Ghostly flight species of baleen whales avoid attracting killer whales by singing too low to be heard

Killer whales are the only natural predator of baleen whales – those that have “baleen” in their mouths to sieve their plankton diet from the water. More solitary than toothed whales, baleen whales face predatory attacks from killer whales, especially mother and calf pairs. When attacked, some species fight back, while others choose flight. But whale species also produce loud underwater songs…what stops killer whales from homing in on their calls and attacking them?

In new acoustic research conducted by Trevor Branch, a Professor in the University of Washington School of Aquatic and Fishery Sciences, he found that some baleen whale species call at such deep frequencies that they’re completely undetectable by killer whales—who cannot hear sounds below 100 Hz. These tend to be the whale species that flee in the face of attack. Meanwhile, their high-frequency singing brethren who fight back when attacked, also tend to be slower-moving and more maneuverable. The deep singers are in the flight club and include blue, fin, sei, Bryde’s and minke whales, while the fight club includes right, bowhead, gray and humpback whales. Branch’s research was published in Marine Mammal Science on Jan 31. 2025.

Two dorsal fins of killer whales pictured in the ocean, charging a blue whale calf with visible killer whale toothmarks like a rake and missing chunks of flesh.
P. Markovic, CETREC, Western Australia
Killer whales charging next to a blue whale calf with visible killer whale toothmarks like a rake and missing chunks of flesh. Location: Bremer Bay, Western Australia.

The fight or flight hypothesis is not new, but research into acoustics is shedding new insights into the behavioral, morphometric, and ecological adaptations of baleen whales. Could this so-called acoustic crypsis, where whales that call at such deep frequencies that they are acoustically invisible to killer whales, have developed as a defense mechanism from attack?

Killer whales are found in every one of the world’s oceans, and their prey ranges from small fish to the largest whales on Earth. The fight species of baleen whales usually migrate and calve closer to the coast in shallow water, a haven of sorts which provides easier defense against killer whale attacks—especially for group defense in aggregations. Combined with their slow-swimming and more navigable bodies, their communication with other whales is often at higher frequencies easily heard by killer whales—above 1500 Hz. In contrast, flight species have streamlined and slender bodies adapted for speed, and typically disperse across wider open ocean regions for mating and calving, where they are able to flee in all directions.

These behaviors also have implications for feeding and mating. Denser congregations in shallow coastal areas leaves less food for fight species, in comparison to the open ocean favored by flight species. However, the opposite is true for finding a mate—it’s easier when you’re all in a similar location, versus spread out over long distances. Where do acoustics fit into this picture?

Singing is a fundamental part of mate attraction and selection for whales. Males of the flight species sing in a way that maximizes the number of females that hear them, producing simple and repeated songs to attract a potential mate, and singing over prolonged periods to allow females to track them down. “But these super loud songs could expose them and their mates to killer whale attack. And this is where acoustic crypsis comes in: singing at low frequencies that are impossible, or very difficult, for killer whales to hear,” Branch said.

A close up view of the mouth of a blue whale is pictured, with the side profile of a killer whale shown entering the blue whale mouth (to feed on its tongue after an attack). Pictured in a blue ocean with choppy white water around the whales.
J. Daw, CETREC, Western Australia
After a killer whale pod kills a blue whale calf, one dives into the mouth of the blue whale to feast on its tongue. Location: Bremer Bay, Western Australia.

Branch conducted a review of aquarium experiments on killer whale hearing ranges, reviewed the source frequency and source level of populations of all baleen whales, and combined these with knowledge of how sounds move through the ocean, to predict which whale populations can be easily heard by killer whales. It turns out that flight species generally can’t be heard more than 1 km away by killer whales, unlike the calls of fight species.

The research shows that under the sea there is a sound landscape governed by fear, with some whale species choosing to sing their songs to their prospective Valentines at deep levels to avoid attacks; while other whale species compete to sing the most varied and interesting songs, and fight back when attacked. The fight vs. flight differences appear to drive all aspects of the lives of baleen whales, from where they are found, to their communication, to where and when they breed and feed.

Branch said: “It just never occurred to me that some whales sing low to avoid killer whales, but the more I looked at this, the more I realized that every aspect of their behavior is influenced by the fear of predation.”

For more information, contact tbranch@uw.edu


Turning up the heat: Revealing lake hotspots using mobile data

You may think aquatic and fishery science is all about fish, whales and oceans, but Iris Haley’s research is demonstrating that essentially anything to do with water is related to this field of study. What is Iris investigating? The link between lake visitation and its relationship with heatwaves using cellphone data!

If you live in Washington, you’re familiar with the much-anticipated summertime when the lakes, rivers and Puget Sound beaches are filled with people enjoying a reprieve from the “Big Dark”. But as our climate becomes warmer and warmer, and more frequently, what does this mean for our lake environments, and the ability of people to enjoy them? The “heat dome” event of 2021 set 128 all-time high temperature records across Washington state, with some places reaching 107 degrees Fahrenheit. For Iris’ project, the definition of a heatwave event is a period of 3+ days in which minimum daily temperature is over a threshold of historical normal temperatures.

The tip of a red kayak is pictured on a large lake, surrounded by wooded area. Big fluffy white clouds are visible in the sky.
Iris Haley
Enjoying the view from a kayak on Lake Sammamish. Located in King County, Lake Sammamish is a freshwater lake seven miles long.

Iris is using cellphone user data from telecommunications company, Airsage, to study lake visitation in the face of heatwave events in Western Washington, focusing on 48 lakes primarily located in King and Snohomish counties. “When we call or text, our phone pings from a tower nearby. This can give an estimate of where someone was when they used their phone,” Iris said. This concept may be ringing a bell if you’ve watched true-crime documentaries, but this information is also useful to study things such as visitation to wildlife refuges, or in Iris’ case, lake visitation during heatwaves. “Cellphone data has not yet been utilized to study my specific topic, so it’s an exciting piece of research to work on,” Iris added.

Drilling down into the data, information from Airsage was taken from the lake itself and potential park areas of each lake, for example, beach parks and dog parks. “I looked at the number of unique pings to nearby towers to these specific areas and then compiled it to give a daily estimate of visitation,” Iris shared. Even though the results of Iris’ research are still in the works, it will be interesting to find out any correlation between lake visitation and heatwaves, especially for lakes that Iris grew up near, like Beaver Lake in Sammamish. “Research like this often takes a while to show concrete results, but I’m intrigued to see how different lakes compare to each other in terms of how visitation changes around heatwaves, and why.”

A lake with a very reflective surface, surrounded by woods and big white clouds in the sky.
Iris Haley
Pine Lake, located in the city of Sammamish, is a popular recreation spot.

So why study things like this, and what wider impacts could the information generated from this research have? City planning and management is a significant one. “This topic is super interesting in regards to implications for city planning. If a lot of people are going to certain lakes during heat events, then there needs to be more infrastructure to support this influx,” Iris said. “As our summers get hotter, it’s in the city and states best interests to fund parks and lakes where people can take refuge against extreme heat, especially as we continue to urbanize.”

Iris chose this topic when the data was offered by SAFS Professor, Julian Olden. “I had been volunteering as a tech in Julian’s lab for a few quarters when it came to choose my capstone project, so it also made sense to pursue my capstone with him,” Iris said. “I’m also bringing some personal experience into it as a Western Washington local, and someone who gravitates towards my local lake when it gets very hot, so this definitely motivated my interest in this topic!”

Interested in more SAFS undergraduate research stories?

SAFS undergrad conducts research in Hawai’i during HPP internship

Hurricane hunting with NOAA: Hollings Scholarship internship set for 2025


A Crab Network is Connecting Communities and Generating Crucial Data for Salish Sea Fisheries

A collaborative network of agency and tribal scientists and resource managers, university faculty and students, and community volunteers are diligently working together to unlock the secrets of the Dungeness crab’s life cycle in the Salish Sea. The Pacific Northwest Crab Research Group (PCRG) is leading this unprecedented effort, generating vital data and fostering robust relationships to ensure the long-term sustainability of this ecologically, economically and culturally-important species.

Ally Galiotto
Dungeness crab megalopae captured in light trap at PCRG’s Shilshole Bay site.

“The Dungeness crab represents an iconic symbol for those who live, work and play in our region, but they also serve an important role both within the ecosystem and for the human communities who rely on them through commercial, recreational and subsistence fisheries” says Katelyn Bosley, research scientist and crab fishery manager with Washington Department of Fish and Wildlife. “The Dungeness crab fishery has a very high economic value and we must develop a better understanding of this resource to maintain a productive, resilient fishery into the future”

Recognizing the urgent need for more comprehensive data to inform management decisions, the PCRG launched a collaborative larval crab monitoring network in 2019. This ambitious project utilizes standardized light traps deployed at various locations throughout the Salish Sea to capture and study Dungeness crab megalopae, the final larval stage before they settle and transition into juvenile crabs.

PCRG’s methods and broader approach, described in a new paper published Jan. 22 in Fisheries Magazine, are the best hope for understanding this iconic crustacean.

“Our light traps are made from items found at most hardware stores, making them an approachable and cost-effective monitoring tool. They’re modeled after traps used in coastal Oregon for similar studies which use light to draw in larval marine organisms like a moth to the flame.” said Claire Cook, graduate student at the University of Washington School Aquatic and Fishery Sciences and author of the methods document used to standardize light trap monitoring across the network.

Josefin McDonald
P. Sean McDonald checks the trap at PCRG’s Shilshole Marina Site.

“This network really underscores the power of the collective,” said Emily Buckner, the lead author of the study and one of the PCRG program coordinators. Margaret Homerding, the Shellfish Program Manager for the Nisqually Tribe agreed, adding, “by working together we are able to collect this information across a much larger spatial scale than we could alone, giving us a much clearer picture of crab recruitment patterns in the Salish Sea and allowing us to be better stewards of the resource.” 

Since its inception, the PCRG’s larval crab monitoring network has experienced remarkable growth, expanding from 16 sites in Washington in 2019 to an impressive 43 sites across Washington and British Columbia in 2023. This expansion has been driven by the enthusiastic participation of a diverse array of stakeholders, with over 85% of participating sites returning for a second year.

Ally Galiotto
An adult Dungeness crab.

The meticulous data collection efforts of this dedicated network have yielded the first standardized, continuous dataset on Dungeness crab larval dynamics in the Salish Sea. This treasure trove of information has revealed fascinating insights into the species’ early life, including:

  • Temporal and Spatial Trends: Megalopae were observed from April to September across all study years, with peak abundances generally occurring in June and July. Notably, larval abundance showed significant variation across the Salish Sea, consistently greatest in the central Salish Sea and north Hood Canal with lowest abundances in the southern Salish Sea and south Hood Canal.
  • Seasonal Size Variation: A consistent decline in the average size of megalopae from April to September across sites and years suggests potential environmental influences on larval growth within the Salish Sea.
  • Potential Coastal Subsidy: The detection of an early seasonal pulse of large megalopae, similar in size and timing to Pacific coast populations, in the Strait of Juan de Fuca and adjacent areas suggests a possible larval subsidy from the outer coast, underscoring the interconnectedness of marine populations.

The PCRG larval crab monitoring network stands as a shining example of the power of collaboration in addressing complex environmental challenges. By bringing together a diverse array of stakeholders with a shared passion for the Salish Sea, this groundbreaking project is generating the knowledge needed to inform sustainable fisheries management and ensure the long-term health of Dungeness crab.

Tandy Wilbur, Swinomish Fisheries Manager and Tribal member noted, “There is so much that we do not yet understand about Dungeness crab in the Salish Sea. As a policy-level manager for a tribal nation, we look forward to improving our ability to manage this fishery with more science-based information. But, as a long time fisherman, I can’t state enough the importance of ensuring the sustainability of the fishery for the livelihoods of members of the Swinomish community.”

Ally Galiotto
Several of the study authors checking a light trap.

Other authors of the study include: Allison Brownlee (Washington Department of Natural Resources), Julie S Barber and Sarah K Grossman (Swinomish Indian Tribal Community), Heather Earle (Hakai Institute), Bonnie Becker (UW Tacoma), Neil Harrington (Jamestown S’Klallam Tribe), P. Sean McDonald (UW Program on the Environment and School of Aquatic and Fishery Sciences), Blair Paul (Skokomish Tribe), Katie Houle (Pacific Shellfish Institute), Alexandra Galiotto (Puget Sound Restoration Fund), Gianna Pantaleo (Suquamish Tribe), and Austin Paul (Point No Point Treaty Council).  

For more information, contact Emily Buckner, Crab Program Manager & Sea-Land Program Co-Lead at the Puget Sound Restoration Fund.


Small-scale fisheries essential to global nutrition, featured on cover of Nature

New research into the impact of small-scale fisheries on sustainable development goals is featured on the cover of Nature.

Small-scale fisheries play a significant but overlooked role in global fisheries production and are key to addressing hunger and malnutrition while supporting livelihoods around the world, according to research featured on the cover of Nature in Jan. 2025. Published by an international team of scientists, including Professor Chris Anderson from the University of Washington School of Aquatic and Fishery Sciences, the study is the first to rigorously quantify how marine and inland small-scale fisheries contribute to aquatic harvests and nutritional and socioeconomic security on a global scale.

“This project is particularly important because it is the largest effort to systematically collect data describing the contributions of small-scale fisheries to the multiple dimensions of fishery outcomes,” said Chris Anderson. “This includes several places where fisheries contribute to the UN’s Sustainable Development Goals, including eliminating hunger, eliminating poverty, ensuring gender inclusive development, and supporting ecologically healthy oceans.”

The international team, consisting of scientists from almost 10 different countries, found that fisheries that rely on labor-intensive, relatively low-tech methods make surprisingly large contributions to societies, economies and diets around the world. “Illuminating the large scale of these small-scale contributions will provide small scale harvesters and shoreside participants with voice and visibility in policymaking circles. More systematic data will also make it possible to study the mechanisms that support higher levels of small-scale fishery benefits, including food provision and social and economic safety nets, from the very diverse resources and circumstances in which small-scale fishing occurs,” Chris Anderson added.

Adapted from a Duke University press release

Read the cover story in Nature


Postdoctoral Research Scholar at Oregon State University

Applications are invited for a full-time Postdoctoral Research Scholar appointment to be held at the Department of Fisheries, Wildlife, and Conservation Sciences, Oregon State University. Primary research focus is developing quantitative decision-making tools for evaluating and prioritizing U.S. Bureau of Reclamation management actions and investments in the Klamath Basin focused on the conservation and recovery of various fish species and their habitats. Applicants must have completed all the requirements for their doctoral program (PhD or equivalent), with demonstrated research accomplishments, and publications in the primary research literature.
Applicants should have the necessary skills and experience with sample design and the estimation of animal population parameters and should have interest and capabilities in the development of integrated approaches to estimating and modeling population dynamics and applying the results to decision making. The position will primarily involve data analysis and modeling with some potential for field research. The successful candidate will work under the supervision of James Peterson and will be part of an interagency and interdisciplinary team of stakeholders and researchers. The successful candidate must be able to work successfully in a team environment. Periodic travel to meet with collaborators or conduct field work with overnight stays will be required. Excellent command of the English language, quantitative analytical skills, and written and verbal communication skills are absolutely required. Special consideration will be given to candidates possessing one or more of the following knowledge and skills: spatial statistics, sampling design and estimation, and Bayesian modeling techniques.
Appointment: Appointments will be intended for a term of one (1) year, with the possibility for renewal of an additional year, based upon a satisfactory performance review. Salary ($65,000 – $70,000 year depending on qualifications) and full benefits will be commensurate with qualifications of the successful applicants. Start date is negotiable but no later than June 2025.
Application Submission: Applications must include a complete personal resume with details of academic qualifications, electronic copies of two (2) representative scientific publications, and the names and contact information of three (3) individuals who have agreed to provide a personal and professional recommendation if requested. Email all applications to James Peterson at jt.peterson@oregonstate.edu.
Deadline for applications: Applications will be accepted starting 1/17/2025 and will close on 05/15/2025 or until the position has been filled.
Interviews: All applications will be acknowledged electronically; only those selected for consideration on a short list will be contacted and asked to provide letters of recommendation.

Presenting at the 2024 International Society for Behavioral Ecology Congress: a graduate student’s experience

Presenting my doctoral research at the International Society for Behavioral Ecology (ISBE) Congress in Melbourne, Australia in the fall of 2024 was an incredibly profound experience. Having previously presented at the 2022 Congress in Stockholm, the opportunity to share my work once more on such a distinguished platform was not only gratifying but also deeply humbling. Engaging with fellow researchers and ecologists from around the globe (over 50 countries were represented), all passionate and committed to the field of behavioral ecology, enriched my perspective and deepened my own commitment to my research. 

Ashley stands behind a podium when delivering a presentation at a conference.
Ashley Townes
Delivering my oral presentation at the 2024 ISBE Congress in Melbourne.

At ISBE 2024, I presented the second chapter of my dissertation, which explores how the risk of predators (e.g., bears) affects the behavior and reproductive success of spawning sockeye salmon in Bristol Bay, Alaska. We’re studying whether adult salmon that move between different parts of a stream (movers) during spawning have more successful offspring compared to those that stay in one place (non-movers). By combining past data on salmon movements with information on their offspring, we hope to better understand how breeding behaviors can impact survival and success in the wild.

Two people smile into the camera as they stand in front of a conference event sign.
Ashley Townes
Reuniting with Dr. John Fitzpatrick, the president-elect of ISBE and the ISBE 2022 Organizing Committee Chair in Stockholm. Dr. Fitzpatrick, a reviewer of my research abstract, graciously selected me for a travel grant and extended an invitation for me to present again two years later. His support has been invaluable, and his kindness is truly remarkable.

When I decided I wanted to attend the ISBE Congress in Australia, my first thought was about how to fund the trip. I’ve made it a personal rule to explore outside funding opportunities before approaching my academic advisor for support. In this case, the ISBE Congress offered a travel grant application, which I applied for. These applications are usually straightforward – they typically ask for your abstract, estimated travel costs, whether you’ve attended an international conference before, and whether you’re a master’s or Ph.D. student. Occasionally, they include a personal statement or ask why you’re deserving of the grant, but that’s not always the case.

I’ve been fortunate to receive travel grants from conferences or host universities that have allowed me to present my research at several international conferences. But if a travel grant doesn’t work out, I still prioritize finding other funding opportunities to support my academic goals. Professors often have limited funds and may encourage you to look for external funding as well, so I always try to exhaust those options first.

Ashley smiles into the camera while the background shows a cityscape with a river running through it.
Ashley Townes
Exploring the sights of Melbourne, Australia.

The conversations I had at ISBE 2024 were enlightening, pushing the boundaries of what I thought was possible and opening new avenues for scientific exploration, particularly in terms of scaling my fish habitat work from local to global impacts. This experience has significantly motivated me as a scientist to further my research with renewed vigor and a broader perspective, understanding more profoundly how interconnected our work and its implications are on a global scale.

Being in an environment where everyone is aligned in their dedication to advancing knowledge and understanding was incredibly affirming. It reassured me that the path I’ve chosen is not only valuable but essential. The ISBE Congress was more than just an academic exercise; it was a confluence of minds and spirits, eager to make a difference and contribute to the betterment of our environment and world.

A large screen behind a stage during a presentation at a conference event.
Ashley Townes
View of the Melbourne Convention & Exhibition Centre’s auditorium, the central gathering space where attendees convened each morning and afternoon to listen to keynote speakers.

A return to his roots: SAFS undergrad conducts research in Hawai’i during HPP internship

Preparing a diverse group of first-year college students for the NOAA Ernest F. Hollings Scholarship is the Hollings Preparation Program (HPP) Internship, which includes a six-week paid research experience with one of NOAA’s many divisions. For Dash Dicksion, a SAFS undergrad now in his sophomore year, he got to return to his home island of Oahu during his HPP internship in the summer of 2024, working with the Ecosystem Sciences Division of NOAA’s Pacific Islands Fisheries Science Center. “I was born and raised on Oahu, where I grew up fishing and diving. I left Hawaiʻi for UW to pursue a top-notch education in a field I’ve been passionate about since childhood, but I still have deep ties to the place I call home,” Dash said. “I was excited to take this opportunity to return to my roots over summer and apply some of what I’ve learned on the mainland to real-word research!”

Tiny fish viewed under a microscope.
Dash Dicksion
Acanthuridae (unicornfish/surgeonfish) larvae under microscope.

Learning about the HPP internship through an information session held at SAFS and referrals from previous academic mentors, Dash jumped at the chance to apply: “I saw this as an awesome opportunity to get an early jump into my desired career path and spend a summer learning from the best!” Based in Honolulu, Hawai’i, the State’s capital city, Dash’s internship focused on the biocultural and ecological aspects of fish larvae across Hawai’i Pae ‘Aina (the Hawaiian archipelago). “I worked under the guidance of an awesome team of mentors, and spent a lot of my time looking for, counting, and measuring fish larvae of interest under a microscope from preserved plankton sampled during previous research cruises,” Dash said.

During the lab portion of his internship, Dash also worked with data analysis and species distribution modeling in R, examining possible variable associations. “Interwoven with Western science work was input from native Hawaiian cultural practitioners and research into the traditional significance of fish species I was working with, their names, and the places where they come from”, Dash said. “I got to use that research to assist in developing nomenclature for larval fish in ʻŌlelo Hawaiʻi (the Hawaiian language). It was really awesome to see Hawaiian culture being appreciated and incorporated into modern research and discovery!”

Dash Dicksion
Funny picture of cowfish.

Not only did Dash get to experience what day-to-day lab research consists of, he also spent 30 days at sea on board the Oscar Elton Sette, a 224ft research vessel named after the first director of the Honolulu Laboratory at U.S. Fish and Wildlife Service (now the NOAA Pacific Islands Fisheries Science Center). “I was afforded the very rare opportunity to join my mentor as part of a two-person science team sampling the Papahānaumokuākea Marine National Monument,” Dash shared. This World Heritage site encompasses 583,000 square miles of ocean and is the largest marine conservation area in the world. “My mentor and I “piggybacked” with the National Coral Reef Monitoring Program (NCRMP) divers to sample for larvae using Isaac-Kidd midwater trawls on the night shift. We aimed for five hour-long tows per night, working from offshore to as close as we could to each island within the monument,” Dash said.

In between the different stations visited for research, Dash and his mentor would do a quick sort of organisms that were visible to the naked eye, preserving the rest in jars of ethanol for sorting later on under the microscope. “Before and after every night of work, we would perform an oli, or chant to ask permission for sampling. Papahanaumokuākea is an especially sacred location in Hawaiian culture, and so it was crucial that we honored tradition when conducting our research.”

Click the photos to enlarge

A plate of food, including steak and lobster, with cutlery on the left side.
Dash Dicksion
Steak and lobster dinner (for breakfast) on the cruise!

During transit days, activities including looking through photos, presenting research, watching preseason college football and fishing when 50 miles offshore of the monument. “I even got to dive at one point during the cruise, and it was amazing to see the range of life in the monument compared with what I was used to seeing in the main islands,” Dash said. As his first research cruise, Dash’s 30-day experience in the middle of the ocean was a unique one. “The constant movement takes a little for your body to get used to, but I was lucky I didn’t get seasick during the cruise,” Dash said. “The food was super good, the ship chefs are super talented and keep everyone well-fed for daily ops.” Compliments to the chef!

Aspiring to be a Fisheries Biologist or Management Specialist in the future, Dash described the internship as one which reaffirmed his desire to work in the world of fisheries sciences and management. “I would hope to eventually continue research on migratory pelagic predators like tuna and billfish, which especially piqued my curiosity during this project,” Dash said. Building on the foundational courses learned at SAFS was also a useful part of the HPP internship experience. “I’m glad for the exposure to a range of disciplines in the field of fisheries and marine science while studying at SAFS, and I intend to apply for more internship programs with NOAA as I continue my education,” he added.

“I would like to extend a huge mahalo to my mentors Justin Suca, Kanoe Morishige, Andrea Schmidt, Don Kobayashi, and Hauʻoli Lorenzo Elarco for their guidance and patience, as well as to everyone onboard the Sette during my first research cruise for making it a truly amazing experience!”


Swinomish Fisheries is hiring a quantitative fisheries biologist

From Julie Barber, Senior Shellfish Biologist – Swinomish Indian Tribal Community: Swinomish Fisheries is excited to announce that we are looking for an individual to fill a new, full-time, lead scientist position. The Quantitative Fisheries Biologist will report directly to Tandy Wilbur, the Fisheries Manager for the Tribe, but the individual will work very closely with our Shellfish Team.

This job will have numerous, diverse, duties but the three primary duties are:

  • Lead biometrician for the Shellfish Team. This individual will lead or assist, depending on the project, with modeling Dungeness crab populations, investigating catch accounting, analyzing ecological data related to Olympia oysters, intertidal clams, water properties, and more. See this webpage to get an idea of the work we do.
  • Lead shrimp biologist. This individual will need to determine data gaps (there are a ton), design, and execute shrimp studies to help us move toward more science-based decisions for the management of the fishery. Swinomish Fisheries expects publication of these efforts.
  • Lead urchin and sea cucumber biologist and manager. This individual will oversee management and field work related to these fisheries. While not a requirement to apply, being a scientific diver with cold water experience is preferred.

Full job description and Swinomish application can be found here:

https://www.swinomish-nsn.gov/human-resources/job-opening/fisheries-quantitative-fisheries-biologist

A cover letter is required.

A few notes – this is a not a grant-funded position, which is exciting! Also, Swinomish offers a fantastic benefits package including health, vision, dental, retirement, and more. Salary range starts at 75K. Initial review closes on 1/19/2025 and then the job will remain open until filled (HR automatically sets the initial closure date, we have no say over that). Advanced degrees, even PhDs, are encouraged to apply.

Finally, this individual does not need to have experience working with shellfish. If an interested applicant has worked, say, modeling salmon populations and wants to switch to invertebrate fisheries, which are in dire need of attention in this state (and bring in more money than salmon), we would happily consider this applicant. We really need someone who is a strong biometrician with an interest in sustainable shellfisheries. Being able to work independently with very little oversight is a must, but we are also a team that enjoys working together on answering tough questions.

If someone is interested in the job, please encourage them to cc me (jbarber@swinomish.nsn.us) when sending their application to HR.


Apply to present at the 2025 Undergraduate Research Symposium

Applications are now open for the 2025 Undergraduate Research Symposium at the University of Washington. Open to undergrad researchers wanting to share and celebrate their research and creative works! Apply with a project title and statement, collaborate with your mentors and group members to see yourself on May 16, 2025.

The deadline to apply is February 13, 2025.

Apply by visiting symposium.uw.edu/apply!


Beyond despair: How can ecosystem restoration enhance human wellbeing?

Ecosystem restoration has historically had a very ecological focus with goals of improving different ecological metrics such as percentage of vegetation cover, presence of fish and other species, ecological functioning, and more. However, while teaching a special interdisciplinary class during her time as a postdoc and co-PI at Duke University, SAFS Assistant Professor, Carter Smith, took a slightly different view: how can ecosystem restoration be used to directly improve human wellbeing?

Carter Smith, SAFS Assistant Professor

Recently published in January 2025 in PNAS, this concept is outlined in a new paper that explores how ecosystem restoration can make individuals and communities more resilient through enhancing optimism, making people more connected to their environment, and making people more socially connected. “The original goal of the project was to understand interdisciplinary resilience concepts and how they apply to ecosystem restoration,” Carter said. “As part of our deep dive into the literature, we realized that a lot of people were talking about resilience in restoration focused on ecological or disaster resilience, but there was a real knowledge gap in understanding how restoration can impact social and psychological wellbeing of people.”

The study sets out these three individual and community-level strengths that the team of researchers thought could be enhanced through restoration. Bringing together scientists, faculty and students from Duke University, University of Adelaide, North Carolina State University and NOAA’s National Centers for Coastal Ocean Science – as part of Duke’s Bass Connections program – the team compiled information about promising community-engaged restoration projects from around the world, and some recommendations for how restoration can be conducted to improve psychosocial resilience through this lens. “Examples of community-based restoration exist on a vast scale, from engaging diverse stakeholders at the initial goal-setting stage of a project to build trust, all the way to biocultural restoration projects that include community workdays and shared meals as a way to build relationships and learn about traditional cultures”, Carter shared.

Conceptual diagram showing the idealized role of restoration as a resilience-building endeavor in a social-ecological system.

So what are some of the actionable ways to enhance psychosocial resilience through ecosystem restoration? The answer could be to just bring people into the process wherever and however possible and moving restoration projects from largely technical endeavors to ones which account for human-nature relationships. “Directly engaging community members in the restoration process to assist with planning or implementation, or indirectly by facilitating access to natural areas and creating a place where people can do the activities in nature that they value are some of the ways to do this,” Carter shared. Embedding community spaces around or within restoration projects, such as boardwalks, beach parks, or community centers, are some examples of this.

But caution was advised about further eroding human relationships with the natural world through the technologization of restoration. “There is a huge emphasis in restoration right now on upscaling and technologizing the restoration process – and this will likely be very important for meeting some restoration goals – but we shouldn’t lose sight of the value of community-engaged projects,” Carter said.

Many of us have experienced the benefits of being outside in nature, and it’s a well-studied area in relation to psychological and physical benefits, from reducing anxiety and cardiovascular disease, to helping your nightly slumber. And this is a great place for many people to start. “Getting involved in restoration can be really small and as simple as joining beach cleanups and planting native plants in your backyard,” Carter said.

In a time of general climate pessimism, celebrating success stories is a way to combat climate despair. “A healthy amount of doom and gloom is needed right now to acknowledge the magnitude of the problem we’re facing, but I would encourage people to see hope in the successful restoration stories we’re seeing from across the globe,” Carter added. “I draw a lot of hope and inspiration from learning about biocultural restoration projects that incorporate traditional ecological knowledge, from large-scale seagrass restoration in the Chesapeake Bay, oyster restoration in parts of Australia where oysters were functionally extinct, and from numerous reforestation projects globally.”