Professor
Fields of Interest
Biography
Seabird Biology and Conservation - Much of the lab works on the forces affecting seabird population dynamics in the Pacific Northwest. From murres to terns, from the marine environment to freshwater, from pristine outer coast islands to highly modified urban settings. In general, we seek to understand the balance of top-down, bottom-up (e.g., climate change and physical oceanographic forcing), and anthropogenic factors which lead populations to decline, OR to increase. After wrestling with each system, we also pursue conservation solutions, where appropriate. We work in active fisheries on seabird bycatch issues, on seabird-salmon interactions, and on species affected by oil spills. Finally, we run a highly effective citizen science program designed to collect information about beached birds. Our conservation research adopts a strict no fingerpointing and no whining policy - we are interested in solving the problems and benefiting both the resource AND the people.
I could never really decide what aspect of the marine environment interested me most. As a consequence, my research, and the research of my students, postdocs, and technicians reflects a broad diversity, from fish to birds, from theoretical science to in-your-face conservation.
As an undergraduate at Carnegie-Mellon, I focussed on biochemistry and biophysics, and convinced myself that I wanted to work on organisms visible with the naked eye. After a seminal senior undergraduate experience at the Duke Marine Lab, I returned to that lab as a graduate student to pursue a PhD in schooling behavior of fish.
Fish, and schooling, occupied my brain and my life for 8 years, until I came to the University of Washington, where circumstances beyond my control introduced me to seabirds. Contrary to how it may look to the casual observer of my academic record, the birds I work on (Common Murres) actually have alot in common with the fish schools I am still fascinated by. In fact, murres are one of the densest nesting birds on the planet, providing me with a diurnal, terrestrial opportunity to ask many of the same questions about why and how animal aggregate as I do with fish.
At present, I hold a joint position in the Biology Department, and in the School of Aquatic and Fishery Sciences. I am definitely a type AAA person, as anyone in my lab will gladly tell you. However, I don't require those who work with me to do the same (too much...).
When I'm not teaching, tied to my computer, in endless meetings, or out in the field, I really enjoy playing with the same gusto that I apply to my research. In general, I believe that you only live once, and you had better make the most of it.
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Selected Research
- Muscles get dendrites into shape, Jiang N and Parrish J Z, Developmental Cell (9998)
- Mechanisms of Dendritic Tiling, Parrish J Z, Dendrites: Development and Disease (9998)
- Using beached bird data to assess seabird oiling susceptibility, Parrish Julia K., Jones Timothy, and Waugh Jazzmine K., Marine Pollution Bulletin, 03/2022, Volume 176 (2022)
- Evaluating Native American Bird Use and Bird Assemblage Variability along the Oregon Coast, Parrish Julia K., Bovy Kristine M., Moss Madonna L., Watson Jessica E., White Frances J., Jones Timothy T., and Ulrich Heather A., The Journal of Island and Coastal Archaeology,, 05/22/2018, Volume 14, Issue 3 (2019)
- Hoping for optimality or designing for inclusion: Persistence, learning, and the social network of citizen science, Parrish Julia K., Jones Timothy, Burgess Hillary K., He Yurong, Fortson Lucy, and Cavalier Darlene, Proceedings of the National Academy of Sciences, 02/04/2019, Volume 116, Issue 6, p.1894–1901 (2019)
- A conserved morphogenetic mechanism for epidermal ensheathment of nociceptive sensory neurites, Clanton Joshua A, Parrish Jay Z, Jiang Nan, Rasmussen Jeffrey P, Rosenberg Marci F, Luedke Kory P, Cronan Mark R, Parker Edward D, Kim Hyeon-Jin, Vaughan Joshua C, and Sagasti Alvaro, Elife, Mar, Volume 8 (2019)
- A conserved morphogenetic mechanism for epidermal ensheathment of nociceptive sensory neurites, Clanton Joshua A, Parrish Jay Z, Jiang Nan, Rasmussen Jeffrey P, Rosenberg Marci F, Luedke Kory P, Cronan Mark R, Parker Edward D, Kim Hyeon-Jin, Vaughan Joshua C, and Sagasti Alvaro, Elife, 03/2019, Volume 8 (2019)
- Massive Mortality of a Planktivorous Seabird in Response to a Marine Heatwave, Parrish Julia K., Jones Timothy, Burgess Hillary K., Peterson William T., Bjorkstedt Eric P., Bond Nicholas A., Ballance Lisa T., Bowes Victoria, J. Hipfner Mark, Dolliver Jane E., Lindquist Kirsten, Lindsey Jacqueline, Nevins Hannahrose M., Robertson Roxanne R., Roletto Jan, Wilson Laurie, Joyce Trevor, and Harvey James, Geophysical Research Letters, 02/28/2018, Volume 45, Issue 7 (2018)
- Epidermis-Derived Semaphorin Promotes Dendrite Self-Avoidance by Regulating Dendrite-Substrate Adhesion in Drosophila Sensory Neurons., Lee Jiae, Jan Lily Yeh, Jan Yuh-Nung, Meltzer Shan, Yadav Smita, Soba Peter, Younger Susan H, Jin Peng, Zhang Wei, and Parrish Jay, Neuron, 2016 Feb 2 (2016)
- Regulation of dendrite growth and maintenance by exocytosis., Lee Jiae, Parrish Jay Z, Wen Yuhui, Kim Michael D, Peng Yun, Rowland Kimberly, Hua Hope, Carlson Nicole, and Lavania Shweta, Journal of cell science, 2015 Dec 1, Volume 128, Issue 23, p.4279-92 (2015)
- Coordinate control of terminal dendrite patterning and dynamics by the membrane protein Raw., Lee Jiae, Lin Wen-Yang, Parrish Jay Z, and Peng Yun, Development (Cambridge, England), 2015 Jan 1, Volume 142, Issue 1, p.162-73 (2015)
- Coordinate control of terminal dendrite patterning and dynamics by the membrane protein Raw., Lee Jiae, Lin Wen-Yang, Parrish Jay Z, and Peng Yun, Development (Cambridge, England), 2015 Jan 1, Volume 142, Issue 1, p.162-73 (2015)
- The SLC36 transporter Pathetic is required for extreme dendrite growth in Drosophila sensory neurons., Lin Wen-Yang, Parrish Jay Z, Kim Charles C, Williams Claire, Yan Connie, Koledachkina Tatyana, Luedke Kory, Dalton Jesse, Bloomsburg Sam, Morrison Nicole, and Duncan Kent E, Genes & development, 2015 Jun 1, Volume 29, Issue 11, p.1120-35 (2015)
- Global change and local solutions: Tapping the unrealized potential of citizen science for biodiversity research, Ettinger A K, HilleRisLambers J, DeBey L B, Theobald E J, Burgess H K, Schmidt N R, Froehlich H E, Wagner C, Tewksbury J, Harsch M A, and Parrish J K, Biological Conservation, 01/2015, Volume 181, p.236 - 244 (2015)
- Regulation of dendrite growth and maintenance by exocytosis, Parrish J Z, Lee J, Peng Y, Rowland K, Hua H, Carlson N, Kim M, and Lavinia S, Journal of Cell Science (2015)
- Identification of an amino acid transporter required to support extreme growth in neurons., Kim C K, Parrish J Z, Lin WY, Williams C, Luedke KA, Yan C, Ahn J, Morrison N, Bloomsburg S, and Duncan K, Genes and Development, Volume 29 (2015)
- Coordinate control of terminal dendrite patterning and dynamics by the membrane protein Raw., Lee Jiae, Lin Wen-Yang, Parrish Jay Z, and Peng Yun, Development (Cambridge, England), 2015 Jan 1, Volume 142, Issue 1, p.162-73 (2015)
- The microRNA bantam regulates a developmental transition in epithelial cells that restricts sensory dendrite growth., Jiang N, Soba P, Parker E, Kim C K, and Parrish J Z, Development, 01/2015, Volume 142 (2015)
- Krüppel mediates the selective rebalancing of ion channel expression., Parrish Jay Z, Kim Charles C, Tang Lamont, Bergquist Sharon, Wang Tingting, Derisi Joseph L, Jan Lily Yeh, Jan Yuh Nung, and Davis Graeme W, Neuron, 2014 May 7, Volume 82, Issue 3, p.537-44 (2014)
- Nmnat exerts neuroprotective effects in dendrites and axons., Parrish Jay Z, Wen Yuhui, He Ruina, Zhai Grace R, and Kim Michael D, Molecular and cellular neurosciences, 2011 Sep, Volume 48, Issue 1, p.1-8 (2011)
- The microRNA bantam functions in epithelial cells to regulate scaling growth of dendrite arbors in drosophila sensory neurons., Parrish Jay Z, Kim Charles C, Jan Lily Yeh, Jan Yuh Nung, and Xu Peizhang, Neuron, 2009 Sep 24, Volume 63, Issue 6, p.788-802 (2009)
- Mechanisms that regulate establishment, maintenance, and remodeling of dendritic fields., Parrish Jay Z, Jan Yuh Nung, Kim Michael D, and Emoto Kazuo, Annual review of neuroscience, 2007, Volume 30, p.399-423 (2007)
- Polycomb genes interact with the tumor suppressor genes hippo and warts in the maintenance of Drosophila sensory neuron dendrites., Parrish Jay Z, Jan Lily Yeh, Jan Yuh Nung, and Emoto Kazuo, Genes & development, 2007 Apr 15, Volume 21, Issue 8, p.956-72 (2007)
- Genome-wide analyses identify transcription factors required for proper morphogenesis of Drosophila sensory neuron dendrites., Parrish Jay Z, Jan Lily Yeh, Jan Yuh Nung, and Kim Michael D, Genes & development, 2006 Apr 1, Volume 20, Issue 7, p.820-35 (2006)
- The tumour suppressor Hippo acts with the NDR kinases in dendritic tiling and maintenance., Parrish Jay Z, Jan Lily Yeh, Emoto Kazuo, and Jan Yuh-Nung, Nature, 2006 Sep 14, Volume 443, Issue 7108, p.210-3 (2006)
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