Time series of avg daily zooplankton concentration in the waters offshore of Carmel River State Beach, Carmel Bay California in 2011 (Surf zone larval transport project)

Website: https://www.bco-dmo.org/dataset/562997
Version: 27 July 2015
Version Date: 2015-07-27

Project
» Does coupling between the inner shelf and surf zone regulate larval supply to intertidal populations? (Surf zone larval transport)
ContributorsAffiliationRole
Shanks, Alan L.University of Oregon (OIMB)Lead Principal Investigator, Contact
MacMahan, JamieNaval Postgraduate School (NPS)Co-Principal Investigator
Morgan, StevenUniversity of California-Davis (UC Davis-BML)Co-Principal Investigator
Reniers, AdDelft University of Technology (TU Delft)Co-Principal Investigator
Rauch, ShannonWoods Hole Oceanographic Institution (WHOI BCO-DMO)BCO-DMO Data Manager


Dataset Description

Time series of average daily zooplankton concentration in the waters offshore of Carmel River State Beach, CA (36.53833 degrees N, 121.92861 degrees W).

Related references:
Shanks, A.L., S. G. Morgan, J. MacMahan, Ad J.H.M Reniers, M. Jarvis, J. Brown, and C. Griesemer (2014). Onshore transport of plankton by internal tides and upwelling-relaxation events. Marine Ecology Progress Series. DOI:10.3354/meps10717

Shanks, A.L., S. G. Morgan, J. MacMahan, Ad J.H.M Reniers, M. Jarvis, J. Brown, and C. Griesemer (2015). Transport of Larvae and Detritus Across the Surf Zone of a Steep Reflective Pocket Beach. Marine Ecology Progress Series. DOI:10.3354/meps11223


Methods & Sampling

Zooplankton and detritus were collected from 15 June through 15 July about 125 m offshore of the surf zone at Carmel River State Beach. Offshore samples were collected from a kayak in the morning hours before the increase in winds associated with the sea breeze. Offshore samples consisted of vertical plankton tows using a 200 um mesh 0.25 m^2 net that was equipped with a flow meter to determine the volume of water filtered. Three replicate samples were collected daily by hauling the net from near the bottom to the surface. The net filtered an average of 2 m^3 per tow. Samples were preserved with buffered formalin. Organisms were identified and enumerated using dissecting microscopes.


Data Processing Description

Three samples were collected each day. Counts from the microscopic analysis of the samples were converted to number per m^3 and the average and 95% confidence interval for each daily set of samples were calculated. Note that blanks in the data set represent missing data values (BCO-DMO has changed blanks to 'nd'.)

BCO-DMO Processing:
- Re-formatted date, and added separate columns for month, day, year, and year-day.
- Added column containing site name.
- Added lat and lon (from metadata form).
- Modified parameter names to conform with BCO-DMO naming conventions.
- Replaced blanks (missing data) with 'nd' to indicate 'no data'.


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Data Files

File
CarmelRiver_Offshore_Zoo2011.csv
(Comma Separated Values (.csv), 8.28 KB)
MD5:340f45885ff0edf4d25d40a3fa7df5f9
Primary data file for dataset ID 562997

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Parameters

ParameterDescriptionUnits
site_name

Name of the sampling site.

text
lat

Latitude of the sampling site.

decimal degrees
lon

Longitude of the sampling site.

decimal degrees
date

Month/day/year of sample collection.

mm/dd/yyyy
Copepod

Copepod ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Copepod_95CI

Copepod 95% confidence interval.

number per cubic meter (#/m^3)
Copepod_nauplii

Copepod Nauplii ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Copepod_nauplii_95CI

Copepod Nauplii 95% confidence interval.

number per cubic meter (#/m^3)
Harpacticoid

Harpacticoid ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Harpacticoid_95CI

Harpacticoid 95% confidence interval.

number per cubic meter (#/m^3)
Larvacean

Larvacean ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Larvacean_95CI

Larvacean 95% confidence interval.

number per cubic meter (#/m^3)
Cladoceran

Cladoceran ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Cladoceran_95CI

Cladoceran 95% confidence interval.

number per cubic meter (#/m^3)
Mysid

Mysid ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Mysid_95CI

Mysid 95% confidence interval.

number per cubic meter (#/m^3)
Amphipod

Amphipod ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Amphipod_95CI

Amphipod 95% confidence interval.

number per cubic meter (#/m^3)
Ctenophore

Ctenophore ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Ctenophore_95CI

Ctenophore 95% confidence interval.

number per cubic meter (#/m^3)
Hydromedusii

Hydromedusii ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Hydromedusii_95CI

Hydromedusii 95% confidence interval.

number per cubic meter (#/m^3)
Barnacle_stg_I_III

Barnacle stage I-III ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Barnacle_stg_I_III_95CI

Barnacle stage I-III 95% confidence interval.

number per cubic meter (#/m^3)
Barnacle_stg_IV_VI

Barnacle stage IV-VI ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Barnacle_stg_IV_VI_95CI

Barnacle stage IV-VI 95% confidence interval.

number per cubic meter (#/m^3)
Cyprid

Cyprid ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Cyprid_95CI

Cyprid 95% confidence interval.

number per cubic meter (#/m^3)
Grapsid_zoea_I_III

Grapsid zoea stage I-III ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Grapsid_zoea_I_III_95CI

Grapsid zoea stage I-III 95% confidence interval.

number per cubic meter (#/m^3)
Grapsid_zoea_IV_V

Grapsid zoea stage IV-V ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Grapsid_zoea_IV_V_95CI

Grapsid zoea stage IV-V 95% confidence interval.

number per cubic meter (#/m^3)
Grapsid_megalopa

Grapsid megalopa ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Grapsid_megalopa_95CI

Grapsid megalopa 95% confidence interval.

number per cubic meter (#/m^3)
Cancer_zoea_I_III

Cancer zoea stage I-III ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Cancer_zoea_I_III_95CI

Cancer zoea stage I-III 95% confidence interval.

number per cubic meter (#/m^3)
Cancer_zoea_IV_V

Cancer zoea stage IV-V ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Cancer_zoea_IV_V_95CI

Cancer zoea stage IV-V 95% confidence interval.

number per cubic meter (#/m^3)
Cancer_megalopa

Cancer megalopa ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Cancer_megalopa_95CI

Cancer megalopa 95% confidence interval.

number per cubic meter (#/m^3)
Pinnotherid_zoea_I_III

Pinnotherid zoea stage I-III ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Pinnotherid_zoea_I_III_95CI

Pinnotherid zoea stage I-III 95% confidence interval.

number per cubic meter (#/m^3)
Pinnotherid_zoea_IV_V

Pinnotherid zoea stage IV-V ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Pinnotherid_zoea_IV_V_95CI

Pinnotherid zoea stage IV-V 95% confidence interval.

number per cubic meter (#/m^3)
Pinnotherid_megalopa

Pinnotherid megalopa ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Pinnotherid_megalopa_95CI

Pinnotherid megalopa 95% confidence interval.

number per cubic meter (#/m^3)
Majid_zoea_I_II

Majid zoea stage I-II ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Majid_zoea_I_II_95CI

Majid zoea stage I-II 95% confidence interval.

number per cubic meter (#/m^3)
Majid_megalopa

Majid megalopa ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Majid_megalopa_95CI

Majid megalopa 95% confidence interval.

number per cubic meter (#/m^3)
Porcellanid_zoea_I_II

Porcellanid zoea stage I-II ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Porcellanid_zoea_I_II_95CI

Porcellanid zoea stage I-II 95% confidence interval.

number per cubic meter (#/m^3)
Porcellanid_megalopa

Porcellanid megalopa ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Porcellanid_megalopa_95CI

Porcellanid megalopa 95% confidence interval.

number per cubic meter (#/m^3)
Emerita_stg_I

Emerita stage I ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Emerita_stg_I_95CI

Emerita stage I 95% confidence interval.

number per cubic meter (#/m^3)
Bivalves_veligers

Bivalves Veligers ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Bivalves_veligers_95CI

Bivalves Veligers 95% confidence interval.

number per cubic meter (#/m^3)
Gastropod_veligers

Gastropod Veligers ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Gastropod_veligers_95CI

Gastropod Veligers 95% confidence interval.

number per cubic meter (#/m^3)
Spionid_poly_larvae

Spionid Poly Larvae ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Spionid_poly_larvae_95CI

Spionid Poly Larvae 95% confidence interval.

number per cubic meter (#/m^3)
Other_polychaete_larvae

Other Polychaete larvae ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Other_polychaete_larvae_95CI

Other Polychaete larvae 95% confidence interval.

number per cubic meter (#/m^3)
Urchin_larvae

Urchin larvae ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Urchin_larvae_95CI

Urchin larvae 95% confidence interval.

number per cubic meter (#/m^3)
cyphonautes

Cyphonautes ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
cyphonautes_95CI

Cyphonautes 95% confidence interval.

number per cubic meter (#/m^3)
Bopalid_isopod_larvae

Bopalid isopod larvae ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
Bopalid_isopod_larvae_95CI

Bopalid isopod larvae 95% confidence interval.

number per cubic meter (#/m^3)
terrestrial_bugs

Terrestrial bugs ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
terrestrial_bugs_95CI

Terrestrial bugs 95% confidence interval.

number per cubic meter (#/m^3)
doliolids

Doliolids ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
doliolids_95CI

Doliolids 95% confidence interval.

number per cubic meter (#/m^3)
detritus

Detritus ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
detritus_95CI

Detritus 95% confidence interval.

number per cubic meter (#/m^3)
euphasid_larvae

Euphasid larvae ave #/m^3 (mean of the 3 replicate samples).

number per cubic meter (#/m^3)
euphasid_larvae_95CI

Euphasid larvae 95% confidence interval.

number per cubic meter (#/m^3)
mon

2-digit month of year.

mm (01 to 12)
day

2-digit day of month.

dd (01 to 31)
year

4-digit year.

YYYY
yrday

Consecutive day of year (Jan 1st = 1)

dimensionless

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Deployments

CRSB_2011

Website
Platform
Carmel_River_State_Beach
Start Date
2011-06-19
End Date
2011-07-15


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Project Information

Does coupling between the inner shelf and surf zone regulate larval supply to intertidal populations? (Surf zone larval transport)

Coverage: Sand City Beach and Carmel River State Beach, Monterey Bay, CA


Description from NSF award abstract:
Many intertidal invertebrates and fishes have complex life cycles that include a planktonic larval phase. At the end of their pelagic development, larvae must return to shore and cross the surf zone. The purpose of this study is to investigate for the first time the role of surf zone hydrodynamics in the rate of delivery of cyprids of intertidal barnacles to the shore. To exploit the greater physical oceanographic understanding of the hydrodynamics of sandy beach surf zones, this initial study will focus on cyprid settlement on hard substrates in surf zones associated with sandy beaches. In the first two years of the study, the investigators will carry out an intensive two-month physical and biological study of a reflective and dissipative surf zone, respectively. At each site they will sample cyprids in the waters of the inner-shelf, just outside the surf zone, and within the surf zone and they will measure settlement on plates in the intertidal zone. At the same time they will collect physical oceanographic data with both in-situ instruments and a fleet of GPS-equipped surface drifters to describe the hydrodynamics of the surf zone. The time series of the physical and biological data will be correlated to investigate mechanisms of delivery of cyprids to the shore. To simulate the hydrodynamic processes responsible for the transport of larvae, the investigators will use a 3D model, resolving both the horizontal and vertical structure of the unsteady nearshore flow. To evaluate potential transport of larvae through the surf zone, a biological module describing the spatial distribution of the larvae will be coupled to the hydrodynamic module to predict the pathways of the larvae and compare with observations. Intensive sampling will help provide insight into the actual processes transporting cyprids from the inner shelf, through the surf zone, and to the intertidal zone. During each summer, weekly barnacle recruitment and daily cyprid settlement will be measured for two months to settlement plates at reflective and dissipative beaches in central California and southern Oregon. Population densities at many beaches along the West Coast will be surveyed each year to determine if a latitudinal gradient in wave energy is correlated with adult barnacle population densities.

Because the fundamentals of surfzone dynamics are universal, results of this research will be broadly applicable not only along the West Coast, but worldwide. This project will have significant impacts on education and public outreach. It will support three graduate students and nine undergraduate students and will create new research opportunities for students of diverse backgrounds from three undergraduate institutions, local high schools and the public. The research will be included in the curriculum of intensive hands-on courses, and undergraduates will participate in the research while learning how a real-world research project addresses fundamental questions. Both a website that highlights findings and an interactive display for visitors to the Bodega Marine Laboratory will be developed. A model coupling nearshore hydrodynamics and onshore transport across the surf zone will be made available to the community to stimulate research into this emerging research topic.



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Funding

Funding SourceAward
NSF Division of Ocean Sciences (NSF OCE)

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