Impacts of Suspended Sediments in San Francisco Bay on the Viability of Pacific Herring Early Life Stages Studies #1 & #2

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Impacts of Suspended Sediments in San Francisco Bay on the Viability of Pacific Herring Early Life Stages Studies #1 & #2 Fred Griffin Gary Cherr Carol Vines Edmund Smith Theresa DiMarco Univ of California, Davis Bodega Marine Laboratory

Reproductive Characteristics Pacific Herring Fertilization is external Males initiate spawning Adhesive eggs attach to susbstrata Embryos remain attached until hatch Hatch in 8-12 days: temp dependent At hatch yolk-sac larvae Not able to swim against current Not able to feed Yolk-sac persists 3-7 days after hatching Larval period lasts circa 60 days pac.dfo-mpo.gc.ca pac.dfo-mpo.gc.ca

Egg Adhesion (0-2 hrs) Fertilization (Time 0) Gastrulation (24 hrs) Day 0 1 5 10 17 25 Fertilization Larval Hatch Early Life-stage Time Line Larval Feeding (Post-Hatch Day 7) End Culture Capabilities (Post-Hatch Day 15)

Egg Adhesion (0-2 hrs) STUDY #1 (Fertilization - Larval hatch) Fertilization (Time 0) Gastrulation (24 hrs) Chronic Exposure (Fertilization - Larval hatch) Day 0 1 5 10 17 25 Fertilization Larval Hatch Early Life-stage Time Line Larval Feeding (Post-Hatch Day 7) End Culture Capabilities (Post-Hatch Day 15)

SUMMARY OF STUDY #1 Suspended sediments, when present during 0-2 hr 1. Permanently attached to eggs/embryos 2. Caused embryos to aggregate (cluster into multiple layers) 3. Did not reduce fertilization (up to 500 mg sediment/l) 4. Did affect production of larvae (embryonic development) a. If eggs aggregated (clustered) Decrease in % hatching b. In absence of aggregation No effect on % hatching c. In absence of aggregation Reduced size & increased abnormalites 5. Did affect embryo development time Early larval hatch 6. Reduce larval survival Griffin, Smith, Vines & Cherr. 2009. Biol Bull. 216:175

0-2 hr Sediment Treatment Increases Larval Mortality Kaplan-Meier mean survival: 11.86 days for sediment treatment 14.64 for controls * 0-2 HPF Sediment Control * P < 0.001 Griffin, Smith, Vines & Cherr. 2009. Biol Bull. 216:175

STUDY #2 Larvae Larval Sediment Treatment 16-20 hr in Fuller s earth or SF Bay sediment Day 0 1 5 10 17 25 Fertilization Larval Hatch Early Life-stage Time Line Larval Feeding (Post-Hatch Day 7) End Culture Capabilities (Post-Hatch Day 15)

SUMMARY OF STUDY #2 Suspended sediments, when present for up to 20 hrs post-hatch 1. Do not reduce 10 day survival in lab culture at 200-300 mg/l 2. Affects on growth, swimming ability, and feeding?????

Larval Sediment Treatment Setup Flow-through seawater for temp control white tank Four sediment treatment tanks blue tanks

Sediment treatment tanks (blue tank) contained: Three flow-through larval chambers with Nitex mesh (500 μm) - bottom Two submersible pumps for mixing & re-circulating water Manifold & tubing to re-circulate water (100-120 ml/min) through larvae

Control Treatment Tanks : No sediment Experimental Treatment Tanks: 200-300 mg/l effective suspended sediment Treatment time = 16-20 hr After treatment: Sediment-free water Effects ascertained: Survival & Growth over 10 days Swimming ability (Critical Swimming Test) Prey capture (Feeding)

Mortalities (#) CUMULATIVE MORTALITY AFTER LARVAL TREATMENT WITH SUSPENDED SEDIMENTS 60 50 40 30 20 Sediment Treated Control 10 0 0 1 2 3 4 5 6 7 8 9 10 11 Days After Sediment Treatment Average + Std Dev (n=3)

Mortalities (#) CUMULATIVE MORTALITY AFTER LARVAL TREATMENT WITH SUSPENDED SEDIMENTS 60 50 Three complete experiments using Fuller s Earth Two complete experiments SF Bay dredged sediment 40 30 20 Sediment Treated Control 10 0 0 1 2 3 4 5 6 7 8 9 10 11 Days After Sediment Treatment Average + Std Dev (n=3)

Images of larvae were captured with a Photometrix Cool Snap camera through a Nikon stereo zoom microscope using NIS Elements software. Larval size measurements obtained using the same software. Larval Growth

Critical Swimming Test Quantification of larval ability to swim against a current Swimming test chamber Re-circulating chiller Re-circulating pumps

Critical Swimming Test Quantification of larval ability to swim against a current 3-5 larvae placed into tube with flow rate at 0.75 cm/sec (beginning rate) Flow rate incrementally Swimming ramped test chamber up ( 2 cm/sec every 3 min). Max velocity 16 cm/sec Test terminated when larvae could not maintain against current

UCRIT (cm/sec) Larval Critical Swimming Speed 10.00 8.00 6.00 4.00 CONTROL SEDIMENT 2.00 0.00 26-Jan 27-Jan 10-Feb Date of Test

Prey Capture (Larval Feeding) 10-20 larvae 1500-2000 rotifers Co-incubate 4 hr in 100 ml, 13 o C,, ambient light Score # herring larvae with rotifers in digestive tract Score # rotifers per larva in digestive tract

# Rotifers/Larva Average Prey Captured by Herring Larvae: 4 Hours 10 9 8 7 6 5 4 3 2 1 0 Control 87 Larvae Sediment 80 Larvae

Bodega Marine Lab: Contributors Karl Menard & BML Aquatic Resources Group California Department of Fish & Game Washington Tom Moore, Ryan Watanabe, Ken Oda Paul Dinnel, Paul Hershberger San Francisco Bay LTMS Environmental Windows Science Assessment and Data Gaps Work Group, Herring Subgroup U.S. Army Corps of Engineers Peter LaCivita & William Brostoff