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Proxy Measurements of California Mussel Valve Length

Published online by Cambridge University Press:  16 January 2017

Michael Glassow ,
Elizabeth A. Sutton ,
Carola Flores Fernandez  and
Heather B. Thakar
Michael Glassow
Affiliation:
Department of Anthropology, University of California, Santa Barbara 93106-3210
Elizabeth A. Sutton
Affiliation:
Union Station Foundation, 2501 Wall Avenue, Ogden, UT 84401
Carola Flores Fernandez
Affiliation:
Casilla 1016, La Serena, Chile
Heather B. Thakar
Affiliation:
Department of Anthropology, Temple University, Philadelphia, PA 19122
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Abstract

Archaeologists studying shell assemblages from prehistoric sites along the Pacific coast of North America have been interested in the influences of collecting intensity and environmental variability on California mussel (Mytilus californianus) size. To determine the variation in mussel size within a shell assemblage, researchers have developed a variety of proxies of mussel valve length based on measurements of morphological features occurring at or near the valve’s umbo. We propose four additional measurements that can serve as proxies and evaluate their correlation with valve length using regression analysis. Of the four, anterior adductor scar length has the strongest correlation, and we present two examples of its application. We also evaluate a popular visual technique based on a set of outline drawings of valves of varying lengths, and we found that it systematically underestimated valve length but could be useful under certain circumstances. We conclude that the selection of a particular proxy of mussel valve length depends on the nature of the mussel shell assemblage being studied and the research context.

La influencia de la intensidad de recolección humana y la variabilidad ambiental sobre el tamaño del mejillón Californiano (Mytilus californianus) en la prehistoria ha sido un tema de gran interés para arqueólogos a lo largo de la costa Pacífica de Norte América. Para determinar la variación en el tamaño del mejillón dentro del conjunto malacológico, investigadores han desarrollado diferentes proxis para estimar el largo total de la valva, basado en aspectos morfológicos del umbo de la concha o alrededor de éste. En el presente trabajo proponemos cuatro medidas adicionales y evaluamos su correlación con el largo total de la concha usando análisis de regresión. De las cuatro medidas, el largo de la marca del músculo abductor anterior presenta la correlación más fuerte. Presentamos la aplicación de esta medida en dos casos de estudio. También evaluamos la comúnmente utilizada técnica de estimación de tamaño basada en dibujos de contornos de valvas completas de mejillón, la cual a pesar de ser útil bajo ciertas circunstancias, nuestros resultados muestran que subestima sistemáticamente el largo de la valva. Concluimos que la elección sobre qué medida utilizar para estimar el largo total de la valvas de mejillón depende en gran medida de la naturaleza del conjunto de conchas bajo estudio y el contexto de investigación.

Type
Research Article
Information
Advances in Archaeological Practice , Volume 4 , Issue 1 , February 2016 , pp. 31 - 40
Copyright
Copyright © Society for American Archaeology 2016

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References

References Cited

Bell, Arran M. 2009. On the Validity of Archaeological Shellfish Metrics in Coastal California. Master’s thesis, Department of Anthropology, California State University, Chico.Google Scholar
Blanchette, Carol A., Broitman, Bernardo R., and Gaines, Steven D. 2006. Intertidal Community Structure and Oceanographic Patterns around Santa Cruz Island, CA, USA. Marine Biology 149:689–701.Google Scholar
Blanchette, Carol A., and Gaines, Steven D. 2007. Distribution, Abundance, Size, and Recruitment of the Mussel, Mytilus californianus, across a Major Oceanographic and Biogeographic Boundary at Point Conception, California, USA. Journal of Experimental Marine Biology and Ecology 340:268–279.Google Scholar
Blanchette, Carol A., Helmuth, Brian, and Gaines, Steven D. 2007. Spatial Patterns of Growth in Mussel, Mytilus californianus, across a Major Oceanographic and Biographic Boundary and Point Conception, California, USA. Journal of Experimental Marine Biology and Ecology 340:126–148.Google Scholar
Botkin, Steven 1980. Effects of Human Exploitation on Shellfish Populations at Malibu Creek, California. In Modeling Change in Prehistoric Subsistence Economies, edited by Earle, Timothy K. and Christenson, Andrew L., pp. 121–139. Academic Press, New York.Google Scholar
Braje, Todd J., Kennett, Douglas J., Erlandson, Jon M., and Culleton, Brendan J. 2007. Human Impacts on Nearshore Shellfish Taxa: A 7,000 Year Record from Santa Rosa Island, California. American Antiquity 72:735–756.Google Scholar
Braje, Todd J., Rick, Torben C., and Erlandson, Jon M. 2012. A Trans-Holocene Historical Ecological Record of Shellfish Harvesting on California’s Northern Channel Islands. Quaternary International 264:109–120.Google Scholar
Buchanan, W. F. 1985. Middens and Mussels: An Archaeological Enquiry. South African Journal of Science 81:15–16.Google Scholar
Campbell, Breana, and Braje, Todd J. 2015. Estimating California mussel (Mytilus californianus) from Hinge Fragments: a Methodological Application in Historical Ecology. Journal of Archaeological Science 58:167–174.Google Scholar
Campbell, Gregory E. 2014. Size Prediction in Archaeomalacology: the Common Mussel, Mytilus edulis L., as an example. Archaeological and Anthropological Sciences 6:305–318.Google Scholar
Cannon, Aubrey, and Burchell, Meghan 2009. Clam Growth-Stage Profiles as a Measure of Harvest Intensity and Resource Management on the Central Coast of British Columbia. Journal of Archaeological Science 36:1050–1060.Google Scholar
Coe, Wesley R., and Fox, Denis L. 1942. Biology of the California Sea-Mussel (Mytilus californianus), I. Influence of Temperature, Food Supply, Sex and Age on the Rate of Growth. Journal of Experimental Zoology 90:1–30.Google Scholar
Douros, William J. 1993. Prehistoric Predation on Black Abalone by Chumash Indians and Sea Otters. In Third California Islands Symposium, Recent Advances in Research on the California Islands, edited by Hochberg, F. G., pp. 557–566. Santa Barbara Museum of Natural History, Santa Barbara.Google Scholar
Erlandson, Jon M., Rick, Torben C., and Vellanoweth, René 2004. Human Impacts on Ancient Environments: A Case Study from California’s Northern Channel Islands. In Voyages of Discovery, the Archaeology of Islands, edited by Fitzpatrick, Scott M., pp. 51–83. Praeger, Westport.Google Scholar
Erlandson, Jon M., Rick, Torben C., Braje, Todd J., Steinberg, Alexis, and Vellanoweth, René L. 2008. Human Impacts on Ancient Shellfish: A 10,000 Year Record from San Miguel Island, California. Journal of Archaeological Science 35:2144–2152.Google Scholar
Flores Fernandez, Carola 2014. Past Small-Scale Ecological and Oceanographic Variability around Santa Cruz Island, California. Implications for Human Foraging on M. californianus Beds during the Late Holocene (2200–500 cal B.P.). Unpublished Ph.D. dissertation, Department of Anthropology, University of California, Santa Barbara.Google Scholar
Glassow, Michael A., and Gregory, Teresa L. 2000. A Terminal Middle Period Site Near Purisima Point, Western Santa Barbara County, California. Journal of California and Great Basin Anthropology 22:133–150.Google Scholar
Haderlie, Eugene C., and Abbott, Donald P. 1980. Bivalvia: The Clams and Allies. In Intertidal Invertebrates of California, edited by Morris, Robert H., Abbott, Donald P., and Haderlie, Eugene C., pp. 355–411. Stanford University Press.Google Scholar
Hall, Martin 1980. A Method for Obtaining Metrical Data from Fragmentary Molluscan Material found at Archaeological Sites. South African Journal of Science 76:280–281.Google Scholar
Hamilton, Diana J. 1992. A Method for Reconstruction of Zebra Mussel (Dreissena polymorpha) Length from Shell Fragments. Canadian Journal of Zoology 70:2486–2490.Google Scholar
Jazwa, Christopher S., Kennett, Douglas J., and Hanson, Danielle 2012. Late Holocene Subsistence Change and Marine Productivity on Western Santa Rosa Island, Alta California. California Archaeology 4:69–98.Google Scholar
Jerardino, Antonieta 1997. Changes in Shellfish Species Composition and Mean Shell Size from a Late-Holocene Record of the West Coast of Southern Africa. Journal of Archaeological Science 24:1031–1044.Google Scholar
Jerardino, Antonieta, Castilla, Juan C., Ramírez, José Miguel, and Hermosilla, Nuriluz 1992. Early Coastal Subsistence Patterns in Central Chile: A Systematic Study of the Marine-Invertebrate Fauna from the Site of Curaumilla-1. Latin American Antiquity 3:43–62.Google Scholar
Jones, Terry L. 1995. Transitions in Prehistoric Diet, Mobility, Exchange, and Social Organization along California’s Big Sur Coast. Unpublished Ph.D. dissertation, Department of Anthropology, University of California, Davis.Google Scholar
Jones, Terry L., and Richman, Jennifer R. 1995. On Mussels: Mytilus californianus as a Prehistoric Resource. North American Archaeologist 16:33–58.Google Scholar
Joslin, Terry L. 2010. Middle and Late Holocene Hunter-Gatherer Adaptations to Coastal Ecosystems along the Southern San Simeon Reef, California. Unpublished Ph.D. dissertation, Department of Anthropology, University of California, Santa Barbara.Google Scholar
Lebow, Clayton G., McKim, Rebecca L., Harro, Douglas R., and Munns, Ann M. 2006. Prehistoric Land Use in the Casmalia Hills Throughout the Holocene: Archaeological Investigations along Combar Road, Vandenberg Air Force Base, Santa Barbara County, California, Vol. 1. Submitted to 30th Civil Engineer Squadron, Environmental Flight, Cultural Resources Section. Copies available at the Central Coast Information Center, Department of Anthropology, University of California, Santa Barbara.Google Scholar
McKechnie, Iain, Singh, Gerald G., Braje, Todd J., and Campbell, Breana 2015. Measuring Mytilus californianus: an Addendum to Campbell and Braje (2015) and Singh and McKechnie (2015) Including Commentary and an Integration of Data. Journal of Archaeological Science 58:184–186.Google Scholar
Moore, Jerry D. 1988. Appendix B: Marine Over-Exploitation on the Prehistoric California Coast: The Effects of Human Predation on Mytilus californianus . In The Testing and Evaluation of Fourteen Archaeological Sites on Vandenberg Air Force Base, Santa Barbara County, California, by Moore, Jerry D., Bergin, Kathleen A., Ferraro, David D., Parsons, Jeffry, Roberts, Lois, Gibson, Robert O., Day-Moriarty, Sandra, and Singer, Clay. Harmsworth Associates, Laguna Hills. Copies available at the Central Coast Information Center, Department of Anthropology, University of California, Santa Barbara.Google Scholar
Randklev, Charles R., Wolverton, Steve, and Kennedy, James H. 2009. A Biometric Technique for Assessing Prehistoric Freshwater Mussel Population Dynamics (Family Unionidae) in North Texas. Journal of Archaeological Science 36:205–213.Google Scholar
Rick, Torben C. 2007. The Archaeology and Historical Ecology of Late Holocene San Miguel Island. Perspectives in California Archaeology 8. Cotsen Institute of Archaeology, University of California, Los Angeles.Google Scholar
Rick, Torben C., Robbins, John A., and Ferguson, Kurt M. 2006. Stable Isotopes from Marine Shells, Ancient Environments, and Human Subsistence on Middle Holocene Santa Rosa Island, California, USA. Journal of Island & Coastal Archaeology 1:233–254.Google Scholar
Rosenthal, E. Jane 1988. The Bulrush Canyon Project, Excavations at Bulrush Canyon Site (SCAI-137) and Camp Cactus Road Site, Santa Catalina Island. Pacific Coast Archaeological Society Quarterly 24(2–3):1–104.Google Scholar
Rudolph, James L. 1985. Changing Shellfish Exploitation in San Luis Obispo County, California. Journal of California and Great Basin Anthropology 7:126–132.Google Scholar
Rudolph, James L. 1990. Size Variation among Molluscs from Sites Near the Lower Santa Ynez River. Proceedings of the Society for California Archaeology 3:261–275.Google Scholar
Sharp, John T. 2000. Shellfish Analysis from the Punta Arena Site, a Middle Holocene Red Abalone Midden on Santa Cruz Island, California. Unpublished Master’s thesis, Department of Anthropology, Sonoma State University, Rohnert Park.Google Scholar
Singh, Gerald G., Markel, Russell W., Martone, Rebecca G., Salomon, Anne K., Harley, Christopher D. G., and Chan, Kai M. A. 2013. Sea Otters Homogenize Mussel Beds and Reduce Habitat Provisioning in a Rocky Intertidal System. Plos One 8:1–12.Google Scholar
Singh, Gerald G., and McKechnie, Iain 2015. Making the Most of Fragments: A Method for Estimating Shell Length from Fragmentary Mussels (M. californianus and M. trossulus) on the Pacific Coast of North America. Journal of Archaeological Science 58:175–183.Google Scholar
Thakar, Heather B. 2014. Food & Fertility in Prehistoric California: A Case-Study of Risk-Reducing Behavior and Population Growth from Santa Cruz Island, California. Unpublished Ph.D. dissertation, Department of Anthropology, University of California, Santa Barbara.Google Scholar
Waselkov, Gregory A. 1987. Shellfish Gathering and Shell Midden Archaeology. Advances in Archaeological Method and Theory 10:93–210.Google Scholar
Whitaker, Adrian R. 2008. Incipient Aquaculture in Prehistoric California? Long-Term Productivity and Sustainability vs. Immediate Returns for the Harvest of Marine Invertebrates. Journal of Archaeological Science 35:1114–1123.Google Scholar
White, Greg 1989. A Report of Archaeological Investigations at Eleven Native American Coastal Sites, MacKerricher State Park, Mendocino County, California. Submitted to California Department of Parks and Recreation, Cultural Heritage Resource Protection Division. Copies available at the Northwest Information Center, Sonoma State University, Rohnert Park.Google Scholar
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Supplemental Data. Digital data derived from modern and archaeological mussel shells

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