spatio-temporal stochastic simulation of connectivity matrices from lagrangian ocean models

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Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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Page 1: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Spatio-temporal Stochastic Simulation of Connectivity Matrices

from Lagrangian Ocean Models

Page 2: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

The Raw Material: Time series of simulated daily Kij Matrices

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Page 3: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Approach

Page 4: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Approach

Page 5: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Approach

Page 6: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Approach

Page 7: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Logit Transformation

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0.0010.003

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0.9970.999

Data

Pro

ba

bilit

y

Normal Probability Plot

Page 8: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Remove Temporal Trend

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day

logi

t(K

ij)

Page 9: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Remove Spatial Trend

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Page 10: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Residuals

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Page 11: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

h (lag distance, km)

h (lag distance, km)

h (lag distance, days)

VARIOGRAMS ON PRESENCE/ABSENCE OF SETTLEMENT (INDICATOR VARIABLE, 0/1)

Along-Rows

(t, i, i)(t, i, i+h)correlation of settlement at adjacent

destinations from same source

Time

(t,i,j)(t+h,i,j)correlation of settlement at time t

in patch (i,j) with settlement at time t+h in same patch

Down-Columns

(t, j, j)(t, j+h, j)correlation of settlement from adjacent

sources to the same destination

Page 12: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

γ(h)

γ(h)

γ(h)

h (lag distance, km)

h (lag distance, km)

h (lag distance, days)

VARIOGRAMS ON MAGNITUDE OF SETTLEMENT AT NON-ZERO LOCATIONS

Along-Rows

(t, i, i)(t, i, i+h)correlation of settlement at adjacent

destinations from same source

Time

(t,i,j)(t+h,i,j)correlation of settlement at time t

in patch (i,j) with settlement at time t+h in same patch

Down-Columns

(t, j, j)(t, j+h, j)correlation of settlement from adjacent

sources to the same destination

Page 13: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

SGEMS

• ….4D simulation…yay

Page 14: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Predicting Alongshore Patterns from Coastal Topgraphy

Page 15: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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Page 16: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

‘Coastal Anomaly’

Broitman and Kinlan 2006 MEPS, In press

Page 17: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Smoothing Scale=1000 km

COASTAL STRUCTURE

Page 18: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Smoothing Scale=50 km

COASTAL STRUCTURE

Page 19: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

-10 -5 0 5 10Residual from smoothed coast (km)

Smoothing Scale = 10 km

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ista

nce

alo

ng

coas

t (k

m)

Residual from smoothed coast (km)

Smoothing Scale = 150 km

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West Coast NA

Longitude

Lat

itu

de

Page 20: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

S.Africa WNAChile

Page 21: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

100 200 300 400 500 600 700 800 900

-0.6

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xcorr: Urchin GSI vs. Topographic Index

smoothing scale for topographic index (km)

corr

ela

tion

co

eff.

What scale of coastal features matter to the What scale of coastal features matter to the process you’re interested in?process you’re interested in?

Correlation between variable of interest and topographic index at each smoothing scale

Page 22: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

myt

bal

cht

Smoothing scale (km) for topo index

Corr

elati

on c

oeffi

cien

t

Page 23: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

myt

bal

cht

alongshore lag (km) (negative lags are poleward)

Corr

elati

on c

oeffi

cien

t

Page 24: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

myt

bal

cht

The “Topographic Response Function”

Correlation coefficient

Alongshore Lag (km) – positive lags poleward – sorry!

Smoo

thin

g sc

ale

(km

) for

topo

inde

x

Page 25: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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gsho

re la

g (k

m)

Amplitude ()

Mytilus spp.

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Filter length (km)

PC

am

plit

ude

PC1PC2PC3

Page 26: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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Amplitude ()

Balanus glandula

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plit

ude

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Page 27: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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Chthamalus spp.

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plit

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Page 28: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Myt (74%) Bal (85%) Cht (69%)

Page 29: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

45%; ns87%; ***

Balanus predicted from Mytilus Chthamalus predicted from Mytilus

Page 30: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Mytilus spp.

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Page 31: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Balanus

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Page 32: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Chthamalus

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Page 33: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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Page 34: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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√√ Settlement Rate (indiv/day)

Coa

stal

Coo

rdin

ate

(km

)REGION: Chile; ZONE: ALL; RESPONSE: PeruRecTx

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Longitude (degrees)

coastline

regressing PeruRecTx and topographyVar Explained = 0.687003Model significance = 0.436829

2.9442 + -0.0014604 * COAST + -0.0024253 * Topo(521,-238) + 0.0067157 * Topo(753,15) + 0.023021 * Topo(58,156) + 0.011621 * Topo(521,-187) + 0.0054632 * Topo(753,-186) + -0.0095863 * Topo(58,103)

Page 35: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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√√Settlement Rate (indiv/day)

Coa

stal

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rdin

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(km

)REGION: Chile; ZONE: ALL; RESPONSE: SemiRecTx

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Longitude (degrees)

coastline

regressing SemiRecTx and topographyVar Explained = 0.795611Model significance = 0.229436

-0.039258 + 0.00030025 * COAST + 0.024883 * Topo(522,-224) + -0.024115 * Topo(837,-217) + -0.020776 * Topo(62,-233) + -0.015662 * Topo(522,-65) + 0.013502 * Topo(837,-114) + -0.039298 * Topo(62,235)

Page 36: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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Settlement Rate (indiv/day)

Coa

stal

Coo

rdin

ate

(km

)REGION: Chile; ZONE: ALL; RESPONSE: JhelRecTx

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Longitude (degrees)

coastline regressing JhelRecTx and topographyVar Explained = 0.914106Model significance = 0.0501796

-0.055945 + 0.00044229 * COAST + 0.0040024 * Topo(519,-237) + -0.0026306 * Topo(253,22) + -0.079962 * Topo(44,102) + -0.0096198 * Topo(519,196) + -0.043207 * Topo(253,-187) + 0.079086 * Topo(44,-175)

Page 37: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

A Global, Daily, Sub-Kilometer-Scale Index of Wind-Driven Dynamics in

Nearshore Ecosystems

Page 38: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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ield

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Page 39: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

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wind stress curlwestward wind stressequatorward wind stressoffshore windstress

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topo(s=500km)topo(s=200km)topo(s=50km)

Page 40: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Dynamics at the California Channel Islands

Responses to Ocean Climate, Trophic Structure, and Management

Page 41: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models
Page 42: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models
Page 43: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Overall Protection of Kelp Habitats

Based on 1989-2003 Kelp Map Based on 2004-2005 Kelp MapArea of Kelp in MPA’s in 2004-2005 versus 1989-2003 Baseline

0

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Fra

ctio

n of

Kel

p H

abita

t in

MP

As

11.0%

5.56 km2

of50.50 km2

13.6%

5.56 km2

of 40.92 km2

11.8%

4.82 km2

of40.92 km2

Page 44: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Canopy at San Miguel Island

Page 45: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Canopy at Santa Rosa Island

Page 46: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Canopy at Santa Cruz Island

Page 47: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Canopy at Anacapa Island

Page 48: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Canopy at Santa Barbara Island

Page 49: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

For Comparison: San Nicolas Island

Page 50: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

For Comparison: Campus Point (Mainland)

Page 51: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Before (1989-2002) Before (1999-2002) After (2003-2006)

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vera

ge

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p C

ano

py

Bio

ma

ss (

US

to

ns)

Change in Canopy Area Over Time: All So Cal Islands

Page 52: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Change in Canopy Area Over Time: CINMS vs. Other Islands

Before (1989-2002) Before (1999-2002) After (2003-2006)

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era

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CINMS San Nicolas, Clemente, Catalina

Page 53: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp Biomass at Islands

Page 54: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

1960 1965 1970 1975 1980 1985 1990 1995 2000 2005San Clemente(S)San Clemente(W)San Clemente(N)San Clemente(E)

Santa CatalinaSanta Barbara

San Nicolas(107A)San Nicolas(107B Foul)

San Nicolas(108A Rockpile)San Nicolas(108B Westend)San Nicolas(108C Barrack)

AnacapaSanta Cruz(N)Santa Cruz(W)Santa Cruz(N)

Santa Rosa(SE)Santa Rosa(SW)Santa Rosa(NW)Santa Rosa(NE)

San Miguel(S)San Miguel(N)

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Kelp Biomass at Islands

Page 55: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

1989 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 20070

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Date of Survey

Kel

p C

anop

y B

iom

ass

(US

Ton

s)

Kelp Biomass – CINMS Region

Page 56: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

1989 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 20070

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Date of Survey

Kel

p C

an

opy

Bio

ma

ss (

US

To

ns)

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Kel

p C

an

opy

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ma

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To

ns)

CINMS Region

Other Islands

Page 57: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Patterns Different from MainlandPatterns Different from Mainland

EN

SO

In

de

x -

(SO

I)

1989 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 20070

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Date of Survey

Kelp

Ca

nop

y B

iom

ass (

US

To

ns) Islands

Mainland

Page 58: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

CINMS Region

MBNMS Region

(1985-2001)

Figure 4

Page 59: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Kelp

fore

st s

tate

De-forested state

From Behrens and Lafferty 2004; based on 1985-2001 data from Kelp Forest Monitoring Project

Indirect Effects of Fishing on Kelp Forests?

Page 60: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

Interesting Pattern at Anacapa Island

1989 1999 2002 2003 2004 2005 20060

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ReserveMCAOutside

MCA established

Page 61: Spatio-temporal Stochastic Simulation of Connectivity Matrices from Lagrangian Ocean Models

F^3 Needs?

1960 1965 1970 1975 1980 1985 1990 1995 2000 2005San Clemente(S)San Clemente(W)San Clemente(N)San Clemente(E)

Santa CatalinaSanta Barbara

San Nicolas(107A)San Nicolas(107B Foul)

San Nicolas(108A Rockpile)San Nicolas(108B Westend)San Nicolas(108C Barrack)

AnacapaSanta Cruz(N)Santa Cruz(W)Santa Cruz(N)

Santa Rosa(SE)Santa Rosa(SW)Santa Rosa(NW)Santa Rosa(NE)

San Miguel(S)San Miguel(N)

1960 1965 1970 1975 1980 1985 1990 1995 2000 200510

0

101

102

103