know how much I knew, until I realized that I could answer a lot of questions from adults who didn’t know as much as I did”.
Since then, Seaquaria displays hosted by university, high school and public school students have continued to draw enthusiastic crowds not only at Vic West Fest, but also at conferences and other public venues throughout Victoria.
A second example is the development of important links between schools and their neighbourhoods, which often extend into the global community. We had been working with local teachers to develop a simplified mapping project which would help our students become better acquainted with their neighbourhood and to share this knowledge through their maps. As they walked the shoreline in their community, they recorded observations about features ranging from the temperature, salinity and turbidity (suspended particles) of the seawater at various locations, to aspects of Indigenous cultures and natural history along the waterway, and determining compass direction based on local land features and the position of the sun.
At the same time, the local community centre was embarking on a “Community Mapping Project”, in which local residents identified assets and areas of concern in their neighborhood as a basis to determine a long term vision for their community. They wanted to involve students at the local elementary school in the process, and get their input. After talking to the teacher and seeing the high quality work the students had done, the community association invited students to a community mapping workshop to teach adults about the important work they had been doing.
The result: on a beautiful spring day potentially full of other fun activities, several students presented their work to a gym full of adults from their community, proudly led them on a guided tour of their shoreline community, and highlighted the important features they had discovered on their journey that year.
Some of their work has been incorporated into the “Victoria West Visions Map,” now prominently on display throughout the neighbourhood, and published by Ground Works (www.lifecyclesproject.ca/reso urces/map_vic_west.php). It is a glowing example of the networks that open up as we offer opportunities for our youth to become engaged in the natural world around them.
Assessment of Seaquaria in Schools
When we began our journey, our basic premise was that the simple learning of facts does not necessarily translate into knowledge or passion. We were convinced that the actual process of learning is much more important to the successful development of life-skills than simple memorization. While the kind of rote learning that still prevails in many parts of the world has largely been discredited, we wanted to go a step further: to show that teachers need not even know or teach all of the facts in order to use a tool like the Seaquarium. ‘Knowing all the facts’ might even be viewed as an obstacle to success
We found the Seaquarium to be a model of open-ended learning; as teachers became more comfortable with it they began to find more ways to promote a spirit of enquiry and personal involvement in their students. Teachers now tell us this open-endedness has been one of the key components of the improved learning taking place in their classrooms. They also feel strongly that their students are acquiring the skills to make informed decisions about complex environmental issues, and understanding that such decisions cannot be made in isolation from social and economic realities. As a final bonus, teachers find that, by engaging so many of their previously reluctant learners, they are meeting their prescribed learning outcomes with less stress.
How do we know the Seaquaria program is working? First, students are eager to learn. Second, they are beginning to ask questions about connections in the world around them, using vocabulary like organism, habitat, predator-pry, food chains/webs, ecosystem, decomposition and bacteria, in a knowledgeable and understandable manner. These questions are formulated in a logical, scientific manner, often with novel insights. Finally, they are finding novel ways to share their learning with both local and global communities.
The Importance of Partnerships
Thanks to very active partnerships between teachers and other professionals in the community, there are now Seaquaria programs specific to elementary, middle and secondary schools. Seaquaria have clearly demonstrated the value of a focal tool or anchor that is relevant to communities – in this case the B.C. coast. But the same approach of local content, recognition of knowledge and enquiry, and active participative learning can be used with other aquatic or terrestrial ecosystems anywhere in the world, using tools that are relevant and practical within the particular environment. The possibilities – and the partnerships – are endless!
For example, our first overseas initiative involved trials with communities along inland waterways in Brazil as part of a CIDA-funded sustainable fisheries project (www.worldfish.org). Chilled marine aquaria were not appropriate for this location. However a combination of mapping of personal environmental spaces, local field trips, and watershed models worked well in the context of poor fishing communities on a Brazilian river, also providing opportunities for place-based, active and interactive participatory learning. The two programs operated in dramatically different situations—different languages and significantly different ecosystems. Nonetheless, the results were gratifying and eye opening as the Brazilian students responded to the Seaquaria approach just the same as Canadians.
In both Canadian and Brazilian projects, valuing personal knowledge and enquiry of the local environment enhances self-esteem and confidence, which leads to improved learning and emotional ties to the environment. And the learning continues to go in both directions: not only have many of the lessons learned in Canada been adjusted to suit the situation in Brazil, we are also already bringing back experiences that help our local programs evolve to new levels. We believe that the networks that are thus being established will be part of the foundation for a generation of respectful, informed and pro-active global environmental ambassadors (NEETF, 2002).
All the teachers involved in Seaquaria agree that partnerships and community involvement have played critical roles in the program’s overall success. The most successful individual programs were established in schools in which everyone was involved in planning and implementation right from the start. A good example was Victoria West Elementary School in Victoria, where students, staff, administrators, parents and community facilitators worked together throughout the process.
But there is always room for improvement. We have continued to build new partnerships that create synergies between Seaquaria classroom activities and related field programs. There is now a teacher-driven effort to provide mentoring for new schools and teachers in the Seaquaria program, and to share learning, ideas, barriers and success stories. In this way, a powerful spontaeous network has begun to emerge, and we feel confident the program will soon be self- sustaining.
What are some of the concrete returns from these partnerships in learning? The list is long, but perhaps most importantly includes enthusiastic appreciation and respect for terrestrial, freshwater and marine organisms, their needs and stewardship care. Students begin to think about their world in a whole-ecosystem way. The relationships between these same organisms and humans become clearer, and this understanding promotes an enduring ethic of respect and conservation. Along the way, teachers witness increased interest in learning; improved utilization of existing educational resources; and improved academic performance.
Acknowledgements:
We gratefully acknowledge the continuing collaboration and support of Nikki Wright, of the SeaChange Marine Conservation Society; World Fisheries Trust; WestWind SeaLab Supplies; the Victoria Foundation; the Pacific Salmon Foundation; Don Lowen and Tom Rutherford –
Fisheries and Oceans Canada community advisors; and a multitude of teachers and students. Special thanks to Brian Harvey for his magical editing skills.
This work has been supported in part by the Centres for Research in Youth, Science Teaching and Learning (CRYSTAL) grant from the Natural Sciences and Engineering Research Council of Canada (NSERC).
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Orion, N. (1993). A practical model for the development and implementation of field trips as an integral part of the science curriculum. School Science and Mathematics, 93, 325-331.
Orion, N, Hofstein, A., Tamir, P., & Giddings, G.J. (1997). Development and validation of an instrument for assessing the learning environment of outdoor science activities. Science Education, 81 (2), 161-171.
Snively, G. (2001). Once upon a seashore. A curriculum for grades K-6. Sooke, BC: Kingfisher Press.
Snively, G. (1998). Beach explorations: A curriculum for grades 5-10. Oregon Sea Grant Program. Corvallis, OR, U.S.A. and Washington Sea Grant Program. Seattle, WA, U.S.A.
Wright, N. (2007, In Press). Eelgrass meadows as teachers. Establishing Guidelines for Environmental Education based on Environmental Ethics, Asia-Pacific Network for Global Change Research, Konan University, Kyoto, Japan.
by editor | Sep 8, 2025 | Marine/Aquatic Education, Questioning strategies
Empowering Their Voices: Students Sound Off on the Puget Sound
by Nancy Skerritt and Kristin Edlund
What makes work truly meaningful? Creating curriculum that harnesses and nurtures the student’s voice is challenging work. We believe that engaging students in real world problems that affect their lives is central to engagement. Grade Nine students in Maple Valley, Washington participate in a unit of study entitled “Sounding Off on the Puget Sound.” The unit provides rich opportunities for our students to learn critical and creative thinking skills, Habits of Mind, and to practice real world problem solving.
The work in the unit is authentic, rigorous, and project based. Students participate in an online digital learning community. All six hundred experience a trip on a Washington State ferry, and they create projects of their own choosing where they “Sound Off” to a self-selected audience. The unit culminates in a call to action where the students research a community service organization for their own involvement, learning what it means to practice civic responsibility.
At the heart of this unit is a shift in voice: Whose voice is heard? In the past, the teacher’s voice has dominated the conversation. Our new model values the student’s voice – not in random or isolated ways, but by carefully orchestrating curricular opportunities. We achieve our curriculum goals by structuring experiences that allow students to find their own voice and build the skills to make their voices heard. How do we accomplish this? We focus on the processes of learning and connect students to their own local community.
One year ago, we made a decision to abandon outdated content in our Grade Nine social studies course and to invite our students to explore the critical issues challenging the health of our Puget Sound. Our unit is designed to teach students how to investigate any issue by considering baseline data, examining this data over time, and making inferences from the data about how our environment is changing.
Students consider the ways in which marine life populations are affected by water quality, the impact on local seafood industries, and projections for how our lifestyle will change if the Sound is allowed to degenerate through pollution and other human interactions. The message is clear: Students can have impact by making their voices heard, taking simple actions like cleaning up after pets, and by getting involved in local com-munity organizations that are designed to improve the quality of our environment for our students today and into the future.
Strategies for Investigating an Issue
Within the structure of the unit, students gather information, interpret this information and then take action. Students investigate stakeholder groups to understand competing wants and needs. They use thinking skills like Point of View and Analysis to explore how human actions and interactions affect the health of the Sound. Drawing on case studies from other
parts of the country, they learn about the complexity of environmental issues by exploring a parallel issue in the Florida Everglades. The students study the wants and needs of the various stakeholders and search for a solution that takes into account the competing interests.
Students build on this background knowledge to research our local stakeholders: the timber industry, the commercial fishing industry, tourism, recreation, Native American interests, and wildlife. The students are acquiring the thinking skills and Habits of Mind to investigate issues and to draw their own conclusions. A key goal with this unit is to foster critical and creative thinkers who have skills that transfer to any issue, problem, or concern. We believe that these thinking skills lead to empowerment and honor individual points of view.
Problem Solving
The students then use a problem solving model to form their own opinions and ultimately to create an action plan where they can become personally involved in cleaning up the Sound. The model begins by summarizing the situation and crafting a question to focus thinking: “Evidence shows that the Puget Sound is polluted. There are various stakeholders who have vested interests in the future of the Sound. Considering the com-peting interests of preserving our environment, supporting our economic growth, and honoring our culture and traditions, how can the health of the Sound be preserved for a sustainable future? “
After analyzing the interests of the multiple stakeholders, the students develop their own point of view with evidence. Students have applied the thinking skills of Problem Solving, Point of View and Analysis. They have learned and practiced habits of mind such as thinking flexibly and applying past knowledge to new situations. Rather than passively studying a local issue, the students are actively engaged in developing their own point of view so that they can be part of the solution to a complex problem directly affecting the quality of their lives. The learning is relevant and rigorous. Students are respected as young adults with good ideas for improving our world.
Technology for Collaboration
Technology can be a powerful motivator for students when it provides a social context for their learning. In addition to utilizing a variety of technology tools for research and production, students in the Sounding Off unit collaborate creatively in an online learning community.
Web-based tools allow this virtual space to mirror elements of students’ social networks while scaffolding their collaborative skills: students learn to respond professionally and respectfully to one another’s ideas, and to incorporate others’ ideas into their own work responsibly.
Student posts begin as structured responses to prompts and evolve into more spontaneous expressions as the unit progresses. The online venue also provides a record of the class’ learning over time; the history of students’ posts allows the class to reflect on their evolving understanding of complex issues. Students’ individual voices gradually form a chorus in which their distinct tones can still be heard.
For instance, at the beginning of the Sounding Off unit, pairs of students choose one word to express their impression of Puget Sound. They post their word on the class site. As students explore the economic, cultural, and environmental issues facing Puget Sound, they are periodically asked to post additional one-word or one-phrase summaries of their understanding. Students comment and elaborate on each other’s posts, and the growing list of words and phrases generated, along with the support for those summaries, represents an increasingly sophisticated interaction with those issues.
The students are asked midway through the unit to use a web-based video generating tool to create a short video that incorporates images, words and music to express how their perceptions of Puget Sound issues have changed. With technology tools, students apply principles they have learned about how artists use those elements to provoke an emotional response in the public. The videos, in addition to synthesizing the class’ learning up to that point, serve as another opportunity to scaffold student skills, in preparation for the culminating Sounding Off Project.
The online learning community also provides the opportunity to expand the classroom beyond its walls. As students learn about Puget Sound stakeholders, those stakeholders and other experts can join the virtual community and contribute to the students’ learning. Students are empowered by interacting with adults as equal participants in exploring the real issues that affect their lives.
Certainly, technology provides powerful tools for generating creative products. However, in this unit, technology’s true power is found in its ability to foster community – to break down walls between individuals both within the classroom and beyond it. The structure of the online learning community provides a safe place for students to try out their voice, while the widening circle of that community allows them to amplify it.
Field Experiences
While the online learning community provides an engaging virtual experience for students, we find that there is no substitute for engaging students in the real world outside the classroom – for getting up close and personal with the issues. In Sounding Off, this means getting the students down to the waterfront and out on the Sound itself. In an era where field experiences are often the first casualties of budget cuts, we remain committed to these opportunities for all students.
We are equally committed to ensuring that the field experience is one of the most meaningful learning experiences the students will have throughout their educational career. This requires careful planning and orchestration of activities that are integral to the learning goals of the unit.
During the Puget Sound field experience, students engage in activities at two sites: the Seattle Aquarium and on board a Washington State Ferry. At the aquarium, students explore the marine habitat and the wildlife that calls the Sound home. They use their field journals to make observations, compare and contrast, generate questions, and pose problems.
On board the ferry, students hear from stakeholders representing different interests related to the health of Puget Sound. The stakeholder’s interest might be economic, environmental, or cultural/historical. Students have the opportunity to interact with stakeholders who might represent state fisheries, non-profit habitat restoration organizations, Native American tribes, large shellfish corporations, or others.
To prepare for the field experience, students research the stakeholders and their points of view in advance, generating questions in their field journals. On the ferry, students use their field journals to organize information around key thinking skills. Both at the aquarium and on the water, students use their field journals and cameras to capture evidence regarding the economic, environmental, and cultural/historical aspects of Puget Sound.
While our community sits right in the Puget Sound’s watershed, this field experience represents the first time many of our students have ever actually been out on the water. The powerful impact of this opportunity is evident in students’ reflective letters to stakeholders and in the way the field experience continues to influence student thinking well after it has ended. Interacting personally with the Sound’s stakeholders while out on the Sound itself is an experience that can’t be replicated in the school building.
Sounding Off! Project
The Sounding Off! Project provides a framework for students to make their voices heard. Using the structure for projects provided by Ted McCain in his book Teaching for Tomorrow, students work as a member of a team. They design projects for the purpose of raising awareness about the health of the Puget Sound. The projects educate and call their audiences to action. Students choose their message and their target audience. Then they select a medium that will best communicate their message. They manage their team and project in the online learning community.
The projects vary widely based on the audience, medium and message. For example, one project team might create a picture book for kindergartners showing strategies for home water conservation while another team might create a video podcast to highlight the importance of habitat conservation to share with our legislators. Students are encouraged to use their individual talents to make a statement. They present their project to their chosen audience, “sounding off” on the state of the Puget Sound and sharing how people’s actions can make a difference.
Choice is at the heart of this project, and students exercise their creativity and their passions as they communicate with an authentic audience about the state of the Sound. Projects have included a website for learning about the danger of bulkheads, paintings that depict the past, present and future of the Sound, movies to promote stewardship, poetry, and children’s games.
Community Service
The unit culminates with the students investigating community service organizations, exploring answers to these questions: What is community service? Why is it important? How is service a component of citizenship? Students research community organizations that are involved in cleaning up the Puget Sound. They study the mission of the different organizations, and using a decision making model, they select an organization in which to become involved. Students contact the organization of their choice, learn about the organization’s service projects, and then commit to involvement in one of these projects. Students reflect on their participation by considering how they are making a difference in promoting the sustainability of the Puget Sound . They are doing real work that has value beyond the classroom and can take pride in making contributions to their community.
Engagement leads to empowerment. We want to graduate students who know that they can make a difference and have the tools to act. Learning must be relevant and real. Our students discover how they can take action to have impact. This life lesson will last long beyond the accumulation of content. Students learn problem solving, decision making, persistence, and interdependence. They practice civic involvement through a call to action. Our democracy relies on involved citizens, and our students learn that they have empowered voices through their study of the Puget Sound. They develop the awareness that what we do today does indeed make a difference for the future.
How do we know that these kinds of learning opportunities are more meaningful for our students than traditional approaches?
We’re listening to their voices.
For more information about the Sounding Off on the Puget Sound unit, please contact Nancy Skerritt in the Tahoma School District at nskerrit@tahomasd.us
References:
Costa, A. and Kallick, B. (2009) Learning and Leading with Habits of Mind. Alexandria: ASCD
McCain, T. (2005) Teaching For Tomorrow: Teaching Content and Problem Solving Skills. Thousand Oaks: Corwin Press
Nancy Skerritt, the Director of the Teaching and Learning Department, has been with the Tahoma District for 9 years. She previously worked in the Snoqualmie and Auburn School Districts. One of her most interesting assignments has been the development of the Elementary Core Curriculum in the Tahoma district. She has expertise in thinking skills instruction and she works with the Washington State Commission on Student Learning to assist with the design and implementation of the Washington State assessment system.
Kristin Edlund is a curriculum specialist in the Tahoma School District in Washington State and author of the middle school Habits of Mind curriculum. She has written social studies units that integrate the Habits of Mind and thinking skills, and she supports teachers in implementing this curriculum in the classroom. Edlund teaches classes in integrated curriculum, thinking skills, and Habits of Mind throughout western Washington and has presented at numerous state and national conferences. She worked as a teacher-librarian for 12 years before entering administration. She can be reached at the Tahoma School District office at kedlund@tahomasd.us.
by editor | Sep 8, 2025 | Marine/Aquatic Education, Place-based Education
from Bec Boyd article: Growing Kids Who Care
Clearing Compendium 2011
Oregon Institute of Marine Biology, Charleston OR
“It’s good fun learning about the sea. We go out to the bay and find lots of different species. Itís important that we know more about the sea and how to look after it so it will be healthy.” (Grade 5 student)
Around 3500 young people aged six to twelve from twelve schools on the south-west coast of Oregon have been learning to manage the marine resources on their doorstep as a result of a highly successful programme run by Jan Hodder and Trish Mace at the Oregon Institute of Marine Biology (OIMB). Nine graduate students are funded by the National Science Foundation not only to carry out research, but to become excellent communicators and educators in marine science.
In an area where many rural coastal communities rely on shellfish gathering and fishing to supplement often low incomes, and some fisheries are in decline, it is important that marine life is managed wisely. What better way of achieving this than by growing a generation of young marine experts?
After a week’s intensive training, the nine graduates teach at primary schools two days a week. They have created an imaginative incremental curriculum based on field- work and hands-on projects. It is designed to help the students learn not only about marine life and sustainability but about critical scientific thinking. By Grade 6 each student has spent a year studying each marine habitat, from rocky and sandy shores to estuaries, kelp forests, the open ocean and island ecosystems. Each one is able to survey and record local coastal species, is familiar with geology, colonization, seasonal and tidal changes, diversity and food webs, as well as the impacts of human activities like fishing, energy production and marine litter, and how to manage them.
Identifying zooplankton
In spring 2010, for example, one Grade 6 class (aged 12) wrote and produced a seabird guide and used it on a bird-spotting trip to nearby Coquille Point. They carried out repeat surveys of marine life on Cape Blanco beach, adding their results to OIMB records. In one lesson Grade 5 (aged 11) learned to identify zoo- and phytoplankton and found out about their role in ocean ecosystems. Grade 4 (aged 10) students were able to talk knowledgeably about why the hunting of sea otters has allowed sea urchins to decimate kelp forests, and how modern fisheries have affected marine biomass. At the annual OIMB Open House in May, children from all backgrounds and corners of the school district brought their parents to meet their favourite graduate student and see at first-hand what they had been learning.
The aim is that class teachers will gain the skills to carry on the programme themselves, with the support of the grade-based curricula, lesson plans and training materials that OIMB has provided on its website. OIMB can then focus on a similar programme aimed at local high school students.
Local fishermen are already managing Dungeness crab and Pink shrimp fisheries sustainably and are initiating discussions on marine protected areas. As a result of the OIMB programme, a generation of school children has become engaged, enthusiastic and knowledgeable about “their” sea and how to manage it. They are already caring local citizens who give real hope for the future.
by editor | Jun 19, 2024 | Critical Thinking, Environmental Literacy, Experiential Learning, Features on Outstanding Programs, Marine/Aquatic Education, Outdoor education and Outdoor School, Outstanding Programs in EE, Place-based Education, Teaching Science
How to Design Field-based Research Experiences
By Molly L. Sultany, msultany@nwacademy.org
High School Teacher, Northwest Academy, Portland, Oregon
Navigating Unchartered Waters
How can educators help students feel more connected to the outdoors while engaging with the work of research scientists? Scientific research may feel elusive to high school students, an unknown world hidden behind a technical paper, a puzzling chi-square analysis, or a p-value waiting to be deciphered. Yet, participating in field-based research may improve students’ intrinsic motivation, build resiliency, and enhance their sense of personal agency and responsibility (Marley et. al, 2022). I believe that teaching students outdoors introduces novelty and authentic learning opportunities into an existing science curriculum (Behrendt & Franklin, 2014). In addition, field-based research experiences provide a compelling alternative to a digitally dominated learning environment, often inundated with electronic media. Benefits to students’ well-being may include a longer attention span, multi-sensory experiences, deeper context for learning, a sense of comradery and feelings of community belonging, as well as reduced stress and fewer signs of ADHD (Grimshaw et. al, 2016). Overall, introducing a fieldwork component to existing curriculum may enhance student engagement, improve critical thinking, and foster positive interpersonal skills.

At our field site in Cannon Beach, Ofregon, students measured 3,807 ochre sea stars with 54 total search hours.
How to Engage Students in Field-based Research Projects?
· Build Your Professional Network: Connect with other educators at your school, district, or area interested in developing student-led research projects. Attend professional development opportunities for science education.
· Partner with Local Non-Profit Organizations: Become a member of regional and national non-profit groups dedicated to environmental conservation. This may provide opportunities for volunteering where you can meet like-minded individuals and build lasting community connections to enhance your understanding of local environmental issues.
· Lead with Student Interests: Brainstorm ideas for research projects with students. Start with a field trip to a nearby park, green space, or natural habitat. Find ways to discuss local conservation issues as part of your curriculum. Be inspired by students’ own personal interests, curiosity, and inquiry.
· Create a Science Lunch & Learn Program: Invite STEM professionals from your school community or region to give a presentation during the lunch hour for students about science career pathways, current research, or ways to become involved with the larger scientific community.
· Video Chat with a Scientist: Get inspired by programs offered through NASA, NOAA, and the Nautilus Live: Ocean Exploration Trust to connect students virtually to scientists to learn more about their research.

Wearing hip waders and waterproof gloves, Northwest Academy students measured ochre sea star (Pisaster ochraceus) size classes, and observed signs of sea star wasting syndrome.
Local Spotlight: Diack Ecology Education Program
After attending an Oregon Science Teachers’ Association (OSTA) meeting, I learned about the inspiring work of the Diack Ecology Education Program. This unique program provides Oregon educators with financial support and pedagogical resources through grants, workshops, and programming. Their goal is to provide guidance for teachers to develop effective student-centered, field-based science inquiry experiences. I admire the program’s values: commitment to local stewardship, opportunities for student leadership and decision-making, and an emphasis on outdoor experiential learning. Through their website (https://www.diackecology.org/), teachers can apply to attend bi-annual workshops taught by experienced science educators, where they learn how to construct a science inquiry project centered on local field work. The Diack program strives to help teachers develop greater scientific literacy and build civic engagement on themes related to local ecology, natural history, and environmental science.
Over the past ten years, the Diack Ecology Education Program has funded multiple student research projects at Northwest Academy, an independent high school in Portland, Oregon. Participation in this program has connected my high school students to the larger scientific community, including The Johnson Creek Watershed Council, Portland State University, U.S. Stockholm Junior Water Prize Conference, and the Oregon Environmental Science Summit where students had the opportunity to present their research in person to Dr. Jane Goodall. These experiences have transformed our high school science research program, and introduced students to the wonder, joy, and complexity of the natural world. Past projects have included a study of local stream health (2014), the role of diatoms as indicators of water quality (2015), and microplastics in beach sand (2017). Our most recent project (2022) had a dual focus on how marine biota respond to environmental change by studying the prevalence of sea-star wasting syndrome in ochre sea stars (Pisaster ochraceus) and documenting nesting success of cormorants during the summer breeding season.
Benefits to Students
After our field research at the Oregon Coast in 2022, I learned that participating in field research has many direct benefits to adolescents, with transformative effects on socio-emotional learning, scientific literacy, and the development of a civic identity. By taking part in challenging field tasks in an unpredictable outdoor environment, students may develop an improved positive self-concept and increased self-esteem, seeing themselves as capable learners. One of my students reflected: “I learned that I have much more patience that I give myself credit for, and that I am also good at paying attention to details when I am observing.” In addition to these changes in self-perception, I believe there is value in helping students see science in action beyond textbook learning. This may, in turn, deepen students’ respect for the natural world. The student leader of our field team shared: “I learned about the shocking effects of sea star wasting syndrome, and what this damage for the sea star population could mean for the rocky intertidal ecosystem. With little prior knowledge of the effects of climate change or any practical interactions with climate change, seeing the effects of sea star wasting syndrome on the sea stars was immediately eye-opening.”
Lastly, participating in a science project with relevance to a region may strengthen students’ civic identity and build meaningful connections with their local community. It may also help students cultivate a personal connection with the natural world. While exploring the tidepools, each field day brought novel discoveries, keen observations, and many more scientific questions. By the end of our project, my students had become fiercely protective of our beach field site, which hosted incredibly diverse rocky intertidal habitat home to invertebrates, from crabs to chitons. One of my students shared: “walking through the sea cave at the tidepools and seeing all the biodiversity, from sea stars to isopods, was my favorite part of fieldwork. I want people to treat the world around us with respect. Interacting with the public and teaching them about this small part of marine conservation was meaningful and important to me.” This newfound sense of stewardship for the natural world was accompanied by their desire to teach others, share what they had learned, and reinforce proper tidepool etiquette at the beach.
Fostering Teacher Professional Learning Goals
Immersing students in dynamic environmental field research may also benefit educators in terms of curriculum design, pedagogy, and improved content knowledge. Inspired by field experiences with my students, I decided to incorporate themes related to marine biodiversity, ocean conservation, and anthropogenic global climate change into my high school science classes. Fieldwork reinforced the value of fostering creative and critical thinking with a flexible mindset in my approach to science teaching. It emphasized an inquiry model of the scientific method, fostering science process skills from observation to questioning. For many students who participated in fieldwork, this experience led to other opportunities to share their research findings at local science fairs, conferences, and school events. All in all, I believe that participating in field-based research projects will remain a valued tradition for our science program at Northwest Academy.
Acknowledgments
A special thank you to Mike Weddle, from the Diack Ecology Education Program, & Jesse Jones, CoastWatch Program Manager.
Works Cited
• Behrendt M & Franklin T. A review of research on school field trips and their value in education. International Journal of Environmental & Science Education. 2014 9 (10).
• Grimshaw M, Curwen L, Morgan J, Shallcross N, Franklin S, Shallcross D. The benefits of outdoor learning on science teaching. Journal of Emergent Science 2019, 16 (40).
• Marley SA, Siani A, Sims S. Real-life research projects improve student engagement and provide reliable data for academics. Ecol Evol. 2022, 8 (12).