DRAFT August 1, 2012

EPA Report No. 600/R-12/XXX

August 2012

Bioaccumulation and Aquatic

System Simulator (BASS)

Data Supplement

Version 2.3

by

M. Craig Barber

Ecosystems Research Division

U.S. Environmental Protection Agency

960 College Station Road

Athens, GA 30605-2700

National Exposure Research Laboratory

Office of Research and Development

U.S. Environmental Protection Agency

Research Triangle Park, NC 27711
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Notice

The research described in this document was funded by the U.S. Environmental Protection Agency through the Office of Research

and Development. The research described herein was conducted at the Ecosystems Research Division of the USEPA National

Exposure Research Laboratory in Athens, Georgia. Mention of trade names or commercial products does not constitute

endorsement or recommendation for use.
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Foreword

This report summarizes literature data that can be used to parameter the BASS Bioaccumulation and Aquatic System Simulator. This

generalized, community-based simulation model is designed to predict the population and bioaccumulation dynamics of age-structured

fish communities that are exposed to hydrophobic organic chemicals and class B and borderline metals that complex with sulfhydryl

groups (e.g., cadmium, copper, lead, mercury, nickel, silver, and zinc). The intended audience of this report and is research fisheries

ecologists, bioaccumulation researchers, and EPA environmental scientists and ecologists who must routinely analyze and estimate

bioaccumulation of chemicals in fish for ecological or human health exposure assessments.

Although BASS has not been extensively field-tested, its process-based algorithms for predicting chemical bioaccumulation, growth

of individual fish, predator-prey interactions, and population dynamics either have been corroborated or have been formulated using

widely accepted ecological and ecotoxicological principles. Even when a process-based model has undergone only limited field testing,

it can be an extremely useful tool. Process-based models enable users to observe quantitatively the results of a particular abstraction

of the real world. Moreover, such models can be argued to be the only objective method to make extrapolations to unobserved or

unobservable conditions. If the conceptualization and construction of process-based models are both comprehensive (i.e., holistic) and

reasonable, then their output, validated or not, can still be used for comparative analyses. A model’s ability to simulate trends and

comparative dynamics are, in fact, often more important measures of a model’s utility than is its ability to replicate a specific field or

laboratory study. Although BASS can be used to analyze results from actual field studies, its principal intended use is to predict and

compare the outcomes of alternative management options that are associated with pollution control, ecosystem management, or

restoration activities.

Roy C. Sidle, Ph.D.

Director 

Ecosystems Research Division

Athens, Georgia
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Abstract

This document is a data supplement for BASS Bioaccumulation and Aquatic System Simulator. BASS is a Fortran 95 simulation program

that predicts the population and bioaccumulation dynamics of age-structured fish assemblages that are exposed to hydrophobic organic

pollutants and class B and borderline metals that complex with sulfhydryl groups (e.g., cadmium, copper, lead, mercury, nickel, silver,

and zinc). The model's bioaccumulation algorithms are based on diffusion kinetics and are coupled to a process-based model for the

growth of individual fish. These algorithms consider both biological attributes of fishes and physico-chemical properties of the

chemicals that determine diffusive exchange across gill membranes and intestinal mucosa. Biological characteristics used by the model

include the fish's gill morphometry, feeding and growth rate, and proximate composition (i.e., its fractional aqueous, lipid, and

structural organic content). Relevant physico-chemical properties are the chemical's aqueous diffusivity, n-octanol / water partition

coefficient (Kow), and, for metals, binding coefficients to proteins and other organic matter. BASS simulates the growth of individual

fish using a standard mass balance, bioenergetic model (i.e., growth = ingestion - egestion - respiration - specific dynamic action -

excretion). A fish's realized ingestion is calculated from its maximum consumption rate adjusted for the availability of prey of the

appropriate size and taxonomy. The community’s food web is delineated by defining one or more foraging classes for each fish species

based on its body weight, body length, or age. The dietary composition of each of these foraging classes is specified as a combination

of benthos, incidental terrestrial insects, periphyton / attached algae, phytoplankton, zooplankton, and one or more fish species.

Population dynamics are generated by predatory mortalities defined by community’s food web and standing stocks, physiological

mortality rates, the maximum longevity of species, toxicological responses to chemical exposures, and dispersal. The model’s temporal

and spatial scales are that of a day and of a hectare, respectively.
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Table of Contents

Abstract . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . iv

Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1

Assimilation efficiencies for piscine prey . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3

Assimilation efficiencies for invertebrate prey . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3

Assimilation efficiencies for periphyton and phytoplankton . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4

Self-thinning exponents for estimating non-predatory mortality and dispersal . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 4

Active oxygen consumption . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5

Gill surface areas . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5

Gastric evacuation rates . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7

Interlamellar distances . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8

Secondary lamellar densities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9

Secondary lamellar lengths . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10

Mean prey size . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11

Maximum prey size . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13

Minimum prey size . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13

Maximum filtering rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14

Maximum ingestion rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14

Maximum life span . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17

Fraction moisture-lipid relationship . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 26

Lipid fraction-body weight relationship . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 27

Reproductive biomass investment . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29

Routine oxygen conumption . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29

Respiratory quotient . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30

Routine-to-standard oxygen consumption ratio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
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SDA-to-assimilation ratio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 31

SDA-to-ingestion ratio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32

Specific growth rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 33

Long-term specific growth rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 33

Size of satiation meal . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 42

Standard oxygen consumption rate . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 42

Feeding time to satiation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 48

Minimum total length at sexual maturity . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 48

Weight-to-fork length relationship . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 48

Weight-to-standard length relationship . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 50

Weight-to-total length relationship . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 51

Size of young-of-year fish . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 57

References . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68
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Introduction

This document reports individual and statistical summaries of the following biological parameters that are needed to parameterize

BASS version 2.3:

COMPOSITIONAL_PARAMETERS

pa[-] = " + $*pl[-] <== the fish's aqueous fraction as a linear function of the fish's lipid fraction.

pl[-] = "*W[g(FW)]^$ <== the fish's lipid fraction as an allometric function of its body weight.

ECOLOGICAL_PARAMETERS

lp[cm] = " + $*L[cm]+ (*EXP(**L[cm]) <== the modal length of prey consumed by a fish whose body length is L[cm]

where either $=0 or (=0.

lp_max[cm] = " + $*L[cm]+ (*EXP(**L[cm]) <== the maximum length of prey consumed by a fish whose body length is

L[cm] where either $=0 or (=0.

lp_min[cm] = " + $*L[cm]+ (*EXP(**L[cm]) <== the minimum length of prey consumed by a fish whose body length is

L[cm] where either $=0 or (=0.

mls[days] = " <== the species’ maximum life span.

nm[1/day] = b(":$)*sg_mu[-] <== the non-predatory mortality/dispersal rate for fish assuming natural self-thinning.

sg_mu[1/day] = "*W[g(FW]^$ <== the species’ long-term mean specific growth rate.

tl_ro[cm] = " <== the species’ minimum total length when it reaches sexual maturity or its first reproduction.

rbi[-] = " <== the species’ reproductive biomass investment, i.e., grams gametes per gram spawning fish.

wl[g(FW)] = "*L[cm]^$ <== the fish's live weight as an allometric function of its total length.

wt_max[g(FW)] = " specifies the species’ expected live body weight at its maximum age.

yoy[g(FW)] = " <== the live weight of fish recruited into the population as age class 0.

MORPHOMETRIC_PARAMETERS

ga[cm2] = "*W[g(FW)]^$ <== the fish's total gill surface area.

id[cm] = "*W[g(FW)]^$ <== the interlamellar distance between adjacent lamellae.

ld[lamellae per mm gill filament] = "*W[g(FW)]^$ <== the density of secondary lamellae on the primary gill filaments.

ll[cm] = "*W[g(FW)]^$ <== the lamellar length of the secondary lamellae.

PHYSIOLOGICAL_PARAMETERS

ae_plant[-] = " <== the fish's assimilation efficiency for periphyton and phytoplankton.
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(1)

ae_invert[-] = " <== the fish's assimilation efficiency for benthos, insects, and zooplankton.

ae_fish[-] = " <== the fish's assimilation efficiency for fish.

ge[g(DW)/hr] = "*G[g(DW)]^$ *h((,T1,T2) <== the fish's gastric evacuation where G is the mass of food resident in the

intestine..

mf[L/hr] = "*W[g(FW)]^$*h((,T1,T2) <== the fish's maximum filtering rate. Required for the feeding option clearance(A)

when selected.

mi [g(DW)/day]="*W[g(FW)]^$*h((,T1

,T2) <== the fish's maximum ingestion.. Required for the feeding option

allometric(A) when selected

.

rq[-] = " <== the fish's respiratory quotient; rq = L(CO2

) respired / L(O2) consumed.

rt:std[-] = " <== the ratio of a fish's routine respiration to its standard respiration; rt:std = (routine O2 consumption) / (standard O2

 consumption)..

sda:in[-] = " <== the ratio of a fish's specific dynamic action (SDA) to its ingestion.

sg[1/day] = "*W[g(FW)]^$ *h((,T1

,T2) <== the fish's specific growth rate. Required for the feeding option linear(A) when

selected.

sm[g(FW)] = "*W[g(FW)]^$ *h((,T1

,T2) <== the size of the satiation meal consumed during the interval (0, st]. See option

“st[A]” below. Required only if the feeding option holling(A) selected.

so[mg(O2)/hr] = "*W[g(FW)]^$ *h((,T1,T2) <== the fish's standard oxygen consumption.

st[minutes] = "*W[g(FW)]^$ *h((,T1

,T2) <== the time to satiation when feeding with an initially empty stomach. See option

sm[A] above. Required only if the feeding option holling(A) selected.

For the aforementioned physiological parameters, the function h((,T1

,T2) denotes the temperature response function

where T1 is the temperature for which the particular process’s rates are maximal, and T2 is the upper temperature at which the

process is no longer operative. If the process does not exhibit a temperature optimum, the hyperbolic Arrhenius function

h((,T1

,T2) can be substituted with the ordinary Arrhenius function exp((*T[celsius]).

The following data summaries were generated using the following BASS database files:

Output file: fish_data\000_freshwater.txt (01 Aug 2012 14:20:30 GTM)

Input file: fish_data\000_freshwater.dat (14 Jul 2010 21:35:22 GTM)

Program file: C:\Bass_V230\BASS_databases\bass_db\bass_db.exe (25 Nov 2010 13:53:36 GTM)
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Assimilation efficiencies for piscine preyae_fish[-]=a a=0.851 (sd=0.032; n=12) interspecies

ae_fish[-]=0.870 Esox lucius Diana (1982a)ae_fish[-]=0.872 Esox lucius Diana (1982b)ae_fish[-]=0.869 Esox lucius Diana (1982b)ae_fish[-]=0.800 Esox lucius Heikinheimo and Korhonen (19ae_fish[-]=0.830 Lota lota Rudstam et al. (1995)ae_fish[-]=0.896 Micropterus dolomieui Shuter and Post (1990)ae_fish[-]=0.896 Morone saxatilis Hartman and Brandt (1993, 199ae_fish[-]=0.842 Perca flavescens Kitchell et al. (1977)ae_fish[-]=0.850 Perca fluviatilis Shuter and Post (1990)ae_fish[-]=0.800 Ptychocheilus oregonensis Petersen and Ward (1999)ae_fish[-]=0.842 Stizostedion vitreum Kitchell et al. (1977)ae_fish[-]=0.842 Stizostedion vitreum Madon and Culver (1993)Assimilation efficiencies for invertebrate preyae_invert[-]=a a=0.823 (sd=0.085; n=25) interspeciesae_invert[-]=0.840 Alosa pseudoharengus Stewart and Binkowski (1986)ae_invert[-]=0.840 Alosa pseudoharengus Stewart and Binkowski (1986)ae_invert[-]=0.896 Channa striatus Qin et al. (1997)ae_invert[-]=0.750 Coregonus hoyi Rudstam et al. (1994)ae_invert[-]=0.810 Coregonus lavaretus Huuskonen et al. (1998)ae_invert[-]=0.900 Fundulus parvipinnis Madon et al. (2001)ae_invert[-]=0.832 Lepomis macrochirus Breck (1993)ae_invert[-]=0.832 Lepomis macrochirus Trebitz (1997)ae_invert[-]=0.890 Menidia beryllina Peck et al. (2003)ae_invert[-]=0.896 Micropterus dolomieui Shuter and Post (1990)ae_invert[-]=0.896 Micropterus salmoides Beyers (1999)ae_invert[-]=0.896 Micropterus salmoides Rice et al. (1983)ae_invert[-]=0.896 Micropterus salmoides Trebitz (1997)ae_invert[-]=0.700 Morone saxatilis Rose and Cowan (1993)ae_invert[-]=0.840 Osmerus mordax Lantry and Stewart (1993)ae_invert[-]=0.842 Perca flavescens Kitchell et al. (1977)ae_invert[-]=0.850 Perca fluviatilis Shuter and Post (1990)ae_invert[-]=0.600 Phoxinus eosxneogaeus Trudel and Boisclair (1994)ae_invert[-]=0.600 Phoxinus eosxneogaeus Gauthier and Boisclair (1997)
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ae_invert[-]=0.900 Pimephales promelas Duffy (1998)

ae_invert[-]=0.800 Pungitius pungitius Cameron et al. (1973)ae_invert[-]=0.840 Rutilus rutilus Horppila and Peltonen (1997)ae_invert[-]=0.842 Stizostedion vitreum Kitchell et al. (1977)ae_invert[-]=0.842 Stizostedion vitreum Madon and Culver (1993)ae_invert[-]=0.750 Stizostedion vitreum Madon and Culver (1993)Assimilation efficiencies for periphyton and phytoplanktonae_plant[-]=0.328 Ctenopharyngodon idella Wiley and Wike (1986)Self-thinning exponents for estimating non-predatory mortality and dispersal

bb[-]=a a=0.982 (sd=0.579; n=26) interspeciesbb[-]=0.650 Oncorhynchus clarki Dunham and Vinyard (1997)bb[-]=1.060 Oncorhynchus mykiss Dunham and Vinyard (1997)bb[-]=1.280 Oncorhynchus mykiss Dunham and Vinyard (1997)bb[-]=0.740 Oncorhynchus mykiss Keeley (2003)bb[-]=0.210 Pimephales promelas Dunham et al. (2000)bb[-]=0.460 Pimephales promelas Dunham et al. (2000)bb[-]=1.070 Salmo salar Bohlin et al. (1994)bb[-]=0.910 Salmo salar Egglishaw and Shackley In Bohbb[-]=1.140 Salmo salar Steingrímsson and Grant (1999)bb[-]=1.490 Salmo salar Steingrímsson and Grant (1999)bb[-]=1.150 Salmo salar Steingrímsson and Grant (1999)bb[-]=0.970 Salmo salar Steingrímsson and Grant (1999)bb[-]=2.740 Salmo salar Steingrímsson and Grant (1999)bb[-]=0.970 Salmo salar Steingrímsson and Grant (1999)bb[-]=1.950 Salmo salar Steingrímsson and Grant (1999)bb[-]=1.160 Salmo salar Steingrímsson and Grant (1999)bb[-]=0.890 Salmo trutta Bohlin et al. (1994)bb[-]=0.940 Salmo trutta Bohlin et al. (1994)bb[-]=0.740 Salmo trutta Elliott (1993)bb[-]=1.650 Salmo trutta Dunham and Vinyard (1997)bb[-]=1.400 Salvelinus confluentus Dunham and Vinyard (1997)bb[-]=0.190 Salvelinus fontinalis Dunham and Vinyard (1997)bb[-]=0.020 Salvelinus fontinalis Dunham and Vinyard (1997)bb[-]=0.340 Salvelinus fontinalis Dunham and Vinyard (1997)
DRAFT August 1, 2012 5

bb[-]=0.540 Salvelinus fontinalis Dunham and Vinyard (1997)

bb[-]=0.880 Salvelinus fontinalis Trépanier and Rodríguez In Gra

Active oxygen consumptionao[mg(o2)/hr](5<t[celsius]<10)=a*w[g]^b a=0.215 (sd=-NaN ; n=1) interspeciesao[mg(o2)/hr](5<t[celsius]<10)=a*w[g]^b b=0.973 (sd=-NaN ; n=1) interspeciesao[mg(o2)/hr](10<t[celsius]<15)=a*w[g]^b a=0.243 (sd=0.178; n=2) interspeciesao[mg(o2)/hr](10<t[celsius]<15)=a*w[g]^b b=0.979 (sd=0.009; n=2) interspeciesao[mg(o2)/hr](15<t[celsius]<20)=a*w[g]^b a=0.501 (sd=0.842; n=2) interspeciesao[mg(o2)/hr](15<t[celsius]<20)=a*w[g]^b b=0.896 (sd=0.126; n=2) interspeciesao[mg(o2)/hr](20<t[celsius]<25)=a*w[g]^b a=0.714 (sd=0.341; n=2) interspeciesao[mg(o2)/hr](20<t[celsius]<25)=a*w[g]^b b=0.863 (sd=0.079; n=2) interspeciesao[mg(o2)/hr](25<t[celsius]<30)=a*w[g]^b a=0.737 (sd=0.386; n=2) interspeciesao[mg(o2)/hr](25<t[celsius]<30)=a*w[g]^b b=0.901 (sd=0.025; n=2) interspeciesao[mg(o2)/hr](10.0)=0.215*w[g]^0.973 Micropterus salmoides Beamish (1970)ao[mg(o2)/hr](15.0)=0.276*w[g]^0.985 Micropterus salmoides Beamish (1970)ao[mg(o2)/hr](20.0)=0.908*w[g]^0.807 Micropterus salmoides Beamish (1970)ao[mg(o2)/hr](25.0)=0.561*w[g]^0.919 Micropterus salmoides Beamish (1970)ao[mg(o2)/hr](30.0)=0.968*w[g]^0.884 Micropterus salmoides Beamish (1970)ao[mg(o2)/hr](34.0)=0.735*w[g]^0.936 Micropterus salmoides Beamish (1970)Gill surface areasga[cm^2]=a*w[g]^b a=4.90 (sd=1.239; n=59) interspeciesga[cm^2]=a*w[g]^b b=0.767 (sd=0.237; n=59) interspeciesga[cm^2]=a*w[g]^b Ln(a)=3.773-2.848*b (r2=0.296; n=59) interspeciesga[cm^2]=3.50*w[g]^0.849 Acipenser transmontanus Burggren et al. (1979)ga[cm^2]=4.98*w[g]^0.728 Ameiurus nebulosus Saunders (1962)ga[cm^2]=5.56*w[g]^0.615 Anabas testudineus Hughes et al. (1973)ga[cm^2]=10.5*w[g]^0.716 Botia dario Singh et al. (1988)ga[cm^2]=9.13*w[g]^0.700 Botia lohachata Sharma et al. (1982)ga[cm^2]=11.2*w[g]^0.587 Catostomus commersoni Saunders (1962)ga[cm^2]=4.70*w[g]^0.592 Channa punctata Hakim et al. (1978)ga[cm^2]=11.8*w[g]^0.816 Cirrhinus mrigala Roy and Munshi (1986)ga[cm^2]=2.28*w[g]^0.781 Clarias batrachus Munshi et al. (1980)ga[cm^2]=0.958E-02*w[g]^0.971 Clarias mossambicus Maina and Maloiy (1986)ga[cm^2]=1.20*w[g]^0.629 Clarias mossambicus Maina and Maloiy (1986)
DRAFT August 1, 2012

6

ga[cm^2]=4.67*w[g]^0.864 Cobitis taenia Robotham (1978)

ga[cm^2]=2.15*w[g]^0.675 Comephorus dybowski Jakubowski (1993)ga[cm^2]=56.6*w[g]^0.000 Cottocomephorus grewingki Jakubowski et al. (1995)ga[cm^2]=7.48*w[g]^0.919 Cottocomephorus inermis Jakubowski et al. (1995)ga[cm^2]=7.20*w[g]^0.849 Cottus gobio Jakubowski et al. (1995)ga[cm^2]=1.35*w[g]^1.295 Cottus gobio Liszka (1969), Starmach (1971)ga[cm^2]=2.15*w[g]^0.675 Sculpins Jakubowski (1993)ga[cm^2]=7.48*w[g]^0.919 Sculpins Jakubowski et al. (1995)ga[cm^2]=56.6*w[g]^0.000 Sculpins Jakubowski et al. (1995)ga[cm^2]=1.35*w[g]^1.295 Sculpins Liszka (1969), Starmach (1971)ga[cm^2]=9.44*w[g]^0.774 Ctenopharyngodon idella Jakubowski (1982)ga[cm^2]=8.46*w[g]^0.794 Cyprinus carpio Oikawa and Itazawa (1985)ga[cm^2]=17.6*w[g]^0.620 Esox lucius Byczkowska-smyk (1959), De J

ga[cm^2]=2.47*w[g]^0.842 Gambusia sp. Murphy and Murphy (1971)ga[cm^2]=12.6*w[g]^0.516 Glossogobius giuris Singh and Munshi (1985)ga[cm^2]=5.99*w[g]^0.660 Hoplerythrinus unitaeniatus Fernandes et al. (1994)ga[cm^2]=4.92*w[g]^0.810 Hoplias lacerdae Fernandes et al. (1994)ga[cm^2]=0.731*w[g]^1.250 Hoplias malabaricus Fernandes and Rantin (1985)ga[cm^2]=1.26*w[g]^1.140 Hoplias malabaricus Fernandes et al. (1994)ga[cm^2]=4.36*w[g]^0.666 Hypostomus plecostomus Perna and Fernandes (1996)ga[cm^2]=24.1*w[g]^1.026 Lampetra fluviatilis Lewis and Potter (1976)ga[cm^2]=23.9*w[g]^0.689 Lampetra planeri Lewis and Potter (1976)ga[cm^2]=4.68*w[g]^1.040 Leiopotherapon unicolor Gehrke (1987)ga[cm^2]=4.94*w[g]^0.745 Lepidocephalichthys guntea Singh et al. (1981)ga[cm^2]=3.35*w[g]^0.753 Lepisosteus oculatus Landolt and Hill (1975)ga[cm^2]=4.77*w[g]^0.699 Lepisosteus osseus Landolt and Hill (1975)ga[cm^2]=3.01*w[g]^0.793 Lepisosteus platostomus Landolt and Hill (1975)ga[cm^2]=3.94*w[g]^0.738 Lepisosteus spp. Landolt and Hill (1975)ga[cm^2]=2.17*w[g]^0.733 Macrognathus aculeatum Ojha and Munshi (1974)ga[cm^2]=7.36*w[g]^0.819 Micropterus dolomieui Price (1931)ga[cm^2]=6.17*w[g]^0.915 Mystus cavasius Ojha et al. (1985)ga[cm^2]=3.60*w[g]^0.577 Noemacheilus barbatulus Robotham (1978)ga[cm^2]=3.15*w[g]^0.932 Oncorhynchus mykiss Hughes (1984)ga[cm^2]=1.84*w[g]^1.125 Oncorhynchus mykiss Niimi and Morgan (1980)ga[cm^2]=7.13*w[g]^0.922 Oncorhynchus tshawytscha Rombough and Moroz (1990)ga[cm^2]=11.1*w[g]^0.789 Oreochromis alcalicus Hughes (1995)
DRAFT August 1, 2012 7

ga[cm^2]=6.35*w[g]^0.777 Oreochromis niloticus Kisia and Hughes (1992)

ga[cm^2]=4.65*w[g]^0.446 Oryzias latipes Umezawa and Watanabe (1973)ga[cm^2]=5.65*w[g]^0.769 Piaractus mesopotamicus Severi et al. (1997)ga[cm^2]=12.0*w[g]^0.700 Plagioscion squamosissimus Mazon et al. (1998)ga[cm^2]=6.78*w[g]^0.611 Poecilia latipinnis Timmerman and Chapman (200ga[cm^2]=6.18*w[g]^0.529 Poecilia latipinnis Timmerman and Chapman (200ga[cm^2]=16.2*w[g]^0.720 Prochilodus scrofa Mazon et al. (1998)ga[cm^2]=6.25*w[g]^0.757 Rhinelepis strigosa Santos et al. (1994)ga[cm^2]=1.86*w[g]^0.746 Saccobranchus fossilis Hughes (1972)ga[cm^2]=0.796*w[g]^1.129 Stizostedion vitreum Niimi and Morgan (1980)ga[cm^2]=28.5*w[g]^0.522 Tinca tinca Hughes (1972)ga[cm^2]=8.67*w[g]^0.698 Tinca tinca Hughes (1972)Gastric evacuation ratesge[g(dw)/hr]=a*g[g(dw)]^0.0*EXP(c*t[celsius]) a=0.935E-03 (sd=1.563; n=4) interspeciesge[g(dw)/hr]=a*g[g(dw)]^0.0*EXP(c*t[celsius]) c=0.083 (sd=0.021; n=4) interspeciesge[g(dw)/hr]=a*g[g(dw)]^0.5*EXP(c*t[celsius]) a=0.537E-02 (sd=1.311; n=6) interspeciesge[g(dw)/hr]=a*g[g(dw)]^0.5*EXP(c*t[celsius]) c=0.109 (sd=0.032; n=6) interspeciesge[g(dw)/hr]=a*g[g(dw)]^1.0*EXP(c*t[celsius]) a=0.315E-01 (sd=1.399; n=18) interspeciesge[g(dw)/hr]=a*g[g(dw)]^1.0*EXP(c*t[celsius]) c=0.086 (sd=0.039; n=18) interspeciesge[g(dw)/hr]=0.674E-01*g[g(dw)]^1.000*EXP(0.442E-01*t[celsius]) Abramis brama Specziár (2002)ge[g(dw)/hr]=0.252E-01*g[g(dw)]^1.000*EXP(0.913E-01*t[celsius]) Blicca bjoerkna Specziár (2002)ge[g(dw)/hr]=0.349E-01*g[g(dw)]^1.000*EXP(0.825E-01*t[celsius]) Carassius auratus Specziár (2002)ge[g(dw)/hr]=0.183E-01*g[g(dw)]^1.000*EXP(0.650E-01*t[celsius]) Cottus cognatus Hershey and McDonald (1985)

ge[g(dw)/hr]=0.251E-01*g[g(dw)]^1.000*EXP(0.968E-01*t[celsius]) Cyprinus carpio Garcia and Adelman (1985)ge[g(dw)/hr](18.0)=0.220E-01*g[g(dw)]^0.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.220E-01*g[g(dw)]^0.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.230E-01*g[g(dw)]^0.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.240E-01*g[g(dw)]^0.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.390E-01*g[g(dw)]^1.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.390E-01*g[g(dw)]^1.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.440E-01*g[g(dw)]^1.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](18.0)=0.510E-01*g[g(dw)]^1.000 Esox lucius Nilsson and Brönmark (2000)ge[g(dw)/hr](25.0)=0.724E-01*g[g(dw)]^1.000 Lepomis macrochirus El-shamy (1976)ge[g(dw)/hr](1.5)=0.135*g[g(dw)]^1.000 Lota lota Pääkkönen et al. (1999)ge[g(dw)/hr](26.5)=0.289E-01*g[g(dw)]^0.000 Micropterus salmoides Hayward and Bushmann (1994)
DRAFT August 1, 2012 8

ge[g(dw)/hr](26.5)=0.807E-01*g[g(dw)]^0.500 Micropterus salmoides Hayward and Bushmann (1994)

ge[g(dw)/hr](26.5)=0.265*g[g(dw)]^1.000 Micropterus salmoides Hayward and Bushmann (1994)ge[g(dw)/hr]=0.280E-01*g[g(dw)]^1.000*EXP(0.106*t[celsius]) Morone americana Parrish and Margraf (1990)ge[g(dw)/hr]=0.282E-02*g[g(dw)]^0.000*EXP(0.663E-01*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.119E-01*g[g(dw)]^0.500*EXP(0.838E-01*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.494E-01*g[g(dw)]^1.000*EXP(0.105*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.328E-02*g[g(dw)]^0.000*EXP(0.632E-01*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.142E-01*g[g(dw)]^0.500*EXP(0.819E-01*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.601E-01*g[g(dw)]^1.000*EXP(0.105*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.113E-03*g[g(dw)]^0.000*EXP(0.100*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.462E-03*g[g(dw)]^0.500*EXP(0.102*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.190E-02*g[g(dw)]^1.000*EXP(0.104*t[celsius]) Oncorhynchus kisutch Ruggerone (1989)ge[g(dw)/hr]=0.732E-03*g[g(dw)]^0.000*EXP(0.102*t[celsius]) Oncorhynchus masou Nagata (1989)ge[g(dw)/hr]=0.336E-02*g[g(dw)]^0.500*EXP(0.884E-01*t[celsius]) Oncorhynchus masou Nagata (1989)ge[g(dw)/hr]=0.124E-01*g[g(dw)]^1.000*EXP(0.105*t[celsius]) Oncorhynchus masou Nagata (1989)ge[g(dw)/hr](15.0)=0.412E-01*g[g(dw)]^0.000 Oncorhynchus mykiss Windell et al. (1969)ge[g(dw)/hr](15.0)=0.511E-01*g[g(dw)]^0.500 Oncorhynchus mykiss Windell et al. (1969)ge[g(dw)/hr](15.0)=0.763E-01*g[g(dw)]^1.000 Oncorhynchus mykiss Windell et al. (1969)ge[g(dw)/hr]=0.306E-02*g[g(dw)]^1.000*EXP(0.150*t[celsius]) Perca flavescens Boisclair and Leggett (1988)ge[g(dw)/hr]=0.117E-01*g[g(dw)]^1.000*EXP(0.102*t[celsius]) Perca flavescens Boisclair and Leggett (1988)ge[g(dw)/hr]=0.520*g[g(dw)]^1.000*EXP(0.00*t[celsius]) Perca fluviatilis Worischka and Mehner (1998)ge[g(dw)/hr](19.8)=0.240*g[g(dw)]^1.000 Phoxinus eosxneogaeus Gauthier and Boisclair (1997)ge[g(dw)/hr]=0.358E-01*g[g(dw)]^1.000*EXP(0.691E-01*t[celsius]) Rutilus rutilus Specziár (2002)ge[g(dw)/hr]=0.490E-01*g[g(dw)]^1.000*EXP(0.107*t[celsius]) Salmo trutta Elliott (1972)ge[g(dw)/hr]=0.390E-01*g[g(dw)]^1.000*EXP(0.112*t[celsius]) Salmo trutta Elliott (1972)ge[g(dw)/hr]=0.240E-01*g[g(dw)]^1.000*EXP(0.112*t[celsius]) Salmo trutta Elliott (1972)ge[g(dw)/hr]=0.754E-02*g[g(dw)]^0.500*EXP(0.150*t[celsius]) Stizostedion lucioperca Koed (2001)ge[g(dw)/hr]=0.122E-01*g[g(dw)]^0.500*EXP(0.150*t[celsius]) Stizostedion lucioperca Koed (2001)ge[g(dw)/hr]=0.560*g[g(dw)]^1.000*EXP(0.00*t[celsius]) Stizostedion lucioperca Worischka and Mehner (1998)

Interlamellar distancesid[cm]=a*w[g]^b a=0.126E-02 (sd=0.491; n=4) interspeciesid[cm]=a*w[g]^b b=0.060 (sd=0.087; n=4) interspeciesid[cm]=a*w[g]^b Ln(a)=-6.356-5.394*b (r2=0.919; n=4) interspeciesid[cm]=0.607E-03*w[g]^0.188 Ictalurus punctatus Barber (2003)id[cm]=0.146E-02*w[g]^0.000 Lepomis macrochirus Barber (2003)
DRAFT August 1, 2012 9

id[cm]=0.177E-02*w[g]^0.009 Morone saxatilis Barber (2003)

id[cm]=0.159E-02*w[g]^0.044 Pomoxis nigromaculatus Barber (2003)Secondary lamellar densitiesld[lamellae/mm_per_side]=a*w[g]^b a=27.0 (sd=0.443; n=53) interspeciesld[lamellae/mm_per_side]=a*w[g]^b b=-0.063 (sd=0.065; n=53) interspeciesld[lamellae/mm_per_side]=a*w[g]^b Ln(a)=3.113-2.893*b (r2=0.177; n=53) interspeciesld[lamellae/mm_per_side]=15.3*w[g]^(-0.047) Acipenser transmontanus Burggren et al. (1979)ld[lamellae/mm_per_side]=15.9*w[g]^(-0.092) Ameiurus nebulosus Saunders (1962)ld[lamellae/mm_per_side]=36.5*w[g]^(-0.152) Anabas testudineus Hughes et al. (1973)ld[lamellae/mm_per_side]=41.0*w[g]^(-0.046) Botia dario Singh et al. (1988)ld[lamellae/mm_per_side]=39.0*w[g]^(-0.006) Botia lohachata Sharma et al. (1982)ld[lamellae/mm_per_side]=25.2*w[g]^(-0.109) Catostomus commersoni Saunders (1962)ld[lamellae/mm_per_side]=36.0*w[g]^(-0.138) Channa punctata Hakim et al. (1978)ld[lamellae/mm_per_side]=63.2*w[g]^(-0.129) Cirrhinus mrigala Roy and Munshi (1986)ld[lamellae/mm_per_side]=25.4*w[g]^(-0.083) Clarias batrachus Munshi et al. (1980)ld[lamellae/mm_per_side]=30.7*w[g]^0.091 Clarias mossambicus Maina and Maloiy (1986)ld[lamellae/mm_per_side]=45.5*w[g]^0.000 Cobitis taenia Robotham (1978)ld[lamellae/mm_per_side]=24.6*w[g]^(-0.150) Cottocomephorus grewingki Jakubowski et al. (1995)ld[lamellae/mm_per_side]=22.6*w[g]^(-0.110) Cottocomephorus inermis Jakubowski et al. (1995)ld[lamellae/mm_per_side]=15.1*w[g]^0.000 Cottus gobio Liszka (1969), Starmach (1971)ld[lamellae/mm_per_side]=22.6*w[g]^(-0.110) Sculpins Jakubowski et al. (1995)ld[lamellae/mm_per_side]=24.6*w[g]^(-0.150) Sculpins Jakubowski et al. (1995)ld[lamellae/mm_per_side]=15.1*w[g]^0.000 Sculpins Liszka (1969), Starmach (1971)ld[lamellae/mm_per_side]=33.0*w[g]^(-0.051) Ctenopharyngodon idella Jakubowski (1982)ld[lamellae/mm_per_side]=32.2*w[g]^(-0.079) Cyprinus carpio Oikawa and Itazawa (1985)ld[lamellae/mm_per_side]=7.79*w[g]^0.121 Esox lucius Byczkowska-smyk (1959), De Jld[lamellae/mm_per_side]=48.0*w[g]^(-0.160) Hoplerythrinus unitaeniatus Fernandes et al. (1994)ld[lamellae/mm_per_side]=29.0*w[g]^(-0.060) Hoplias lacerdae Fernandes et al. (1994)ld[lamellae/mm_per_side]=29.5*w[g]^(-0.060) Hoplias malabaricus Fernandes and Rantin (1985)ld[lamellae/mm_per_side]=35.0*w[g]^(-0.090) Hoplias malabaricus Fernandes et al. (1994)ld[lamellae/mm_per_side]=17.3*w[g]^0.081 Hypostomus plecostomus Perna and Fernandes (1996)ld[lamellae/mm_per_side]=10.2*w[g]^(-0.056) Ictalurus punctatus Barber (2003)ld[lamellae/mm_per_side]=31.0*w[g]^(-0.123) Lampetra fluviatilis Lewis and Potter (1976)ld[lamellae/mm_per_side]=25.9*w[g]^0.000 Lampetra planeri Lewis and Potter (1976)ld[lamellae/mm_per_side]=20.6*w[g]^(-0.087) Leiopotherapon unicolor Gehrke (1987)
DRAFT August 1, 2012 10

ld[lamellae/mm_per_side]=45.0*w[g]^(-0.221) Lepidocephalichthys guntea Singh et al. (1981)

ld[lamellae/mm_per_side]=18.1*w[g]^(-0.048) Lepisosteus oculatus Landolt and Hill (1975)ld[lamellae/mm_per_side]=20.9*w[g]^(-0.069) Lepisosteus osseus Landolt and Hill (1975)ld[lamellae/mm_per_side]=15.3*w[g]^(-0.024) Lepisosteus platostomus Landolt and Hill (1975)ld[lamellae/mm_per_side]=19.4*w[g]^(-0.060) Lepisosteus spp. Landolt and Hill (1975)ld[lamellae/mm_per_side]=20.1*w[g]^(-0.098) Lepomis macrochirus Barber (2003)ld[lamellae/mm_per_side]=41.9*w[g]^(-0.069) Macrognathus aculeatum Ojha and Munshi (1974)ld[lamellae/mm_per_side]=30.0*w[g]^(-0.061) Micropterus dolomieui Price (1931)ld[lamellae/mm_per_side]=17.0*w[g]^(-0.069) Morone saxatilis Barber (2003)ld[lamellae/mm_per_side]=40.2*w[g]^(-0.097) Mystus cavasius Ojha et al. (1985)ld[lamellae/mm_per_side]=36.4*w[g]^0.000 Noemacheilus barbatulus Robotham (1978)ld[lamellae/mm_per_side]=38.4*w[g]^(-0.143) Oreochromis alcalicus Hughes (1995)ld[lamellae/mm_per_side]=32.9*w[g]^(-0.054) Oreochromis niloticus Kisia and Hughes (1992)ld[lamellae/mm_per_side]=43.5*w[g]^0.000 Oryzias latipes Umezawa and Watanabe (1973)ld[lamellae/mm_per_side]=40.2*w[g]^(-0.033) Piaractus mesopotamicus Severi et al. (1997)ld[lamellae/mm_per_side]=37.0*w[g]^(-0.070) Plagioscion squamosissimus Mazon et al. (1998)ld[lamellae/mm_per_side]=49.3*w[g]^(-0.084) Poecilia latipinnis Timmerman and Chapman (200ld[lamellae/mm_per_side]=47.5*w[g]^(-0.059) Poecilia latipinnis Timmerman and Chapman (200ld[lamellae/mm_per_side]=18.4*w[g]^(-0.074) Pomoxis nigromaculatus Barber (2003)ld[lamellae/mm_per_side]=43.0*w[g]^(-0.120) Prochilodus scrofa Mazon et al. (1998)ld[lamellae/mm_per_side]=12.3*w[g]^0.020 Rhinelepis strigosa Santos et al. (1994)ld[lamellae/mm_per_side]=31.6*w[g]^(-0.095) Saccobranchus fossilis Hughes (1972)ld[lamellae/mm_per_side]=20.3*w[g]^0.016 Tinca tinca Hughes (1972)ld[lamellae/mm_per_side]=25.5*w[g]^(-0.030) Tinca tinca Hughes (1972)Secondary lamellar lengthsll[cm]=a*w[g]^b a=0.732E-02 (sd=0.849; n=9) interspeciesll[cm]=a*w[g]^b b=0.247 (sd=0.046; n=9) interspeciesll[cm]=a*w[g]^b Ln(a)=-3.980-3.796*b (r2=0.043; n=9) interspeciesll[cm]=0.140E-01*w[g]^0.220 Hoplerythrinus unitaeniatus Fernandes et al. (1994)ll[cm]=0.120E-01*w[g]^0.230 Hoplias lacerdae Fernandes et al. (1994)ll[cm]=0.600E-02*w[g]^0.360 Hoplias malabaricus Fernandes et al. (1994)ll[cm]=0.465E-02*w[g]^0.265 Ictalurus punctatus Barber (2003)ll[cm]=0.364E-02*w[g]^0.234 Lepomis macrochirus Barber (2003)ll[cm]=0.474E-02*w[g]^0.202 Morone saxatilis Barber (2003)ll[cm]=0.690E-02*w[g]^0.223 Piaractus mesopotamicus Severi et al. (1997)
DRAFT August 1, 2012 11

ll[cm]=0.255E-02*w[g]^0.257 Pomoxis nigromaculatus Barber (2003)

ll[cm]=0.422E-01*w[g]^0.231 Rhinelepis strigosa Santos et al. (1994)Mean prey sizelp[cm]=a+b*l[cm] a=1.61 (sd=3.614; n=75) interspecieslp[cm]=a+b*l[cm] b=0.199 (sd=0.101; n=75) interspecieslp[cm]=a+b*EXP(c*l[cm]) a=13.0 (sd=4.446; n=8) interspecieslp[cm]=a+b*EXP(c*l[cm]) b=-65.878 (sd= 82.361; n=8) interspecieslp[cm]=a+b*EXP(c*l[cm]) c=-0.092 (sd=0.067; n=8) interspecieslp[cm]=3.054+0.127*l[cm] Esox lucius Gillen et al. (1981)lp[cm]=6.960-6.412*EXP(-0.090*l[cm]) Esox lucius Gillen et al. (1981)lp[cm]=-0.350+0.240*l[cm] Esox lucius Kahilainen (2004)lp[cm]=5.753+0.117*l[cm] Esox lucius Wagner (1972)lp[cm]=15.597-19.982*EXP(-0.042*l[cm]) Esox lucius Wagner (1972)lp[cm]=-1.199+0.220*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=2.965+0.276*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=5.987+0.105*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=5.429+0.087*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=-1.573+0.190*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=-1.632+0.209*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=-0.006+0.206*l[cm] Esox masquinongy Bozek et al. (1999)lp[cm]=-6.930+0.270*l[cm] Lepisosteus oculatus Tyler and Granger (1984)lp[cm]=7.710+0.150*l[cm] Lota lota Kahilainen (2004)lp[cm]=2.183+0.183*l[cm] Micropterus dolomieui Probst et al. (1984)lp[cm]=8.816-71.203*EXP(-0.166*l[cm]) Micropterus dolomieui Probst et al. (1984)lp[cm]=3.542+0.223*l[cm] Micropterus salmoides Bonds (2000)lp[cm]=4.881+0.284*l[cm] Micropterus salmoides Lewis et al. (1974)lp[cm]=16.287-168.126*EXP(-0.156*l[cm]) Micropterus salmoides Lewis et al. (1974)lp[cm]=0.859+0.235*l[cm] Micropterus salmoides Stiefvater and Malvestuto (1985

lp[cm]=1.364+0.284*l[cm] Micropterus salmoides Stiefvater and Malvestuto (1985lp[cm]=-5.318+0.553*l[cm] Micropterus salmoides Stiefvater and Malvestuto (1985lp[cm]=-0.625+0.310*l[cm] Micropterus salmoides Stiefvater and Malvestuto (1985lp[cm]=0.083+0.280*l[cm] Micropterus salmoides Stiefvater and Malvestuto (1985lp[cm]=1.603+0.269*l[cm] Micropterus salmoides Timmons et al. (1980)lp[cm]=0.423+0.246*l[cm] Micropterus salmoides Timmons et al. (1980)lp[cm]=4.844+0.279*l[cm] Micropterus salmoides Wright (1970)
DRAFT August 1, 2012 12

lp[cm]=15.633-218.507*EXP(-0.181*l[cm]) Micropterus salmoides Wright (1970)

lp[cm]=1.121+0.225*l[cm] Morone saxatilis Bonds (2000)lp[cm]=0.000+0.276*l[cm] Morone saxatilis Rudershausen et al. (2005)lp[cm]=0.000+0.242*l[cm] Morone saxatilis Rudershausen et al. (2005)lp[cm]=0.000+0.263*l[cm] Morone saxatilis Rudershausen et al. (2005)lp[cm]=0.000+0.230*l[cm] Morone saxatilis Rudershausen et al. (2005)lp[cm]=0.000+0.192*l[cm] Morone saxatilis Rudershausen et al. (2005)lp[cm]=-0.512+0.199*l[cm] Morone saxatilis x chrysops Bonds (2000)lp[cm]=0.119+0.002*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=-1.357+0.310*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=0.418+0.160*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=0.372+0.240*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=0.486+0.120*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=1.325+0.090*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=-0.496+0.200*l[cm] Oncorhynchus kisutch Brodeur (1991)lp[cm]=-4.960+0.370*l[cm] Oncorhynchus kisutch Jude et al. (1987)lp[cm]=1.834+0.153*l[cm] Oncorhynchus mykiss Jude et al. (1987)lp[cm]=0.121+0.001*l[cm] Oncorhynchus tshawytscha Brodeur (1991)lp[cm]=-1.362+0.320*l[cm] Oncorhynchus tshawytscha Brodeur (1991)lp[cm]=3.392+0.050*l[cm] Oncorhynchus tshawytscha Brodeur (1991)lp[cm]=2.925+0.000*l[cm] Oncorhynchus tshawytscha Brodeur (1991)lp[cm]=-1.096+0.210*l[cm] Oncorhynchus tshawytscha Brodeur (1991)lp[cm]=0.796+0.213*l[cm] Oncorhynchus tshawytscha Jude et al. (1987)lp[cm]=1.860+0.206*l[cm] Oncorhynchus tshawytscha Jude et al. (1987)lp[cm]=-2.227+0.386*l[cm] Perca flavescens Knight et al. (1984)lp[cm]=0.000+0.200*l[cm] Perca fluviatilis Claessen et al. (2004)lp[cm]=-0.501+0.235*l[cm] Pomoxis annularis Hale (1996)lp[cm]=8.117+0.001*l[cm] Salmo trutta Jensen et al. (2004)lp[cm]=2.613+0.130*l[cm] Salmo trutta Jensen et al. (2004)lp[cm]=-0.550+0.223*l[cm] Salmo trutta Jensen et al. (2004)lp[cm]=-3.553+0.288*l[cm] Salmo trutta Jensen et al. (2004)lp[cm]=0.434+0.257*l[cm] Salmo trutta Jude et al. (1987)lp[cm]=4.030+0.213*l[cm] Salmo trutta Jude et al. (1987)lp[cm]=5.170+0.180*l[cm] Salmo trutta Kahilainen (2004)lp[cm]=-1.030+0.360*l[cm] Salvelinus alpinus Kahilainen (2004)lp[cm]=7.550+0.125*l[cm] Salvelinus namaycush Jude et al. (1987)
DRAFT August 1, 2012 13

lp[cm]=2.040+0.158*l[cm] Salvelinus namaycush Jude et al. (1987)

lp[cm]=2.502+0.246*l[cm] Salvelinus namaycush Elrod and O'Gorman (1991)lp[cm]=18.906-19.658*EXP(-0.027*l[cm]) Salvelinus namaycush Elrod and O'Gorman (1991)lp[cm]=5.879+0.073*l[cm] Salvelinus namaycush Elrod and O'Gorman (1991)lp[cm]=0.295+0.189*l[cm] Salvelinus namaycush Elrod and O'Gorman (1991)lp[cm]=13.689-15.242*EXP(-0.023*l[cm]) Salvelinus namaycush Elrod and O'Gorman (1991)lp[cm]=1.960+0.182*l[cm] Salvelinus namaycush Madenjian et al. (1998)lp[cm]=16.760+0.041*l[cm] Salvelinus namaycush Madenjian et al. (1998)lp[cm]=12.230+0.031*l[cm] Salvelinus namaycush Madenjian et al. (1998)lp[cm]=4.080+0.068*l[cm] Salvelinus namaycush Madenjian et al. (1998)lp[cm]=3.040+0.076*l[cm] Salvelinus namaycush Madenjian et al. (1998)lp[cm]=-2.750+0.360*l[cm] Salvelinus namaycush Ruzcki et al. (2003)lp[cm]=5.310+0.119*l[cm] Stizostedion lucioperca Turesson et al. (2002)lp[cm]=5.025+0.131*l[cm] Stizostedion vitreum Bonds (2000)lp[cm]=0.490+0.270*l[cm] Stizostedion vitreum Johnson et al. (1988)lp[cm]=0.290+0.279*l[cm] Stizostedion vitreum Johnson et al. (1988)lp[cm]=2.827+0.094*l[cm] Stizostedion vitreum Knight et al. (1984)lp[cm]=8.045-7.892*EXP(-0.048*l[cm]) Stizostedion vitreum Knight et al. (1984)lp[cm]=0.964+0.261*l[cm] Stizostedion vitreum Parsons (1971)lp[cm]=1.822+0.169*l[cm] Stizostedion vitreum Wagner (1972)Maximum prey sizelp_max[cm]=a+b*l[cm] a=-1.32 (sd=8.169; n=6) interspecieslp_max[cm]=a+b*l[cm] b=0.573 (sd=0.392; n=6) interspecieslp_max[cm]=a+b*EXP(c*l[cm]) a=20.3 (sd=-NaN ; n=1) interspecieslp_max[cm]=a+b*EXP(c*l[cm]) b=-2571.649 (sd=-NaN ; n=1) interspecieslp_max[cm]=a+b*EXP(c*l[cm]) c=-0.291 (sd=-NaN ; n=1) interspecieslp_max[cm]=9.627+0.277*l[cm] Micropterus salmoides Lewis et al. (1974)lp_max[cm]=20.252-2571.649*EXP(-0.291*l[cm]) Micropterus salmoides Lewis et al. (1974)lp_max[cm]=3.683+0.274*l[cm] Perca flavescens Knight et al. (1984)lp_max[cm]=-13.839+1.284*l[cm] Perca flavescens Knight et al. (1984)lp_max[cm]=-6.778+0.761*l[cm] Perca flavescens Knight et al. (1984)lp_max[cm]=0.000+0.450*l[cm] Perca fluviatilis Claessen et al. (2004)lp_max[cm]=-0.599+0.391*l[cm] Pomoxis annularis Hale (1996)Minimum prey size
DRAFT August 1, 2012 14

lp_min[cm]=0.000+0.060*l[cm] Perca fluviatilis Claessen et al. (2004)

Maximum filtering ratemf[litre/d](20.0)=0.162E+05*w[g]^0.671 Dorosoma cepedianum Drenner et al. (1982)Maximum ingestion ratemi[g(dw)/d]=a*w[g]^b*EXP(c*t[celsius]) a=0.183E-01 (sd=1.880; n=7) interspeciesmi[g(dw)/d]=a*w[g]^b*EXP(c*t[celsius]) b=0.663 (sd=0.180; n=7) interspeciesmi[g(dw)/d]=a*w[g]^b*EXP(c*t[celsius]) Ln(a)=-4.301+0.454*b (r2=0.002; n=7) interspeciesmi[g(dw)/d]=a*w[g]^b*EXP(c*t[celsius]) c=0.106 (sd=0.032; n=7) interspeciesmi[g(dw)/d]=a*w[g]^b*H(c,t1,t2) a=0.751E-02 (sd=1.040; n=68) interspeciesmi[g(dw)/d]=a*w[g]^b*H(c,t1,t2) b=0.715 (sd=0.086; n=68) interspeciesmi[g(dw)/d]=a*w[g]^b*H(c,t1,t2) Ln(a)=-3.333-2.181*b (r2=0.032; n=68) interspeciesmi[g(dw)/d]=a*w[g]^b*H(c,t1,t2) c=0.358 (sd=0.525; n=68) interspeciesmi[g(dw)/d](0<t[celsius]<5)=a*w[g]^b a=0.698E-02 (sd=-NaN ; n=1) interspeciesmi[g(dw)/d](0<t[celsius]<5)=a*w[g]^b b=0.806 (sd=-NaN ; n=1) interspeciesmi[g(dw)/d](5<t[celsius]<10)=a*w[g]^b a=0.151E-03 (sd=4.550; n=5) interspeciesmi[g(dw)/d](5<t[celsius]<10)=a*w[g]^b b=1.564 (sd=0.809; n=5) interspeciesmi[g(dw)/d](10<t[celsius]<15)=a*w[g]^b a=0.212E-03 (sd=4.940; n=5) interspeciesmi[g(dw)/d](10<t[celsius]<15)=a*w[g]^b b=1.564 (sd=0.809; n=5) interspeciesmi[g(dw)/d](15<t[celsius]<20)=a*w[g]^b a=0.265E-01 (sd=0.327; n=4) interspeciesmi[g(dw)/d](15<t[celsius]<20)=a*w[g]^b b=0.712 (sd=0.185; n=4) interspeciesmi[g(dw)/d](20<t[celsius]<25)=a*w[g]^b a=0.957E-03 (sd=2.349; n=8) interspeciesmi[g(dw)/d](20<t[celsius]<25)=a*w[g]^b b=0.692 (sd=0.256; n=8) interspeciesmi[g(dw)/d](25<t[celsius]<30)=a*w[g]^b a=0.112E-02 (sd=2.603; n=8) interspeciesmi[g(dw)/d](25<t[celsius]<30)=a*w[g]^b b=0.740 (sd=0.236; n=8) interspeciesmi[g(dw)/d](18.5)=0.388E-01*w[g]^0.787 Acipenser transmontanus Cui et al. (1996)mi[g(dw)/d](18.5)=0.272E-01*w[g]^0.820 Acipenser transmontanus Cui et al. (1996)mi[g(dw)/d]=0.223E-01*w[g]^0.700*H(0.196,21.8,29.2) Alosa pseudoharengus Stewart and Binkowski (1986)mi[g(dw)/d]=0.271E-01*w[g]^0.700*H(0.214,19.6,27.3) Alosa pseudoharengus Stewart and Binkowski (1986)mi[g(dw)/d]=0.247E-01*w[g]^0.700*H(0.426,15.5,29.3) Alosa pseudoharengus Stewart and Binkowski (1986)mi[g(dw)/d](25.0)=0.268E-03*w[g]^1.226 Carassius auratus Cui and Liu (1990a)mi[g(dw)/d]=0.506E-03*w[g]^0.522*H(2.00,28.7,153.) Channa argus Liu et al. (1998)mi[g(dw)/d]=0.343E-02*w[g]^0.610*H(0.125,30.0,35.0) Channa striatus Qin et al. (1997)mi[g(dw)/d](28.0)=0.621E-01*w[g]^0.815 Clarias gariepinus Conceição et al. (1998)mi[g(dw)/d]=0.446E-01*w[g]^0.680*H(0.336,16.0,26.0) Coregonus artedii McDermot and Rose (2000)
DRAFT August 1, 2012 15

mi[g(dw)/d]=0.385E-01*w[g]^0.462*H(0.320,16.8,26.0) Coregonus hoyi Rudstam et al. (1994)

mi[g(dw)/d]=0.385E-01*w[g]^0.680*H(0.320,16.8,26.0) Coregonus hoyi Rudstam et al. (1994)mi[g(dw)/d]=0.529E-01*w[g]^0.378*H(0.219,19.9,26.0) Coregonus hoyi Binkowski and Rudstam (1994)mi[g(dw)/d]=0.187E-01*w[g]^0.380*EXP(0.801E-01*t[celsius]) Coregonus lavaretus Huuskonen et al. (1998)mi[g(dw)/d](25.0)=0.288E-03*w[g]^0.810 Cyprinus carpio Cui and Liu (1990a)mi[g(dw)/d]=0.232E-02*w[g]^0.820*H(0.272,24.9,37.3) Esox lucius Bevelhimer et al. (1985)mi[g(dw)/d]=0.109E-01*w[g]^0.820*H(0.181,17.0,24.0) Esox lucius Heikinheimo and Korhonen (19mi[g(dw)/d]=0.548E-02*w[g]^0.820*H(0.221,24.0,34.0) Esox lucius McDermot and Rose (2000)mi[g(dw)/d]=0.355E-02*w[g]^0.820*H(0.188,26.0,34.0) Esox lucius_x_masquinongy Schoenebeck et al. (2008)mi[g(dw)/d]=0.164E-02*w[g]^0.820*H(0.289,26.8,40.5) Esox masquinongy Bevelhimer et al. (1985)mi[g(dw)/d]=0.510E-02*w[g]^0.750*H(0.141,27.0,34.0) Fundulus parvipinnis Madon et al. (2001)mi[g(dw)/d](20.0)=0.174E-01*w[g]^0.436 Gambusia sp. Shakuntala and Reddy (1977)mi[g(dw)/d]=0.146E-01*w[g]^0.521*EXP(0.541E-01*t[celsius]) Gasterosteus aculeatus Wootton et al. (1980)mi[g(dw)/d]=0.410E-02*w[g]^0.749*H(0.108,28.1,31.5) Gila cypha Petersen and Paukert (2005)mi[g(dw)/d]=0.411E-02*w[g]^0.726*H(0.138,31.0,37.0) Lepomis macrochirus Breck (1993)mi[g(dw)/d]=0.365E-02*w[g]^0.726*H(0.172,27.0,36.0) Lepomis macrochirus McDermot and Rose (2000)mi[g(dw)/d]=0.411E-02*w[g]^0.726*H(0.138,31.0,37.0) Lepomis macrochirus McDermot and Rose (2000)mi[g(dw)/d]=0.274E-02*w[g]^0.726*H(0.138,31.0,37.0) Lepomis macrochirus Trebitz (1997)mi[g(dw)/d]=0.365E-02*w[g]^0.726*H(0.172,27.0,36.0) Lepomis macrochirus Trebitz (1997)mi[g(dw)/d]=0.890E-02*w[g]^0.805*H(0.166,13.7,21.0) Lota lota Rudstam et al. (1995)mi[g(dw)/d](25.0)=0.279E-03*w[g]^0.594 Macropodus chinensis Cui and Liu (1990a)mi[g(dw)/d](25.0)=0.925E-01*w[g]^0.555 Menidia beryllina Peck et al. (2003)mi[g(dw)/d]=0.338E-03*w[g]^0.690*H(0.296,29.0,36.0) Micropterus dolomieui Shuter and Post (1990)mi[g(dw)/d]=0.914E-03*w[g]^0.690*H(0.532,22.0,37.0) Micropterus dolomieui Whitledge et al. (2003)mi[g(dw)/d]=0.206E-01*w[g]^0.690*H(0.164,22.0,37.0) Micropterus dolomieui Whitledge et al. (2003)mi[g(dw)/d]=0.314E-02*w[g]^0.675*H(0.222,27.5,37.0) Micropterus salmoides Beyers (1999)mi[g(dw)/d]=0.314E-02*w[g]^0.675*H(0.222,27.5,37.0) Micropterus salmoides Rice et al. (1983)mi[g(dw)/d]=0.314E-02*w[g]^0.675*H(0.222,27.5,37.0) Micropterus salmoides Trebitz (1997)mi[g(dw)/d]=0.720E-02*w[g]^0.748*H(0.156,27.8,32.0) Morone chrysops McDermot and Rose (2000)mi[g(dw)/d]=0.762E-02*w[g]^0.748*H(0.128,28.3,31.3) Morone chrysops McDermot and Rose (2000)mi[g(dw)/d]=0.339E-02*w[g]^0.748*H(2.00,21.3,154.) Morone saxatilis Hartman and Brandt (1993, 199mi[g(dw)/d]=0.754E-02*w[g]^0.748*H(2.00,22.4,222.) Morone saxatilis Hartman and Brandt (1993, 199mi[g(dw)/d]=0.912E-02*w[g]^0.748*H(2.00,23.8,269.) Morone saxatilis Hartman and Brandt (1993, 199mi[g(dw)/d]=0.817E-02*w[g]^0.748*H(2.00,21.8,214.) Morone saxatilis Hartman and Brandt (1993, 199mi[g(dw)/d]=0.184E-01*w[g]^0.960*H(0.149,22.0,30.0) Morone saxatilis Rose and Cowan (1993)mi[g(dw)/d]=0.152E-02*w[g]^0.700*H(0.229,27.0,35.0) Morone saxatilis Rose and Cowan (1993)
DRAFT August 1, 2012 16

mi[g(dw)/d]=0.112E-01*w[g]^0.725*H(0.320,15.6,25.8) Oncorhynchus kisutch Stewart and Ibarra (1991)

mi[g(dw)/d]=0.248E-01*w[g]^0.700*H(0.220,17.6,25.3) Oncorhynchus mykiss Rand et al. (1993)mi[g(dw)/d]=0.178E-01*w[g]^0.760*H(0.174,19.3,24.4) Oncorhynchus mykiss van Winkle et al. (1998)mi[g(dw)/d]=0.345E-01*w[g]^0.725*H(0.102,17.0,25.9) Oncorhynchus nerka Beauchamp et al. (1989)mi[g(dw)/d]=0.112E-01*w[g]^0.725*H(0.320,15.6,25.8) Oncorhynchus tshawytscha Stewart and Ibarra (1991)mi[g(dw)/d](25.0)=0.285E-03*w[g]^0.833 Oreochromis mossambicus Cui and Liu (1990a)mi[g(dw)/d]=0.142E-01*w[g]^0.725*H(0.143,17.9,26.1) Osmerus mordax Lantry and Stewart (1993)mi[g(dw)/d]=0.114E-01*w[g]^0.725*H(0.207,13.1,18.0) Osmerus mordax Lantry and Stewart (1993)mi[g(dw)/d]=0.737E-02*w[g]^0.725*H(0.680,10.0,22.3) Osmerus mordax Lantry and Stewart (1993)mi[g(dw)/d]=0.769E-02*w[g]^0.730*H(0.943E-01,29.0,32.0) Perca flavescens Kitchell et al. (1977)mi[g(dw)/d]=0.997E-02*w[g]^0.730*H(0.125,23.0,28.0) Perca flavescens Kitchell et al. (1977)mi[g(dw)/d]=0.997E-02*w[g]^0.730*H(0.125,23.0,28.0) Perca flavescens McDermot and Rose (2000)mi[g(dw)/d]=0.157E-01*w[g]^0.580*H(0.943E-01,29.0,32.0) Perca flavescens McDermot and Rose (2000)mi[g(dw)/d]=0.997E-02*w[g]^0.730*H(0.125,23.0,28.0) Perca flavescens Post (1990)mi[g(dw)/d]=0.157E-01*w[g]^0.580*H(0.943E-01,29.0,32.0) Perca flavescens Post (1990)mi[g(dw)/d]=0.157E-01*w[g]^0.580*H(0.943E-01,29.0,32.0) Perca flavescens Rose et al. (1999)mi[g(dw)/d]=0.997E-02*w[g]^0.730*H(0.125,23.0,28.0) Perca flavescens Rose et al. (1999)mi[g(dw)/d]=0.160E-01*w[g]^0.590*H(0.943E-01,29.0,32.0) Perca fluviatilis Shuter and Post (1990)mi[g(dw)/d]=0.143E-01*w[g]^0.690*H(0.943E-01,26.0,29.0) Phoxinus eosxneogaeus Trudel and Boisclair (1994)mi[g(dw)/d](5.0)=0.698E-02*w[g]^0.806 Phoxinus phoxinus Cui and Wootton (1988)mi[g(dw)/d](9.0)=0.143E-01*w[g]^0.806 Phoxinus phoxinus Cui and Wootton (1988)mi[g(dw)/d](12.0)=0.203E-01*w[g]^0.806 Phoxinus phoxinus Cui and Wootton (1988)mi[g(dw)/d](15.0)=0.267E-01*w[g]^0.806 Phoxinus phoxinus Cui and Wootton (1988)mi[g(dw)/d]=1.01*w[g]^0.806*EXP(0.134*t[celsius]) Phoxinus phoxinus Cui and Wootton (1988)mi[g(dw)/d]=0.117E-01*w[g]^0.564*EXP(0.843E-01*t[celsius]) Phoxinus phoxinus Wootton et al. (1980)mi[g(dw)/d]=0.431E-02*w[g]^0.758*H(0.148,24.0,30.0) Pimephales promelas Duffy (1998)mi[g(dw)/d](25.0)=0.265E-03*w[g]^0.540 Psuedobarus fulvidraco Cui and Liu (1990a)mi[g(dw)/d](25.0)=0.270E-03*w[g]^0.545 Psuedorasbora parva Cui and Liu (1990a)mi[g(dw)/d]=0.106E-02*w[g]^0.803*H(0.401,20.4,27.8) Ptychocheilus oregonensis Petersen and Ward (1999)mi[g(dw)/d]=0.388E-02*w[g]^0.840*EXP(0.133*t[celsius]) Rutilus rutilus Hölker and Breckling (2002)mi[g(dw)/d]=0.388E-02*w[g]^0.840*EXP(0.133*t[celsius]) Rutilus rutilus Hölker and Haertel (2004)mi[g(dw)/d]=0.472E-02*w[g]^0.850*H(0.136,27.0,30.0) Rutilus rutilus Horppila and Peltonen (1997)mi[g(dw)/d]=0.686E-02*w[g]^0.767*H(0.264,15.4,21.3) Salmo trutta Dieterman et al. (2004)mi[g(dw)/d]=0.233E-02*w[g]^0.761*H(0.258,18.5,21.8) Salmo trutta Elliott (1976b)mi[g(dw)/d]=0.615E-02*w[g]^0.760*H(0.284,16.6,20.4) Salmo trutta van Winkle et al. (1998)mi[g(dw)/d](10.0)=0.234E-03*w[g]^1.523 Salvelinus alpinus Jobling (1983)
DRAFT August 1, 2012 17

mi[g(dw)/d](10.0)=0.141E-04*w[g]^1.983 Salvelinus alpinus Jobling (1983)

mi[g(dw)/d](10.0)=0.239E-06*w[g]^2.700 Salvelinus alpinus Jobling (1983)mi[g(dw)/d]=0.143E-01*w[g]^0.693*EXP(0.120*t[celsius]) Salvelinus namaycush Stewart et al. (1983), He and St

mi[g(dw)/d]=0.223E-02*w[g]^0.597*H(2.00,29.6,229.) Siniperca chuatsi Liu et al. (1998)mi[g(dw)/d]=0.111E-01*w[g]^0.730*H(0.125,22.0,27.0) Stizostedion vitreum Kitchell et al. (1977)mi[g(dw)/d]=0.111E-01*w[g]^0.730*H(0.125,22.0,27.0) Stizostedion vitreum Madon and Culver (1993)mi[g(dw)/d]=0.194E-01*w[g]^0.730*H(0.943E-01,25.0,28.0) Stizostedion vitreum Madon and Culver (1993)mi[g(dw)/d]=0.104E-01*w[g]^0.730*H(0.138,22.0,28.0) Stizostedion vitreum McDermot and Rose (2000)mi[g(dw)/d]=0.194E-01*w[g]^0.730*H(0.943E-01,25.0,28.0) Stizostedion vitreum McDermot and Rose (2000)mi[g(dw)/d]=0.194E-01*w[g]^0.730*H(0.943E-01,25.0,28.0) Stizostedion vitreum Rose et al. (1999)mi[g(dw)/d]=0.104E-01*w[g]^0.730*H(0.138,22.0,28.0) Stizostedion vitreum Rose et al. (1999)Maximum life spanmls[days]=4745 Acipenser transmontanus Semakula and Larkin (1968)mls[days]=4745 Acipenser transmontanus Semakula and Larkin (1968)mls[days]=1825 Alosa sapidissima Lapointe (1957)mls[days]=2190 Alosa sapidissima Lapointe (1957)mls[days]=1825 Alosa sapidissima Lapointe (1957)mls[days]=2190 Ambloplites cavifrons Smith (1971)mls[days]=2920 Ambloplites rupestris Redmon and Krumholz (1978)mls[days]=1460 Ambloplites rupestris Surmont (1999)mls[days]=4380 Ambloplites rupestris Swann et al. (1991), Benson (19(1973), Spier (1969)mls[days]=2920 Ameiurus catus Borgeson and McCammon (196mls[days]=2190 Ameiurus catus Moss and Tucker (1988)mls[days]=2920 Ameiurus catus Schaffter (1997)mls[days]=2920 Ameiurus catus Schaffter (1997)mls[days]=3285 Anguilla rostrata Hansen and Eversole (1984)mls[days]=1095 Aphredoderus sayanus Shepherd and Huish (1978)mls[days]=5840 Aplodinotus_grunniens Dreves et al. (1996)mls[days]=4015 Aplodinotus_grunniens Nelson (1974)mls[days]=3650 Aplodinotus_grunniens Priegel (1969)mls[days]=3285 Aplodinotus_grunniens Purkett (1957)mls[days]=2555 Aplodinotus_grunniens Swedberg (1968)mls[days]=4745 Aplodinotus_grunniens Wrenn (1968)mls[days]=2190 Archoplites interruptus Aceituno and Vanicek (1976)
DRAFT August 1, 2012 18

mls[days]=2190 Archoplites interruptus Aceituno and Vanicek (1976)

mls[days]=2190 Archoplites interruptus Imler et al. (1975)mls[days]=2555 Carpiodes carpio Purkett (1957)mls[days]=2555 Carpiodes carpio Morris (1965)mls[days]=5110 Carpiodes carpio Nelson (1974)mls[days]=4015 Carpiodes cyprinus Woodward and Wissing (1976)mls[days]=2920 Carpiodes velifer Woodward and Wissing (1976)mls[days]=4015 Catostomus catostomus Bailey (1969)mls[days]=3285 Catostomus columbianus Dauble (1980)mls[days]=2555 Catostomus commersoni Carlander (1969)mls[days]=4015 Catostomus occidentalis Villa (1985)mls[days]=3285 Catostomus platyrhynchus Hauser (1969)mls[days]=3285 Catostomus platyrhynchus Hauser (1969)mls[days]=2190 Catostomus platyrhynchus Wydoski and Wydoski (2002)mls[days]=822 Chrosomus erythrogaster Settles and Hoyt (1976)mls[days]=5840 Coregonus clupeaformis Edsall (1960)mls[days]=5840 Coregonus clupeaformis Qadri (1968)mls[days]=1460 Coregonus clupeaformis Roelofs (1957)mls[days]=3650 Coregonus hoyi Dryer and Beil (1968)mls[days]=4015 Coregonus nasus Muth (1969)mls[days]=4015 Coregonus nasus Muth (1969)mls[days]=2555 Cottus cognatus Craig and Wells (1976)mls[days]=3285 Cycleptus elongatus Moss et al. (1983)mls[days]=3650 Cycleptus elongatus Rupprecht and Jahn (1980)mls[days]=4015 Cycleptus elongatus Hand and Jackson (2003)mls[days]=4015 Cyprinus carpio Mauck and Summerfelt (1970)mls[days]=3650 Cyprinus carpio Nelson (1974)mls[days]=2920 Cyprinus carpio Purkett (1957)mls[days]=2555 Dorosoma cepedianum Bonds (2000)mls[days]=1825 Dorosoma cepedianum Surmont (1999)mls[days]=1460 Dorosoma petenense Bryant (1968)mls[days]=1095 Dorosoma petenense Bryant (1968)mls[days]=1460 Dorosoma petenense Johnson (1970)mls[days]=1460 Dorosoma petenense Johnson (1970)mls[days]=2555 Esox lucius Harrison and Hadley (1983)mls[days]=2555 Esox lucius Nelson (1974)
DRAFT August 1, 2012 19

mls[days]=2555 Esox lucius Wolfert and Miller (1978)

mls[days]=2920 Esox masquinongy Axon (1978)mls[days]=2920 Esox masquinongy Belusz (1978)mls[days]=2190 Esox masquinongy Kinman (1989)mls[days]=2190 Esox masquinongy Miles (1978)mls[days]=2190 Esox masquinongy Parsons (1959)mls[days]=1460 Etheostoma blennioides Wolfe et al. (1978)mls[days]=1825 Etheostoma blennioides Wolfe et al. (1978)mls[days]=1825 Etheostoma blennioides Carlander (1997, F52, L55, S35

mls[days]=1825 Etheostoma flabellare Carlander (1997, B444, K176, L

mls[days]=274 Etheostoma flabellare Carlander (1997, B444, K176, L

mls[days]=1095 Etheostoma microperca Johnson (1991)mls[days]=1825 Etheostoma spp Carlander (1997, F52, L55, S35

mls[days]=1825 Etheostoma spp Carlander (1997, B444, K176, Lmls[days]=1460 Etheostoma spp Carlander (1997, L55, L256, S3mls[days]=1095 Etheostoma spp Carlander (1997)mls[days]=1460 Etheostoma spp Carlander (1997)mls[days]=1825 Etheostoma spp Carlander (1997)mls[days]=1460 Etheostoma zonale Carlander (1997, L55, L256, S3mls[days]=1460 Exoglossum maxillingua Pappantoniou et al. (1984)mls[days]=2920 Gila atraria Graham (1961)mls[days]=2920 Gila atraria Neuhold (1955)mls[days]=4015 Gila atraria Neuhold (1955)mls[days]=2555 Gila robusta Vanicek and Kramer (1969)mls[days]=2555 Gila robusta Vanicek and Kramer (1969)mls[days]=3650 Hiodon alosoides Miller and Nelson (1974)mls[days]=4015 Hiodon alosoides Miller and Nelson (1974)mls[days]=2920 Hiodon alosoides Nelson (1974)mls[days]=2555 Hiodon tergisus van Oosten (1961)mls[days]=4015 Hydrocynus vittatus Griffith (1975)mls[days]=3650 Ictalurus furcatus Conder and Hoffarth (1962)mls[days]=4745 Ictalurus furcatus Hale and Timmons (1989)mls[days]=3285 Ictalurus furcatus Hale and Timmons (1990)mls[days]=3650 Ictalurus furcatus Hale and Timmons (1990)mls[days]=5110 Ictalurus furcatus Kelley (1968)mls[days]=2190 Ictalurus furcatus Kelley and Carver (1965)
DRAFT August 1, 2012 20

mls[days]=3650 Ictalurus punctatus Conder and Hoffarth (1962)

mls[days]=4745 Ictalurus punctatus Eder and McDannold (1987)mls[days]=3285 Ictalurus punctatus Freeze and Tatum (1977)mls[days]=5475 Ictalurus punctatus Holland and Peters (1992)mls[days]=4745 Ictalurus punctatus Jearld and Brown (1971)mls[days]=1825 Ictalurus punctatus McElroy et al. (1990)mls[days]=1825 Ictalurus punctatus McElroy et al. (1990)mls[days]=2920 Ictalurus punctatus Moss and Tucker (1988)mls[days]=3285 Ictalurus punctatus Purkett (1957)mls[days]=6570 Ictalurus punctatus Starostka and Nelson (1974)mls[days]=3650 Ictiobus bubalus Nelson (1974)mls[days]=2920 Ictiobus bubalus Purkett (1957)mls[days]=4745 Ictiobus bubalus Wrenn (1968)mls[days]=5475 Lepisosteus osseus Klaassen and Morgan(1974)mls[days]=8030 Lepisosteus osseus Netsch and Witt (1962)mls[days]=2555 Lepomis auritus Sandow et al. (1974)mls[days]=1825 Lepomis cyanellus Applegate et al. (1966)mls[days]=1825 Lepomis cyanellus Purkett (1957)mls[days]=1825 Lepomis cyanellus Redmon and Krumholz (1978)mls[days]=1825 Lepomis gibbosus Copp et al. (2002)mls[days]=2920 Lepomis gulosus Germann et al. (1974)mls[days]=2555 Lepomis gulosus Germann et al. (1974)mls[days]=1460 Lepomis gulosus Redmon and Krumholz (1978)mls[days]=1825 Lepomis macrochirus Applegate et al. (1966)mls[days]=2920 Lepomis macrochirus Brown and Logan (1960)mls[days]=2920 Lepomis macrochirus Drake et al. (1997)mls[days]=2555 Lepomis macrochirus Fast et al. (1982)mls[days]=2190 Lepomis macrochirus Garthause and Heidinger (1999)mls[days]=2555 Lepomis macrochirus Price (1977)mls[days]=2190 Lepomis macrochirus Redmon and Krumholz (1978)mls[days]=1095 Lepomis macrochirus Serns and Strawn (1975)mls[days]=1460 Lepomis macrochirus Serns and Strawn (1975)mls[days]=1460 Lepomis macrochirus Surmont (1999)mls[days]=2190 Lepomis macrochirus Tharratt (1966)mls[days]=1460 Lepomis macrochirus Wiener and Hanneman (1982)mls[days]=1460 Lepomis megalotis Applegate et al. (1966)
DRAFT August 1, 2012 21

mls[days]=2190 Lepomis megalotis Redmon and Krumholz (1978)

mls[days]=3650 Lepomis megalotis Swann et al. (1991), Bettoli (19

mls[days]=1460 Lepomis microlophus Tharratt (1966)mls[days]=1825 Micropterus coosae Barwick and Moore (1983)mls[days]=1825 Micropterus coosae Barwick and Moore (1983)mls[days]=3285 Micropterus coosae Catchings (1979)mls[days]=2555 Micropterus coosae Catchings (1979)mls[days]=1460 Micropterus coosae Parsons and Crittenden (1959)mls[days]=3650 Micropterus coosae Cathey (1973), Gwinner (1973)mls[days]=730 Micropterus dolomieui Applegate et al. (1966)mls[days]=2190 Micropterus dolomieui Baylis et al. (1993)mls[days]=2920 Micropterus dolomieui Brown (1960)mls[days]=2920 Micropterus dolomieui Buynak (1995)mls[days]=2555 Micropterus dolomieui Hubert (1975)mls[days]=4015 Micropterus dolomieui Marinac-sanders and Coble (19

(1966)mls[days]=2920 Micropterus dolomieui Peek (1965)mls[days]=2920 Micropterus dolomieui Peek (1965)mls[days]=1460 Micropterus dolomieui Peek (1965)mls[days]=1825 Micropterus dolomieui Redmon and Krumholz (1978)mls[days]=2920 Micropterus dolomieui Reed and Rabeni (1989), Covin1975), Lowry (1953)mls[days]=1825 Micropterus dolomieui Surmont (1999)mls[days]=2555 Micropterus dolomieui Swann et al. (1991), Cathey (19

Whittinghill (1973), Stroud (1948)mls[days]=1460 Micropterus dolomieui Tharratt (1966)mls[days]=1825 Micropterus punctulatus Hubert (1975)mls[days]=2190 Micropterus punctulatus Olmsted and Kilambi (1978)mls[days]=2190 Micropterus punctulatus Surmont (1999)mls[days]=1460 Micropterus punctulatus Swann et al. (1991), Bettoli (19mls[days]=730 Micropterus salmoides Applegate et al. (1966)mls[days]=3285 Micropterus salmoides Brown and Logan (1960)mls[days]=2190 Micropterus salmoides Bryant and Houser (1971)mls[days]=2555 Micropterus salmoides Bryant and Houser (1971)mls[days]=2920 Micropterus salmoides Buynak (1991)mls[days]=2555 Micropterus salmoides Colle et al. (1976)
DRAFT August 1, 2012 22

mls[days]=3650 Micropterus salmoides Fast et al. (1982)

mls[days]=2920 Micropterus salmoides Garthause and Heidinger (1999)mls[days]=2555 Micropterus salmoides Guier et al. (1978)mls[days]=3285 Micropterus salmoides Guier et al. (1978)mls[days]=3285 Micropterus salmoides Guier et al. (1978)mls[days]=2190 Micropterus salmoides Guier et al. (1978)mls[days]=2920 Micropterus salmoides Hubert (1975)mls[days]=1825 Micropterus salmoides Pasch (1974)mls[days]=2920 Micropterus salmoides Porak et al. (1986)mls[days]=2920 Micropterus salmoides Porak et al. (1986)mls[days]=3285 Micropterus salmoides Porak et al. (1986)mls[days]=4015 Micropterus salmoides Porak et al. (1986)mls[days]=4380 Micropterus salmoides Porak et al. (1986)mls[days]=3650 Micropterus salmoides Porak et al. (1986)mls[days]=4380 Micropterus salmoides Mraz and Threinen (1955)mls[days]=2190 Micropterus salmoides Muncy (1965)mls[days]=1825 Micropterus salmoides Redmon and Krumholz (1978)mls[days]=2920 Micropterus salmoides Schramm and Smith (1987)mls[days]=2190 Micropterus salmoides Schramm and Smith (1987)mls[days]=2555 Micropterus salmoides Schramm and Smith (1987)mls[days]=2555 Micropterus salmoides Schramm and Smith (1987)mls[days]=2555 Micropterus salmoides Schramm and Smith (1987)mls[days]=1825 Micropterus salmoides Schultze (1974)mls[days]=2920 Micropterus salmoides Surmont (1999)mls[days]=2190 Micropterus salmoides Tharratt (1966)mls[days]=2555 Micropterus salmoides Whitworth (1989), Beckwith et 

mls[days]=1825 Micropterus salmoides Whitworth (1989), Beckwith et 

mls[days]=2190 Micropterus salmoides Whitworth (1989), Beckwith et 

mls[days]=2555 Micropterus salmoides Zweiacker et al. (1972)mls[days]=2555 Morone americana Bath and O'Connor (1982)mls[days]=2555 Morone americana Marcy and Richards (1974)mls[days]=2190 Morone chrysops Houser and Bryant (1970)mls[days]=2190 Morone chrysops Houser and Bryant (1970)mls[days]=2920 Morone chrysops Nelson (1974)mls[days]=1095 Morone chrysops Nordhaus et al. (1998)mls[days]=2920 Morone chrysops Priegel (1971)
DRAFT August 1, 2012 23

mls[days]=2190 Morone chrysops Ruelle (1971)

mls[days]=2190 Morone chrysops Ruelle (1971)mls[days]=2190 Morone chrysops Webb and Moss (1967)mls[days]=2190 Morone chrysops Webb and Moss (1967)mls[days]=2190 Morone mississippiensis Priegel (1975)mls[days]=1825 Morone saxatilis Hanson and Dillard (1975)mls[days]=4015 Morone saxatilis Kinman (1988)mls[days]=1460 Morone saxatilis Mensinger (1970)mls[days]=7665 Morone saxatilis Harris (1988)mls[days]=2190 Morone saxatilis Hogans and Melvin (1984)mls[days]=3285 Morone saxatilis Magnin and Beaulieu (1967)mls[days]=3650 Morone saxatilis Williamson (1974)mls[days]=4015 Morone saxatilis Williamson (1974)mls[days]=2555 Morone saxatilis van Den Avyle and Higginbotha

mls[days]=1825 Morone saxatilis x chrysops Germann and Bunch (1983)mls[days]=3285 Moxostoma anisurum Hackney et al. (1970)mls[days]=1460 Moxostoma carinatum Tatum and Hackney (1969)mls[days]=1825 Moxostoma carinatum Tatum and Hackney (1969)mls[days]=3650 Moxostoma duquesnei Bowman (1970)mls[days]=3285 Moxostoma duquesnei Bowman (1970)mls[days]=2555 Moxostoma erythrurum Meyer (1962)mls[days]=2920 Moxostoma macrolepidotum Meyer (1962)mls[days]=2190 Moxostoma macrolepidotum Purkett (1957)mls[days]=1095 Notropis hudsonius McCann (1959)mls[days]=1460 Notropis hudsonius Smith and Kraemer (1964)mls[days]=1095 Notropis petersoni Davis and Louder (1971)mls[days]=457 Noturus hildebrandi Mayden and Walsh (1984)mls[days]=1095 Noturus miurus Burr and Mayden (1982)mls[days]=1825 Oncorhynchus aguabonita Knapp and Dudley (1990)mls[days]=2190 Oncorhynchus clarki Bjornn (1961)mls[days]=1460 Oncorhynchus clarki Cooper (1970)mls[days]=2190 Oncorhynchus clarki Irving (1954)mls[days]=1460 Oncorhynchus mykiss Coulston and Maughan (1981)mls[days]=1460 Oncorhynchus mykiss Nagel and Deaton (1989)mls[days]=1460 Oncorhynchus mykiss Varley et al. (1971)mls[days]=2555 Osmerus mordax Bailey (1964)
DRAFT August 1, 2012 24

mls[days]=2190 Perca flavescens Brown and Logan (1960)

mls[days]=2190 Perca flavescens Clugston et al. (1978)mls[days]=2555 Perca flavescens Guy and Willis (1991)mls[days]=2190 Perca flavescens Joeris (1956)mls[days]=2555 Perca flavescens Nelson (1974)mls[days]=1825 Perca flavescens Paxton and Stevenson (1978)mls[days]=2190 Perca flavescens Paxton and Stevenson (1978)mls[days]=2920 Percopsis omiscomaycus House and Wells (1973)mls[days]=2190 Percopsis transmontana Gray and Dauble (1979)mls[days]=3650 Polyodon_spathula Bronte and Johnson (1985)mls[days]=3650 Polyodon_spathula Bronte and Johnson (1985)mls[days]=3650 Polyodon_spathula Bronte and Johnson (1985)mls[days]=3285 Polyodon_spathula Bronte and Johnson (1985)mls[days]=5110 Polyodon_spathula Hoffnagle and Timmons (1989)mls[days]=2190 Pomoxis annularis Gabelhouse (1984)mls[days]=2190 Pomoxis annularis Gabelhouse (1984)mls[days]=2190 Pomoxis annularis Gabelhouse (1984)mls[days]=2555 Pomoxis annularis Johnson and Andrews (1973)mls[days]=2555 Pomoxis annularis Li et al. (1976)mls[days]=2190 Pomoxis annularis Mosher (1984)mls[days]=2555 Pomoxis annularis Nelson (1974)mls[days]=1825 Pomoxis annularis Parrish et al. (1986)mls[days]=1095 Pomoxis annularis Redmon and Krumholz (1978)mls[days]=1460 Pomoxis annularis Reed and Davies (1991)mls[days]=3285 Pomoxis annularis Siefert (1969)mls[days]=1825 Pomoxis annularis Surmont (1999)mls[days]=2190 Pomoxis annularis Willis et al. (1984)mls[days]=2555 Pomoxis nigromaculatus Brown and Logan (1960)mls[days]=2190 Pomoxis nigromaculatus Gabelhouse (1984)mls[days]=2190 Pomoxis nigromaculatus Gabelhouse (1984)mls[days]=2190 Pomoxis nigromaculatus Gabelhouse (1984)mls[days]=2555 Pomoxis nigromaculatus Larson et al. (1991)mls[days]=2190 Pomoxis nigromaculatus Larson et al. (1991)mls[days]=1825 Pomoxis nigromaculatus Larson et al. (1991)mls[days]=2920 Pomoxis nigromaculatus Li et al. (1976)mls[days]=1825 Pomoxis nigromaculatus Miller et al. (1990)
DRAFT August 1, 2012 25

mls[days]=2555 Pomoxis nigromaculatus Mosher (1984)

mls[days]=2555 Pomoxis nigromaculatus Nelson (1974)mls[days]=1460 Pomoxis nigromaculatus Reed and Davies (1991)mls[days]=2190 Pomoxis nigromaculatus Willis et al. (1984)mls[days]=2920 Prosopium cylindraceum Mraz (1964)mls[days]=4380 Prosopium cylindraceum Mackay and Power (1968)mls[days]=3650 Prosopium williamsoni Pettit and Wallace (1975)mls[days]=3650 Prosopium williamsoni Pettit and Wallace (1975)mls[days]=1460 Prosopium williamsoni Pettit and Wallace (1975)mls[days]=4015 Ptychocheilus_lucius Vanicek and Kramer (1969)mls[days]=2920 Pylodictis olivaris Mayhew (1969)mls[days]=1825 Pylodictis olivaris Minckley and Deacon (1959)mls[days]=2920 Pylodictis olivaris Pisano (1983)mls[days]=3285 Pylodictis olivaris Purkett (1957)mls[days]=3285 Pylodictis olivaris Quinn (1988)mls[days]=3285 Pylodictis olivaris Young and Marsh (1990)mls[days]=1825 Pylodictis olivaris Young and Marsh (1990)mls[days]=2190 Pylodictis olivaris Young and Marsh (1990)mls[days]=2920 Pylodictis olivaris Young and Marsh (1990)mls[days]=1460 Rhinichthys atratulus Reed and Moulton (1973)mls[days]=2190 Rhinichthys cataractae Reed and Moulton (1973), Reed 

mls[days]=2190 Salvelinus alpinus Everhart and Waters (1965)mls[days]=730 Salvelinus fontinalis Konopacky and Estes (1986)mls[days]=2555 Salvelinus fontinalis Konopacky and Estes (1986)mls[days]=1825 Salvelinus fontinalis Konopacky and Estes (1986)mls[days]=1460 Salvelinus fontinalis Konopacky and Estes (1986)mls[days]=730 Salvelinus fontinalis Konopacky and Estes (1986)mls[days]=2920 Salvelinus namaycush Borgmann and Whittle (1992)mls[days]=3650 Salvelinus namaycush Bridges and Hambly (1971)mls[days]=6205 Salvelinus namaycush Hanson and Cordone (1967)mls[days]=4015 Salvelinus namaycush Rahrer (1965)mls[days]=4380 Salvelinus namaycush Rahrer (1967)mls[days]=2920 Salvelinus namaycush Webster et al. (1960)mls[days]=2920 Salvelinus namaycush Webster et al. (1960)mls[days]=1095 Semotilus atromaculatus Schemske (1974)mls[days]=3650 Semotilus corporalis Reed (1971)
DRAFT August 1, 2012 26

mls[days]=2920 Semotilus corporalis Reed (1971)

mls[days]=2555 Semotilus corporalis Reed (1971)mls[days]=2555 Semotilus corporalis Reed (1971)mls[days]=2190 Semotilus corporalis Reed (1971)mls[days]=2190 Semotilus corporalis Reed (1971)mls[days]=1460 Semotilus corporalis Reed (1971)mls[days]=2920 Stizostedion canadense Nelson (1969)mls[days]=3285 Stizostedion canadense Nelson (1974)mls[days]=1460 Stizostedion canadense Surmont (1999)mls[days]=4380 Stizostedion vitreum Carlander and Whitney (1961), 

mls[days]=2190 Stizostedion vitreum Davis et al. (1979)mls[days]=3285 Stizostedion vitreum Kinman (1990)mls[days]=2555 Stizostedion vitreum Lewis (1970)mls[days]=2920 Stizostedion vitreum Maule and Horton (1985)mls[days]=2555 Stizostedion vitreum Moss et al. (1985)mls[days]=2920 Stizostedion vitreum Nelson (1974)mls[days]=3285 Stizostedion vitreum Smith and Pycha (1961)mls[days]=3650 Stizostedion vitreum Wolfert (1977)mls[days]=4015 Stizostedion vitreum Wolfert (1977)mls[days]=2555 Tylochromis bangwelensis Griffith (1977)Fraction moisture-lipid relationshippa[-]=a+b*pl[-] a=0.797 (sd=0.033; n=23) interspeciespa[-]=a+b*pl[-] b=-1.075 (sd=0.445; n=23) interspeciespa[-]=a+b*pl[-] a=0.735-0.058*b (r2=0.607; n=23) interspeciespa[-]=0.886-1.688*pl[-] Acipenser transmontanus Cui et al. (1996)pa[-]=0.788-0.582*pl[-] Ameiurus spp. Lowe et al. (1985), Schmitt and al. (1985, 1990)pa[-]=0.795-0.815*pl[-] Catostomus commersoni Lowe et al. (1985), Schmitt and al. (1985, 1990)pa[-]=0.791-1.014*pl[-] Cyprinus carpio Lowe et al. (1985), Schmitt and al. (1985, 1990)pa[-]=0.824-2.107*pl[-] Dorosoma cepedianum Lowe et al. (1985)pa[-]=0.793-0.862*pl[-] Ictalurus punctatus Barber (2003), Lowe et al. (198

(1990), Schmitt et al. (1990)pa[-]=0.763-0.721*pl[-] Lepomis macrochirus Barber (2003)
DRAFT August 1, 2012 27

pa[-]=0.791-1.234*pl[-] Lepomis macrochirus Lowe et al. (1985), Saiki and Sc

pa[-]=0.778-0.864*pl[-] Lepomis sp. Barber (2003), Lowe et al. (198Schmitt and Brumbaugh (1990), Schmitt et al. (1990)pa[-]=0.800-1.568*pl[-] Micropterus dolomieui Lowe et al. (1985), Schmitt and al. (1990)pa[-]=0.772-0.919*pl[-] Micropterus salmoides Lowe et al. (1985), Schmitt and al. (1990)pa[-]=0.776-1.032*pl[-] Micropterus spp Lowe et al. (1985), Schmitt and al. (1990)pa[-]=0.817-1.248*pl[-] Oncorhynchus mykiss Staples and Nomura (1976)pa[-]=0.841-1.324*pl[-] Oncorhynchus nerka Brett et al. (1969)pa[-]=0.808-0.939*pl[-] Oncorhynchus nerka Groves (1970)pa[-]=0.735+0.000*pl[-] Perca flavescens Lowe et al. (1985), Schmitt and 

al. (1990)pa[-]=0.783-1.007*pl[-] Pomoxis annularis Lowe et al. (1985), Schmitt and 

al. (1990)pa[-]=0.770-0.941*pl[-] Pomoxis nigromaculatus Lowe et al. (1985), Schmitt and 

al. (1990)pa[-]=0.853-1.805*pl[-] Salmo trutta Elliott (1976a)pa[-]=0.833-1.248*pl[-] Salvelinus alpinus Jobling (1983)pa[-]=0.787-1.287*pl[-] Salvelinus namaycush Eschmeyer and Phillips (1965)pa[-]=0.769-0.729*pl[-] Stizostedion canadense Lowe et al. (1985), Schmitt and 

al. (1990)pa[-]=0.782-0.800*pl[-] Stizostedion vitreum Lowe et al. (1985), Schmitt and 

al. (1990)Lipid fraction-body weight relationshippl[-]=a*w[g]^b a=0.318E-01 (sd=1.650; n=41) interspeciespl[-]=a*w[g]^b b=0.125 (sd=0.248; n=41) interspeciespl[-]=a*w[g]^b Ln(a)=-2.670-6.221*b (r2=0.871; n=41) interspeciespl[-]=0.490E-01*w[g]^0.000 Alosa pseudoharengus Morrison et al. (1999)pl[-]=0.700E-01*w[g]^0.000 Alosa pseudoharengus Oliver and Niimi (1988)pl[-]=0.572E-01*w[g]^0.000 Ameiurus spp. Lowe et al. (1985), Schmitt and al. (1985, 1990)pl[-]=0.800E-01*w[g]^0.000 Aplodinotus_grunniens Morrison et Al.(1997)pl[-]=0.497E-01*w[g]^0.000 Catostomus commersoni Lowe et al. (1985), Schmitt and 
DRAFT August 1, 2012 28

al. (1985, 1990)pl[-]=0.800E-01*w[g]^0.000 Catostomus commersoni Morrison et Al.(1997)

pl[-]=0.960E-01*w[g]^0.000 Cottus cognatus Morrison et al. (1999)pl[-]=0.189E-02*w[g]^0.441 Cyprinus carpio Lowe et al. (1985), Schmitt and 

al. (1985, 1990)pl[-]=0.900E-01*w[g]^0.000 Cyprinus carpio Morrison et al. (1999)pl[-]=0.529E-01*w[g]^0.000 Dorosoma cepedianum Lowe et al. (1985)pl[-]=0.100*w[g]^0.000 Dorosoma cepedianum Morrison et Al.(1997)pl[-]=0.718E-01*w[g]^0.000 Ictalurus punctatus Barber (2003), Lowe et al. (198

(1990), Schmitt et al. (1990)pl[-]=0.400E-01*w[g]^0.000 Ictalurus punctatus Morrison et al. (1999)pl[-]=0.219E-02*w[g]^0.881 Lepomis macrochirus Barber (2003)pl[-]=0.252E-01*w[g]^0.000 Lepomis macrochirus Lowe et al. (1985), Saiki and Scpl[-]=0.573E-01*w[g]^0.000 Lepomis sp. Barber (2003), Lowe et al. (198Schmitt and Brumbaugh (1990), Schmitt et al. (1990)pl[-]=0.120*w[g]^0.000 Micropterus dolomieui Morrison et Al.(1997)pl[-]=0.408E-02*w[g]^0.369 Micropterus dolomieui Lowe et al. (1985), Schmitt and al. (1990)pl[-]=0.742E-03*w[g]^0.564 Micropterus salmoides Lowe et al. (1985), Schmitt and al. (1990)pl[-]=0.120*w[g]^0.000 Micropterus salmoides Morrison et Al.(1997)pl[-]=0.150E-02*w[g]^0.475 Micropterus spp Lowe et al. (1985), Schmitt and al. (1990)pl[-]=0.110*w[g]^0.000 Oncorhynchus kisutch Oliver and Niimi (1988)pl[-]=0.800E-01*w[g]^0.000 Oncorhynchus mykiss Morrison et al. (1999)pl[-]=0.110*w[g]^0.000 Oncorhynchus mykiss Oliver and Niimi (1988)pl[-]=0.212E-01*w[g]^0.201 Oncorhynchus mykiss Staples and Nomura (1976)pl[-]=0.226E-01*w[g]^0.401 Oncorhynchus nerka Brett et al. (1969)pl[-]=0.802E-01*w[g]^0.000 Oncorhynchus nerka Groves (1970)pl[-]=0.620E-01*w[g]^0.000 Osmerus mordax Morrison et al. (1999)pl[-]=0.400E-01*w[g]^0.000 Osmerus mordax Oliver and Niimi (1988)pl[-]=0.494E-02*w[g]^0.379 Perca flavescens Lowe et al. (1985), Schmitt and 

al. (1990)pl[-]=0.800E-01*w[g]^0.000 Perca flavescens Morrison et Al.(1997)pl[-]=0.700E-01*w[g]^0.000 Perca flavescens Morrison et al. (1999)pl[-]=0.457E-01*w[g]^0.000 Pomoxis annularis Lowe et al. (1985), Schmitt and 
DRAFT August 1, 2012 29

al. (1990)pl[-]=0.554E-01*w[g]^0.000 Pomoxis nigromaculatus Lowe et al. (1985), Schmitt and 

al. (1990)pl[-]=0.600E-01*w[g]^0.000 Pomoxis nigromaculatus Morrison et Al.(1997)pl[-]=0.800E-01*w[g]^0.000 Salmo trutta Morrison et al. (1999)pl[-]=0.110*w[g]^0.000 Salmo trutta Oliver and Niimi (1988)pl[-]=0.216E-02*w[g]^0.497 Salvelinus namaycush Eschmeyer and Phillips (1965)pl[-]=0.132E-03*w[g]^0.922 Stizostedion canadense Lowe et al. (1985), Schmitt and 

al. (1990)pl[-]=0.788E-01*w[g]^0.000 Stizostedion vitreum Lowe et al. (1985), Schmitt and 

al. (1990)pl[-]=0.160*w[g]^0.000 Stizostedion vitreum Morrison et Al.(1997)Reproductive biomass investment (g/g/spawn)Routine oxygen conumptionro[mg(o2)/hr]=a*w[g]^b*EXP(c*t[celsius]) a=0.981E-01 (sd=2.209; n=2) interspeciesro[mg(o2)/hr]=a*w[g]^b*EXP(c*t[celsius]) b=0.720 (sd=0.142; n=2) interspeciesro[mg(o2)/hr](11.0)=0.631E-01*w[g]^1.100 Acipenser medirostris Mayfield and Cech (2004)ro[mg(o2)/hr](19.0)=0.871E-01*w[g]^1.110 Acipenser medirostris Mayfield and Cech (2004)ro[mg(o2)/hr](24.0)=0.275*w[g]^0.990 Acipenser medirostris Mayfield and Cech (2004)ro[mg(o2)/hr](12.0)=0.908*w[g]^1.112 Ameiurus melas Campbell and Branson (1978)ro[mg(o2)/hr](23.0)=0.647*w[g]^1.075 Ameiurus melas Campbell and Branson (1978)ro[mg(o2)/hr](10.0)=0.886*w[g]^0.443 Dorosoma cepedianum Pierce et al. (1981)ro[mg(o2)/hr](15.0)=1.81*w[g]^0.443 Dorosoma cepedianum Pierce et al. (1981)ro[mg(o2)/hr](20.0)=3.02*w[g]^0.443 Dorosoma cepedianum Pierce et al. (1981)ro[mg(o2)/hr](25.0)=4.47*w[g]^0.443 Dorosoma cepedianum Pierce et al. (1981)ro[mg(o2)/hr](16.0)=0.964*w[g]^0.259 Esomus dandricus Bhattacharya and Subba (2006)ro[mg(o2)/hr](25.0)=1.08*w[g]^0.572 Esomus dandricus Bhattacharya and Subba (2006)ro[mg(o2)/hr]=0.206E-01*w[g]^0.820*EXP(0.160*t[celsius]) Esox lucius Diana (1982a)ro[mg(o2)/hr](5.0)=0.588E-01*w[g]^0.710 Gambusia sp. Murphy and Murphy (1971)ro[mg(o2)/hr](20.0)=0.134*w[g]^0.680 Gambusia sp. Murphy and Murphy (1971)ro[mg(o2)/hr]=0.468*w[g]^0.619*EXP(0.125*t[celsius]) Gila atraria Rajagopal and Kramer (1974)ro[mg(o2)/hr](25.0)=0.916*w[g]^0.338 Hypostomus plecostomus Perna and Fernandes (1996)ro[mg(o2)/hr](20.0)=0.300*w[g]^0.720 Lepomis gibbosus Evans (1984)ro[mg(o2)/hr](20.0)=0.278*w[g]^0.728 Lepomis gibbosus Evans (1984)
DRAFT August 1, 2012 30

ro[mg(o2)/hr](20.0)=0.215*w[g]^0.749 Lepomis gibbosus Evans (1984)

ro[mg(o2)/hr](14.0)=0.498*w[g]^0.830 Oncorhynchus mykiss Rodnick et Al.(2004)ro[mg(o2)/hr](11.4)=0.274*w[g]^0.654 Oncorhynchus mykiss Staples and Nomura (1976)ro[mg(o2)/hr](11.4)=0.327*w[g]^0.789 Oncorhynchus mykiss Staples and Nomura (1976)ro[mg(o2)/hr](11.4)=0.523*w[g]^0.813 Oncorhynchus mykiss Staples and Nomura (1976)ro[mg(o2)/hr](37.0)=0.738*w[g]^0.748 Oreochromis alcalicus Franklin et al. (1995)ro[mg(o2)/hr](20.0)=0.181*w[g]^0.965 Stizostedion vitreum Tarby (1980)Respiratory quotient (g(CO2)/g(O2))rq[-]=a a=1.097 (sd=0.274; n=5) interspeciesrq[-]=1.584 Carassius auratus Kutty (1968)rq[-]=0.950 Lepisosteus oculatus Smatresk and Cameron (1982)rq[-]=0.950 Lepisosteus spp. Smatresk and Cameron (1982)rq[-]=1.000 Oncorhynchus mykiss Kutty (1968)rq[-]=1.000 Tilapia mossambica Peer Mohamed and Kutty (1981Routine-to-standard oxygen consumption ratio (g(O2)/g(O2))rt:std[-]=a a=1.849 (sd=1.123; n=36) interspeciesrt:std[-]=2.000 Channa striatus Qin et al. (1997)rt:std[-]=1.000 Coregonus lavaretus Huuskonen et al. (1998)rt:std[-]=1.000 Esox lucius Heikinheimo and Korhonen (19rt:std[-]=1.000 Esox lucius McDermot and Rose (2000)rt:std[-]=1.040 Esox lucius_x_masquinongy Schoenebeck et al. (2008)rt:std[-]=1.250 Fundulus parvipinnis Madon et al. (2001)rt:std[-]=1.160 Gila cypha Petersen and Paukert (2005)rt:std[-]=1.251 Lepomis gibbosus Evans (1984)rt:std[-]=1.100 Lepomis macrochirus McDermot and Rose (2000)rt:std[-]=1.000 Lepomis macrochirus McDermot and Rose (2000)rt:std[-]=1.250 Lota lota Rudstam et al. (1995)rt:std[-]=2.000 Micropterus dolomieui Shuter and Post (1990)rt:std[-]=1.000 Morone chrysops McDermot and Rose (2000)rt:std[-]=1.500 Morone chrysops McDermot and Rose (2000)rt:std[-]=2.463 Morone saxatilis Hartman and Brandt (1993, 199rt:std[-]=1.649 Morone saxatilis Hartman and Brandt (1993, 199rt:std[-]=1.649 Morone saxatilis Hartman and Brandt (1993, 199rt:std[-]=1.649 Morone saxatilis Hartman and Brandt (1993, 199
DRAFT August 1, 2012 31

rt:std[-]=1.000 Osmerus mordax Lantry and Stewart (1993)

rt:std[-]=1.000 Perca flavescens McDermot and Rose (2000)rt:std[-]=4.400 Perca flavescens McDermot and Rose (2000)rt:std[-]=1.000 Perca flavescens Post (1990)rt:std[-]=4.400 Perca flavescens Post (1990)rt:std[-]=4.400 Perca flavescens Rose et al. (1999)rt:std[-]=1.000 Perca flavescens Rose et al. (1999)rt:std[-]=4.400 Perca fluviatilis Shuter and Post (1990)rt:std[-]=1.000 Phoxinus eosxneogaeus Trudel and Boisclair (1994)rt:std[-]=3.000 Phoxinus eosxneogaeus Gauthier and Boisclair (1997)rt:std[-]=1.000 Pimephales promelas Duffy (1998)rt:std[-]=1.000 Rutilus rutilus Horppila and Peltonen (1997)rt:std[-]=1.000 Stizostedion vitreum Madon and Culver (1993)rt:std[-]=3.000 Stizostedion vitreum Madon and Culver (1993)rt:std[-]=2.000 Stizostedion vitreum McDermot and Rose (2000)rt:std[-]=3.000 Stizostedion vitreum McDermot and Rose (2000)rt:std[-]=3.000 Stizostedion vitreum Rose et al. (1999)rt:std[-]=2.000 Stizostedion vitreum Rose et al. (1999)SDA-to-assimilation ratio (g/g)sda:assim[-]=a a=0.162 (sd=0.021; n=18) interspeciessda:assim[-]=0.175 Alosa pseudoharengus Stewart and Binkowski (1986)sda:assim[-]=0.170 Coregonus hoyi Rudstam et al. (1994)sda:assim[-]=0.140 Esox lucius_x_masquinongy Schoenebeck et al. (2008)sda:assim[-]=0.100 Fundulus parvipinnis Madon et al. (2001)sda:assim[-]=0.150 Gila cypha Petersen and Paukert (2005)sda:assim[-]=0.153 Lepomis macrochirus Breck (1993)sda:assim[-]=0.153 Lepomis macrochirus Trebitz (1997)sda:assim[-]=0.200 Lota lota Rudstam et al. (1995)sda:assim[-]=0.160 Micropterus dolomieui Shuter and Post (1990)sda:assim[-]=0.163 Micropterus salmoides Trebitz (1997)sda:assim[-]=0.172 Morone saxatilis Hartman and Brandt (1993, 199sda:assim[-]=0.172 Oncorhynchus nerka Beauchamp et al. (1989)sda:assim[-]=0.175 Osmerus mordax Lantry and Stewart (1993)sda:assim[-]=0.150 Perca fluviatilis Shuter and Post (1990)sda:assim[-]=0.172 Pimephales promelas Duffy (1998)
DRAFT August 1, 2012 32

sda:assim[-]=0.163 Ptychocheilus oregonensis Petersen and Ward (1999)

sda:assim[-]=0.180 Rutilus rutilus Horppila and Peltonen (1997)sda:assim[-]=0.170 Salvelinus namaycush Stewart et al. (1983), He and St

SDA-to-ingestion ratio (g/g)sda:in[-]=a a=0.144 (sd=0.022; n=37) interspeciessda:in[-]=0.147 Alosa pseudoharengus Stewart and Binkowski (1986)sda:in[-]=0.172 Channa striatus Qin et al. (1997)sda:in[-]=0.127 Coregonus hoyi Rudstam et al. (1994)sda:in[-]=0.170 Coregonus lavaretus Huuskonen et al. (1998)sda:in[-]=0.142 Coregonus spp. Dabrowska and Kaushik (1984)sda:in[-]=0.140 Esox lucius Bevelhimer et al. (1985)sda:in[-]=0.104 Esox lucius Diana (1982a)sda:in[-]=0.140 Esox lucius Heikinheimo and Korhonen (19sda:in[-]=0.140 Esox masquinongy Bevelhimer et al. (1985)sda:in[-]=0.090 Fundulus parvipinnis Madon et al. (2001)sda:in[-]=0.127 Lepomis macrochirus Breck (1993)sda:in[-]=0.127 Lepomis macrochirus Pierce and Wissing (1974)sda:in[-]=0.127 Lepomis macrochirus Trebitz (1997)sda:in[-]=0.166 Lota lota Rudstam et al. (1995)sda:in[-]=0.143 Micropterus dolomieui Shuter and Post (1990)sda:in[-]=0.142 Micropterus salmoides Beamish (1974)sda:in[-]=0.163 Micropterus salmoides Beyers (1999)sda:in[-]=0.142 Micropterus salmoides Rice et al. (1983)sda:in[-]=0.113 Micropterus salmoides Tandler and Beamish (1981)sda:in[-]=0.137 Micropterus salmoides Trebitz (1997)sda:in[-]=0.154 Morone saxatilis Hartman and Brandt (1993, 199sda:in[-]=0.140 Oncorhynchus nerka Bevelhimer and Adams (1993)sda:in[-]=0.147 Osmerus mordax Lantry and Stewart (1993)sda:in[-]=0.150 Perca flavescens Kitchell et al. (1977)sda:in[-]=0.150 Perca flavescens Post (1990)sda:in[-]=0.128 Perca fluviatilis Shuter and Post (1990)sda:in[-]=0.150 Phoxinus eosxneogaeus Trudel and Boisclair (1994)sda:in[-]=0.150 Phoxinus eosxneogaeus Gauthier and Boisclair (1997)sda:in[-]=0.155 Pimephales promelas Duffy (1998)sda:in[-]=0.130 Ptychocheilus oregonensis Petersen and Ward (1999)
DRAFT August 1, 2012 33

sda:in[-]=0.190 Rutilus rutilus Hölker and Breckling (2002)

sda:in[-]=0.190 Rutilus rutilus Hölker and Haertel (2004)sda:in[-]=0.151 Rutilus rutilus Horppila and Peltonen (1997)sda:in[-]=0.154 Stizostedion vitreum Beamish and Macmahon (1988)sda:in[-]=0.150 Stizostedion vitreum Kitchell et al. (1977)sda:in[-]=0.172 Stizostedion vitreum Madon and Culver (1993)sda:in[-]=0.100 Stizostedion vitreum Madon and Culver (1993)Specific growth ratesg[g/g/d]=a*w[g]^b a=0.134E-01 (sd=1.600; n=4) interspeciessg[g/g/d]=a*w[g]^b b=-0.522 (sd=0.186; n=4) interspeciessg[g/g/d]=a*w[g]^b Ln(a)=0.120+8.491*b (r2=0.979; n=4) interspeciessg[g/g/d](28.0)=0.127*w[g]^(-0.276) Clarias gariepinus Conceição et al. (1998)sg[g/g/d](30.0)=0.140E-01*w[g]^(-0.483) Cyprinodontid_poeciliid Haake and Dean (1983)sg[g/g/d](30.0)=0.465E-02*w[g]^(-0.636) Cyprinodontid_poeciliid Haake and Dean (1983)sg[g/g/d](30.0)=0.391E-02*w[g]^(-0.693) Gambusia sp. Haake and Dean(1983)Long-term specific growth ratesg_mu[g/g/d]=a*w[g]^b a=0.605E-01 (sd=2.367; n=316) interspeciessg_mu[g/g/d]=a*w[g]^b b=-0.723 (sd=0.355; n=316) interspeciessg_mu[g/g/d]=a*w[g]^b Ln(a)=-5.981-4.390*b (r2=0.434; n=316) interspeciessg_mu[g/g/d]=0.664E-03*w[g]^0.000 Acipenser transmontanus Semakula and Larkin (1968)sg_mu[g/g/d]=0.527E-02*w[g]^(-0.241) Acipenser transmontanus Semakula and Larkin (1968)sg_mu[g/g/d]=0.272*w[g]^(-0.999) Alosa aestivalis Guest (1988)sg_mu[g/g/d]=0.341E-01*w[g]^(-1.341) Alosa pseudoharengus O'Gorman et al. (1997)sg_mu[g/g/d]=0.278*w[g]^(-0.865) Alosa sapidissima Lapointe (1957)sg_mu[g/g/d]=0.473*w[g]^(-0.927) Alosa sapidissima Lapointe (1957)sg_mu[g/g/d]=0.258*w[g]^(-0.862) Alosa sapidissima Lapointe (1957)sg_mu[g/g/d]=0.548E-01*w[g]^(-0.672) Ambloplites cavifrons Smith (1971)sg_mu[g/g/d]=0.186E-01*w[g]^(-0.611) Ambloplites rupestris Redmon and Krumholz (1978)sg_mu[g/g/d]=0.745E-02*w[g]^(-0.379) Ambloplites rupestris Surmont (1999)sg_mu[g/g/d]=0.265E-01*w[g]^(-0.665) Ambloplites rupestris Swann et al. (1991), Benson (19

(1973), Spier (1969)sg_mu[g/g/d]=0.256E-01*w[g]^(-0.580) Ameiurus catus Borgeson and McCammon (196sg_mu[g/g/d]=0.322E-01*w[g]^(-0.479) Ameiurus catus Moss and Tucker (1988)sg_mu[g/g/d]=0.282E-01*w[g]^(-0.699) Ameiurus catus Schaffter (1997)
DRAFT August 1, 2012 34

sg_mu[g/g/d]=0.263E-01*w[g]^(-0.745) Ameiurus catus Schaffter (1997)

sg_mu[g/g/d]=0.444E-01*w[g]^(-0.684) Anguilla rostrata Hansen and Eversole (1984)sg_mu[g/g/d]=0.486E-02*w[g]^(-0.989) Aphredoderus sayanus Shepherd and Huish (1978)sg_mu[g/g/d]=0.162E-01*w[g]^(-0.417) Aplodinotus_grunniens Dreves et al. (1996)sg_mu[g/g/d]=0.356E-01*w[g]^(-0.529) Aplodinotus_grunniens Nelson (1974)sg_mu[g/g/d]=0.560*w[g]^(-1.122) Aplodinotus_grunniens Priegel (1969)sg_mu[g/g/d]=0.728E-01*w[g]^(-0.678) Aplodinotus_grunniens Purkett (1957)sg_mu[g/g/d]=0.362E-01*w[g]^(-0.637) Aplodinotus_grunniens Swedberg (1968)sg_mu[g/g/d]=0.248E-01*w[g]^(-0.453) Aplodinotus_grunniens Wrenn (1968)sg_mu[g/g/d]=0.175*w[g]^(-0.909) Archoplites interruptus Aceituno and Vanicek (1976)sg_mu[g/g/d]=0.261E-01*w[g]^(-0.541) Archoplites interruptus Aceituno and Vanicek (1976)sg_mu[g/g/d]=0.653E-02*w[g]^(-0.284) Archoplites interruptus Imler et al. (1975)sg_mu[g/g/d]=0.260E-01*w[g]^(-0.539) Carpiodes carpio Purkett (1957)sg_mu[g/g/d]=0.621E-01*w[g]^(-0.677) Carpiodes carpio Morris (1965)sg_mu[g/g/d]=0.694E-01*w[g]^(-0.665) Carpiodes carpio Nelson (1974)sg_mu[g/g/d]=0.335E-01*w[g]^(-0.557) Carpiodes cyprinus Woodward and Wissing (1976)sg_mu[g/g/d]=0.368*w[g]^(-1.002) Carpiodes velifer Woodward and Wissing (1976)sg_mu[g/g/d]=0.610E-01*w[g]^(-0.385) Catostomus catostomus Bailey (1969)sg_mu[g/g/d]=0.130*w[g]^(-0.625) Catostomus catostomus Harris (1962)sg_mu[g/g/d]=0.846E-01*w[g]^(-0.737) Catostomus columbianus Dauble (1980)sg_mu[g/g/d]=0.909E-01*w[g]^(-0.731) Catostomus commersoni Carlander (1969)sg_mu[g/g/d]=0.762E-01*w[g]^(-0.750) Catostomus occidentalis Villa (1985)sg_mu[g/g/d]=0.108E-01*w[g]^(-0.604) Catostomus platyrhynchus Hauser (1969)sg_mu[g/g/d]=0.953E-02*w[g]^(-0.588) Catostomus platyrhynchus Hauser (1969)sg_mu[g/g/d]=0.219E-01*w[g]^(-0.817) Catostomus platyrhynchus Wydoski and Wydoski (2002)sg_mu[g/g/d]=0.695E-02*w[g]^(-0.568) Chrosomus erythrogaster Settles and Hoyt (1976)sg_mu[g/g/d]=0.241E-01*w[g]^(-0.723) Coregonus clupeaformis Edsall (1960)sg_mu[g/g/d]=0.565E-03*w[g]^0.000 Coregonus clupeaformis Qadri (1968)sg_mu[g/g/d]=0.287E-01*w[g]^(-0.588) Coregonus clupeaformis Qadri (1968)sg_mu[g/g/d]=0.210E-01*w[g]^(-0.351) Coregonus clupeaformis Roelofs (1957)sg_mu[g/g/d]=0.273E-01*w[g]^(-0.830) Coregonus hoyi Dryer and Beil (1968)sg_mu[g/g/d]=0.135E-01*w[g]^(-0.337) Coregonus nasus Muth (1969)sg_mu[g/g/d]=1.10*w[g]^(-0.827) Coregonus nasus Muth (1969)sg_mu[g/g/d]=0.278E-02*w[g]^(-0.533) Cottus cognatus Craig and Wells (1976)sg_mu[g/g/d]=0.188*w[g]^(-0.751) Cycleptus elongatus Moss et al. (1983)sg_mu[g/g/d]=0.759E-01*w[g]^(-0.597) Cycleptus elongatus Rupprecht and Jahn (1980)
DRAFT August 1, 2012 35

sg_mu[g/g/d]=0.227E-01*w[g]^(-0.447) Cycleptus elongatus Hand and Jackson (2003)

sg_mu[g/g/d]=0.823E-01*w[g]^(-0.677) Cyprinus carpio Mauck and Summerfelt (1970)sg_mu[g/g/d]=0.174*w[g]^(-0.764) Cyprinus carpio Nelson (1974)sg_mu[g/g/d]=0.114*w[g]^(-0.658) Cyprinus carpio Purkett (1957)sg_mu[g/g/d]=4.15*w[g]^(-1.593) Dorosoma cepedianum Bonds (2000)sg_mu[g/g/d]=0.230E-01*w[g]^(-0.645) Dorosoma cepedianum Surmont (1999)sg_mu[g/g/d]=0.111E-02*w[g]^(-2.269) Dorosoma petenense Bryant (1968)sg_mu[g/g/d]=0.149E-02*w[g]^(-0.537) Dorosoma petenense Johnson (1970)sg_mu[g/g/d]=0.760E-03*w[g]^(-0.803) Dorosoma petenense Johnson (1970)sg_mu[g/g/d]=0.731*w[g]^(-0.945) Esox lucius Harrison and Hadley (1983)sg_mu[g/g/d]=0.727*w[g]^(-0.835) Esox lucius Nelson (1974)sg_mu[g/g/d]=18.6*w[g]^(-1.356) Esox lucius Wolfert and Miller (1978)sg_mu[g/g/d]=0.147*w[g]^(-0.576) Esox masquinongy Axon (1978)sg_mu[g/g/d]=12.9*w[g]^(-1.158) Esox masquinongy Belusz (1978)sg_mu[g/g/d]=0.501*w[g]^(-0.792) Esox masquinongy Haas (1978)sg_mu[g/g/d]=2.12*w[g]^(-0.911) Esox masquinongy Kinman (1989)sg_mu[g/g/d]=0.450*w[g]^(-0.796) Esox masquinongy Miles (1978)sg_mu[g/g/d]=0.845E-01*w[g]^(-0.526) Esox masquinongy Parsons (1959)sg_mu[g/g/d]=0.624E-02*w[g]^(-1.063) Etheostoma blennioides Wolfe et al. (1978)sg_mu[g/g/d]=0.103E-01*w[g]^(-1.734) Etheostoma blennioides Wolfe et al. (1978)sg_mu[g/g/d]=0.245E-02*w[g]^(-0.671) Etheostoma blennioides Carlander (1997, F52, L55, S35sg_mu[g/g/d]=0.141E-02*w[g]^(-0.237) Etheostoma flabellare Carlander (1997, B444, K176, Lsg_mu[g/g/d]=0.985E-02*w[g]^(-0.086) Etheostoma flabellare Carlander (1997, B444, K176, Lsg_mu[g/g/d]=0.507E-04*w[g]^(-2.056) Etheostoma microperca Johnson (1991)sg_mu[g/g/d]=0.245E-02*w[g]^(-0.671) Etheostoma spp Carlander (1997, F52, L55, S35sg_mu[g/g/d]=0.141E-02*w[g]^(-0.237) Etheostoma spp Carlander (1997, B444, K176, Lsg_mu[g/g/d]=0.122E-02*w[g]^(-0.794) Etheostoma spp Carlander (1997, L55, L256, S3sg_mu[g/g/d]=0.116E-02*w[g]^0.000 Etheostoma spp Carlander (1997)sg_mu[g/g/d]=0.141E-02*w[g]^(-1.076) Etheostoma spp Carlander (1997)sg_mu[g/g/d]=0.161E-02*w[g]^(-0.404) Etheostoma spp Carlander (1997)sg_mu[g/g/d]=0.122E-02*w[g]^(-0.794) Etheostoma zonale Carlander (1997, L55, L256, S3sg_mu[g/g/d]=0.130E-01*w[g]^(-0.590) Exoglossum maxillingua Pappantoniou et al. (1984)sg_mu[g/g/d]=0.347E-01*w[g]^(-0.633) Gila atraria Graham (1961)sg_mu[g/g/d]=0.189E-01*w[g]^(-0.670) Gila atraria Neuhold (1955)sg_mu[g/g/d]=0.168E-01*w[g]^(-0.659) Gila atraria Neuhold (1955)sg_mu[g/g/d]=0.142E-01*w[g]^(-0.466) Gila robusta Vanicek and Kramer (1969)
DRAFT August 1, 2012 36

sg_mu[g/g/d]=0.530E-01*w[g]^(-0.773) Gila robusta Vanicek and Kramer (1969)

sg_mu[g/g/d]=0.298*w[g]^(-1.090) Hiodon alosoides Miller and Nelson (1974)sg_mu[g/g/d]=0.155*w[g]^(-0.940) Hiodon alosoides Miller and Nelson (1974)sg_mu[g/g/d]=0.263*w[g]^(-0.981) Hiodon alosoides Nelson (1974)sg_mu[g/g/d]=0.265*w[g]^(-1.101) Hiodon tergisus van Oosten (1961)sg_mu[g/g/d]=1.43*w[g]^(-0.919) Hydrocynus vittatus Griffith (1975)sg_mu[g/g/d]=0.335E-02*w[g]^(-0.204) Ictalurus furcatus Conder and Hoffarth (1962)sg_mu[g/g/d]=0.291E-02*w[g]^(-0.158) Ictalurus furcatus Hale and Timmons (1989)sg_mu[g/g/d]=0.263E-01*w[g]^(-0.451) Ictalurus furcatus Hale and Timmons (1990)sg_mu[g/g/d]=0.137E-02*w[g]^0.000 Ictalurus furcatus Hale and Timmons (1990)sg_mu[g/g/d]=0.111*w[g]^(-0.572) Ictalurus furcatus Kelley (1968)sg_mu[g/g/d]=0.798E-01*w[g]^(-0.486) Ictalurus furcatus Kelley and Carver (1965)sg_mu[g/g/d]=0.505E-02*w[g]^(-0.178) Ictalurus punctatus Conder and Hoffarth (1962)sg_mu[g/g/d]=0.182*w[g]^(-0.719) Ictalurus punctatus Eder and McDannold (1987)sg_mu[g/g/d]=0.348E-01*w[g]^(-0.599) Ictalurus punctatus Freeze and Tatum (1977)sg_mu[g/g/d]=0.713E-02*w[g]^(-0.238) Ictalurus punctatus Holland and Peters (1992)sg_mu[g/g/d]=0.457E-02*w[g]^(-0.243) Ictalurus punctatus Jearld and Brown (1971)sg_mu[g/g/d]=0.457E-01*w[g]^(-0.505) Ictalurus punctatus McElroy et al. (1990)sg_mu[g/g/d]=0.556E-01*w[g]^(-0.575) Ictalurus punctatus McElroy et al. (1990)sg_mu[g/g/d]=0.900E-01*w[g]^(-0.703) Ictalurus punctatus Moss and Tucker (1988)sg_mu[g/g/d]=0.147E-02*w[g]^0.000 Ictalurus punctatus Purkett (1957)sg_mu[g/g/d]=0.136E-01*w[g]^(-0.399) Ictalurus punctatus Starostka and Nelson (1974)sg_mu[g/g/d]=0.334*w[g]^(-0.850) Ictiobus bubalus Nelson (1974)sg_mu[g/g/d]=0.171*w[g]^(-0.716) Ictiobus bubalus Purkett (1957)sg_mu[g/g/d]=0.120*w[g]^(-0.670) Ictiobus bubalus Wrenn (1968)sg_mu[g/g/d]=0.881*w[g]^(-1.041) Lepisosteus osseus Klaassen and Morgan(1974)sg_mu[g/g/d]=0.294*w[g]^(-0.902) Lepisosteus osseus Netsch and Witt (1962)sg_mu[g/g/d]=0.116E-01*w[g]^(-0.496) Lepomis auritus Sandow et al. (1974)sg_mu[g/g/d]=0.306E-02*w[g]^(-0.500) Lepomis gibbosus Copp et al. (2002)sg_mu[g/g/d]=0.907E-02*w[g]^(-0.437) Lepomis gulosus Germann et al. (1974)sg_mu[g/g/d]=0.151E-01*w[g]^(-0.555) Lepomis gulosus Germann et al. (1974)sg_mu[g/g/d]=0.526E-02*w[g]^(-0.444) Lepomis macrochirus Brown and Logan (1960)sg_mu[g/g/d]=0.577E-02*w[g]^(-0.534) Lepomis macrochirus Drake et al. (1997)sg_mu[g/g/d]=0.153E-01*w[g]^(-0.667) Lepomis macrochirus Fast et al. (1982)sg_mu[g/g/d]=0.260E-01*w[g]^(-0.968) Lepomis macrochirus Garthause and Heidinger (1999)sg_mu[g/g/d]=0.653E-02*w[g]^(-0.784) Lepomis macrochirus Price (1977)
DRAFT August 1, 2012 37

sg_mu[g/g/d]=0.115E-01*w[g]^(-0.604) Lepomis macrochirus Serns and Strawn (1975)

sg_mu[g/g/d]=0.216E-01*w[g]^(-0.748) Lepomis macrochirus Serns and Strawn (1975)sg_mu[g/g/d]=0.109E-01*w[g]^(-0.605) Lepomis macrochirus Surmont (1999)sg_mu[g/g/d]=0.335E-01*w[g]^(-0.675) Lepomis macrochirus Tharratt (1966)sg_mu[g/g/d]=0.126E-01*w[g]^(-0.737) Lepomis macrochirus Wiener and Hanneman (1982)sg_mu[g/g/d]=0.304E-01*w[g]^(-0.958) Lepomis megalotis Swann et al. (1991), Bettoli (19sg_mu[g/g/d]=0.601E-01*w[g]^(-0.726) Lepomis microlophus Tharratt (1966)sg_mu[g/g/d]=0.624*w[g]^(-1.133) Micropterus coosae Barwick and Moore (1983)sg_mu[g/g/d]=0.334*w[g]^(-1.017) Micropterus coosae Barwick and Moore (1983)sg_mu[g/g/d]=0.221E-01*w[g]^(-0.734) Micropterus coosae Catchings (1979)sg_mu[g/g/d]=0.998E-02*w[g]^(-0.512) Micropterus coosae Catchings (1979)sg_mu[g/g/d]=0.637E-01*w[g]^(-0.597) Micropterus coosae Parsons and Crittenden (1959)sg_mu[g/g/d]=0.127E-01*w[g]^(-0.566) Micropterus coosae Cathey (1973), Gwinner (1973)

sg_mu[g/g/d]=0.159E-01*w[g]^(-0.379) Micropterus dolomieui Baylis et al. (1993)sg_mu[g/g/d]=0.126*w[g]^(-0.825) Micropterus dolomieui Brown (1960)sg_mu[g/g/d]=0.720E-01*w[g]^(-0.700) Micropterus dolomieui Buynak (1995)sg_mu[g/g/d]=0.144*w[g]^(-0.718) Micropterus dolomieui Hubert (1975)sg_mu[g/g/d]=0.121*w[g]^(-0.766) Micropterus dolomieui Marinac-sanders and Coble (19

(1966)sg_mu[g/g/d]=0.239E-01*w[g]^(-0.430) Micropterus dolomieui Peek (1965)sg_mu[g/g/d]=0.218E-01*w[g]^(-0.357) Micropterus dolomieui Peek (1965)sg_mu[g/g/d]=0.317E-01*w[g]^(-0.478) Micropterus dolomieui Peek (1965)sg_mu[g/g/d]=0.335E-01*w[g]^(-0.552) Micropterus dolomieui Reed and Rabeni (1989), Covin

1975), Lowry (1953)sg_mu[g/g/d]=0.514E-02*w[g]^(-0.177) Micropterus dolomieui Surmont (1999)sg_mu[g/g/d]=0.577E-01*w[g]^(-0.624) Micropterus dolomieui Swann et al. (1991), Cathey (19Whittinghill (1973), Stroud (1948)sg_mu[g/g/d]=0.706*w[g]^(-0.980) Micropterus dolomieui Tharratt (1966)sg_mu[g/g/d]=0.676E-01*w[g]^(-0.646) Micropterus punctulatus Hubert (1975)sg_mu[g/g/d]=0.104*w[g]^(-0.797) Micropterus punctulatus Olmsted and Kilambi (1978)sg_mu[g/g/d]=0.659E-02*w[g]^(-0.296) Micropterus punctulatus Surmont (1999)sg_mu[g/g/d]=0.255E-02*w[g]^(-0.052) Micropterus punctulatus Swann et al. (1991), Bettoli (19sg_mu[g/g/d]=0.194E-01*w[g]^(-0.576) Micropterus salmoides Brown and Logan (1960)sg_mu[g/g/d]=0.591*w[g]^(-0.927) Micropterus salmoides Bryant and Houser (1971)sg_mu[g/g/d]=1.35*w[g]^(-1.049) Micropterus salmoides Bryant and Houser (1971)sg_mu[g/g/d]=0.409E-01*w[g]^(-0.635) Micropterus salmoides Buynak (1991)
DRAFT August 1, 2012 38

sg_mu[g/g/d]=0.505E-01*w[g]^(-0.580) Micropterus salmoides Colle et al. (1976)

sg_mu[g/g/d]=0.653*w[g]^(-1.098) Micropterus salmoides Fast et al. (1982)sg_mu[g/g/d]=0.127E-01*w[g]^(-0.449) Micropterus salmoides Garthause and Heidinger (1999)sg_mu[g/g/d]=0.359E-01*w[g]^(-0.636) Micropterus salmoides Guier et al. (1978)sg_mu[g/g/d]=0.864E-01*w[g]^(-0.810) Micropterus salmoides Guier et al. (1978)sg_mu[g/g/d]=0.582E-01*w[g]^(-0.703) Micropterus salmoides Guier et al. (1978)sg_mu[g/g/d]=0.730E-01*w[g]^(-0.706) Micropterus salmoides Guier et al. (1978)sg_mu[g/g/d]=0.848E-01*w[g]^(-0.656) Micropterus salmoides Hubert (1975)sg_mu[g/g/d]=0.121*w[g]^(-0.738) Micropterus salmoides Pasch (1974)sg_mu[g/g/d]=0.748E-01*w[g]^(-0.724) Micropterus salmoides Porak et al. (1986)sg_mu[g/g/d]=0.844E-01*w[g]^(-0.717) Micropterus salmoides Porak et al. (1986)sg_mu[g/g/d]=0.131*w[g]^(-0.799) Micropterus salmoides Porak et al. (1986)sg_mu[g/g/d]=0.131*w[g]^(-0.849) Micropterus salmoides Porak et al. (1986)sg_mu[g/g/d]=0.542E-01*w[g]^(-0.699) Micropterus salmoides Porak et al. (1986)sg_mu[g/g/d]=0.329E-01*w[g]^(-0.576) Micropterus salmoides Porak et al. (1986)sg_mu[g/g/d]=0.434E-01*w[g]^(-0.691) Micropterus salmoides Mraz and Threinen (1955)sg_mu[g/g/d]=0.485E-02*w[g]^(-0.280) Micropterus salmoides Muncy (1965)sg_mu[g/g/d]=0.134*w[g]^(-0.792) Micropterus salmoides Schramm and Smith (1987)sg_mu[g/g/d]=0.616E-01*w[g]^(-0.620) Micropterus salmoides Schramm and Smith (1987)sg_mu[g/g/d]=0.389E-01*w[g]^(-0.561) Micropterus salmoides Schramm and Smith (1987)sg_mu[g/g/d]=0.147*w[g]^(-0.848) Micropterus salmoides Schramm and Smith (1987)sg_mu[g/g/d]=0.188E-01*w[g]^(-0.456) Micropterus salmoides Schramm and Smith (1987)sg_mu[g/g/d]=0.918E-01*w[g]^(-0.608) Micropterus salmoides Schultze (1974)sg_mu[g/g/d]=0.267E-01*w[g]^(-0.616) Micropterus salmoides Surmont (1999)sg_mu[g/g/d]=0.770*w[g]^(-1.028) Micropterus salmoides Tharratt (1966)sg_mu[g/g/d]=0.461E-01*w[g]^(-0.692) Micropterus salmoides Whitworth (1989), Beckwith et sg_mu[g/g/d]=0.156*w[g]^(-0.856) Micropterus salmoides Whitworth (1989), Beckwith et 

sg_mu[g/g/d]=0.385E-01*w[g]^(-0.671) Micropterus salmoides Whitworth (1989), Beckwith et sg_mu[g/g/d]=0.302*w[g]^(-0.951) Micropterus salmoides Zweiacker et al. (1972)sg_mu[g/g/d]=0.238*w[g]^(-1.189) Morone americana Bath and O'Connor (1982)sg_mu[g/g/d]=1.02*w[g]^(-1.301) Morone americana Marcy and Richards (1974)sg_mu[g/g/d]=23.3*w[g]^(-1.528) Morone chrysops Houser and Bryant (1970)sg_mu[g/g/d]=32.7*w[g]^(-1.595) Morone chrysops Houser and Bryant (1970)sg_mu[g/g/d]=0.568*w[g]^(-0.998) Morone chrysops Nelson (1974)sg_mu[g/g/d]=41.1*w[g]^(-1.639) Morone chrysops Nordhaus et al. (1998)sg_mu[g/g/d]=0.568*w[g]^(-1.210) Morone chrysops Priegel (1971)
DRAFT August 1, 2012 39

sg_mu[g/g/d]=1.61*w[g]^(-1.286) Morone chrysops Ruelle (1971)

sg_mu[g/g/d]=1.66*w[g]^(-1.239) Morone chrysops Ruelle (1971)sg_mu[g/g/d]=0.654E+04*w[g]^(-2.425) Morone chrysops Webb and Moss (1967)sg_mu[g/g/d]=0.413E+04*w[g]^(-2.261) Morone chrysops Webb and Moss (1967)sg_mu[g/g/d]=0.359*w[g]^(-1.065) Morone mississippiensis Priegel (1975)sg_mu[g/g/d]=1.07*w[g]^(-0.871) Morone saxatilis Collins (1982)sg_mu[g/g/d]=1.15*w[g]^(-0.922) Morone saxatilis Hanson and Dillard (1975)sg_mu[g/g/d]=0.915*w[g]^(-0.817) Morone saxatilis Kinman (1988)sg_mu[g/g/d]=0.534*w[g]^(-0.779) Morone saxatilis Mensinger (1970)sg_mu[g/g/d]=0.527*w[g]^(-0.823) Morone saxatilis Harris (1988)sg_mu[g/g/d]=0.796E-03*w[g]^0.000 Morone saxatilis Magnin and Beaulieu (1967)sg_mu[g/g/d]=0.195*w[g]^(-0.738) Morone saxatilis Williamson (1974)sg_mu[g/g/d]=0.132*w[g]^(-0.652) Morone saxatilis Williamson (1974)sg_mu[g/g/d]=0.223*w[g]^(-0.618) Morone saxatilis van Den Avyle and Higginbotha

sg_mu[g/g/d]=111.*w[g]^(-1.614) Morone saxatilis x chrysops Germann and Bunch (1983)sg_mu[g/g/d]=0.670*w[g]^(-0.987) Moxostoma anisurum Hackney et al. (1970)sg_mu[g/g/d]=0.593*w[g]^(-0.889) Moxostoma carinatum Tatum and Hackney (1969)sg_mu[g/g/d]=0.146*w[g]^(-0.683) Moxostoma carinatum Tatum and Hackney (1969)sg_mu[g/g/d]=0.266E-01*w[g]^(-0.700) Moxostoma duquesnei Bowman (1970)sg_mu[g/g/d]=0.209*w[g]^(-1.061) Moxostoma duquesnei Bowman (1970)sg_mu[g/g/d]=0.600*w[g]^(-0.716) Moxostoma erythrurum Meyer (1962)sg_mu[g/g/d]=0.153E-02*w[g]^0.000 Moxostoma macrolepidotum Meyer (1962)sg_mu[g/g/d]=0.243E-01*w[g]^(-1.554) Notropis hudsonius Smith and Kraemer (1964)sg_mu[g/g/d]=0.374E-02*w[g]^(-0.940) Noturus hildebrandi Mayden and Walsh (1984)sg_mu[g/g/d]=0.802E-02*w[g]^(-1.411) Noturus miurus Burr and Mayden (1982)sg_mu[g/g/d]=0.421E-01*w[g]^(-0.578) Oncorhynchus clarki Bjornn (1961)sg_mu[g/g/d]=0.775E-02*w[g]^(-0.526) Oncorhynchus clarki Cooper (1970)sg_mu[g/g/d]=0.773*w[g]^(-0.929) Oncorhynchus clarki Irving (1954)sg_mu[g/g/d]=0.136E-02*w[g]^(-0.535) Oncorhynchus mykiss Coulston and Maughan (1981)sg_mu[g/g/d]=0.237E-02*w[g]^(-0.116) Oncorhynchus mykiss Nagel and Deaton (1989)sg_mu[g/g/d]=0.600*w[g]^(-1.000) Oncorhynchus mykiss Varley et al. (1971)sg_mu[g/g/d]=0.291E-01*w[g]^(-0.911) Osmerus mordax Bailey (1964)sg_mu[g/g/d]=0.676E-02*w[g]^(-0.366) Perca flavescens Brown and Logan (1960)sg_mu[g/g/d]=0.252E-01*w[g]^(-0.622) Perca flavescens Clugston et al. (1978)sg_mu[g/g/d]=0.247E-01*w[g]^(-0.587) Perca flavescens Guy and Willis (1991)sg_mu[g/g/d]=0.380E-01*w[g]^(-0.881) Perca flavescens Joeris (1956)
DRAFT August 1, 2012 40

sg_mu[g/g/d]=0.284E-01*w[g]^(-0.730) Perca flavescens Nelson (1974)

sg_mu[g/g/d]=1.58*w[g]^(-1.462) Perca flavescens Paxton and Stevenson (1978)sg_mu[g/g/d]=0.166*w[g]^(-1.083) Perca flavescens Paxton and Stevenson (1978)sg_mu[g/g/d]=0.137E-01*w[g]^(-1.127) Percopsis omiscomaycus House and Wells (1973)sg_mu[g/g/d]=0.816E-02*w[g]^(-1.079) Percopsis transmontana Gray and Dauble (1979)sg_mu[g/g/d]=0.147*w[g]^(-0.693) Polyodon_spathula Bronte and Johnson (1985)sg_mu[g/g/d]=0.617E-01*w[g]^(-0.596) Polyodon_spathula Bronte and Johnson (1985)sg_mu[g/g/d]=1.96*w[g]^(-0.900) Polyodon_spathula Bronte and Johnson (1985)sg_mu[g/g/d]=0.151*w[g]^(-0.606) Polyodon_spathula Bronte and Johnson (1985)sg_mu[g/g/d]=1.12*w[g]^(-0.928) Polyodon_spathula Hoffnagle and Timmons (1989)sg_mu[g/g/d]=1.98*w[g]^(-0.875) Polyodon_spathula Reed et al. (1992)sg_mu[g/g/d]=127.*w[g]^(-1.363) Polyodon_spathula Reed et al. (1992)sg_mu[g/g/d]=28.5*w[g]^(-1.145) Polyodon_spathula Reed et al. (1992)sg_mu[g/g/d]=0.841E-01*w[g]^(-0.850) Pomoxis annularis Gabelhouse (1984)sg_mu[g/g/d]=0.111*w[g]^(-0.839) Pomoxis annularis Gabelhouse (1984)sg_mu[g/g/d]=0.101E-01*w[g]^(-0.444) Pomoxis annularis Gabelhouse (1984)sg_mu[g/g/d]=0.234E-01*w[g]^(-0.583) Pomoxis annularis Johnson and Andrews (1973)sg_mu[g/g/d]=0.315E-01*w[g]^(-0.613) Pomoxis annularis Li et al. (1976)sg_mu[g/g/d]=0.520E-01*w[g]^(-0.598) Pomoxis annularis Mosher (1984)sg_mu[g/g/d]=0.320*w[g]^(-0.960) Pomoxis annularis Nelson (1974)sg_mu[g/g/d]=0.396E-01*w[g]^(-0.562) Pomoxis annularis Parrish et al. (1986)sg_mu[g/g/d]=0.378E-01*w[g]^(-0.584) Pomoxis annularis Reed and Davies (1991)sg_mu[g/g/d]=0.437E-01*w[g]^(-0.706) Pomoxis annularis Siefert (1969)sg_mu[g/g/d]=0.457E-02*w[g]^(-0.155) Pomoxis annularis Surmont (1999)sg_mu[g/g/d]=0.608E-01*w[g]^(-0.762) Pomoxis annularis Willis et al. (1984)sg_mu[g/g/d]=0.139E-01*w[g]^(-0.682) Pomoxis nigromaculatus Brown and Logan (1960)sg_mu[g/g/d]=0.980E-01*w[g]^(-0.866) Pomoxis nigromaculatus Gabelhouse (1984)sg_mu[g/g/d]=0.129*w[g]^(-0.854) Pomoxis nigromaculatus Gabelhouse (1984)sg_mu[g/g/d]=0.116E-01*w[g]^(-0.468) Pomoxis nigromaculatus Gabelhouse (1984)sg_mu[g/g/d]=0.564E-01*w[g]^(-0.702) Pomoxis nigromaculatus Larson et al. (1991)sg_mu[g/g/d]=0.504E-01*w[g]^(-0.653) Pomoxis nigromaculatus Larson et al. (1991)sg_mu[g/g/d]=0.535E-01*w[g]^(-0.601) Pomoxis nigromaculatus Larson et al. (1991)sg_mu[g/g/d]=0.212E-01*w[g]^(-0.550) Pomoxis nigromaculatus Li et al. (1976)sg_mu[g/g/d]=0.130*w[g]^(-0.854) Pomoxis nigromaculatus Miller et al. (1990)sg_mu[g/g/d]=0.293E-01*w[g]^(-0.548) Pomoxis nigromaculatus Mosher (1984)sg_mu[g/g/d]=0.748E-01*w[g]^(-0.735) Pomoxis nigromaculatus Nelson (1974)
DRAFT August 1, 2012 41

sg_mu[g/g/d]=0.263E-01*w[g]^(-0.475) Pomoxis nigromaculatus Reed and Davies (1991)

sg_mu[g/g/d]=0.215E-01*w[g]^(-0.534) Pomoxis nigromaculatus Willis et al. (1984)sg_mu[g/g/d]=0.161*w[g]^(-0.863) Prosopium cylindraceum Mraz (1964)sg_mu[g/g/d]=0.118E-01*w[g]^(-0.530) Prosopium cylindraceum Mackay and Power (1968)sg_mu[g/g/d]=0.121*w[g]^(-0.969) Prosopium williamsoni Pettit and Wallace (1975)sg_mu[g/g/d]=0.857E-01*w[g]^(-0.894) Prosopium williamsoni Pettit and Wallace (1975)sg_mu[g/g/d]=0.175*w[g]^(-1.062) Prosopium williamsoni Pettit and Wallace (1975)sg_mu[g/g/d]=0.469E-01*w[g]^(-0.622) Ptychocheilus_lucius Vanicek and Kramer (1969)sg_mu[g/g/d]=0.121*w[g]^(-0.613) Pylodictis olivaris Mayhew (1969)sg_mu[g/g/d]=0.483E-02*w[g]^(-0.404) Pylodictis olivaris Minckley and Deacon (1959)sg_mu[g/g/d]=0.948E-01*w[g]^(-0.547) Pylodictis olivaris Pisano (1983)sg_mu[g/g/d]=0.128E-02*w[g]^0.000 Pylodictis olivaris Purkett (1957)sg_mu[g/g/d]=0.769*w[g]^(-0.814) Pylodictis olivaris Quinn (1988)sg_mu[g/g/d]=0.174*w[g]^(-0.600) Pylodictis olivaris Young and Marsh (1990)sg_mu[g/g/d]=0.126*w[g]^(-0.682) Pylodictis olivaris Young and Marsh (1990)sg_mu[g/g/d]=0.978E-01*w[g]^(-0.551) Pylodictis olivaris Young and Marsh (1990)sg_mu[g/g/d]=0.108*w[g]^(-0.563) Pylodictis olivaris Young and Marsh (1990)sg_mu[g/g/d]=0.267E-02*w[g]^(-0.134) Rhinichthys atratulus Reed and Moulton (1973)sg_mu[g/g/d]=0.235E-02*w[g]^(-0.173) Rhinichthys atratulus Reed and Moulton (1973)sg_mu[g/g/d]=0.354E-02*w[g]^(-0.524) Rhinichthys cataractae Reed and Moulton (1973), Kuehsg_mu[g/g/d]=0.309E-02*w[g]^(-0.503) Rhinichthys cataractae Reed and Moulton (1973), Reed 

sg_mu[g/g/d]=26.6*w[g]^(-1.589) Salmo salar Havey (1973)sg_mu[g/g/d]=0.121*w[g]^(-0.754) Salvelinus alpinus Everhart and Waters (1965)sg_mu[g/g/d]=0.360E-01*w[g]^(-0.975) Salvelinus fontinalis Konopacky and Estes (1986)sg_mu[g/g/d]=0.201E-01*w[g]^(-0.751) Salvelinus fontinalis Konopacky and Estes (1986)sg_mu[g/g/d]=0.915E-02*w[g]^(-0.459) Salvelinus fontinalis Konopacky and Estes (1986)sg_mu[g/g/d]=0.505*w[g]^(-0.838) Salvelinus namaycush Borgmann and Whittle (1992)sg_mu[g/g/d]=0.187*w[g]^(-0.724) Salvelinus namaycush Bridges and Hambly (1971)sg_mu[g/g/d]=0.201*w[g]^(-0.552) Salvelinus namaycush Hanson and Cordone (1967)sg_mu[g/g/d]=0.915E-02*w[g]^(-0.307) Salvelinus namaycush Rahrer (1965)sg_mu[g/g/d]=0.936E-02*w[g]^(-0.261) Salvelinus namaycush Rahrer (1967)sg_mu[g/g/d]=0.229*w[g]^(-0.517) Salvelinus namaycush Webster et al. (1960)sg_mu[g/g/d]=0.731*w[g]^(-0.645) Salvelinus namaycush Webster et al. (1960)sg_mu[g/g/d]=0.131E-01*w[g]^(-0.382) Semotilus atromaculatus Schemske (1974)sg_mu[g/g/d]=0.779E-01*w[g]^(-0.708) Semotilus corporalis Reed (1971)sg_mu[g/g/d]=0.220E-02*w[g]^(-0.105) Semotilus corporalis Reed (1971)
DRAFT August 1, 2012 42

sg_mu[g/g/d]=0.189E-02*w[g]^0.000 Semotilus corporalis Reed (1971)

sg_mu[g/g/d]=0.918E-02*w[g]^(-0.355) Semotilus corporalis Reed (1971)sg_mu[g/g/d]=0.877E-02*w[g]^(-0.432) Semotilus corporalis Reed (1971)sg_mu[g/g/d]=0.341*w[g]^(-0.884) Stizostedion canadense Nelson (1969)sg_mu[g/g/d]=0.433*w[g]^(-0.944) Stizostedion canadense Nelson (1974)sg_mu[g/g/d]=0.232E-01*w[g]^(-0.526) Stizostedion canadense Surmont (1999)sg_mu[g/g/d]=0.260*w[g]^(-0.810) Stizostedion vitreum Carlander and Whitney (1961), 

sg_mu[g/g/d]=5.27*w[g]^(-1.487) Stizostedion vitreum Davis et al. (1979)sg_mu[g/g/d]=0.501*w[g]^(-0.880) Stizostedion vitreum Kinman (1990)sg_mu[g/g/d]=0.339*w[g]^(-0.809) Stizostedion vitreum Lewis (1970)sg_mu[g/g/d]=0.783*w[g]^(-0.930) Stizostedion vitreum Maule and Horton (1985)sg_mu[g/g/d]=0.371*w[g]^(-0.892) Stizostedion vitreum Moss et al. (1985)sg_mu[g/g/d]=0.713*w[g]^(-0.949) Stizostedion vitreum Nelson (1974)sg_mu[g/g/d]=0.756E-01*w[g]^(-0.784) Stizostedion vitreum Smith and Pycha (1961)sg_mu[g/g/d]=0.249*w[g]^(-0.753) Stizostedion vitreum Wolfert (1977)sg_mu[g/g/d]=0.633*w[g]^(-0.900) Stizostedion vitreum Wolfert (1977)sg_mu[g/g/d]=0.279E-01*w[g]^(-0.736) Tylochromis bangwelensis Griffith (1977)Size of satiation mealsm[g(dw)]=0.779E-01*w[g]^0.662*EXP(0.00*t[celsius]) Oncorhynchus masou Nagata (1989)sm[g(dw)]=0.546E-01*w[g]^0.723*EXP(0.00*t[celsius]) Oncorhynchus masou Nagata (1989)sm[g(dw)]=0.847E-02*w[g]^0.999*EXP(0.109*t[celsius]) Oncorhynchus mykiss Grove et al. (1978)sm[g(dw)](10.8)=0.122E-01*w[g]^0.750 Oncorhynchus mykiss Ruohonen et al. (1997)sm[g(dw)](10.8)=0.730E-02*w[g]^0.750 Oncorhynchus mykiss Ruohonen et al. (1997)sm[g(dw)](10.8)=0.142E-01*w[g]^0.750 Oncorhynchus mykiss Ruohonen et al. (1997)sm[g(dw)](10.8)=0.121E-01*w[g]^0.750 Oncorhynchus mykiss Ruohonen et al. (1997)sm[g(dw)]=0.182E-02*w[g]^0.757*H(0.287,16.2,22.1) Salmo trutta Elliott (1975)Standard oxygen consumption rateso[mg(o2)/hr]=a*w[g]^b*EXP(c*t[celsius]) a=0.480E-01 (sd=1.482; n=54) interspeciesso[mg(o2)/hr]=a*w[g]^b*EXP(c*t[celsius]) b=0.817 (sd=0.120; n=54) interspeciesso[mg(o2)/hr]=a*w[g]^b*EXP(c*t[celsius]) Ln(a)=-0.519-3.082*b (r2=0.063; n=54) interspeciesso[mg(o2)/hr]=a*w[g]^b*EXP(c*t[celsius]) c=0.083 (sd=0.052; n=54) interspeciesso[mg(o2)/hr]=a*w[g]^b*H(c,t1,t2) a=0.616E-01 (sd=0.998; n=30) interspeciesso[mg(o2)/hr]=a*w[g]^b*H(c,t1,t2) b=0.790 (sd=0.111; n=30) interspeciesso[mg(o2)/hr]=a*w[g]^b*H(c,t1,t2) Ln(a)=1.705-5.687*b (r2=0.403; n=30) interspecies
DRAFT August 1, 2012 43

so[mg(o2)/hr]=a*w[g]^b*H(c,t1,t2) c=0.100 (sd=0.033; n=30) interspecies

so[mg(o2)/hr](0<t[celsius]<5)=a*w[g]^b a=0.767E-01 (sd=0.726; n=3) interspeciesso[mg(o2)/hr](0<t[celsius]<5)=a*w[g]^b b=0.783 (sd=0.051; n=3) interspeciesso[mg(o2)/hr](5<t[celsius]<10)=a*w[g]^b a=0.466E-01 (sd=1.197; n=14) interspeciesso[mg(o2)/hr](5<t[celsius]<10)=a*w[g]^b b=0.925 (sd=0.140; n=14) interspeciesso[mg(o2)/hr](10<t[celsius]<15)=a*w[g]^b a=0.791E-01 (sd=1.534; n=21) interspeciesso[mg(o2)/hr](10<t[celsius]<15)=a*w[g]^b b=0.893 (sd=0.144; n=21) interspeciesso[mg(o2)/hr](15<t[celsius]<20)=a*w[g]^b a=0.139 (sd=1.324; n=33) interspeciesso[mg(o2)/hr](15<t[celsius]<20)=a*w[g]^b b=0.840 (sd=0.148; n=33) interspeciesso[mg(o2)/hr](20<t[celsius]<25)=a*w[g]^b a=0.127 (sd=1.310; n=42) interspeciesso[mg(o2)/hr](20<t[celsius]<25)=a*w[g]^b b=0.804 (sd=0.119; n=42) interspeciesso[mg(o2)/hr](25<t[celsius]<30)=a*w[g]^b a=0.142 (sd=1.443; n=32) interspeciesso[mg(o2)/hr](25<t[celsius]<30)=a*w[g]^b b=0.768 (sd=0.106; n=32) interspeciesso[mg(o2)/hr]=0.191*w[g]^0.785*EXP(0.548E-01*t[celsius]) Alosa pseudoharengus Stewart and Binkowski (1986)

so[mg(o2)/hr](10.0)=0.490E-02*w[g]^1.282 Ameiurus nebulosus Glass (1969)so[mg(o2)/hr](20.0)=0.103*w[g]^0.901 Ameiurus nebulosus Glass (1969)so[mg(o2)/hr](30.0)=0.193*w[g]^0.863 Ameiurus nebulosus Glass (1969)so[mg(o2)/hr]=0.717E-02*w[g]^1.015*EXP(0.929E-01*t[celsius]) Ameiurus nebulosus Glass (1969)so[mg(o2)/hr]=0.395E-01*w[g]^1.047*EXP(0.527E-01*t[celsius]) Ameiurus spp. Campbell and Branson (1978), 

so[mg(o2)/hr](18.0)=0.380E-02*w[g]^1.291 Anguilla_anguilla Degani et al. (1989)so[mg(o2)/hr](20.0)=0.213*w[g]^0.773 Anguilla_anguilla Degani et al. (1989)so[mg(o2)/hr](24.0)=0.466*w[g]^0.678 Anguilla_anguilla Degani et al. (1989)so[mg(o2)/hr](27.0)=0.558*w[g]^0.689 Anguilla_anguilla Degani et al. (1989)so[mg(o2)/hr]=0.340E-03*w[g]^0.858*EXP(0.264*t[celsius]) Anguilla_anguilla Degani et al. (1989)so[mg(o2)/hr](25.0)=0.230*w[g]^0.707 Anguilla japonica Degani et al. (1989)so[mg(o2)/hr](25.0)=0.396*w[g]^1.097 Anguilla mossambica Degani et al. (1989)so[mg(o2)/hr](25.0)=0.560*w[g]^0.640 Anguilla rostrata Degani et al. (1989)so[mg(o2)/hr]=0.546E-01*w[g]^0.721*EXP(0.865E-01*t[celsius]) Barbus aeneus Eccles (1985)so[mg(o2)/hr](25.0)=0.134E-01*w[g]^0.906 Carassius auratus Cui and Liu (1990b)so[mg(o2)/hr](10.0)=0.498E-01*w[g]^0.921 Catostomus commersoni Glass (1969)so[mg(o2)/hr](15.0)=0.163*w[g]^0.834 Catostomus commersoni Glass (1969)so[mg(o2)/hr](20.0)=0.417*w[g]^0.705 Catostomus commersoni Glass (1969)so[mg(o2)/hr]=0.170E-01*w[g]^0.820*EXP(0.145*t[celsius]) Catostomus commersoni Glass (1969)so[mg(o2)/hr](10.0)=0.720E-01*w[g]^0.872 Channa argus Liu et al. (2000)so[mg(o2)/hr](15.0)=0.109*w[g]^0.856 Channa argus Liu et al. (2000)so[mg(o2)/hr](20.0)=0.263*w[g]^0.812 Channa argus Liu et al. (2000)
DRAFT August 1, 2012 44

so[mg(o2)/hr](25.0)=0.503*w[g]^0.745 Channa argus Liu et al. (2000)

so[mg(o2)/hr](30.0)=0.778*w[g]^0.705 Channa argus Liu et al. (2000)so[mg(o2)/hr](35.0)=0.967*w[g]^0.685 Channa argus Liu et al. (2000)so[mg(o2)/hr]=0.699E-01*w[g]^0.779*EXP(0.653E-01*t[celsius]) Channa argus Liu et al. (2000)so[mg(o2)/hr]=0.542E-01*w[g]^0.774*H(0.811E-01,35.0,38.0) Channa striatus Qin et al. (1997)so[mg(o2)/hr](28.0)=0.998*w[g]^0.764 Clarias gariepinus Conceição et al. (1998)so[mg(o2)/hr]=0.750E-01*w[g]^0.888*EXP(0.470E-01*t[celsius]) Coregonus artedii McDermot and Rose (2000)so[mg(o2)/hr]=0.750E-01*w[g]^0.880*EXP(0.470E-01*t[celsius]) Coregonus hoyi Rudstam et al. (1994)so[mg(o2)/hr]=0.243*w[g]^0.947*EXP(0.506E-01*t[celsius]) Coregonus lavaretus Huuskonen et al. (1998)so[mg(o2)/hr]=0.135*w[g]^0.891*EXP(0.318E-01*t[celsius]) Coregonus sardinella Wohlschlag (1957)so[mg(o2)/hr](10.0)=0.271*w[g]^0.862 Coregonus spp. Dabrowska and Kaushik (1984)so[mg(o2)/hr](15.0)=0.471*w[g]^0.645 Ctenopharyngodon idella Wiley and Wike (1986)so[mg(o2)/hr](20.0)=0.641*w[g]^0.645 Ctenopharyngodon idella Wiley and Wike (1986)so[mg(o2)/hr](25.0)=0.814*w[g]^0.645 Ctenopharyngodon idella Wiley and Wike (1986)so[mg(o2)/hr](30.0)=0.990*w[g]^0.645 Ctenopharyngodon idella Wiley and Wike (1986)so[mg(o2)/hr]=0.288E-01*w[g]^0.685*EXP(0.800E-01*t[celsius]) Cyprinodontid_poeciliid Glass (1969), Jordan et al. (199

Murphy and Murphy (1971), and Nordlie et al. (1991)so[mg(o2)/hr](25.0)=0.138E-01*w[g]^0.816 Cyprinus carpio Cui and Liu (1990b)so[mg(o2)/hr](10.0)=0.214E-01*w[g]^0.972 Cyprinus carpio Glass (1969)so[mg(o2)/hr](20.0)=0.837E-01*w[g]^0.895 Cyprinus carpio Glass (1969)so[mg(o2)/hr](30.0)=0.234*w[g]^0.864 Cyprinus carpio Glass (1969)so[mg(o2)/hr]=0.109E-01*w[g]^0.910*EXP(0.962E-01*t[celsius]) Cyprinus carpio Glass (1969)so[mg(o2)/hr](20.0)=0.210E-01*w[g]^0.800 Cyprinus carpio Ohlberger et al. (2005)so[mg(o2)/hr](20.0)=0.212*w[g]^0.847 Cyprinus carpio Oikawa and Itazawa (1984)so[mg(o2)/hr]=0.102*w[g]^0.820*EXP(0.550E-01*t[celsius]) Esox lucius Bevelhimer et al. (1985)so[mg(o2)/hr]=0.102*w[g]^0.820*EXP(0.800E-01*t[celsius]) Esox lucius Heikinheimo and Korhonen (19so[mg(o2)/hr]=0.102*w[g]^0.820*EXP(0.550E-01*t[celsius]) Esox lucius McDermot and Rose (2000)so[mg(o2)/hr]=0.102*w[g]^0.820*EXP(0.550E-01*t[celsius]) Esox lucius_x_masquinongy Schoenebeck et al. (2008)

so[mg(o2)/hr]=0.102*w[g]^0.820*EXP(0.550E-01*t[celsius]) Esox masquinongy Bevelhimer et al. (1985)so[mg(o2)/hr](16.0)=0.258*w[g]^0.593 Fundulus parvipinnis Glass (1969)so[mg(o2)/hr]=0.108*w[g]^0.830*H(0.117,29.0,36.0) Fundulus parvipinnis Madon et al. (2001)so[mg(o2)/hr](28.0)=0.201*w[g]^0.640 Gambusia sp. Mitz and Newman (1989)so[mg(o2)/hr]=0.732E-01*w[g]^0.526*EXP(0.810E-01*t[celsius]) Gila atraria Rajagopal and Kramer (1974)so[mg(o2)/hr]=0.213E-01*w[g]^0.916*H(0.110,28.2,31.6) Gila cypha Petersen and Paukert (2005)so[mg(o2)/hr](22.0)=0.458*w[g]^0.632 Glossogobius giuris Singh and Munshi (1985)so[mg(o2)/hr](26.0)=0.243*w[g]^0.733 Gymnotiform_fishes Julian et Al.(2003)
DRAFT August 1, 2012 45

so[mg(o2)/hr]=0.165E-01*w[g]^1.164*EXP(0.104E-01*t[celsius]) Lepisosteus spp. Rahn et al. (1971), Smatresk an

Jackson (1998)so[mg(o2)/hr](20.0)=0.316*w[g]^0.870 Lepomis gibbosus Davies and Moyes (2007)so[mg(o2)/hr](25.0)=0.106*w[g]^0.710 Lepomis gibbosus O'Hara (1968)so[mg(o2)/hr](30.0)=0.204*w[g]^0.791 Lepomis gibbosus O'Hara (1968)so[mg(o2)/hr]=0.113*w[g]^0.731*EXP(0.589E-01*t[celsius]) Lepomis macrochirus Breck (1993)so[mg(o2)/hr](20.0)=0.191*w[g]^0.930 Lepomis macrochirus Davies and Moyes (2007)so[mg(o2)/hr]=0.500E-01*w[g]^0.800*H(0.953E-01,36.0,40.0) Lepomis macrochirus McDermot and Rose (2000)so[mg(o2)/hr]=0.459E-01*w[g]^0.800*H(0.953E-01,37.0,41.0) Lepomis macrochirus McDermot and Rose (2000)so[mg(o2)/hr](25.0)=0.108*w[g]^0.717 Lepomis macrochirus O'Hara (1968)so[mg(o2)/hr](30.0)=0.164*w[g]^0.749 Lepomis macrochirus O'Hara (1968)so[mg(o2)/hr]=0.459E-01*w[g]^0.800*H(0.953E-01,37.0,41.0) Lepomis macrochirus Trebitz (1997)so[mg(o2)/hr]=0.500E-01*w[g]^0.800*H(0.953E-01,36.0,40.0) Lepomis macrochirus Trebitz (1997)so[mg(o2)/hr]=0.202*w[g]^0.804*EXP(0.159E-01*t[celsius]) Lepomis macrochirus Wohlschlag and Juliano (1959)so[mg(o2)/hr]=0.638E-02*w[g]^1.062*EXP(0.131*t[celsius]) Lepomis macrochirus Wohlschlag and Juliano (1959)so[mg(o2)/hr]=0.119*w[g]^0.849*EXP(0.456E-01*t[celsius]) Lepomis macrochirus Wohlschlag and Juliano (1959)so[mg(o2)/hr]=0.117E-01*w[g]^0.862*EXP(0.265*t[celsius]) Lepomis macrochirus Wohlschlag and Juliano (1959)so[mg(o2)/hr]=0.663E-01*w[g]^0.830*EXP(0.712E-01*t[celsius]) Lepomis sp. O'Hara (1968), Evans (1984), BJuliano (1959)so[mg(o2)/hr]=0.126*w[g]^0.828*H(0.660E-01,21.0,24.0) Lota lota Rudstam et al. (1995)so[mg(o2)/hr](25.0)=0.135E-01*w[g]^0.716 Macropodus chinensis Cui and Liu (1990b)so[mg(o2)/hr](25.0)=0.303*w[g]^0.667 Menidia beryllina Peck et al. (2003)so[mg(o2)/hr](20.0)=0.309*w[g]^0.960 Micropterus dolomieui Davies and Moyes (2007)so[mg(o2)/hr]=0.374E-02*w[g]^0.790*H(0.251,30.0,37.0) Micropterus dolomieui Shuter and Post (1990)so[mg(o2)/hr]=1.84*w[g]^0.244*H(0.932E-01,30.0,37.0) Micropterus dolomieui Whitledge et al. (2003)so[mg(o2)/hr]=0.175*w[g]^0.654*EXP(0.589E-01*t[celsius]) Micropterus salmoides Beyers (1999), Glass (1969), Riso[mg(o2)/hr]=0.116*w[g]^0.645*EXP(0.811E-01*t[celsius]) Micropterus salmoides Beyers (1999)so[mg(o2)/hr](20.0)=0.288*w[g]^0.940 Micropterus salmoides Davies and Moyes (2007)so[mg(o2)/hr](12.0)=0.396*w[g]^0.662 Micropterus salmoides Glass (1969)so[mg(o2)/hr](20.0)=0.517*w[g]^0.629 Micropterus salmoides Glass (1969)so[mg(o2)/hr](25.0)=0.402*w[g]^0.779 Micropterus salmoides Glass (1969)so[mg(o2)/hr]=0.348*w[g]^0.645*EXP(0.310E-01*t[celsius]) Micropterus salmoides Rice et al. (1983)so[mg(o2)/hr]=0.116*w[g]^0.645*EXP(0.811E-01*t[celsius]) Micropterus salmoides Trebitz (1997)so[mg(o2)/hr]=0.117*w[g]^0.782*EXP(0.760E-01*t[celsius]) Morone saxatilis Hartman and Brandt (1993, 199so[mg(o2)/hr](15.0)=1.88*w[g]^0.774 Notemigonus crysoleucas Maki et al. (1973)so[mg(o2)/hr]=0.110*w[g]^0.783*EXP(0.682E-01*t[celsius]) Oncorhynchus kisutch Stewart and Ibarra (1991)
DRAFT August 1, 2012 46

so[mg(o2)/hr]=0.830E-01*w[g]^0.793*EXP(0.138*t[celsius]) Oncorhynchus mykiss Muller-feuga et al. (1978)

so[mg(o2)/hr](5.0)=0.155*w[g]^0.784 Oncorhynchus mykiss Rao (1968)

so[mg(o2)/hr](15.0)=0.306*w[g]^0.783 Oncorhynchus mykiss Rao (1968)so[mg(o2)/hr]=0.110*w[g]^0.783*EXP(0.682E-01*t[celsius]) Oncorhynchus mykiss Rand et al. (1993)so[mg(o2)/hr]=0.144*w[g]^0.730*EXP(0.560E-01*t[celsius]) Oncorhynchus mykiss Trudel and Welch (2005)so[mg(o2)/hr]=0.596E-01*w[g]^0.791*EXP(0.860E-01*t[celsius]) Oncorhynchus nerka Beauchamp et al. (1989)so[mg(o2)/hr](5.3)=0.565E-01*w[g]^0.914 Oncorhynchus nerka Brett and Glass (1973)so[mg(o2)/hr](15.0)=0.150*w[g]^0.846 Oncorhynchus nerka Brett and Glass (1973)so[mg(o2)/hr](20.0)=0.199*w[g]^0.884 Oncorhynchus nerka Brett and Glass (1973)so[mg(o2)/hr]=0.429E-01*w[g]^0.882*EXP(0.759E-01*t[celsius]) Oncorhynchus nerka Brett and Glass (1973)so[mg(o2)/hr]=0.529E-01*w[g]^0.870*EXP(0.640E-01*t[celsius]) Oncorhynchus nerka Trudel and Welch (2005)so[mg(o2)/hr]=0.110*w[g]^0.783*EXP(0.682E-01*t[celsius]) Oncorhynchus tshawytscha Stewart and Ibarra (1991)so[mg(o2)/hr](25.0)=0.145E-01*w[g]^0.928 Oreochromis mossambicus Cui and Liu (1990b)so[mg(o2)/hr](25.0)=0.243*w[g]^0.754 Oreochromis niloticus Yamamoto (1992)so[mg(o2)/hr]=0.112*w[g]^0.784*EXP(0.360E-01*t[celsius]) Osmerus mordax Lantry and Stewart (1993)so[mg(o2)/hr](25.0)=0.127*w[g]^0.736 Panaque maccus Nelson (2002)so[mg(o2)/hr](25.0)=0.127*w[g]^0.736 Panaque nigrolineatus Nelson (2002)so[mg(o2)/hr]=0.100E-01*w[g]^0.720*EXP(0.190*t[celsius]) Perca flavescens Enders et al. (2006)so[mg(o2)/hr]=0.610E-01*w[g]^0.800*H(0.811E-01,32.0,35.0) Perca flavescens Kitchell et al. (1977)so[mg(o2)/hr]=0.613E-01*w[g]^0.800*H(0.107,28.0,33.0) Perca flavescens Kitchell et al. (1977)so[mg(o2)/hr]=0.690E-01*w[g]^0.800*H(0.953E-01,28.0,32.0) Perca flavescens McDermot and Rose (2000)so[mg(o2)/hr]=0.844E-01*w[g]^0.800*H(0.635E-01,32.0,34.0) Perca flavescens McDermot and Rose (2000)so[mg(o2)/hr]=0.613E-01*w[g]^0.800*H(0.107,28.0,33.0) Perca flavescens Post (1990)so[mg(o2)/hr]=0.610E-01*w[g]^0.800*H(0.811E-01,32.0,35.0) Perca flavescens Post (1990)so[mg(o2)/hr]=0.610E-01*w[g]^0.800*H(0.811E-01,32.0,35.0) Perca flavescens Rose et al. (1999)so[mg(o2)/hr]=0.613E-01*w[g]^0.800*H(0.107,28.0,33.0) Perca flavescens Rose et al. (1999)so[mg(o2)/hr]=0.610E-01*w[g]^0.800*H(0.811E-01,32.0,35.0) Perca fluviatilis Shuter and Post (1990)so[mg(o2)/hr]=0.104*w[g]^0.800*H(0.811E-01,29.0,32.0) Phoxinus eosxneogaeus Trudel and Boisclair (1994)so[mg(o2)/hr]=0.423E-01*w[g]^0.800*H(0.811E-01,29.0,32.0) Phoxinus eosxneogaeus Gauthier and Boisclair (1997)so[mg(o2)/hr]=0.550E-01*w[g]^0.959*H(0.878E-01,28.0,30.0) Pimephales promelas Duffy (1998)so[mg(o2)/hr]=0.771E-01*w[g]^1.053*EXP(0.111*t[celsius]) Pimephales promelas Wares and Igram (1979)so[mg(o2)/hr](25.0)=0.143E-01*w[g]^0.999 Psuedobarus fulvidraco Cui and Liu (1990b)so[mg(o2)/hr](25.0)=0.128E-01*w[g]^0.857 Psuedorasbora parva Cui and Liu (1990b)so[mg(o2)/hr]=0.687E-01*w[g]^0.715*EXP(0.105*t[celsius]) Ptychocheilus oregonensis Cech et al. (1994)so[mg(o2)/hr]=0.687E-01*w[g]^0.715*EXP(0.105*t[celsius]) Ptychocheilus oregonensis Petersen and Ward (1999)so[mg(o2)/hr]=0.405E-01*w[g]^0.823*EXP(0.216*t[celsius]) Pungitius pungitius Cameron et al. (1973)
DRAFT August 1, 2012 47

so[mg(o2)/hr](18.0)=0.424*w[g]^0.486 Rhinichthys osculus Rajagopal and Kramer (1974)

so[mg(o2)/hr]=0.340E-01*w[g]^0.760*EXP(0.880E-01*t[celsius]) Rutilus rutilus Hölker and Breckling (2002)so[mg(o2)/hr]=0.808E-04*w[g]^0.750*EXP(0.640E-01*t[celsius]) Rutilus rutilus Hölker and Haertel (2004)so[mg(o2)/hr]=0.310E-01*w[g]^0.720*H(0.142,30.0,33.0) Rutilus rutilus Horppila and Peltonen (1997)so[mg(o2)/hr](20.0)=0.240E-01*w[g]^0.930 Rutilus rutilus Ohlberger et al. (2005)so[mg(o2)/hr](10.0)=0.153*w[g]^0.932 Salmo trutta Carrick (1981)so[mg(o2)/hr]=0.542E-01*w[g]^0.731*EXP(0.938E-01*t[celsius]) Salmo trutta Dieterman et al. (2004)so[mg(o2)/hr](10.0)=0.392E-01*w[g]^1.153 Salmo trutta Glass (1969)so[mg(o2)/hr](15.0)=0.881E-01*w[g]^1.063 Salmo trutta Glass (1969)so[mg(o2)/hr](20.0)=0.117*w[g]^1.056 Salmo trutta Glass (1969)so[mg(o2)/hr]=0.289E-01*w[g]^1.091*EXP(0.627E-01*t[celsius]) Salmo trutta Glass (1969)so[mg(o2)/hr](2.0)=0.805E-01*w[g]^0.732 Salvelinus alpinus Holeton (1973)so[mg(o2)/hr](6.0)=0.114*w[g]^0.748 Salvelinus alpinus Holeton (1973)so[mg(o2)/hr](5.0)=0.363E-01*w[g]^0.834 Salvelinus fontinalis Glass (1969)so[mg(o2)/hr](10.0)=0.715E-01*w[g]^0.845 Salvelinus fontinalis Glass (1969)so[mg(o2)/hr](15.0)=0.107*w[g]^0.837 Salvelinus fontinalis Glass (1969)so[mg(o2)/hr](20.0)=0.150*w[g]^0.804 Salvelinus fontinalis Glass (1969)so[mg(o2)/hr]=0.279E-01*w[g]^0.830*EXP(0.847E-01*t[celsius]) Salvelinus fontinalis Glass (1969)so[mg(o2)/hr]=0.193*w[g]^0.705*EXP(0.590E-01*t[celsius]) Salvelinus namaycush Stewart et al. (1983), He and St

so[mg(o2)/hr](10.0)=0.441E-02*w[g]^0.940 Silurus meridionalis Xiaojun and Ruyung (1990)so[mg(o2)/hr](15.0)=0.559E-02*w[g]^0.934 Silurus meridionalis Xiaojun and Ruyung (1990)so[mg(o2)/hr](20.0)=0.115E-01*w[g]^0.834 Silurus meridionalis Xiaojun and Ruyung (1990)so[mg(o2)/hr](25.0)=0.196E-01*w[g]^0.766 Silurus meridionalis Xiaojun and Ruyung (1990)so[mg(o2)/hr](30.0)=0.235E-01*w[g]^0.748 Silurus meridionalis Xiaojun and Ruyung (1990)so[mg(o2)/hr]=0.499E-02*w[g]^0.844*EXP(0.374E-01*t[celsius]) Silurus meridionalis Xiaojun and Ruyung (1990)

so[mg(o2)/hr](10.0)=0.327E-01*w[g]^0.886 Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr](15.0)=0.763E-01*w[g]^0.858 Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr](20.0)=0.204*w[g]^0.806 Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr](25.0)=0.139*w[g]^0.652 Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr](30.0)=0.467*w[g]^0.804 Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr](35.0)=0.537*w[g]^0.838 Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr]=0.208E-01*w[g]^0.807*EXP(0.912E-01*t[celsius]) Siniperca chuatsi Liu et al. (2000)so[mg(o2)/hr]=0.570E-01*w[g]^0.850*EXP(0.691E-01*t[celsius]) Stizostedion canadense Minton and McLean (1982)

so[mg(o2)/hr]=0.672E-01*w[g]^0.800*H(0.107,27.0,32.0) Stizostedion vitreum Kitchell et al. (1977)so[mg(o2)/hr]=0.672E-01*w[g]^0.800*H(0.107,27.0,32.0) Stizostedion vitreum Madon and Culver (1993)so[mg(o2)/hr]=0.860E-01*w[g]^0.780*H(0.107,27.0,32.0) Stizostedion vitreum Madon and Culver (1993)
DRAFT August 1, 2012 48

so[mg(o2)/hr]=0.672E-01*w[g]^0.850*H(0.107,27.0,32.0) Stizostedion vitreum McDermot and Rose (2000)

so[mg(o2)/hr]=0.113*w[g]^0.780*H(0.811E-01,27.0,30.0) Stizostedion vitreum McDermot and Rose (2000)so[mg(o2)/hr]=0.240*w[g]^0.780*H(0.811E-01,27.0,30.0) Stizostedion vitreum Rose et al. (1999)so[mg(o2)/hr]=0.852E-02*w[g]^0.850*H(0.107,27.0,32.0) Stizostedion vitreum Rose et al. (1999)so[mg(o2)/hr](20.0)=0.140*w[g]^0.882 Stizostedion vitreum Tarby (1980)

Feeding time to satiationst[minutes]=24.4*w[g]^0.081*EXP(0.196E-01*t[celsius]) Oncorhynchus mykiss Grove et al. (1978)Minimum total length at sexual maturitytl_r0[cm]=45.7 Lepisosteus platostomus Carlander (1969)tl_r0[cm]=48.3 Lepisosteus platostomus Carlander (1969)Weight-to-fork length relationshipw[g]=a*fl[cm]^b a=0.135E-01 (sd=1.163; n=54) interspeciesw[g]=a*fl[cm]^b b=3.089 (sd=0.206; n=54) interspeciesw[g]=a*fl[cm]^b Ln(a)=6.227-3.410*b (r2=0.364; n=54) interspeciesw[g]=0.396E-02*fl[cm]^3.130 Acipenser transmontanus Semakula and Larkin (1968)w[g]=0.366E-02*fl[cm]^3.150 Acipenser transmontanus Semakula and Larkin (1968)w[g]=0.241E-01*fl[cm]^2.801 Alosa sapidissima Http://www.chesapeake.org/tiesw[g]=0.475E-02*fl[cm]^3.331 Ameiurus catus Borgeson and McCammon (196w[g]=0.722E-02*fl[cm]^3.193 Ameiurus catus Schaffter (1997)w[g]=0.722E-02*fl[cm]^3.193 Ameiurus catus Schaffter (1997)w[g]=0.147E-01*fl[cm]^3.141 Archoplites interruptus Wrenn (1968)w[g]=0.149E-01*fl[cm]^3.132 Archoplites interruptus Aceituno and Vanicek (1976)w[g]=0.146E-01*fl[cm]^3.150 Archoplites interruptus Aceituno and Vanicek (1976)w[g]=0.132*fl[cm]^2.880 Catostomus catostomus Harris (1962)w[g]=0.570E-02*fl[cm]^3.250 Catostomus columbianus Dauble (1980)w[g]=0.603E-01*fl[cm]^2.629 Catostomus commersoni Carlander (1969)w[g]=0.118E-01*fl[cm]^2.996 Catostomus occidentalis Villa (1985)w[g]=0.804E-02*fl[cm]^3.110 Coregonus clupeaformis Carlander (1969)w[g]=0.208E-02*fl[cm]^3.480 Coregonus clupeaformis Qadri (1968)w[g]=0.475E-02*fl[cm]^3.260 Coregonus clupeaformis Qadri (1968)w[g]=0.300E-01*fl[cm]^3.410 Coregonus nasus Muth (1969)w[g]=0.300E-01*fl[cm]^3.410 Coregonus nasus Muth (1969)w[g]=0.423E-02*fl[cm]^3.210 Esox masquinongy Carlander (1969)
DRAFT August 1, 2012 49

w[g]=0.126E-01*fl[cm]^3.235 Hydrocynus vittatus Griffith (1975)

w[g]=0.107*fl[cm]^3.040 Ictalurus punctatus Carlander (1969)w[g]=0.112E-01*fl[cm]^3.260 Lepomis macrochirus Carlander (1977)w[g]=0.168E-01*fl[cm]^3.129 Lepomis macrochirus Tharratt (1966)w[g]=0.488E-01*fl[cm]^2.712 Lepomis microlophus Tharratt (1966)w[g]=0.101E-01*fl[cm]^3.125 Micropterus dolomieui Tharratt (1966)w[g]=0.120E-01*fl[cm]^3.080 Micropterus salmoides Carlander (1977)w[g]=0.869E-02*fl[cm]^3.163 Micropterus salmoides Tharratt (1966)w[g]=0.121E-01*fl[cm]^3.040 Morone saxatilis Carlander (1997)w[g]=0.145E-01*fl[cm]^2.940 Morone saxatilis Harris (1988)w[g]=0.490E-01*fl[cm]^2.710 Morone saxatilis Hogans and Melvin (1984)w[g]=0.145E-01*fl[cm]^3.014 Morone saxatilis Magnin and Beaulieu (1967)w[g]=0.145E-01*fl[cm]^3.014 Morone saxatilis Williamson (1974)w[g]=0.145E-01*fl[cm]^3.014 Morone saxatilis Williamson (1974)w[g]=0.108E-01*fl[cm]^2.954 Oncorhynchus clarki Carlander (1969)w[g]=0.604E-02*fl[cm]^2.900 Oncorhynchus mykiss Carlander (1969)w[g]=0.193E-01*fl[cm]^2.910 Percopsis transmontana Gray and Dauble (1979)w[g]=0.293E-02*fl[cm]^3.197 Polyodon_spathula Bronte and Johnson (1985)w[g]=0.492E-03*fl[cm]^3.534 Polyodon_spathula Bronte and Johnson (1985)w[g]=0.575E-01*fl[cm]^2.822 Polyodon_spathula Bronte and Johnson (1985)w[g]=0.955E-02*fl[cm]^3.100 Polyodon_spathula Bronte and Johnson (1985)w[g]=0.196E-01*fl[cm]^2.940 Polyodon_spathula Hoffnagle and Timmons (1989)w[g]=0.263E-01*fl[cm]^2.850 Polyodon_spathula Reed et al. (1992)w[g]=0.148*fl[cm]^2.510 Polyodon_spathula Reed et al. (1992)w[g]=0.195E-02*fl[cm]^3.460 Polyodon_spathula Reed et al. (1992)w[g]=0.419E-02*fl[cm]^3.200 Prosopium williamsoni Pettit and Wallace (1975)w[g]=0.419E-02*fl[cm]^3.200 Prosopium williamsoni Pettit and Wallace (1975)w[g]=0.581E-02*fl[cm]^3.125 Prosopium williamsoni Pettit and Wallace (1975)w[g]=0.931E-02*fl[cm]^3.085 Ptychocheilus oregonensis Petersen and Ward (1999)w[g]=0.210E-01*fl[cm]^3.125 Salvelinus alpinus Carlander (1969)w[g]=0.101*fl[cm]^3.179 Salvelinus namaycush Hanson and Cordone (1967)w[g]=0.101*fl[cm]^3.179 Salvelinus namaycush Webster et al. (1960)w[g]=0.101*fl[cm]^3.179 Salvelinus namaycush Webster et al. (1960)w[g]=0.112E-01*fl[cm]^3.010 Stizostedion vitreum Maule and Horton (1985)w[g]=0.188E-01*fl[cm]^3.026 Tylochromis bangwelensis Griffith (1977)
DRAFT August 1, 2012 50

Weight-to-standard length relationshipw[g]=a*sl[cm]^b a=0.178E-01 (sd=1.359; n=40) interspecies

w[g]=a*sl[cm]^b b=3.103 (sd=0.223; n=40) interspeciesw[g]=a*sl[cm]^b Ln(a)=3.947-2.570*b (r2=0.179; n=40) interspeciesw[g]=0.372E-01*sl[cm]^3.033 Ambloplites rupestris Redmon and Krumholz (1978)w[g]=0.136E-01*sl[cm]^3.096 Catostomus commersoni Carlander (1969)w[g]=0.152E-01*sl[cm]^3.033 Chrosomus erythrogaster Settles and Hoyt (1976)w[g]=0.159E-01*sl[cm]^3.010 Coregonus clupeaformis Carlander (1969)w[g]=0.791E-03*sl[cm]^3.171 Dorosoma petenense Bryant (1968)w[g]=0.121E-01*sl[cm]^3.120 Etheostoma blennioides Carlander (1997, F52, L55, S35

w[g]=0.121E-01*sl[cm]^3.120 Etheostoma spp Carlander (1997, F52, L55, S35

w[g]=0.174E-01*sl[cm]^2.898 Etheostoma spp Carlander (1997)w[g]=0.121E-01*sl[cm]^3.120 Etheostoma spp Carlander (1997)w[g]=0.174E-01*sl[cm]^2.898 Etheostoma spp Carlander (1997)w[g]=0.174E-01*sl[cm]^2.898 Etheostoma spp Carlander (1997)w[g]=0.485E-01*sl[cm]^2.750 Gila atraria Carlander (1969)w[g]=0.270E-01*sl[cm]^3.138 Lepomis cyanellus Redmon and Krumholz (1978)w[g]=0.191E-01*sl[cm]^3.290 Lepomis gibbosus Copp et al. (2002)w[g]=0.140E-01*sl[cm]^3.504 Lepomis gulosus Redmon and Krumholz (1978)w[g]=0.319E-01*sl[cm]^3.100 Lepomis macrochirus Carlander (1977)w[g]=0.121E-01*sl[cm]^3.585 Lepomis macrochirus Redmon and Krumholz (1978)w[g]=0.359E-01*sl[cm]^3.018 Lepomis macrochirus Serns and Strawn (1975)w[g]=0.306E-01*sl[cm]^3.133 Lepomis macrochirus Serns and Strawn (1975)w[g]=0.186E-01*sl[cm]^3.296 Lepomis megalotis Carlander (1977)w[g]=0.281E-01*sl[cm]^3.250 Lepomis megalotis Redmon and Krumholz (1978)w[g]=0.171E-01*sl[cm]^3.115 Micropterus dolomieui Carlander (1977)w[g]=0.376E-02*sl[cm]^3.586 Micropterus dolomieui Redmon and Krumholz (1978)w[g]=0.194E-01*sl[cm]^3.060 Micropterus salmoides Carlander (1977)w[g]=0.185E-01*sl[cm]^3.106 Micropterus salmoides Redmon and Krumholz (1978)w[g]=0.224E-01*sl[cm]^3.093 Morone americana Bath and O'Connor (1982)w[g]=0.376E-01*sl[cm]^2.891 Morone americana Marcy and Richards (1974)w[g]=0.104E-01*sl[cm]^3.081 Morone chrysops Nordhaus et al. (1998)w[g]=0.229E-01*sl[cm]^2.940 Moxostoma duquesnei Bowman (1970)w[g]=0.229E-01*sl[cm]^2.950 Moxostoma duquesnei Bowman (1970)w[g]=0.120E-01*sl[cm]^3.010 Noturus hildebrandi Mayden and Walsh (1984)w[g]=0.155E-01*sl[cm]^3.070 Noturus miurus Burr and Mayden (1982)
DRAFT August 1, 2012 51

w[g]=13.8*sl[cm]^2.700 Oncorhynchus aguabonita Knapp and Dudley (1990)

w[g]=0.208E-01*sl[cm]^2.953 Oncorhynchus clarki Irving (1954)w[g]=0.540E-02*sl[cm]^3.340 Oncorhynchus mykiss Carlander (1969)w[g]=0.214E-01*sl[cm]^3.046 Pomoxis annularis Carlander (1977)w[g]=0.373E-02*sl[cm]^3.766 Pomoxis annularis Redmon and Krumholz (1978)w[g]=0.309E-01*sl[cm]^2.997 Pomoxis nigromaculatus Carlander (1977)w[g]=0.147E-02*sl[cm]^2.745 Pungitius pungitius Cameron et al. (1973)w[g]=0.133E-01*sl[cm]^3.223 Semotilus atromaculatus Schemske (1974)Weight-to-total length relationshipw[g]=a*tl[cm]^b a=0.803E-02 (sd=1.245; n=231) interspeciesw[g]=a*tl[cm]^b b=3.085 (sd=0.236; n=231) interspeciesw[g]=a*tl[cm]^b Ln(a)=5.130-3.227*b (r2=0.375; n=231) interspeciesw[g]=0.118E-02*tl[cm]^3.348 Acipenser transmontanus Kohlhorst et al. (1980)w[g]=0.603E-02*tl[cm]^3.120 Alosa aestivalis Guest (1988)w[g]=0.296E-02*tl[cm]^3.327 Alosa pseudoharengus O'Gorman et al. (1997)w[g]=0.176E-01*tl[cm]^2.801 Alosa sapidissima Http://www.chesapeake.org/ties

w[g]=0.177E-01*tl[cm]^3.074 Ambloplites cavifrons Bister et al. (2000)w[g]=0.125E-01*tl[cm]^3.155 Ambloplites cavifrons Petrimoulx (1983)w[g]=0.177E-01*tl[cm]^3.074 Ambloplites rupestris Bister et al. (2000)w[g]=0.350E-02*tl[cm]^3.395 Ameiurus catus Bister et al. (2000)w[g]=0.129E-01*tl[cm]^3.085 Ameiurus melas Bister et al. (2000)w[g]=0.721E-02*tl[cm]^3.232 Ameiurus natalis Bister et al. (2000)w[g]=0.107E-01*tl[cm]^3.105 Ameiurus nebulosus Bister et al. (2000)w[g]=0.166E-02*tl[cm]^3.070 Anguilla rostrata Hansen and Eversole (1984)w[g]=0.220E-01*tl[cm]^2.768 Aphredoderus sayanus Shepherd and Huish (1978)w[g]=0.855E-02*tl[cm]^3.107 Aplodinotus_grunniens Childress (1991)w[g]=0.229E-02*tl[cm]^3.460 Aplodinotus_grunniens Dreves et al. (1996)w[g]=0.287E-02*tl[cm]^3.451 Aplodinotus_grunniens Nelson (1974)w[g]=0.860E-02*tl[cm]^3.106 Aplodinotus_grunniens Priegel (1969)w[g]=0.647E-02*tl[cm]^3.190 Aplodinotus_grunniens Purkett (1957)w[g]=0.853E-02*tl[cm]^3.090 Aplodinotus_grunniens Wrenn (1968)w[g]=0.230E-01*tl[cm]^2.962 Archoplites interruptus Imler et al. (1975)w[g]=0.142E-01*tl[cm]^2.992 Carpiodes carpio Bister et al. (2000)w[g]=0.964E-02*tl[cm]^3.099 Carpiodes carpio Morris (1965)w[g]=0.584E-02*tl[cm]^3.248 Carpiodes carpio Nelson (1974)
DRAFT August 1, 2012 52

w[g]=0.531E-01*tl[cm]^2.786 Carpiodes cyprinus Woodward and Wissing (1976)

w[g]=0.571E-01*tl[cm]^2.808 Carpiodes velifer Woodward and Wissing (1976)w[g]=2.04*tl[cm]^2.850 Catostomus catostomus Bailey (1969)w[g]=0.153E-01*tl[cm]^2.940 Catostomus commersoni Bister et al. (2000)w[g]=0.361E-01*tl[cm]^2.704 Catostomus commersoni Carlander (1969)w[g]=0.392E-02*tl[cm]^3.312 Catostomus platyrhynchus Hauser (1969)w[g]=0.392E-02*tl[cm]^3.312 Catostomus platyrhynchus Hauser (1969)w[g]=0.117E-01*tl[cm]^2.972 Catostomus platyrhynchus Wydoski and Wydoski (2002)w[g]=0.300E-02*tl[cm]^3.289 Coregonus clupeaformis Carlander (1969)w[g]=0.407E-02*tl[cm]^3.171 Coregonus clupeaformis Edsall (1960)w[g]=0.556E-02*tl[cm]^3.104 Coregonus hoyi Dryer and Beil (1968)w[g]=0.115E-01*tl[cm]^2.980 Cottus cognatus Craig and Wells (1976)w[g]=0.479E-02*tl[cm]^3.140 Cycleptus elongatus Moss et al. (1983)w[g]=0.794E-03*tl[cm]^3.590 Cycleptus elongatus Rupprecht and Jahn (1980)w[g]=0.794E-03*tl[cm]^3.590 Cycleptus elongatus Hand and Jackson (2003)w[g]=0.359E-01*tl[cm]^3.194 Cyprinus carpio Bister et al. (2000)w[g]=0.194E-01*tl[cm]^2.864 Cyprinus carpio Mauck and Summerfelt (1970)w[g]=0.120E-01*tl[cm]^3.025 Cyprinus carpio Nelson (1974)w[g]=0.210E-01*tl[cm]^2.890 Cyprinus carpio Purkett (1957)w[g]=0.667E-02*tl[cm]^3.100 Dorosoma cepedianum Drenner et al. (1982)w[g]=0.118E-01*tl[cm]^2.932 Dorosoma cepedianum Childress (1991)w[g]=0.390E-03*tl[cm]^3.171 Dorosoma petenense Bryant (1968)w[g]=0.362E-03*tl[cm]^3.160 Dorosoma petenense Bryant (1968)w[g]=0.420E-03*tl[cm]^3.183 Dorosoma petenense Bryant (1968)w[g]=0.490E-02*tl[cm]^3.059 Esox lucius Willis (1989)w[g]=0.265E-02*tl[cm]^3.191 Esox lucius Nelson (1974)w[g]=0.564E-02*tl[cm]^3.035 Esox lucius Wolfert and Miller (1978)w[g]=0.162E-02*tl[cm]^3.320 Esox masquinongy Carlander (1969)w[g]=0.230*tl[cm]^2.234 Esox masquinongy Belusz (1978)w[g]=0.600E-02*tl[cm]^3.016 Esox masquinongy Haas (1978)w[g]=0.111E-02*tl[cm]^3.419 Esox masquinongy Kinman (1989)w[g]=0.672E-02*tl[cm]^3.228 Etheostoma blennioides Wolfe et al. (1978)w[g]=0.117E-01*tl[cm]^2.971 Etheostoma blennioides Wolfe et al. (1978)w[g]=0.852E-02*tl[cm]^3.120 Etheostoma blennioides Carlander (1997, F52, L55, S35

w[g]=0.868E-02*tl[cm]^3.063 Etheostoma flabellare Carlander (1997, B444, K176, L

w[g]=0.127E-02*tl[cm]^2.835 Etheostoma flabellare Carlander (1997, B444, K176, L
DRAFT August 1, 2012 53

w[g]=0.868E-02*tl[cm]^3.063 Etheostoma flabellare Carlander (1997, B444, K176, L

w[g]=0.127E-02*tl[cm]^2.835 Etheostoma flabellare Carlander (1997, B444, K176, L

w[g]=0.736E-02*tl[cm]^3.113 Etheostoma microperca Johnson (1991)w[g]=0.852E-02*tl[cm]^3.120 Etheostoma spp Carlander (1997, F52, L55, S35w[g]=0.868E-02*tl[cm]^3.063 Etheostoma spp Carlander (1997, B444, K176, Lw[g]=0.127E-02*tl[cm]^2.835 Etheostoma spp Carlander (1997, B444, K176, Lw[g]=0.714E-02*tl[cm]^3.193 Etheostoma spp Carlander (1997, L55, L256, S3w[g]=0.370E-01*tl[cm]^3.120 Etheostoma spp Carlander (1997)w[g]=0.583E-02*tl[cm]^3.347 Etheostoma spp Carlander (1997)w[g]=0.852E-02*tl[cm]^3.120 Etheostoma spp Carlander (1997)w[g]=0.868E-02*tl[cm]^3.063 Etheostoma spp Carlander (1997)w[g]=0.127E-02*tl[cm]^2.835 Etheostoma spp Carlander (1997)w[g]=0.714E-02*tl[cm]^3.193 Etheostoma spp Carlander (1997)w[g]=0.370E-01*tl[cm]^3.120 Etheostoma spp Carlander (1997)w[g]=0.583E-02*tl[cm]^3.347 Etheostoma spp Carlander (1997)w[g]=0.370E-01*tl[cm]^3.120 Etheostoma spp Carlander (1997)w[g]=0.714E-02*tl[cm]^3.193 Etheostoma zonale Carlander (1997, L55, L256, S3w[g]=0.182E-01*tl[cm]^3.085 Exoglossum maxillingua Pappantoniou et al. (1984)w[g]=0.390E-01*tl[cm]^2.750 Gila atraria Carlander (1969)w[g]=0.692E-02*tl[cm]^3.086 Gila robusta Vanicek and Kramer (1969)w[g]=0.118E-01*tl[cm]^2.860 Gila robusta Vanicek and Kramer (1969)w[g]=0.187E-01*tl[cm]^2.788 Hiodon alosoides Miller and Nelson (1974)w[g]=0.741E-02*tl[cm]^3.063 Hiodon alosoides Miller and Nelson (1974)w[g]=0.423E-02*tl[cm]^3.221 Hiodon alosoides Nelson (1974)w[g]=0.215E-02*tl[cm]^3.400 Ictalurus furcatus Muoneke and Pope (1999)w[g]=0.347E-03*tl[cm]^3.196 Ictalurus furcatus Conder and Hoffarth (1962)w[g]=0.183E-02*tl[cm]^3.427 Ictalurus furcatus Hale and Timmons (1989)w[g]=0.486E-02*tl[cm]^3.175 Ictalurus furcatus Hale and Timmons (1990)w[g]=0.397E-02*tl[cm]^3.223 Ictalurus furcatus Hale and Timmons (1990)w[g]=0.419E-02*tl[cm]^3.350 Ictalurus punctatus Carlander (1969)w[g]=0.211E-02*tl[cm]^3.516 Ictalurus punctatus Conder and Hoffarth (1962)w[g]=0.247E-01*tl[cm]^2.722 Ictalurus punctatus Freeze and Tatum (1977)w[g]=0.252E-02*tl[cm]^3.324 Ictalurus punctatus Jearld and Brown (1971)w[g]=0.293E-02*tl[cm]^3.300 Ictalurus punctatus Purkett (1957)w[g]=0.381E-02*tl[cm]^3.230 Ictalurus punctatus Starostka and Nelson (1974)w[g]=0.813E-02*tl[cm]^3.208 Ictiobus bubalus Bister et al. (2000)
DRAFT August 1, 2012 54

w[g]=0.850E-02*tl[cm]^3.166 Ictiobus bubalus Nelson (1974)

w[g]=0.112E-01*tl[cm]^3.077 Ictiobus bubalus Wrenn (1968)w[g]=0.112E-01*tl[cm]^3.118 Ictiobus cyprinellus Bister et al. (2000)w[g]=0.104E-01*tl[cm]^3.132 Ictiobus cyprinellus Nelson (1974)w[g]=0.104E-01*tl[cm]^3.132 Ictiobus cyprinellus Moen (1974)w[g]=0.759E-03*tl[cm]^3.431 Lepisosteus oculatus Bister et al. (2000)w[g]=0.435E-03*tl[cm]^3.449 Lepisosteus osseus Bister (2000)w[g]=0.705E-03*tl[cm]^3.274 Lepisosteus osseus Klaassen and Morgan(1974)w[g]=0.276E-03*tl[cm]^3.507 Lepisosteus osseus Netsch and Witt (1962)w[g]=0.105E-01*tl[cm]^3.198 Lepomis auritus Sandow et al. (1974)w[g]=0.105E-01*tl[cm]^3.198 Lepomis auritus Petrimoulx (1983)w[g]=0.153E-01*tl[cm]^3.101 Lepomis cyanellus Bister et al. (2000)w[g]=0.114E-01*tl[cm]^3.237 Lepomis gibbosus Liao et al. (1995)w[g]=0.115E-01*tl[cm]^3.241 Lepomis gulosus Bister et al. (2000)w[g]=0.746E-02*tl[cm]^3.373 Lepomis gulosus Germann et al. (1974)w[g]=0.108E-01*tl[cm]^3.274 Lepomis gulosus Germann et al. (1974)w[g]=0.108E-01*tl[cm]^3.060 Lepomis macrochirus Carlander (1977)w[g]=0.113*tl[cm]^2.578 Lepomis megalotis Carlander (1977)w[g]=0.871E-02*tl[cm]^3.120 Micropterus coosae Carlander (1977)w[g]=0.116E-01*tl[cm]^2.991 Micropterus coosae Catchings (1979)w[g]=0.621E-02*tl[cm]^3.211 Micropterus coosae Catchings (1979)w[g]=0.743E-02*tl[cm]^3.200 Micropterus dolomieui Kolander et al. (1993)w[g]=0.105E-01*tl[cm]^3.090 Micropterus dolomieui Hubert (1975)w[g]=0.214E-01*tl[cm]^2.810 Micropterus dolomieui Reed and Rabeni (1989)w[g]=0.665E-02*tl[cm]^3.215 Micropterus punctulatus Wiens et al. (1996)w[g]=0.479E-02*tl[cm]^3.330 Micropterus punctulatus Hubert (1975)w[g]=0.539E-02*tl[cm]^3.080 Micropterus salmoides Carlander (1977)w[g]=0.407E-02*tl[cm]^3.361 Micropterus salmoides Bryant and Houser (1971)w[g]=0.317E-02*tl[cm]^3.418 Micropterus salmoides Bryant and Houser (1971)w[g]=0.980E-02*tl[cm]^3.119 Micropterus salmoides Colle et al. (1976)w[g]=0.676E-02*tl[cm]^3.210 Micropterus salmoides Hubert (1975)w[g]=0.103E-01*tl[cm]^3.136 Morone americana Bister et al. (2000)w[g]=0.104E-01*tl[cm]^3.081 Morone chrysops Brown and Murphy (1991)w[g]=0.519E-02*tl[cm]^3.264 Morone chrysops Houser and Bryant (1970)w[g]=0.553E-02*tl[cm]^3.269 Morone chrysops Houser and Bryant (1970)w[g]=0.537E-02*tl[cm]^3.279 Morone chrysops Nelson (1974)
DRAFT August 1, 2012 55

w[g]=0.465E-02*tl[cm]^3.299 Morone chrysops Priegel (1971)

w[g]=0.215E-01*tl[cm]^2.880 Morone chrysops Webb and Moss (1967)w[g]=0.160E-01*tl[cm]^2.990 Morone chrysops Webb and Moss (1967)w[g]=0.979E-02*tl[cm]^3.133 Morone mississippiensis Bister et al. (2000)w[g]=0.469E-01*tl[cm]^2.700 Morone mississippiensis Priegel (1975)w[g]=0.121E-01*tl[cm]^3.007 Morone saxatilis Brown and Murphy (1991)w[g]=0.105E-01*tl[cm]^3.026 Morone saxatilis Kinman (1988)w[g]=0.155E-01*tl[cm]^2.934 Morone saxatilis x chrysops Germann and Bunch (1983)w[g]=0.213E-01*tl[cm]^2.778 Moxostoma anisurum Schneider et al. (2000)w[g]=0.212E-02*tl[cm]^3.410 Moxostoma carinatum Tatum and Hackney (1969)w[g]=0.335E-02*tl[cm]^3.310 Moxostoma carinatum Tatum and Hackney (1969)w[g]=0.788E-01*tl[cm]^3.098 Moxostoma erythrurum Meyer (1962)w[g]=0.132E-01*tl[cm]^2.962 Moxostoma macrolepidotum Bister et al. (2000)w[g]=0.955E-01*tl[cm]^3.021 Moxostoma macrolepidotum Meyer (1962)w[g]=0.512E-02*tl[cm]^3.302 Notemigonus crysoleucas Liao et al. (1995)w[g]=0.880E-02*tl[cm]^2.989 Notropis hudsonius Smith and Kraemer (1964)w[g]=0.880E-02*tl[cm]^2.989 Notropis hudsonius Smith and Kraemer (1964)w[g]=0.880E-02*tl[cm]^2.989 Notropis petersoni Smith and Kraemer (1964)w[g]=0.857E-02*tl[cm]^3.072 Oncorhynchus clarki Kruse and Hubert (1997)w[g]=0.289E-03*tl[cm]^2.764 Oncorhynchus mykiss Carlander (1969)w[g]=0.188E-01*tl[cm]^2.823 Oncorhynchus mykiss Varley et al. (1971)w[g]=0.476E-02*tl[cm]^2.952 Osmerus mordax Bailey (1964)w[g]=0.652E-02*tl[cm]^3.200 Perca flavescens Willis et al. (1991)w[g]=0.908E-02*tl[cm]^3.085 Perca flavescens Nelson (1974)w[g]=0.858E-02*tl[cm]^3.008 Percopsis omiscomaycus Pereira and Labar (1983)w[g]=0.513E-02*tl[cm]^3.590 Pimephales promelas Duffy (1998)w[g]=0.735E-03*tl[cm]^3.350 Polyodon_spathula Carlander (1969)w[g]=0.490E-02*tl[cm]^3.332 Pomoxis annularis Neumann and Murphy (1991)w[g]=0.102E-01*tl[cm]^3.112 Pomoxis annularis Gabelhouse (1984)w[g]=0.102E-01*tl[cm]^3.112 Pomoxis annularis Gabelhouse (1984)w[g]=0.102E-01*tl[cm]^3.112 Pomoxis annularis Gabelhouse (1984)w[g]=0.187E-01*tl[cm]^3.065 Pomoxis annularis Nelson (1974)w[g]=0.102E-01*tl[cm]^3.112 Pomoxis annularis Parrish et al. (1986)w[g]=0.773E-02*tl[cm]^3.150 Pomoxis annularis Siefert (1969)w[g]=0.102E-01*tl[cm]^3.112 Pomoxis annularis Willis et al. (1984)w[g]=0.533E-02*tl[cm]^3.345 Pomoxis nigromaculatus Neumann and Murphy (1991)
DRAFT August 1, 2012 56

w[g]=0.137E-01*tl[cm]^3.052 Pomoxis nigromaculatus Gabelhouse (1984)

w[g]=0.137E-01*tl[cm]^3.052 Pomoxis nigromaculatus Gabelhouse (1984)w[g]=0.137E-01*tl[cm]^3.052 Pomoxis nigromaculatus Gabelhouse (1984)w[g]=0.881E-02*tl[cm]^3.198 Pomoxis nigromaculatus Nelson (1974)w[g]=0.137E-01*tl[cm]^3.052 Pomoxis nigromaculatus Willis et al. (1984)w[g]=0.249E-02*tl[cm]^3.294 Prosopium cylindraceum Mraz (1964)w[g]=0.891E-02*tl[cm]^3.036 Prosopium williamsoni Rogers et al. (1996)w[g]=0.511E-02*tl[cm]^3.126 Ptychocheilus_lucius Vanicek and Kramer (1969)w[g]=0.488E-02*tl[cm]^3.230 Pylodictis olivaris Bister et al. (2000)w[g]=0.476E-02*tl[cm]^3.260 Pylodictis olivaris Mayhew (1969)w[g]=0.103E-03*tl[cm]^3.099 Pylodictis olivaris Minckley and Deacon (1959)w[g]=0.784E-02*tl[cm]^3.144 Pylodictis olivaris Pisano (1983)w[g]=0.116*tl[cm]^2.965 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.110*tl[cm]^3.001 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.144E-01*tl[cm]^2.954 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.116*tl[cm]^2.965 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.116*tl[cm]^2.965 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.110*tl[cm]^3.001 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.144E-01*tl[cm]^2.954 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.116*tl[cm]^2.965 Rhinichthys atratulus Reed and Moulton (1973)w[g]=0.399E-01*tl[cm]^2.426 Rhinichthys cataractae Reed and Moulton (1973), Kueh

w[g]=0.444E-01*tl[cm]^2.394 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.421E-01*tl[cm]^2.410 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.625E-02*tl[cm]^3.087 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.597E-02*tl[cm]^3.105 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.611E-02*tl[cm]^3.096 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.399E-01*tl[cm]^2.426 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.444E-01*tl[cm]^2.394 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.421E-01*tl[cm]^2.410 Rhinichthys cataractae Reed and Moulton (1973), Kuehw[g]=0.399E-01*tl[cm]^2.426 Rhinichthys cataractae Reed and Moulton (1973), Reed w[g]=0.444E-01*tl[cm]^2.394 Rhinichthys cataractae Reed and Moulton (1973), Reed w[g]=0.421E-01*tl[cm]^2.410 Rhinichthys cataractae Reed and Moulton (1973), Reed w[g]=0.625E-02*tl[cm]^3.087 Rhinichthys cataractae Reed and Moulton (1973), Reed w[g]=0.597E-02*tl[cm]^3.105 Rhinichthys cataractae Reed and Moulton (1973), Reed w[g]=0.611E-02*tl[cm]^3.096 Rhinichthys cataractae Reed and Moulton (1973), Reed w[g]=0.399E-01*tl[cm]^2.426 Rhinichthys cataractae Reed and Moulton (1973), Reed 
DRAFT August 1, 2012 57

w[g]=0.444E-01*tl[cm]^2.394 Rhinichthys cataractae Reed and Moulton (1973), Reed 

w[g]=0.601E-02*tl[cm]^3.080 Rutilus rutilus Turesson et al. (2002)w[g]=0.607E-02*tl[cm]^3.091 Salmo salar Havey (1973)w[g]=0.171E-01*tl[cm]^3.125 Salvelinus alpinus Carlander (1969)w[g]=0.103E-01*tl[cm]^2.986 Salvelinus fontinalis Schneider et al. (2000)w[g]=0.367E-02*tl[cm]^3.246 Salvelinus namaycush Piccolo et al. (1993)w[g]=0.605E-02*tl[cm]^3.140 Salvelinus namaycush Borgmann and Whittle (1992)w[g]=0.326E-02*tl[cm]^3.282 Salvelinus namaycush Rahrer (1965)w[g]=0.677E-02*tl[cm]^3.223 Semotilus atromaculatus Schemske (1974)w[g]=0.594E-02*tl[cm]^3.138 Semotilus corporalis Reed (1971)w[g]=0.744E-02*tl[cm]^2.988 Semotilus corporalis Reed (1971)w[g]=0.699E-02*tl[cm]^3.135 Semotilus corporalis Reed (1971)w[g]=0.708E-02*tl[cm]^3.179 Semotilus corporalis Reed (1971)w[g]=0.107E-01*tl[cm]^2.979 Semotilus corporalis Reed (1971)w[g]=0.651E-02*tl[cm]^3.150 Semotilus corporalis Reed (1971)w[g]=0.102E-01*tl[cm]^2.998 Semotilus corporalis Reed (1971)w[g]=0.567E-02*tl[cm]^3.102 Stizostedion canadense Nelson (1969)w[g]=0.529E-02*tl[cm]^3.107 Stizostedion canadense Nelson (1974)w[g]=0.548E-02*tl[cm]^3.104 Stizostedion canadense Surmont (1999)w[g]=0.150E-02*tl[cm]^3.420 Stizostedion lucioperca Koed (2001)w[g]=0.317E-02*tl[cm]^3.300 Stizostedion lucioperca Turesson et al. (2002)w[g]=0.533E-02*tl[cm]^3.180 Stizostedion vitreum Murphy et al. (1990)w[g]=0.112E-01*tl[cm]^2.972 Stizostedion vitreum Lewis (1970)w[g]=0.618E-02*tl[cm]^3.115 Stizostedion vitreum Moss et al. (1985)w[g]=0.450E-02*tl[cm]^3.194 Stizostedion vitreum Nelson (1974)w[g]=0.736E-02*tl[cm]^3.050 Stizostedion vitreum Smith and Pycha (1961)w[g]=0.326E-02*tl[cm]^3.315 Stizostedion vitreum Wolfert (1977)w[g]=0.310E-02*tl[cm]^3.331 Stizostedion vitreum Wolfert (1977)Size of young-of-year fishyoy[g]=a a=51.003 (sd=*****; n=327) interspeciesyoy[g]=32.4 Acipenser transmontanus Semakula and Larkin (1968)yoy[g]=83.8 Acipenser transmontanus Semakula and Larkin (1968)yoy[g]=76.8 Alosa sapidissima Lapointe (1957)yoy[g]=80.8 Alosa sapidissima Lapointe (1957)yoy[g]=66.7 Alosa sapidissima Lapointe (1957)
DRAFT August 1, 2012 58

yoy[g]=11.9 Ambloplites cavifrons Smith (1971)

yoy[g]=3.557 Ambloplites rupestris Redmon and Krumholz (1978)yoy[g]=12.6 Ambloplites rupestris Surmont (1999)yoy[g]=3.170 Ambloplites rupestris Swann et al. (1991), Benson (19

(1973), Spier (1969)yoy[g]=5.557 Ameiurus catus Borgeson and McCammon (196yoy[g]=21.5 Ameiurus catus Moss and Tucker (1988)yoy[g]=16.8 Ameiurus catus Schaffter (1997)yoy[g]=16.1 Ameiurus catus Schaffter (1997)yoy[g]=53.9 Anguilla rostrata Hansen and Eversole (1984)yoy[g]=3.496 Aphredoderus sayanus Shepherd and Huish (1978)yoy[g]=16.7 Aplodinotus_grunniens Dreves et al. (1996)yoy[g]=15.2 Aplodinotus_grunniens Nelson (1974)yoy[g]=23.4 Aplodinotus_grunniens Priegel (1969)yoy[g]=20.3 Aplodinotus_grunniens Purkett (1957)yoy[g]=7.661 Aplodinotus_grunniens Swedberg (1968)yoy[g]=5.639 Aplodinotus_grunniens Wrenn (1968)yoy[g]=15.9 Archoplites interruptus Aceituno and Vanicek (1976)yoy[g]=3.994 Archoplites interruptus Aceituno and Vanicek (1976)yoy[g]=45.9 Archoplites interruptus Imler et al. (1975)yoy[g]=7.782 Carpiodes carpio Purkett (1957)yoy[g]=4.222 Carpiodes carpio Morris (1965)yoy[g]=1.468 Carpiodes carpio Nelson (1974)yoy[g]=19.0 Carpiodes cyprinus Woodward and Wissing (1976)yoy[g]=10.5 Carpiodes velifer Woodward and Wissing (1976)yoy[g]=1069.6 Catostomus catostomus Bailey (1969)yoy[g]=2.228 Catostomus columbianus Dauble (1980)yoy[g]=21.9 Catostomus commersoni Carlander (1969)yoy[g]=14.0 Catostomus occidentalis Villa (1985)yoy[g]=0.369 Catostomus platyrhynchus Hauser (1969)yoy[g]=0.386 Catostomus platyrhynchus Hauser (1969)yoy[g]=2.879 Catostomus platyrhynchus Wydoski and Wydoski (2002)yoy[g]=0.091 Chrosomus erythrogaster Settles and Hoyt (1976)yoy[g]=16.0 Coregonus clupeaformis Edsall (1960)yoy[g]=34.1 Coregonus clupeaformis Qadri (1968)yoy[g]=19.8 Coregonus clupeaformis Roelofs (1957)
DRAFT August 1, 2012 59

yoy[g]=7.289 Coregonus hoyi Dryer and Beil (1968)

yoy[g]=62.9 Coregonus nasus Muth (1969)yoy[g]=170.8 Coregonus nasus Muth (1969)yoy[g]=0.582 Cottus cognatus Craig and Wells (1976)yoy[g]=61.1 Cycleptus elongatus Moss et al. (1983)yoy[g]=30.3 Cycleptus elongatus Rupprecht and Jahn (1980)yoy[g]=22.5 Cycleptus elongatus Hand and Jackson (2003)yoy[g]=17.9 Cyprinus carpio Mauck and Summerfelt (1970)yoy[g]=59.0 Cyprinus carpio Nelson (1974)yoy[g]=40.3 Cyprinus carpio Purkett (1957)yoy[g]=37.9 Dorosoma cepedianum Bonds (2000)yoy[g]=22.0 Dorosoma cepedianum Surmont (1999)yoy[g]=0.231 Dorosoma petenense Bryant (1968)yoy[g]=0.254 Dorosoma petenense Bryant (1968)yoy[g]=0.057 Dorosoma petenense Johnson (1970)yoy[g]=0.048 Dorosoma petenense Johnson (1970)yoy[g]=96.0 Esox lucius Harrison and Hadley (1983)yoy[g]=124.8 Esox lucius Nelson (1974)yoy[g]=89.8 Esox lucius Wolfert and Miller (1978)yoy[g]=79.1 Esox masquinongy Axon (1978)yoy[g]=493.4 Esox masquinongy Belusz (1978)yoy[g]=242.6 Esox masquinongy Kinman (1989)yoy[g]=111.4 Esox masquinongy Miles (1978)yoy[g]=16.9 Esox masquinongy Parsons (1959)yoy[g]=2.671 Etheostoma blennioides Wolfe et al. (1978)yoy[g]=2.358 Etheostoma blennioides Wolfe et al. (1978)yoy[g]=2.129 Etheostoma blennioides Carlander (1997, F52, L55, S35

yoy[g]=0.364 Etheostoma flabellare Carlander (1997, B444, K176, L

yoy[g]=0.071 Etheostoma flabellare Carlander (1997, B444, K176, L

yoy[g]=0.210 Etheostoma microperca Johnson (1991)yoy[g]=2.129 Etheostoma spp Carlander (1997, F52, L55, S35

yoy[g]=0.364 Etheostoma spp Carlander (1997, B444, K176, Lyoy[g]=0.682 Etheostoma spp Carlander (1997, L55, L256, S3yoy[g]=1.481 Etheostoma spp Carlander (1997)yoy[g]=0.604 Etheostoma spp Carlander (1997)yoy[g]=1.034 Etheostoma spp Carlander (1997)
DRAFT August 1, 2012 60

yoy[g]=0.682 Etheostoma zonale Carlander (1997, L55, L256, S3

yoy[g]=4.512 Exoglossum maxillingua Pappantoniou et al. (1984)yoy[g]=1.583 Gila atraria Graham (1961)yoy[g]=2.338 Gila atraria Neuhold (1955)yoy[g]=1.541 Gila atraria Neuhold (1955)yoy[g]=1.565 Gila robusta Vanicek and Kramer (1969)yoy[g]=1.854 Gila robusta Vanicek and Kramer (1969)yoy[g]=18.6 Hiodon alosoides Miller and Nelson (1974)yoy[g]=13.1 Hiodon alosoides Miller and Nelson (1974)yoy[g]=11.6 Hiodon alosoides Nelson (1974)yoy[g]=10.1 Hiodon tergisus van Oosten (1961)yoy[g]=144.1 Hydrocynus vittatus Griffith (1975)yoy[g]=1.575 Ictalurus furcatus Conder and Hoffarth (1962)yoy[g]=13.1 Ictalurus furcatus Hale and Timmons (1989)yoy[g]=23.2 Ictalurus furcatus Hale and Timmons (1990)yoy[g]=18.8 Ictalurus furcatus Hale and Timmons (1990)yoy[g]=11.6 Ictalurus furcatus Kelley (1968)yoy[g]=52.6 Ictalurus furcatus Kelley and Carver (1965)yoy[g]=10.3 Ictalurus punctatus Conder and Hoffarth (1962)yoy[g]=12.9 Ictalurus punctatus Eder and McDannold (1987)yoy[g]=27.6 Ictalurus punctatus Freeze and Tatum (1977)yoy[g]=5.540 Ictalurus punctatus Holland and Peters (1992)yoy[g]=4.929 Ictalurus punctatus Jearld and Brown (1971)yoy[g]=58.2 Ictalurus punctatus McElroy et al. (1990)yoy[g]=66.4 Ictalurus punctatus McElroy et al. (1990)yoy[g]=22.9 Ictalurus punctatus Moss and Tucker (1988)yoy[g]=1.437 Ictalurus punctatus Purkett (1957)yoy[g]=0.204 Ictalurus punctatus Starostka and Nelson (1974)yoy[g]=74.2 Ictiobus bubalus Nelson (1974)yoy[g]=30.1 Ictiobus bubalus Purkett (1957)yoy[g]=38.0 Ictiobus bubalus Wrenn (1968)yoy[g]=264.4 Lepisosteus osseus Klaassen and Morgan(1974)yoy[g]=337.2 Lepisosteus osseus Netsch and Witt (1962)yoy[g]=3.162 Lepomis auritus Sandow et al. (1974)yoy[g]=1.710 Lepomis cyanellus Applegate et al. (1966)yoy[g]=1.432 Lepomis cyanellus Purkett (1957)
DRAFT August 1, 2012 61

yoy[g]=1.387 Lepomis cyanellus Redmon and Krumholz (1978)

yoy[g]=0.513 Lepomis gibbosus Copp et al. (2002)yoy[g]=1.859 Lepomis gulosus Germann et al. (1974)yoy[g]=2.680 Lepomis gulosus Germann et al. (1974)yoy[g]=1.766 Lepomis gulosus Redmon and Krumholz (1978)yoy[g]=1.332 Lepomis macrochirus Applegate et al. (1966)yoy[g]=0.486 Lepomis macrochirus Brown and Logan (1960)yoy[g]=0.790 Lepomis macrochirus Drake et al. (1997)yoy[g]=2.056 Lepomis macrochirus Fast et al. (1982)yoy[g]=4.430 Lepomis macrochirus Garthause and Heidinger (1999)yoy[g]=0.492 Lepomis macrochirus Price (1977)yoy[g]=1.075 Lepomis macrochirus Redmon and Krumholz (1978)yoy[g]=3.314 Lepomis macrochirus Serns and Strawn (1975)yoy[g]=4.004 Lepomis macrochirus Serns and Strawn (1975)yoy[g]=5.585 Lepomis macrochirus Surmont (1999)yoy[g]=0.903 Lepomis macrochirus Tharratt (1966)yoy[g]=4.943 Lepomis macrochirus Wiener and Hanneman (1982)yoy[g]=4.924 Lepomis megalotis Applegate et al. (1966)yoy[g]=2.504 Lepomis megalotis Redmon and Krumholz (1978)yoy[g]=4.871 Lepomis megalotis Swann et al. (1991), Bettoli (19

yoy[g]=3.364 Lepomis microlophus Tharratt (1966)yoy[g]=22.6 Micropterus coosae Barwick and Moore (1983)yoy[g]=21.6 Micropterus coosae Barwick and Moore (1983)yoy[g]=2.336 Micropterus coosae Catchings (1979)yoy[g]=1.378 Micropterus coosae Catchings (1979)yoy[g]=9.911 Micropterus coosae Parsons and Crittenden (1959)yoy[g]=2.169 Micropterus coosae Cathey (1973), Gwinner (1973)yoy[g]=8.844 Micropterus dolomieui Applegate et al. (1966)yoy[g]=4.753 Micropterus dolomieui Baylis et al. (1993)yoy[g]=4.493 Micropterus dolomieui Brown (1960)yoy[g]=51.1 Micropterus dolomieui Buynak (1995)yoy[g]=17.9 Micropterus dolomieui Hubert (1975)yoy[g]=9.834 Micropterus dolomieui Marinac-sanders and Coble (19

(1966)yoy[g]=6.183 Micropterus dolomieui Peek (1965)yoy[g]=10.4 Micropterus dolomieui Peek (1965)
DRAFT August 1, 2012 62

yoy[g]=9.073 Micropterus dolomieui Peek (1965)

yoy[g]=5.808 Micropterus dolomieui Redmon and Krumholz (1978)yoy[g]=5.706 Micropterus dolomieui Reed and Rabeni (1989), Covin

1975), Lowry (1953)yoy[g]=12.5 Micropterus dolomieui Surmont (1999)yoy[g]=11.2 Micropterus dolomieui Swann et al. (1991), Cathey (19

Whittinghill (1973), Stroud (1948)yoy[g]=32.5 Micropterus dolomieui Tharratt (1966)yoy[g]=16.0 Micropterus punctulatus Hubert (1975)yoy[g]=27.2 Micropterus punctulatus Olmsted and Kilambi (1978)yoy[g]=10.5 Micropterus punctulatus Surmont (1999)yoy[g]=7.634 Micropterus punctulatus Swann et al. (1991), Bettoli (19yoy[g]=23.7 Micropterus salmoides Applegate et al. (1966)yoy[g]=0.730 Micropterus salmoides Brown and Logan (1960)yoy[g]=38.0 Micropterus salmoides Bryant and Houser (1971)yoy[g]=82.0 Micropterus salmoides Bryant and Houser (1971)yoy[g]=18.8 Micropterus salmoides Buynak (1991)yoy[g]=23.0 Micropterus salmoides Colle et al. (1976)yoy[g]=17.8 Micropterus salmoides Fast et al. (1982)yoy[g]=27.8 Micropterus salmoides Garthause and Heidinger (1999)yoy[g]=7.546 Micropterus salmoides Guier et al. (1978)yoy[g]=15.6 Micropterus salmoides Guier et al. (1978)yoy[g]=16.8 Micropterus salmoides Guier et al. (1978)yoy[g]=14.5 Micropterus salmoides Guier et al. (1978)yoy[g]=27.7 Micropterus salmoides Hubert (1975)yoy[g]=6.440 Micropterus salmoides Pasch (1974)yoy[g]=41.5 Micropterus salmoides Porak et al. (1986)yoy[g]=48.1 Micropterus salmoides Porak et al. (1986)yoy[g]=37.4 Micropterus salmoides Porak et al. (1986)yoy[g]=32.6 Micropterus salmoides Porak et al. (1986)yoy[g]=22.4 Micropterus salmoides Porak et al. (1986)yoy[g]=37.6 Micropterus salmoides Porak et al. (1986)yoy[g]=6.328 Micropterus salmoides Mraz and Threinen (1955)yoy[g]=65.4 Micropterus salmoides Muncy (1965)yoy[g]=4.029 Micropterus salmoides Redmon and Krumholz (1978)yoy[g]=35.4 Micropterus salmoides Schramm and Smith (1987)
DRAFT August 1, 2012 63

yoy[g]=31.7 Micropterus salmoides Schramm and Smith (1987)

yoy[g]=44.3 Micropterus salmoides Schramm and Smith (1987)yoy[g]=30.2 Micropterus salmoides Schramm and Smith (1987)yoy[g]=27.9 Micropterus salmoides Schramm and Smith (1987)yoy[g]=33.2 Micropterus salmoides Schultze (1974)yoy[g]=6.033 Micropterus salmoides Surmont (1999)yoy[g]=42.5 Micropterus salmoides Tharratt (1966)yoy[g]=5.312 Micropterus salmoides Whitworth (1989), Beckwith et 

yoy[g]=9.669 Micropterus salmoides Whitworth (1989), Beckwith et 

yoy[g]=3.465 Micropterus salmoides Whitworth (1989), Beckwith et 

yoy[g]=19.8 Micropterus salmoides Zweiacker et al. (1972)yoy[g]=9.965 Morone americana Bath and O'Connor (1982)yoy[g]=14.1 Morone americana Marcy and Richards (1974)yoy[g]=102.0 Morone chrysops Houser and Bryant (1970)yoy[g]=117.4 Morone chrysops Houser and Bryant (1970)yoy[g]=39.2 Morone chrysops Nelson (1974)yoy[g]=292.0 Morone chrysops Nordhaus et al. (1998)yoy[g]=9.916 Morone chrysops Priegel (1971)yoy[g]=14.9 Morone chrysops Ruelle (1971)yoy[g]=15.8 Morone chrysops Ruelle (1971)yoy[g]=170.8 Morone chrysops Webb and Moss (1967)yoy[g]=208.1 Morone chrysops Webb and Moss (1967)yoy[g]=10.7 Morone mississippiensis Priegel (1975)yoy[g]=65.7 Morone saxatilis Hanson and Dillard (1975)yoy[g]=112.2 Morone saxatilis Kinman (1988)yoy[g]=252.7 Morone saxatilis Mensinger (1970)yoy[g]=163.1 Morone saxatilis Harris (1988)yoy[g]=68.8 Morone saxatilis Hogans and Melvin (1984)yoy[g]=13.7 Morone saxatilis Magnin and Beaulieu (1967)yoy[g]=68.5 Morone saxatilis Williamson (1974)yoy[g]=30.1 Morone saxatilis Williamson (1974)yoy[g]=90.0 Morone saxatilis van Den Avyle and Higginbotha

yoy[g]=289.5 Morone saxatilis x chrysops Germann and Bunch (1983)yoy[g]=55.3 Moxostoma anisurum Hackney et al. (1970)yoy[g]=287.9 Moxostoma carinatum Tatum and Hackney (1969)yoy[g]=431.5 Moxostoma carinatum Tatum and Hackney (1969)
DRAFT August 1, 2012 64

yoy[g]=6.600 Moxostoma duquesnei Bowman (1970)

yoy[g]=9.143 Moxostoma duquesnei Bowman (1970)yoy[g]=197.1 Moxostoma erythrurum Meyer (1962)yoy[g]=389.1 Moxostoma macrolepidotum Meyer (1962)yoy[g]=9.287 Moxostoma macrolepidotum Purkett (1957)yoy[g]=3.912 Notropis hudsonius McCann (1959)yoy[g]=1.638 Notropis hudsonius Smith and Kraemer (1964)yoy[g]=0.122 Notropis petersoni Davis and Louder (1971)yoy[g]=0.034 Noturus hildebrandi Mayden and Walsh (1984)yoy[g]=0.246 Noturus miurus Burr and Mayden (1982)yoy[g]=2749.7 Oncorhynchus aguabonita Knapp and Dudley (1990)yoy[g]=7.584 Oncorhynchus clarki Bjornn (1961)yoy[g]=1.126 Oncorhynchus clarki Cooper (1970)yoy[g]=56.1 Oncorhynchus clarki Irving (1954)yoy[g]=0.186 Oncorhynchus mykiss Coulston and Maughan (1981)yoy[g]=0.083 Oncorhynchus mykiss Nagel and Deaton (1989)yoy[g]=177.5 Oncorhynchus mykiss Varley et al. (1971)yoy[g]=1.361 Osmerus mordax Bailey (1964)yoy[g]=1.435 Perca flavescens Brown and Logan (1960)yoy[g]=6.210 Perca flavescens Clugston et al. (1978)yoy[g]=6.462 Perca flavescens Guy and Willis (1991)yoy[g]=7.023 Perca flavescens Joeris (1956)yoy[g]=5.766 Perca flavescens Nelson (1974)yoy[g]=24.3 Perca flavescens Paxton and Stevenson (1978)yoy[g]=15.9 Perca flavescens Paxton and Stevenson (1978)yoy[g]=1.193 Percopsis omiscomaycus House and Wells (1973)yoy[g]=1.627 Percopsis transmontana Gray and Dauble (1979)yoy[g]=45.1 Polyodon_spathula Bronte and Johnson (1985)yoy[g]=22.8 Polyodon_spathula Bronte and Johnson (1985)yoy[g]=285.6 Polyodon_spathula Bronte and Johnson (1985)yoy[g]=114.7 Polyodon_spathula Bronte and Johnson (1985)yoy[g]=125.6 Polyodon_spathula Hoffnagle and Timmons (1989)yoy[g]=7.297 Pomoxis annularis Gabelhouse (1984)yoy[g]=4.016 Pomoxis annularis Gabelhouse (1984)yoy[g]=8.687 Pomoxis annularis Gabelhouse (1984)yoy[g]=8.485 Pomoxis annularis Johnson and Andrews (1973)
DRAFT August 1, 2012 65

yoy[g]=5.848 Pomoxis annularis Li et al. (1976)

yoy[g]=2.679 Pomoxis annularis Mosher (1984)yoy[g]=18.6 Pomoxis annularis Nelson (1974)yoy[g]=5.761 Pomoxis annularis Parrish et al. (1986)yoy[g]=2.210 Pomoxis annularis Redmon and Krumholz (1978)yoy[g]=23.5 Pomoxis annularis Reed and Davies (1991)yoy[g]=5.167 Pomoxis annularis Siefert (1969)yoy[g]=11.6 Pomoxis annularis Surmont (1999)yoy[g]=9.802 Pomoxis annularis Willis et al. (1984)yoy[g]=0.192 Pomoxis nigromaculatus Brown and Logan (1960)yoy[g]=8.633 Pomoxis nigromaculatus Gabelhouse (1984)yoy[g]=4.804 Pomoxis nigromaculatus Gabelhouse (1984)yoy[g]=10.2 Pomoxis nigromaculatus Gabelhouse (1984)yoy[g]=2.505 Pomoxis nigromaculatus Larson et al. (1991)yoy[g]=13.1 Pomoxis nigromaculatus Larson et al. (1991)yoy[g]=21.4 Pomoxis nigromaculatus Larson et al. (1991)yoy[g]=11.9 Pomoxis nigromaculatus Li et al. (1976)yoy[g]=32.2 Pomoxis nigromaculatus Miller et al. (1990)yoy[g]=2.099 Pomoxis nigromaculatus Mosher (1984)yoy[g]=9.511 Pomoxis nigromaculatus Nelson (1974)yoy[g]=30.7 Pomoxis nigromaculatus Reed and Davies (1991)yoy[g]=9.626 Pomoxis nigromaculatus Willis et al. (1984)yoy[g]=7.908 Prosopium cylindraceum Mraz (1964)yoy[g]=1.674 Prosopium cylindraceum Mackay and Power (1968)yoy[g]=7.486 Prosopium williamsoni Pettit and Wallace (1975)yoy[g]=7.516 Prosopium williamsoni Pettit and Wallace (1975)yoy[g]=13.6 Prosopium williamsoni Pettit and Wallace (1975)yoy[g]=0.632 Ptychocheilus_lucius Vanicek and Kramer (1969)yoy[g]=28.8 Pylodictis olivaris Mayhew (1969)yoy[g]=0.232 Pylodictis olivaris Minckley and Deacon (1959)yoy[g]=21.9 Pylodictis olivaris Pisano (1983)yoy[g]=3.441 Pylodictis olivaris Purkett (1957)yoy[g]=133.9 Pylodictis olivaris Quinn (1988)yoy[g]=8.140 Pylodictis olivaris Young and Marsh (1990)yoy[g]=19.9 Pylodictis olivaris Young and Marsh (1990)yoy[g]=21.4 Pylodictis olivaris Young and Marsh (1990)
DRAFT August 1, 2012 66

yoy[g]=21.7 Pylodictis olivaris Young and Marsh (1990)

yoy[g]=5.199 Rhinichthys atratulus Reed and Moulton (1973)yoy[g]=1.050 Rhinichthys cataractae Reed and Moulton (1973), Reed 

yoy[g]=37.1 Salvelinus alpinus Everhart and Waters (1965)yoy[g]=16.9 Salvelinus fontinalis Konopacky and Estes (1986)yoy[g]=10.5 Salvelinus fontinalis Konopacky and Estes (1986)yoy[g]=11.2 Salvelinus fontinalis Konopacky and Estes (1986)yoy[g]=12.5 Salvelinus fontinalis Konopacky and Estes (1986)yoy[g]=16.3 Salvelinus fontinalis Konopacky and Estes (1986)yoy[g]=68.0 Salvelinus namaycush Borgmann and Whittle (1992)yoy[g]=23.7 Salvelinus namaycush Bridges and Hambly (1971)yoy[g]=238.6 Salvelinus namaycush Hanson and Cordone (1967)yoy[g]=3.753 Salvelinus namaycush Rahrer (1965)yoy[g]=6.399 Salvelinus namaycush Rahrer (1967)yoy[g]=279.8 Salvelinus namaycush Webster et al. (1960)yoy[g]=745.8 Salvelinus namaycush Webster et al. (1960)yoy[g]=1.203 Semotilus atromaculatus Schemske (1974)yoy[g]=0.666 Semotilus corporalis Reed (1971)yoy[g]=0.666 Semotilus corporalis Reed (1971)yoy[g]=0.629 Semotilus corporalis Reed (1971)yoy[g]=0.628 Semotilus corporalis Reed (1971)yoy[g]=0.882 Semotilus corporalis Reed (1971)yoy[g]=0.669 Semotilus corporalis Reed (1971)yoy[g]=0.703 Semotilus corporalis Reed (1971)yoy[g]=61.0 Stizostedion canadense Nelson (1969)yoy[g]=31.1 Stizostedion canadense Nelson (1974)yoy[g]=36.0 Stizostedion canadense Surmont (1999)yoy[g]=56.7 Stizostedion vitreum Carlander and Whitney (1961), 

yoy[g]=77.5 Stizostedion vitreum Davis et al. (1979)yoy[g]=154.2 Stizostedion vitreum Kinman (1990)yoy[g]=297.7 Stizostedion vitreum Lewis (1970)yoy[g]=163.3 Stizostedion vitreum Maule and Horton (1985)yoy[g]=58.2 Stizostedion vitreum Moss et al. (1985)yoy[g]=73.7 Stizostedion vitreum Nelson (1974)yoy[g]=23.6 Stizostedion vitreum Smith and Pycha (1961)yoy[g]=87.5 Stizostedion vitreum Wolfert (1977)
DRAFT August 1, 2012 67

yoy[g]=59.3 Stizostedion vitreum Wolfert (1977)

yoy[g]=6.118 Tylochromis bangwelensis Griffith (1977)
DRAFT August 1, 2012 68

References

Aceituno, M.E. and C.D. Vanicek. 1976. Life history studies of the Sacramento perch, Archoplites interruptus (Girard), in

California. California Fish and Game 62: 5-20.

Applegate, R.L., J.W. Mullan, and D.I. Morais. 1966. Food and growth of six centrarchids from shoreline areas of Bull Shoals

Reservoir. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 20: 469-482.

Axon, J.R. 1978. An evaluation of the muskellunge fishery in Cave Run Lake, Kentucky. American Fisheries Society Special

Publication 11: 328-333.

Bailey, M.M. 1964. Age, growth, maturity, and sex composition of the American smelt, Osmerus mordax (Mitchill), of western

Lake Superior. Trans. Am. Fish. Soc. 93: 382-395.

Bailey, M.M. 1969. Age, growth, and maturity of the longnose sucker Catostomus catostomus, of western Lake Superior. J. Fish.

Res. Board Can. 26: 1289-1299.

Barber, M.C. 2003. A review and comparison of models for predicting dynamic chemical bioconcentration in fish. Environ.

Toxicol. Chem. 22: 1963-1992.

Barwick, D.H. and P.R. Moore. 1983. Abundance and growth of redeye bass in two South Carolina reservoirs. Trans. Am. Fish.

Soc. 112: 216-219.

Bath, D.W. and J.M. O'Connor. 1982. The biology of the white perch, Morone americana, in the Hudson River estuary. Fish Bull

80: 599-610.

Baylis, J.R., D.D. Wiegmann, and M.H. Hoff. 1993. Alternating life histories of smallmouth bass. Trans. Am. Fish. Soc. 122: 500-

510.

Beamish, F.W.H. 1970. Oxygen consumption of largemouth bass, Micropterus salmoides, in relation to swimming speed and

temperature. Can. J. Zool. 48: 1221-1228.

Beamish, F.W.H. 1974. Apparent specific dynamic action of largemouth bass, Micropterus salmoides. J. Fish. Res. Board Can.

31: 1763-1769.

Beamish, F.W.H. and P.D. MacMahon. 1988. Apparent heat increment and feeding strategy in walleye, Stizostedion vitreum

vitreum. Aquaculture 68: 73-82.

Beauchamp, D.A., D.J. Stewart, and G.L. Thomas. 1989. Corroboration of a bioenergetics model for sockeye salmon. Trans. Am.

Fish. Soc. 118: 597-607.

Beckwith, E.E., Jr, G.W. Benz, and R.P. Jacobs. 1981. Statewide largemouth bass research and management: stock assessment of

largemouth bass (Micropterus salmoides) in selected lakes with special reference to the 305 mm minimum size limit. Connecticut

Department of Environmental Protection, Hartford, CT. Federal Aid in Fish Restoration, Project F-51-R-1.

Belusz, L.C. 1978. An evaluation of the muskellunge fishery in Lake Pomme de Terre and efforts to improve stocking success.

American Fisheries Society Special Publication 11: 292-297.

Benson, N.G. 1959. Fish management on Wood's Reservoir. J. Tennessee Acad. Sci. 34: 172-189.

Bettoli, P.W. 1979. Age, growth, and food habits of fishes common to the New River, Tennessee, pp. 74. Tennessee

Technological University, Cookeville.
DRAFT August 1, 2012 69

Bevelhimer, M.S. and S.M. Adams. 1993. A bioenergetics analysis of diel vertical migration by kokanee salmon, Oncorhynchus

nerka. Can. J. Fish. Aquat. Sci. 50: 2336-2349.

Bevelhimer, M.S., R.A. Stein, and R.F. Carline. 1985. Assessing significance of physiological differences among three esocids

with a bioenergetics model. Can. J. Fish. Aquat. Sci. 42: 57-69.

Beyers, D.W., J.A. Rice, and W.H. Clements. 1999. Evaluating biological significance of chemical exposure to fish using a

bioenergetics-based stressor-response model. Can. J. Fish. Aquat. Sci. 56: 823-829.

Bhattacharya, H. and B.R. Subba. 2006. Effect of seasonal temperature on oxygen consumption in relation to body size of a freshwater fish, the flying barb, Esomus dandricus (Ham.). Our Nature 4: 53-60.

Binkowski, F.P. and L.G. Rudstam. 1994. Maximum daily ration of Great Lakes bloater. Trans. Am. Fish. Soc. 123: 335-343.

Bister, T.J., D.W. Willis, M.L. Brown, S.M. Jordan, R.M. Neumann, M.C. Quist, and C.S. Guy. 2000. Proposed standard weight

(Ws

) equations and standard length categories for 18 warmwater nongame and riverine fish species. N Am J Fish Manage 20: 570-

574.

Bjornn, T.C. 1961. Harvest, age structure, and growth of game fish populations from Priest and Upper Priest Lakes. Trans. Am.

Fish. Soc. 90: 27-31.

Bohlin, T., C. Dellefors, U. Faremo, and A. Johlander. 1994. The energetic equivalence hypothesis and the relation between

population density and body size in stream-living salmonids. Am. Nat. 143: 478-493.

Boisclair, D. and W.C. Leggett. 1988. An in situ experimental evaluation of the Elliott and Persson and Eggers models for

estimating fish daily ration. Can. J. Fish. Aquat. Sci. 45: 138-145.

Bonds, C.C. 2000. Assessment of the Response of Piscivorous Sportfishes to the Establishment of Gizzard Shad in Claytor Lake,

Virginia, pp. 110. Virginia Polytechnic Institute and State University, Blacksburg, VA.

Borgeson, D.P. and G.W. McCammon. 1967. White catfish (Ictalurus catus) of the Sacramento-San Joaquin Delta. California

Fish and Game 53: 254-263.

Bowman, M.L. 1970. Life history of the black redhorse, Moxostoma duquesnei (Lesueur), in Missouri. Trans. Am. Fish. Soc. 99:

546-559.

Bozek, M.A., T.M. Burri, and R.V. Frie. 1999. Diets of muskellunge in northern Wisconsin lakes. N Am J Fish Manage 19: 258-

270.

Breck, J.E. 1993. Hurry up and wait: growth of young bluegills in ponds and in simulations with an individual-based model.

Trans. Am. Fish. Soc. 122: 467-480.

Brett, J.R. and N.R. Glass. 1973. Metabolic rates and critical swimming speeds of sockeye salmon (Oncorhynchus nerka) in

relation to size and temperature. J. Fish. Res. Board Can. 30: 379-387.

Brett, J.R., J.E. Shelbourn, and C.T. Shoop. 1969. Growth rate and body composition of fingerling sockeye salmon,

Oncorhynchus nerka, in relation to temperature and ration size. J. Fish. Res. Board Can. 26: 2363-2394.

Bridges, C.H. and L.S. Hambly. 1971. A summary of eighteen years of salmonid management at Quabbin Reservoir,

Massachusetts. American Fisheries Society Special Publication 8: 243-254.

Brodeur, R.D. 1991. Ontogenetic variations in the type and size of prey consumed by juvenile coho, Oncorhynchus kisutch, and
DRAFT August 1, 2012 70

chinook, O. tshawytscha, salmon. Environ Biol Fishes 30: 303-315.

Bronte, C.R. and D.W. Johnson. 1985. Growth of paddlefish in two midstream reservoirs with reference to commercial harvest.

Transactions of the Kentucky Academy of Science 46: 28-32.

Brown, C.J.D. and S.M. Logan. 1960. Age and growth of four species of warm-water game fish from three Montana ponds. Trans.

Am. Fish. Soc. 89: 379-382.

Brown, E.H., Jr. 1960. Little Miami River headwater-stream investigations. Ohio Department of Natural Resources, Division of

Wildlife, Columbus, OH. D-J Project F-1-R.

Brown, M.L. and B.R. Murphy. 1991. Standard weights (Ws

) for striped bass, white bass, and hybrid striped bass. N Am J Fish

Manage 11: 451-467.

Bryant, H.E. and A. Houser. 1968. Growth of threadfin shad in Bull Shoals Reservoir. Proceedings of the Annual Conference of

Southeastern Association of Fish and Wildlife Agencies 22: 275-283.

Bryant, H.E. and A. Houser. 1971. Population estimates and growth of largemouth bass in Beaver and Bull Shoals Reservoirs.

American Fisheries Society Special Publication 8: 349-357.

Burggren, W., J. Dunn, and K. Barnard. 1979. Branchial circulation and gill morphometrics in the sturgeon Acipenser

transmontanus, an ancient Chondrosteian fish. Can. J. Zool. 57: 2160-2170.

Burr, B.M. and R.L. Mayden. 1982. Life history of the brindled madtom Noturus miurus in Mill Creek, Illinois (Pisces:

Ictaluridae). Am. Midl. Nat. 107: 25-41.

Buynak, G.L. 1991. Evaluation of a 15.0-in. size limit on largemouth bass in Taylorville Lake. Fishery Bulletin of the Kentucky

Department of Fish and Wildlife Resources 91: 1-35.

Buynak, G.L. 1995. Evaluation of a smallmouth bass stocking program at Cave Run and Cannon Creek Lakes. Fishery Bulletin of

the Kentucky Department of Fish and Wildlife Resources 97: 1-16.

Byczkowska-Smyk, W. 1959. The respiratory surface of the gills in teleost. Part IV. The respiratory surface of the gills in the pike

(Esox lucius L.), stone-perch (Acerina cernua L.), and burbot (Lota lota L.). Acta Biol. Cracov. Ser. Zool. 2: 113-127.

Cameron, J.N., J. Kostoris, and P.A. Penhale. 1973. Preliminary energy budget of the ninespine stickleback (Pungitius pungitius)

in an Arctic Lake. J. Fish. Res. Board Can. 30: 1179-1189.

Campbell, R.D. and B.A. Branson. 1978. Ecology and population dynamics of the black bullhead, Ictalurus melas (Rafinesque),

in central Kentucky. Tulane Studies in Zoology and Botany 20: 99-136.

Carlander, K.D. 1969. Handbook of Freshwater Fishery Biology. Volume One: Life History Data on Freshwater Fishes of the

United States and Canada, Exclusive of the Perciformes. Iowa State University Press, Ames, IA.

Carlander, K.D. 1977. Handbook of Freshwater Fishery Biology. Volume Two: Life History Data on Centrarchid Fishes of the

United States and Canada. Iowa State University Press, Ames, IA.

Carlander, K.D. 1997. Handbook of Freshwater Fishery Biology. Volume Three: Life History Data on Ichthyopercid and Percid

Fishes of the United States and Canada. Iowa State University Press, Ames, IA.

Carlander, K.D. and R.R. Whitney. 1961. Age and growth of walleyes in Clear Lake, Iowa, 1937-1957. Trans. Am. Fish. Soc. 90:

130-138.
DRAFT August 1, 2012 71

Carrick, T.R. 1981. Oxygen consumption in the fry of brown trout (Salmo trutta L.) related to pH of the water. J. Fish Biol. 18:

73-80.

Catchings, E.D. 1979. Age and growth of redeye bass in Shoal and Little Shoal Creeks, Alabama. Proceedings of the Annual

Conference of Southeastern Association of Fish and Wildlife Agencies 32: 380-390.

Cathey, H.J. 1973. A study of the redeye bass, Micropterus coosae, smallmouth bass, Micropterus dolomieui, and rock bass,

Ambloplites rupestris in Roaring River, Tennessee, pp. 46. Tennessee Technological University, Cookeville, TN.

Cech, J.J., Jr, D.T. Castleberry, T.E. Hopkins, and J.H. Petersen. 1994. Northern squawfish, Ptychocheilus oregonensis, O2

consumption rate and respiration model: effects of temperature and body size. Can. J. Fish. Aquat. Sci. 51: 8-12.

Childress, W.M. 1991. Standard-weight curves derived from Texas length and weight data. N Am J Fish Manage 11: 480-482.

Claessen, D., A.M. de Roos, and L. Persson. 2004. Population dynamic theory of size-dependent cannibalism. Proceedings of the

Royal Society of London Series B 271: 333–340.

Cleary, R.E. 1949. Life history and management of the yellow pikeperch, Stizostedion v. vitreum (Mitchill), of Clear Lake Iowa.

Iowa State College Journal of Science 23: 195-208.

Clugston, J.P., J.L. Oliver, and R. Ruelle. 1978. Reproduction, growth, and standing crops of yellow perch in southern reservoirs.

American Fisheries Society Special Publication 11: 89-99.

Colle, D.E., J.V. Shireman, and D.K. Manuel. 1976. Age, growth, condition and food habits of largemouth bass collected from a

Louisiana coastal freshwater marsh. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife

Agencies 30: 259-268.

Collins, B.W. 1982. Growth of adult striped bass in the Sacramento-San Joaquin Estuary. California Fish and Game 68: 146-159.

Conceição, L.E.C., Y. Dersjant-Li, and J.A.J. Verreth. 1998. Cost of growth in larval and juvenile African catcfish (Clarias

gariepinus) in relation to growth rate, food intake and oxygen consumption. Aquaculture 161: 95-106.

Conder, J.R. and R. Hoffarth. 1962. Growth of channel catfish, Ictalurus punctatus, and blue catfish, Ictalurus furcatus, in the

Kentucky Lake portion of the Tennessee River in Tennessee. Proceedings of the Annual Conference of Southeastern Association

of Fish and Wildlife Agencies 16: 348-354.

Cooper, E.L. 1970. Growth of cutthroat trout (Salmo clarki) in Chef Creek, Vancouver Island, British Columbia. J. Fish. Res.

Board Can. 27: 2063-2070.

Copp, G.H., M.G. Fox, and V. Kovác. 2002. Growth, morphology and life history traits of a cool-water European population of

pumpkinseed Lepomis gibbosus. Arch Hydrobiol 155: 585-614.

Coulston, P.J. and O.E. Maughan. 1981. Age and growth of trout from two lightly fished North Carolina streams. J. Elisha

Mitchell Sci. Soc. 97: 191-193.

Covington, W.G. 1982. Smallmouth bass populations in the Ozark National Scenic Riverways. University of Missouri, Columbia,

MO.

Craig, P.C. and J. Wells. 1976. Life history notes for a population of slimy sculpin (Cottus cognatus) in an Alaskan arctic stream.

J. Fish. Res. Board Can. 33: 1639-1642.

Cui, Y. and R.J. Wootton. 1988. Bioenergetics of growth of a cyprinid, Phoxinus phoxinus: the effect of ration, temperature and
DRAFT August 1, 2012 72

body size on food consumption, faecal production and nitrogenous excretion. J. Fish Biol. 33: 431-443.

Cui, Y. and J. Liu. 1990a. Comparison of enery budget among six teleosts - I. Food consumption, faecal production and

nitrogenous excretion. Comparative Biochemistry and Physiology A 96: 163-171.

Cui, Y. and J. Liu. 1990b. Comparison of enery budget among six teleosts - II. Metabolic rates. Comparative Biochemistry and

Physiology A 97: 169-174.

Cui, Y., S.S.O. Hung, and X. Zhu. 1996. Effect of ration and body size on the energy budget of juvenile white sturgeon. J. Fish

Biol. 49: 863-876.

Dabrowska, K. and S.J. Kaushik. 1984. Rearing of coregonid (Coregonus schinzi palea Cuv. et Val.) larvae using dry and live

food II. Oxygen consumption and nitrogen excretion. Aquaculture 41: 333-344.

Dauble, D.D. 1980. Life history of the bridgelip sucker in the central Columbia River. Trans. Am. Fish. Soc. 109: 92-98.

Davies, R. and C.D. Moyes. 2007. Allometric scaling in centrarchid fish: origins of intra- and inter-specific variation in oxidative

and glycolytic enzyme levels in muscle. The Journal of Experimental Biology 210: 3798-3804.

Davis, J.H., P.J. Wingate, and W.R. Bonner. 1979. Evaluation of the removal of a minimum size limit on walleye in Glenville

Reservoir, North Carolina. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 33:

518-522.

Davis, J.R. and D.E. Louder. 1971. Life history and ecology of the cyprinid fish Notropis petersoni in North Carolina waters.

Trans. Am. Fish. Soc. 100: 726-733.

de Jager, S., M.E. Smit-Onel, J.J. Videler, B.J.M. van Gils, and E.M. Uffink. 1977. The respiratory area of the gills of some

teleost fishes in relation to their mode of life. Bijdr. Dierkd. 46: 199-205.

Degani, G., M.L. Gallagher, and A. Meltzer. 1989. The influence of body size and temperature on oxgen consumption of the

European eel, Anguilla anguilla. J. Fish Biol. 34: 19-24.

Diana, J.S. 1982a. An energy budget for northern pike (Esox lucius). Can. J. Zool. 61: 1968-1975.

Diana, J.S. 1982b. An experimental analysis of the metabolic rate and food utilization of northern pike. Comparative Biochemistry

and Physiology A 71: 395-399.

Dieterman, D.J., W.C. Thorn, and C.S. Anderson. 2004. Application of a Bioenergetics Model for Brown Trout to Evaluate

Growth in Southeast Minnesota Streams. Minnesota Department of Natural Resources. Investigational Report 513 November

2004.

Drake, M.T., J.E. Claussen, D.P. Philipp, and D.L. Pereira. 1997. A comparison of bluegill reproductive strategies and growth

among lakes with different fishing intensities. N Am J Fish Manage 17: 496-507.

Drenner, R.W., W.J. O'Brien, and J.R. Mummert. 1982. Filter-feeding rates of gizzard shad. Trans. Am. Fish. Soc. 111: 210-215.

Dreves, D.P., T.J. Timmons, and J. Henson. 1996. Age, growth, and food of freshwater drum, Aplodinotus grunniens (Scianidae),

in Kentucky Lake, Kentucky/Tennessee. Transactions of the Kentucky Academy of Science 57: 22-26.

Dryer, W.R. and J. Beil. 1968. Growth changes of the bloater (Coregonus hoyi) of the Apostle Islands region of Lake Superior.

Trans. Am. Fish. Soc. 97: 146-158.
DRAFT August 1, 2012 73

Duffy, W.G. 1998. Population dynamics, production, and prey consumption of fathead minnows (Pimephales promelas) in prairie

wetlands: a bioenergetics approach. Can. J. Fish. Aquat. Sci. 54: 15-27.

Dunham, J.B. and G.L. Vinyard. 1997. Relationships between body mass, population density, and the self-thinning rule in streamliving salmonids. Can. J. Fish. Aquat. Sci. 54: 1025-1030.

Dunham, J.B., B.R. Dickerson, E. Beever, R.D. Duncan, and G.L. Vinyard. 2000. Effects of food limitation and emigration on

self-thinning in experimental minnow cohorts. J. Anim. Ecol. 69: 927-934.

Eccles, D.H. 1985. The effect of temperature and mass on routine oxygen consumption in the South African cyprinid fish Barbus

aeneus Burchell. J. Fish Biol. 27: 155-165.

Eder, S. and W.E. McDannold, Sr. 1987. The channel catfish fishery at Pony Express Lake, Missouri, 1963-1984. N Am J Fish

Manage 7: 502-512.

Edsall, T.A. 1960. Age and growth of the whitefish, Coregonus clupeaformis, of Munising Bay, Lake Superior. Trans. Am. Fish.

Soc. 89: 323-332.

Elliott, J.M. 1972. Rates of gastric evacuation in brown trout, Salmo trutta L. Freshwater Biology 2: 1-18.

Elliott, J.M. 1975. Weight of food and time required to satiate brown trout, Salmo trutta L. Freshwater Biology 5: 51-64.

Elliott, J.M. 1976a. Body composition of the brown trout (Salmo trutta L.) in relation to temperature and ration size. J. Anim.

Ecol. 45: 273-289.

Elliott, J.M. 1976b. The energetics of feeding, metabolism and growth of brown trout (Salmo trutta L.) in relation to body weight,

water temperature and ration size. J. Anim. Ecol. 45: 923-948.

Elliott, J.M. 1993. The self-thinning rule applied to juvenile sea-trout, Salmo trutta. J. Anim. Ecol. 62: 371-379.

Elrod, J.H. and R. O'Gorman. 1991. Diet of juvenile lake trout in southern Lake Ontario in relation to abundance and size of prey

fishes, 1979-1987. Trans. Am. Fish. Soc. 120: 290-302.

El-Shamy, F.M. 1976. Analyses of gastric emptying in bluegill (Lepomis macrochirus). J. Fish. Res. Board Can. 33: 1630-1633.

Enders, E.C., D. Boisclair, P. Boily, and P. Magnan. 2006. Effect of body mass and water temperature on the standard metabolic

rate of juvenile yellow perch, Perca flavescens (Mitchill). Environ Biol Fishes DOI 10.1007/s10641-006-9045-0.

Eschmeyer, P.H. and A.M. Phillips, Jr. 1965. Fat content of the flesh of siscowets and lake trout from Lake Superior. Trans. Am.

Fish. Soc. 94: 62-74.

Evans, D.O. 1984. Temperature independence of the annual cycle of standard metabolism in the pumpkinseed. Trans. Am. Fish.

Soc. 113: 494-512.

Everhart, W.H. and C.A. Waters. 1965. Life history of the blueback trout (Arctic char, Salvelinus alpinus (Linnaeus)) in Maine.

Trans. Am. Fish. Soc. 94: 393-397.

Fajen, O.F. 1959. Movement and growth of smallmouth bass in small Ozark streams. University of Missouri, Columbia, MO.

Fajen, O.F. 1972. The standing crop of fishes in Courtois Creek, Missouri. Missouri Department of Conservation, Columbia, MO.

Federal Aid in Fish Restoration, Project F-1-R-20.
DRAFT August 1, 2012 74

Fajen, O.F. 1975. The standing crop of smallmouth bass and associated species in Courtois Creek. In Black Bass Biology and

Management. Edited by H. Clepper. Sport Fishing Institute, Washington, D.C., pp. 231-239

Farmer, C.G. and D.C. Jackson. 1998. Air breathing during activity in the fishes Amia calva and Lepisosteus oculatus. J. Exp.

Biol. 201: 943-948.

Fast, A.W., L.H. Bottroff, and R.L. Miller. 1982. Largemouth bass, Micropterus salmoides, and bluegill, Lepomis macrochirus,

growth rates associated with artificial destratification and threadfin shad, Dorosoma petenense, introductions at El Capitan

Reservoir, California. California Fish and Game 67: 4-20.

Fernandes, M.N. and F.T. Rantin. 1985. Gill morphometry of the teleost Hoplias malabaricus (Bloch). Boletim de Fisiologia

Animal Universidade de Sao Paulo 9: 57-65.

Fernandes, M.N., F.T. Rantin, A.L. Kalinin, and S.E. Moron. 1994. Comparative study of gill dimensions of three erythrinid

species in relation to their respiratory function. Can. J. Zool. 72: 160-165.

Franklin, C.E., I.A. Johnston, T. Crockford, and C. Kamunde. 1995. Scaling of oxygen consumption of Lake Magadi tilapia, a fish

living at 37 C. J. Fish Biol. 46: 829-834.

Freeze, T.M. and B. Tatum. 1977. Comparative age, growth, and condition of channel catfish from Lake Dardanelle, Arkansas.

Transactions of the Kentucky Academy of Science 38: 123-127.

Gabelhouse, D.W., Jr. 1984. An assessment of crappie stocks in small midwestern private impoundments. N Am J Fish Manage 4:

371-384.

Garcia, L.M. and I.R. Adelman. 1985. An in situ estimate of daily food consumption and alimentary canal evacuation rates of

common carp, Cyprinus carpio L. J. Fish Biol. 27: 487-493.

Garthause, M.W. and R.C. Heidinger. 1999. Response of largemouth bass and bluegill to length limits in Lake of Egypt. Trans. Ill.

Acad. Sci. 92: 79-87.

Gauthier, S. and D. Boisclair. 1997. The energetic implications of diel onshore-offshore migration by dace (Phoxinus eos X P.

neogaeus) in a small oligotrophic pond. Can. J. Fish. Aquat. Sci. 54: 1996-2006.

Gehrke, P.C. 1987. Cardio-respiratory morphometrics of the spangled perch Leiopotherapon unicolor (Günter, 1859), (Percoidei,

Teraponidae). J. Fish Biol. 31: 617-623.

Germann, J.F. and Z.E. Bunch. 1983. Age, growth, and survival of Morone hybrids in Clarks Hill Reservoir, Georgia. Proceedings

of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 37: 267-275.

Germann, J.F., L.E. McSwain, D.R. Holder, and C.D. Swanson. 1974. Life history of warmouth in the Suwannee River and

Okefenokee Swamp, Georgia. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies

28: 259-278.

Gillen, A.L., R.A. Stein, and R.F. Carline. 1981. Predation by pellet-reared tiger muskellunge on minnows and bluegills in

experimental systems. Trans. Am. Fish. Soc. 110: 197-209.

Glass, N.R. 1969. Discussion of calculation of power function with special reference to respiratory metabolism in fish. J. Fish.

Res. Board Can. 26: 2643-2650.

Graham, R.J. 1961. Biology of the Utah chub in Hebgen Lake, Montana. Trans. Am. Fish. Soc. 90: 269-276.
DRAFT August 1, 2012 75

Grant, J.W.A., S.Ó. Steingrímsson, E.R. Keeley, and R.A. Cunjak. 1998. Implications of territory size for the measurement and

prediction of salmonid abundance in streams. Can. J. Fish. Aquat. Sci. 55 (Suppl. 1): 181-190.

Gray, R.H. and D.D. Dauble. 1979. Biology of the sand roller in the central Columbia River. Trans. Am. Fish. Soc. 108: 646-649.

Griffith, J.S. 1975. Annulus formation and growth of tigerfish, Hydrocynus vittatus, in Lake Bangweulu, Zambia. Trans. Am. Fish.

Soc. 104: 499-505.

Griffith, J.S. 1977. Growth of the cichlid fish Tylochromis bangwelensis, in Lake Bangweulu, Zambia. Trans. Am. Fish. Soc. 106:

146-150.

Grove, D.J., L.G. Loizides, and J. Nott. 1978. Satiation amount, frequency of feeding and gastric emptying rate in Salmo

gairdneri. J. Fish Biol. 12: 507-516.

Groves, T.D.D. 1970. Body composition changes during growth in young sockeye (Oncorhynchus nerka) in fresh water. J. Fish.

Res. Board Can. 27: 929-942.

Guest, W.C. 1988. Growth and reproduction of blueback herring in a north Texas reservoir. Proceedings of the Annual

Conference of Southeastern Association of Fish and Wildlife Agencies 42: 157-165.

Guier, C.R., W.G. Miller, A.W. Mullis, and L.E. Nichols. 1978. Comparison of growth rates and abundance of largemouth bass in

selected North Carolina coastal rivers. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife

Agencies 32: 391-400.

Guy, C.S. and D.W. Willis. 1991. Evaluation of largemouth bass - yellow perch communities in small South Dakota

impoundments. N Am J Fish Manage 11: 43-49.

Gwinner, H.R. 1973. A study of the redeye bass, Micropterus coosae, smallmouth bass, Micropterus dolomieui, and rock bass,

Ambloplites rupestris in Spring Creek, Tennessee, pp. 38. Tennessee Technological University, Cookeville, TN.

Haake, P.W. and J.M. Dean. 1983. Age and growth of four Everglades fishes using otolith techniques. U.S. Department of the

Interior, Everglades National Park, South Florida Research Center, Homestead, FL. Tech. Rep. SFRC-83/03.

Haas, R.C. 1978. The muskellunge in Lake St. Clair. American Fisheries Society Special Publication 11: 334-339.

Hackney, P.A., G.R. Hooper, and J.F. Webb. 1970. Spawning behavior, age and growth, and sport fishery for the silver redhorse,

Moxostoma anisurum (Rafinesque), in the Flint River, Alabama. Proceedings of the Annual Conference of Southeastern

Association of Fish and Wildlife Agencies 24: 569-576.

Hakim, A., J.S.D. Munshi, and G.M. Hughes. 1978. Morphometrics of the respiratory organs of the Indian green snake-headed

fish, Channa punctata. Journal of Zoology, London 184: 519-543.

Hale, R.S. 1996. Threadfin shad use as supplemental prey in reservoir white crappie fisheries in Kentucky. N Am J Fish Manage

16: 619-632.

Hale, R.S. and T.J. Timmons. 1989. Comparative age and growth of blue catfish in the Kentucky portion of Kentucky Lake

between 1967 and 1985. Transactions of the Kentucky Academy of Science 50: 22-26.

Hale, R.S. and T.J. Timmons. 1990. Growth of blue catfish in the lacustrine and riverine areas of the Tennessee portion of

Kentucky Lake. J. Tennessee Acad. Sci. 65: 86-90.

Hand, G.R. and D.C. Jackson. 2003. Blue sucker stock characteristics in the upper Yazoo River basin, Mississippi, USA. Fisheries
DRAFT August 1, 2012 76

Management and Ecology 10: 147-153.

Hansen, R.A. and A.G. Eversole. 1984. Age, growth, and sex ratio of American eels in brackish-water portions of a South

Carolina river. Trans. Am. Fish. Soc. 113: 744-749.

Hanson, J.A. and A.J. Cordone. 1967. Age and growth of lake trout, Salvelinus namaycush (Walbaum), in Lake Tahoe. California

Fish and Game 53: 68-87.

Hanson, W.D. and J.G. Dillard. 1975. Contribution of striped bass to the fishery of Lake of the Ozarks, Missouri. Proceedings of

the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 29: 162-167.

Harris, P.J. 1988. Characterization of the striped bass sport fishery on the Annapolis River, Nova Scotia. East Carolina University,

Greenville, NC.

Harris, R.H.D. 1962. Growth and reproduction of the longnose sucker, Catostomus catostomus (Foster), in Great Slave Lake. J.

Fish. Res. Board Can. 19: 113-126.

Harrison, E.J. and W.F. Hadley. 1983. Biology of the northern pike in the Upper Niagara River watershed. New York Fish and

Game Journal 30: 57-66.

Hartman, K.J. and S.B. Brandt. 1993. Systematic sources of bias in a bioenergetics model: Example for age-0 striped bass. Trans.

Am. Fish. Soc. 122: 912-926.

Hartman, K.J. and S.B. Brandt. 1995. Comparative energetics and development of bioenergetic models for sympatric estuarine

piscivores. Can. J. Fish. Aquat. Sci. 52: 1647-1666.

Hauser, W.J. 1969. Life history of the mountain sucker, Catostomus platyrhynchus, in Montana. Trans. Am. Fish. Soc. 98: 209-

215.

Havey, K.A. 1973. Effects of a smelt introduction on growth of landlocked salmon at Schoodic Lake, Maine. Trans. Am. Fish.

Soc. 102: 392-397.

Hayward, R.S. and M.E. Bushmann. 1994. Gastric evacuation rates for juvenile largemouth bass. Trans. Am. Fish. Soc. 123: 88-

93.

He, J. and D.J. Stewart. 1998. Ontogeny of energetic relationships and potential effects of tissue turnover: a comparative modeling

studying on lake trout. Can. J. Fish. Aquat. Sci. 55: 2518-2532.

Heikinheimo, O. and A.P. Korhonen. 1996. Food consumption of northern pike (Esox lucius L.), estimated with a bioenergetics

model. Ecology of Freshwater Fish 5: 37-47.

Hershey, A.E. and M.E. McDonald. 1985. Diet and digestion rates of slimy sculpim, Cottus cognatus, in an Alaskan Artic lake.

Can. J. Fish. Aquat. Sci. 42: 483-487.

Hoffnagle, T.L. and T.J. Timmons. 1989. Age, growth, and catch analysis of the commercially exploited paddlefish population in

Kentucky Lake, Kentucky-Tennessee. N Am J Fish Manage 9: 316-326.

Hogans, W. and G. Melvin. 1984. Kouchibouguac National Park striped bass Morone saxatilis (Walbaum) fishery survey. Aquatic

Industries, Ltd, St. Andrews, New Brunswick. 

Holeton, G.F. 1973. Respiration of the Artic charr (Salvelinus alpinus) form a high Arctic lake. J. Fish. Res. Board Can. 30: 717-

723.
DRAFT August 1, 2012 77

Hölker, F. and B. Breckling. 2002. Influence of activity in a heterogeneous environment on the dynamics of fish growth: a

individual-based model of roach. J. Fish Biol. 60: 1170-1189.

Hölker, F. and S.S. Haertel. 2004. Short Communication: Application of a bioenergetics model to roach. Journal of Applied

Ichthyology 20: 1-3.

Holland, R.S. and E.J. Peters. 1992. Age and growth of channel catfish (Ictalurus punctatus) in the lower Platte River, Nebraska.

Trans. Nebr. Acad. Sci. 19: 33-42.

Horppila, J. and H. Peltonen. 1997. A bioenergetic approach on food consumption of roach (Rutilus rutilus (L.)) in a eutrophic

lake. Arch Hydrobiol 139: 207-222.

House, R. and L. Wells. 1973. Age, growth, spawning season, and fecunity of the trout-perch (Percopsis omiscomaycus) in

southeastern Lake Michigan. J. Fish. Res. Board Can. 30: 1221-1225.

Houser, A. and H.E. Bryant. 1970. Age, growth, sex composition, and maturity of white bass in Bull Shoals Reservoir. U.S.

Department of Interior, Fish and Wildlife Service, Washington, DC. Technical Papers of the Bureau of Sport Fisheries and

Wildlife No. 49.

Hubert, W.A. 1975. Age and growth of three black bass species in Pickwick Reservoir. Proceedings of the Annual Conference of

Southeastern Association of Fish and Wildlife Agencies 29: 126-134.

Hughes, G.M. 1972. Morphometrics of fish gills. Respir. Physiol. 14: 1-25.

Hughes, G.M. 1984. General anatomy of the gills. . In Fish Physiology, Vol XA. Edited by W.S. Hoar and D.J. Randall. Academic

Press, New York. 

Hughes, G.M. 1995. Preliminary morphometric study of the gills of Orechromis alcalicus grahami from Lake Magadi and a

comparison with O. niloticus. J. Fish Biol. 47: 1102-1105.

Hughes, G.M., S.C. Dube, and J.S.D. Munshi. 1973. Surface area of the respiratory organs of the climbing perch, Anabas

testudineus (Pisces: Anabantidae). Journal of Zoology, London 170: 227-243.

Huuskonen, H., J. Karjalainen, N. Medgyesy, and W. Wieser. 1998. Energy allocation in larval and juvenile Coregonus lavaretus:

validation of a bioenergetics model. J. Fish Biol. 52: 962-972.

Imler, R.L., D.T. Weber, and O.L. Fyock. 1975. Survival, reproduction, age, growth, and food habits of Sacramento perch,

Archoplites interruptus (Girard), in Colorado. Trans. Am. Fish. Soc. 104: 232-236.

Irving, R.B. 1954. Ecology of the cutthroat trout in Henrys Lake, Idaho. Trans. Am. Fish. Soc. 84: 275-296.

Jakubowski, M. 1982. Size and vascularization of the gill and skin respiratory surfaces in the white amur, Ctenopharyngodon

idella (Val.) (Pisces, Cyprinidae). Acta Biol. Cracov. Ser. Zool. 24: 93-106.

Jakubowski, M. 1993. Morphometry of the gill respiratory area in Comephorus dybowskii and some other endemic Cottoidei of

Lake Baikal. Acta Zoologica, Stockholm 74: 283-288.

Jakubowski, M., L. Halama, and K. Zuwala. 1995. Gill respiratory area in the pelagic sculpins of Lake Baikal, Cottocomephorus

inermis and C. grewingki (Cottidae). Acta Zoologica, Stockholm 76: 167-170.

Jearld, A., Jr and B.E. Brown. 1971. Fecundity, age and growth, and condition of channel catfish in an Oklahoma reservoir. Proc.

Okla. Acad. Sci. 51: 15-22.
DRAFT August 1, 2012 78

Jensen, H., T. Bøhn, P.-A. Amundsen, and P.E. Aspholm. 2004. Feeding ecology of piscivorous brown trout (Salmo trutta L.) in a

subarctic watercourse. Annales Zoologici Fennici 41: 319-328.

Jobling, M. 1983. Effect of feeding frequency on food intake and growth of Arctic charr, Salvelinus alpinus L. J. Fish Biol. 23:

177-185.

Joeris, L.S. 1956. Structure and growth of scales of yellow perch of Green Bay. Trans. Am. Fish. Soc. 86: 169-194.

Johnson, B.L., D.L. Smith, and R.F. Carline. 1988. Habitat preferences, survival, growth, foods, and harvests of walleye and

walleye × sauger hybrids. N Am J Fish Manage 8: 292-304.

Johnson, J.D. and J.T. Hatch. 1991. Life history of the least darter Etheostoma microperca at the northwestern limits of its range.

Am. Midl. Nat. 125: 87-103.

Johnson, J.E. 1970. Age, growth, and population dynamics of threadfin shad, Dorosoma petenense (Günther), in central Arizona

reservoirs. Trans. Am. Fish. Soc. 99: 739-753.

Johnson, J.N. and A.K. Andrews. 1973. Growth of white crappie and channel catfish in relation to variations in mean annual water

level of Lake Carl Blackwell, Oklahoma. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife

Agencies 27: 767-776.

Jordan, F., D.C. Haney, and F.G. Nordlie. 1993. Plasma osmotic regulation and routine metabolism in the Eustis pupfish,

Cyprinodon variegatus hubbsi (Teleostei: Cyprinodontidae). Copeia 1993: 784-789.

Jude, D.J., F.J. Tesar, S.F. Deboe, and T.J. Miller. 1987. Diet and selection of major prey species by Lake Michigan salmonines,

1973-1982. Trans. Am. Fish. Soc. 116: 677-691.

Julian, D., W.G.R. Crampton, S.E. Wohlgemuth, and J.S. Albert. 2003. Oxygen consumption in weakly electric Neotropical

fishes. Oecologia 137: 502–511.

Kahilainen, K. 2004. Ecology of sympatric whitefish (Coregonus lavaretus (L.)) forms in a subarctic lake, pp. 44, Department of

Biological and Environmental Sciences. University of Helsinki, Helsinki, Finland.

Keeley, E.R. 2003. An experimental analysis of self-thinning in juvenile steelhead trout. Oikos 102: 543-550.

Kelley, J.R., Jr. 1968. Growth of the blue catfish Ictalurus furcatus (LeSueur) in the Tombigbee River of Alabama. Proceedings of

the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 22: 248-255.

Kelley, J.R., Jr and D.C. Carver. 1965. Age and growth of blue catfish, Ictalurus furcatus (LeSueur), in the recent delta of the

Mississippi River. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 19: 296-299.

Kinman, B.T. 1988. Evaluation of striped bass introductions in Lake Cumberland. Fishery Bulletin of the Kentucky Department of

Fish and Wildlife Resources 83: 1-49.

Kinman, B.T. 1989. Evaluation of muskellunge introduction in Green River Lake. Fishery Bulletin of the Kentucky Department of

Fish and Wildlife Resources 85: 1-44.

Kinman, B.T. 1990. Evaluation of walleye introduction in Lake Cumberland. Fishery Bulletin of the Kentucky Department of Fish

and Wildlife Resources 88: 1-84.

Kisia, S.M. and G.M. Hughes. 1992. Estimation of oxygen diffusing capacity in the gills of different sizes of a tilapia, Orecromis

niloticus. Journal of Zoology, London 227: 405-415.
DRAFT August 1, 2012 79

Kitchell, J.F., D.J. Stewart, and D. Weininger. 1977. Application of a bioenergetics model to yellow perch (Perca flavescens) and

walleye (Stizostedion vitreum vitreum). J. Fish. Res. Board Can. 34: 1922-1935.

Klaassen, H.E. and K.L. Morgan. 1974. Age and growth of longnose gar in Tuttle Creek Reservoir, Kansas. Trans. Am. Fish. Soc.

103: 402-405.

Knapp, R.A. and T.L. Dudley. 1990. Growth and longevity of golden trout, Oncorhynchus aguabonita, in their native streams.

California Fish and Game 76: 161-173.

Knight, R.L., F.J. Margraf, and R.F. Carline. 1984. Piscivory by walleyes and yellow perch in western Lake Erie. Trans. Am. Fish.

Soc. 113: 677-693.

Koed, A. 2001. The effect of meal size, body size and temperature on gastric evacuation in pikeperch. J. Fish Biol. 58: 281-290.

Kohlhorst, D.W., L.W. Miller, and J.J. Orsi. 1980. Age and growth of white sturgeon collected in the Sacramento-San Joaquin

Estuary, California: 1965-170 and 1973-1976. California Fish and Game 66: 83-95.

Kolander, T.D., D.W. Willis, and B.R. Murphy. 1993. Proposed revision of the standard weight (Ws

) equation for smallmouth

bass. N Am J Fish Manage 13: 398-400.

Konopacky, R.C. and R.D. Estes. 1986. Age and growth of brook trout in southern Appalachian streams. Proceedings of the

Annual Conference of Southeastern Association of Fish and Wildlife Agencies 40: 227-236.

Kruse, C.G. and W.A. Hubert. 1997. Proposed standard weight (Ws) equations for interior cutthroat trout. N Am J Fish Manage

17: 784-790.

Kuehn, J.H. 1949. A population study of longnose dace (Rhinichthys c. cataractae). Proceedings of the Minnesota Academy of

Science 17: 81-87.

Kutty, M.N. 1968. Respiratory quotients in goldfish and rainbow trout. J. Fish. Res. Board Can. 25: 1689-1728.

Landolt, J.C. and L.G. Hill. 1975. Observations on the gross structure and dimensions of the gills of three species of gars

(Lepisosteidae). Coepia 1975: 470-475.

Lantry, B.F. and D.J. Stewart. 1993. Ecological energetics of rainbow smelt in the Laurentian Great Lakes: an interlake

comparison. Trans. Am. Fish. Soc. 122: 951-976.

LaPointe, D.F. 1957. Age and growth of the American shad, from three Atlantic coast rivers. Trans. Am. Fish. Soc. 87: 139-150.

Larson, S.C., B. Saul, and S. Schleiger. 1991. Exploitation and survival of black crappies in three Georgia reservoirs. N Am J Fish

Manage 11: 604-613.

Lewis, S.A. 1970. Age and growth of walleye, Stizostedion vitreum vitreum (Mitchill), in Canton Reservoir, Oklahoma. Proc.

Okla. Acad. Sci. 50: 84-86.

Lewis, S.V. and I.C. Potter. 1976. Gill morphometrics of the lampreys Lampetra fluviatilis (L.) and Lampetra planeri (Bloch).

Acta Zoologica, Stockholm 57: 103-112.

Lewis, W.M., R. Heidinger., W. Kirk, W. Chapman, and D. Johnson. 1974. Food intake of the largemouth bass. Trans. Am. Fish.

Soc. 103: 277-280.

Li, H.W., P.B. Moyle, and R.L. Garrett. 1976. Effect of the introduction of the Mississippi silverside (Menidia audens) on the
DRAFT August 1, 2012 80

growth of black crappie (Pomoxis nigromaculatus) and white crappie (P. annularis) in Clear Lake, California. Trans. Am. Fish.

Soc. 105: 404-408.

Liao, H., C.L. Pierce, D.H. Wahl, J.B. Rasmussen, and W.C. Leggett. 1995. Relative weight (Wr) as a field assessment tool:

relationships with growth, prey biomass, and environmental conditions. Trans. Am. Fish. Soc. 124: 387-400.

Liszka, E. 1969. The vascularization and respiratory surface of gills in the river bullhead (Cottus gobio L.). Acta Biol. Cracov.

Ser. Zool. 12: 135-149.

Liu, J., Y. Cui, and J. Liu. 1998. Food consumption and growth of two piscivorus fishes, the mandarian fish and the Chinese

snakehead. J. Fish Biol. 53: 1071-1083.

Liu, J., Y. Cui, and J. Liu. 2000. Resting metabolism and heat increment of feeding in mandarin fish (Siniperca chuatsi) and

Chinese snakehead (Channa argus). Comparative Biochemistry and Physiology - Part A: Molecular & Integrative Physiology

127: 131-138.

Lowe, T.P., T.W. May, W.G. Brumbaugh, and D.A. Kane. 1985. National Contaminant Biomonitoring Program: Concentrations

of seven elements in freshwater fish, 1979-1981. Arch. Environ. Contam. Toxicol. 14: 363-388.

Lowry, F.M. 1953. The growth of smallmouth bass (Micropterus dolomieui) in certain Ozark streams. University of Missouri,

Columbia, MO.

Mackay, I. and G. Power. 1968. Age and growth of round whitefish (Prosopium cylindraceum) from Ungava. J. Fish. Res. Board

Can. 25: 657-666.

Madenjian, C.P., T.J. DeSorcie, and R.M. Stedman. 1998. Ontogenic and spatial patterns in diet and growth of lake trout in Lake

Michigan. Trans. Am. Fish. Soc. 127: 236-252.

Madon, S.P. and D.C. Culver. 1993. Bioenergetics model for larval and juvenile walleyes: an in situ approach with experimental

ponds. Trans. Am. Fish. Soc. 122: 797-813.

Madon, S.P., G.D. Williams, J.M. West, and J.B. Zedler. 2001. The importance of marsh access to growth of the California

killifish, Fundulus parvipinnis, evaluated through bioenergetics modeling. Ecol. Model. 135: 149-165.

Magnin, E. and G. Beaulieu. 1967. Le bar, Roccus saxatilis (Walbaum) du fleuve Saint-Laurent. Naturaliste Canadien. 94: 539-

555.

Maina, J.N. and G.M.O. Maloiy. 1986. The morphology of the respiratory organs of the African air-breathing catfish (Clarias

mossambicus): a light, electron and scanning microscopic study, with morphometric observations. Journal of Zoology, London

209: 421-445.

Maki, A.W., K.W. Stewart, and J.K.G. Silvey. 1973. The effects of dibrom on the respiratory activity of the stonefly, Hydroperla

crosbyi, hellgrammite, Corydalus cornutus, and the golden shiner, Notemigonus crysoleucas. Trans. Am. Fish. Soc. 102: 806-815.

Marcy, B.C., Jr and F.P. Richards. 1974. Age and growth of the white perch Morone americana in the Lower Connecticut River.

Trans. Am. Fish. Soc. 103: 117-120.

Marinac-Sanders, P. and D.W. Coble. 1981. The smallmouth bass population and fishery in a northern Wisconsin lake, with

implications for other waters. N Am J Fish Manage 1: 15-20.

Mauck, P.E. and R.C. Summerfelt. 1970. Length-weight relationships, age composition, growth, and condition factors of carp in

Lake Carl Blackwell. Proc. Okla. Acad. Sci. 50: 61-68.
DRAFT August 1, 2012 81

Maule, A.G. and H.F. Horton. 1985. Probable causes of the rapid growth and high fecundity of walleye, Stizostedion vitreum

vitreum, in the mid-Columbia River. Fish Bull 83: 701-706.

Mayden, R.L. and S.J. Walsh. 1984. Life history of the least madtom Noturus hildebrandi (Siluriformes: Ictaluridae) with

comparisons to related species. Am. Midl. Nat. 112: 349-368.

Mayfield, R.B. and J.J. Cech, Jr. 2004. Temperature effects on green sturgeon bioenergetics. Trans. Am. Fish. Soc. 133: 961-970.

Mayhew, J.K. 1969. Age and growth of flathead catfish in the Des Moines River, Iowa. Trans. Am. Fish. Soc. 98: 118-121.

Mazon, A.d.F., M.N. Fernandes, M.A. Nolasco, and W. Severi. 1998. Functional morphology of gills and respiratory area of two

active rheophilic fish species, Plagioscion squamosissimus and Prochilodus scrofa. J. Fish Biol. 52: 50-61.

McCann, J.A. 1959. Life history studies of the spottail shiner of Clear Lake, Iowa, with particular reference to some sampling

problems. Trans. Am. Fish. Soc. 88: 336-343.

McDermot, D. and K.A. Rose. 2000. An individual-based model of lake fish communities: application to piscivore stocking in

Lake Mendota. Ecol. Model. 125: 67-102.

McElroy, M.G., T. Morrison, and R. Gouguet. 1990. Age, growth, and maturity of channel catfish in two southeast Louisiana

lakes. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 44: 13-19.

Mensinger, G.C. 1970. Observations on the striped bass, Morone saxatilis, in Keystone Reservoir, Oklahoma. Proceedings of the

Annual Conference of Southeastern Association of Fish and Wildlife Agencies 24: 447-463.

Meyer, W.H. 1962. Life history of three species of redhorse (Moxostoma) in the Des Moines River, Iowa. Trans. Am. Fish. Soc.

91: 412-419.

Miles, R.L. 1978. A life history study of the muskellunge in West Virginia. American Fisheries Society Special Publication 11:

140-145.

Miller, G.L. and W.R. Nelson. 1974. Goldeye, Hiodon alosoides, in Lake Oahe: abundance, age, growth, maturity, food, and the

fishery, 1963-69. U.S. Department of Interior, Fish and Wildlife Service, Washington, DC. Technical Papers of the Bureau of

Sport Fisheries and Wildlife No. 79.

Miller, S.J., D.D. Fox, L.A. Bull, and T.D. McCall. 1990. Population dynamics of black crappie in Lake Okeechobee, Florida,

following suspension of commercial harvest. N Am J Fish Manage 10: 98-105.

Minckley, W.L. and J.E. Deacon. 1959. Biology of the flathead catfish in Kansas. Trans. Am. Fish. Soc. 88: 344-355.

Minton, J.W. and R.B. McLean. 1982. Measurements of growth and consumption of sauger (Stizostedion canadense):

implications for fish energetics studies. Can. J. Fish. Aquat. Sci. 39: 1396-1403.

Mitz, S.V. and M.C. Newman. 1989. Allometric relationship between oxygen consumption and body weight of mosquitofish,

Gambusia affinis. Environ Biol Fishes 24: 267-273.

Moen, T.E. 1974. Population trends, growth, and movement of bigmouth buffalo, Ictiobus cyprinellus, in Lake Oahe, 1963-70.

U.S. Department of Interior, Fish and Wildlife Service, Washington, DC. Technical Papers of the Bureau of Sport Fisheries and

Wildlife No. 78.

Morris, L.A. 1965. Age and growth of the river carpsucker, Carpiodes carpio, in the Missouri River. Am. Midl. Nat. 73: 423-429.
DRAFT August 1, 2012 82

Morrison, H.A., D.M. Whittle, C.D. Metcalfe, and A.J. Niimi. 1999. Application of a food web bioaccumulation model for the

prediction of polychlorinated biphenyl, dioxin, and furan congener concentrations in Lake Ontario aquatic biota. Can. J. Fish.

Aquat. Sci. 56: 1389-1400.

Morrison, H.A., F.A.P.C. Gobas, R. Lazar, D.M. Whittle, and G.D. Haffner. 1997. Development and verification of a

benthic/pelagic food web bioaccumulation model for PCB congeners in western Lake Erie. Environ. Sci. Technol. 31: 3267-3273.

Mosher, T.D. 1984. Response of white crappie and black crappie to threadfin shad introductions in a lake containing gizzard shad.

N Am J Fish Manage 4: 365-370.

Moss, J.L. and W.H. Tucker. 1988. Growth and harvest of catfish in three Alabama public lakes. Proceedings of the Annual

Conference of Southeastern Association of Fish and Wildlife Agencies 42: 149-156.

Moss, J.L., F. Harders, and W.H. Tucker. 1985. Age and growth of walleye in Alabama. Proceedings of the Annual Conference of

Southeastern Association of Fish and Wildlife Agencies 39: 74-79.

Moss, R.E., J.W. Scanlan, and C.S. Anderson. 1983. Observations on the natural history of the blue sucker (Cycleptus elongatus

Le Sueur) in the Neosho River. Am. Midl. Nat. 109: 15-22.

Mraz, D. 1964. Age and growth of the round whitefish in Lake Michigan. Trans. Am. Fish. Soc. 93: 46-52.

Mraz, D. and C.W. Threinen. 1955. Angler's harvest, growth rate and population estimate of largemouth bass of Browns Lake,

Wisconsin. Trans. Am. Fish. Soc. 85: 241-256.

Muller-Feuga, A., J. Petit, and J.J. Sabaut. 1978. The influence of temperature and wet weight on the oxygen demand of rainbow

trout (Salmo gairdneri R.) in fresh water. Aquaculture 14: 355-363.

Muncy, R.J. 1965. Aging and growth of largemouth bass, bluegill, and redear sunfish from Louisiana ponds of known stocking

history. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 19: 343-349.

Munshi, J.S.D., J.O. Ojha, and A.L. Sinha. 1980. Morphometrics of the respiratory organs of an air-breathing catfish, Clarias

batrachus (Linn.) in relation to body weight. Proceedings of the Indian National Science Academy B 46: 621-635.

Muoneke, M.I. and K.L. Pope. 1999. Development and evaluation of a standard weight (Ws

) equation for blue catfish. N Am J

Fish Manage 19: 878-879.

Murphy, B.R., M.L. Brown, and T.A. Springer. 1990. Evaluation of the relative weight (Wr) index, with new application to

walleye. N Am J Fish Manage 10: 85-97.

Murphy, P.G. and J.V. Murphy. 1971. Correlations between respiration and direct uptake of DDT in the mosquito fish Gambusia

affinis. Bull. Environ. Contam. Toxicol. 6: 581-588.

Muth, K.M. 1969. Age and growth of broad whitefish, Coregonus nasus, in the Mackenzie and Coopermine Rivers, N.W.T. J.

Fish. Res. Board Can. 26: 2252-2256.

Nagata, M. 1989. Satiation and gastric evacuation in juvenile masu salmon. Nippon Suisan Gakkaihi 55: 1523-1528.

Nagel, J.W. and J.E. Deaton. 1989. Growth and longevity of rainbow trout in two headwater streams in northeastern Tennessee. J.

Tennessee Acad. Sci. 64: 9-12.

Nelson, J.A. 2002. Metabolism of three species of herbivorous loricariid catfishes: influence of size and diet. J. Fish Biol. 61:

1586-1599.
DRAFT August 1, 2012 83

Nelson, W.R. 1969. Biological characteristics of the sauger population in Lewis and Clark Lake. U.S. Department of Interior, Fish

and Wildlife Service, Washington, DC. Technical Papers of the Bureau of Sport Fisheries and Wildlife No. 21.

Nelson, W.R. 1974. Age, growth, and maturity of thirteen species of fish from Lake Oahe during the early years of impoundment,

1963-68. U.S. Department of Interior, Fish and Wildlife Service, Washington, DC. Technical Papers of the Bureau of Sport

Fisheries and Wildlife No. 77.

Netsch, N.F. and A. Witt, Jr. 1962. Contributions to the life history of the longnose gar,(Lepisosteus osseus) in Missouri. Trans.

Am. Fish. Soc. 91: 251-262.

Neuhold, J.M. 1955. Age and growth of the Utah chub, Gila atraria (Girard), in Panguitch Lake and Navajo Lake, Utah, from

scales and opercular bones. Trans. Am. Fish. Soc. 85: 217-233.

Neumann, R.M. and B.R. Murphy. 1991. Evaluation of the relative weight (Wr

) index for assessment of white crappie and black

crappie populations. N Am J Fish Manage 11: 543-555.

Niimi, A.J. and S.L. Morgan. 1980. Morphometric examination of the gills of walleye, Stizostedion vitreum vitreum (Mitchill) and

rainbow trout, Salmo gairdneri Richardson. J. Fish Biol. 16: 685-692.

Nilsson, P.A. and C. Brönmark. 2000. The role of gastric evacuation rate in handling time of equal-mass rations of different prey

sizes in northern pike. J. Fish Biol. 57: 516-524.

Nordhaus, J.J., B.R. Lubinski, R.L. Cailteux, and D.A. Dobbins. 1998. Age and growth of a newly established white bass

population in Florida. Fla. Sci. 61: 188-194.

Nordlie, F.G., S.L. Walsh, D.C. Haney, and T.F. Nordlie. 1991. The influence of ambient salinity on routine metabolism in the

teleost Cyprinodon variegatus Lacepède. J. Fish Biol. 38: 115-122.

O'Gorman, R., O.E. Johannsson, and C.P. Schneider. 1997. Age and growth of alewives in the changing pelagia of Lake Ontario,

1978-1992. Trans. Am. Fish. Soc. 126: 112-126.

O'Hara, J. 1968. The influence of weight and temperature on the metabolic rate of sunfish. Ecology 49: 159-161.

Ohlberger, J., G. Staaks, P.L.M. van Dijk, and F. Hölker. 2005. Modelling energetic costs of fish swimming. J. Exp. Zool. 303A:

657-664.

Oikawa, S. and Y. Itazawa. 1984. Allometric relationship between tissue respiration and body mass in the carp. Comparative

Biochemistry and Physiology A 77: 415-418.

Oikawa, S. and Y. Itazawa. 1985. Gill and body surface areas of the carp in relation to body mass, with special reference to the

metabolic-size relationship. J. Exp. Biol. 117: 1-14.

Ojha, J. and J.S.D. Munshi. 1974. Morphometric studies of the gill and skin dimensions in relation to body weight in a fresh-water

mudeel, Macrognathus aculeatum (Bloch). Zoologischer Anzeiger, Jena 193: 364-381.

Ojha, J., R. Singh, and N.K. Singh. 1985. Structure and dimensions of the respiratory organs of a freshwater catfish, Mystus

cavasius (Ham.). Proceedings of the Indian National Science Academy B 51: 202-210.

Oliver, B.G. and A.J. Niimi. 1988. Trophodynamic analysis of polychlorinated biphenyl congeners and other chlorinated

hydrocarbons in the Lake Ontario ecosystem. Environ. Sci. Technol. 22: 388-397.

Olmsted, L.L. and R.V. Kilambi. 1978. Age and growth of spotted bass (Micropterus punctulatus) in Lake Fort Smith, Arkansas.
DRAFT August 1, 2012 84

Trans. Am. Fish. Soc. 107: 21-25.

Pääkkönen, J.-P.J., R. Myyrä, and T.J. Marjomäki. 1999. The effect of meal size on the rate of gastric evacuation of the burbot,

Lota lota (L.). Ecology of Freshwater Fish 8: 49-54.

Pappantoniou, A., G. Dale, and R.E. Schmidt. 1984. Aspects of the life history of the cutlips minnow, Exoglossum maxillingua,

from two eastern Pennsylvania streams. Journal of Freshwater Ecology 2: 449-458.

Paragamian, V.L. 1973. Population characteristics of smallmouth bass (Micropterus dolomieui) in Plover and Red Cedar Rivers,

Wisconsin. University of Wisconsin-Stevens Point, Stevens Point, WI.

Parrish, D.L. and F.J. Margraf. 1990. Gastric evacuation rates of white perch, Morone americana, determined from laboratory and

field data. Environ Biol Fishes 29: 155-158.

Parrish, D.L., T.D. Forsythe, and T.J. Timmons. 1986. Growth and condition comparisons of white crappie in two similar large

reservoirs. J. Tennessee Acad. Sci. 61: 92-95.

Parsons, J.W. 1954. Growth and habits of the redeye bass. Trans. Am. Fish. Soc. 83: 202-211.

Parsons, J.W. 1959. Muskellunge in Tennessee streams. Trans. Am. Fish. Soc. 88: 136-140.

Parsons, J.W. 1971. Selective food preferences of walleyes of the 1959 year class in Lake Erie. Trans. Am. Fish. Soc. 100: 474-

485.

Parsons, J.W. and E. Crittenden. 1959. Growth of the redeye bass in Chipola River, Florida. Trans. Am. Fish. Soc. 88: 191-192.

Pasch, R.W. 1974. Some relationships between food habits and growth of largemouth bass in Lake Blackshear, Georgia.

Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 28: 307-321.

Paxton, K.O. and F. Stevenson. 1978. Food, growth, and exploitation of percids in Ohio's upground reservoirs. American Fisheries

Society Special Publication 11: 270-277.

Peck, M.A., R.S. Katersky, L.M. Menard, and D.A. Bengtson. 2003. The effect of body size on food consumption, absorption

efficiency, respiration, and ammonia excretion by the inland silverside, Menidia beryllina (Cope) (Osteichthyes: Atherinidae).

Journal of Applied Ichthyology 19: 195-201.

Peek, F. 1965. Age and growth of the smallmouth bass Micropterus dolomieui Lacepede in Arkansas. Proceedings of the Annual

Conference of Southeastern Association of Fish and Wildlife Agencies 19: 422-431.

Peer Mohamed, M. and M.N. Kutty. 1981. Respiratory quotient and ammonia quotient in Tilapia mossambica (Peters) with

special reference to hypoxia and recovery. Hydrobiologia 76: 3-9.

Pereira, D.L. and G.W. LaBar. 1983. Age and growth of trout-perch in Lake Champlain. New York Fish and Game Journal 30:

201-209.

Perna, S.A. and M.N. Fernandes. 1996. Gill morphology of a facultative air-breathing loricariid fish, Hypostomus plecostomus

(Walbaum) with special emphasis to aquatic respiration. Fish Physiol. Biochem. 15: 213-220.

Petersen, J.H. and D.L. Ward. 1999. Development and corroboration of a bioenergetics model for northern pikeminnow feeding

on juvenile salmonids in the Columbia River. Trans. Am. Fish. Soc. 128: 784-801.

Petersen, J.H. and C.P. Paukert. 2005. Development of a bioenergetics model for humpback chub and evaluation of the water
DRAFT August 1, 2012 85

temperature changes in the Grand Canyon, Colorado River. Trans. Am. Fish. Soc. 134: 960-974.

Petrimoulx, H.J. 1983. The life history and distribution of the Roanoke bass Ambloplites cavifrons Cope, in Virginia. Am. Midl.

Nat. 110: 338-353.

Pettit, S.W. and R.L. Wallace. 1975. Age, growth, and movement of mountain whitefish, Prosopium williamsoni (Girard), in the

North Fork Clearwater River, Idaho. Trans. Am. Fish. Soc. 104: 68-76.

Piccolo, J.J., W.A. Hubert, and R.A. Whaley. 1993. Standard weight equation for lake trout. N Am J Fish Manage 13: 401-404.

Pierce, R.J. and T.E. Wissing. 1974. Energy cost of food utilization in the bluegill (Lepomis macrochirus). Trans. Am. Fish. Soc.

103: 38-45.

Pierce, R.J., T.E. Wissing, and B.A. Megrey. 1981. Respiratory metabolism of gizzard shad. Trans. Am. Fish. Soc. 110: 51-55.

Pisano, M.S. 1983. Age and growth and length-weight relationship for flathead catfish, Pylodictis olivaris, from Coachella Canal,

southeastern California. California Fish and Game 69: 124-128.

Porak, W., W.S. Coleman, and S. Crawford. 1986. Age, growth, and mortality of Florida largemouth bass utilizing otoliths.

Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 40: 206-215.

Post, J.R. 1990. Metabolic allometry of larval and juvenile yellow perch (Perca flavescens) : in situ estimates and bioenergetic

models. Can. J. Fish. Aquat. Sci. 47: 554-560.

Price, J.W. 1931. Growth and gill development in the small-mouthed black bass, Micropterus dolomieu, Lacépède. Ohio State

University, Franz Theodore Stone Laboratory 4: 1-46.

Price, R. 1977. Age and growth of an unbalanced bluegill population in Michigan. Trans. Am. Fish. Soc. 106: 331-333.

Priegel, G.R. 1969. Age and rate of growth of the freshwater drum in Lake Winnebago, Wisconsin. Trans. Am. Fish. Soc. 98: 116-

118.

Priegel, G.R. 1971. Age and rate of growth of white bass in Lake Winnebago, Wisconsin. Trans. Am. Fish. Soc. 100: 567-569.

Priegel, G.R. 1975. Age and growth of the yellow bass in Lake Poygan, Wisconsin. Trans. Am. Fish. Soc. 104: 513-515.

Probst, W.E., C.F. Rabeni, W.G. Covington, and R.E. Marteney. 1984. Resource use by stream-dwelling rock bass and

smallmouth bass. Trans. Am. Fish. Soc. 113: 283-294.

Purkett, C.A., Jr. 1957. Growth of the fishes in the Salt River, Missouri. Trans. Am. Fish. Soc. 87: 116-131.

Qadri, S.U. 1968. Growth and reproduction of the lake whitefish, Coregonus clupeaformis, in Lac la Ronge, Saskatchewan. J.

Fish. Res. Board Can. 25: 2091-2100.

Qin, J., X. He, and A.W. Fast. 1997. A bioenergetics model for an air-breathing fish, Channa striatus. Environ Biol Fishes 50:

309-318.

Quinn, S.P. 1988. Flathead catfish abundance and growth in the Flint River, Georgia. Proceedings of the Annual Conference of

Southeastern Association of Fish and Wildlife Agencies 42: 141-148.

Rahn, H., K.B. Rahn, B.J. Howell, C. Gans, and S.M. Tenney. 1971. Air breathing of the garfish (Lepisosteus osseus). Respir.

Physiol. 11: 285-307.
DRAFT August 1, 2012 86

Rahrer, J.F. 1965. Age, growth, maturity, and fecundity of "humper" lake trout, Isle Royale, Lake Superior. Trans. Am. Fish. Soc.

94: 75-83.

Rahrer, J.F. 1967. Growth of lake trout in Lake Superior before the maximum abundance of sea lampreys. Trans. Am. Fish. Soc.

96: 268-277.

Rajagopal, P.K. and R.H. Kramer. 1974. Respiratory metabolism of Utah chub, Gila atraria (Girard) and speckled dace,

Rhinichthys osculus (Girard). J. Fish Biol. 6: 215-222.

Rand, P.S., D.J. Stewart, P.W. Seelbach, M.L. Jones, and L.R. Wedge. 1993. Modeling steelhead population energetics in Lakes

Michigan and Ontario. Trans. Am. Fish. Soc. 122: 977-1001.

Rao, G.M.M. 1968. Oxygen consumption of rainbow trout (Salmo gairdneri) in relation to activity and salinity. Can. J. Zool. 46:

781-786.

Redmon, W.L. and L.A. Krumholz. 1978. Age, growth, condition, and maturity of sunfishes of Doe Run, Meade County,

Kentucky. Transactions of the Kentucky Academy of Science 39: 60-73.

Reed, B.C., W.E. Kelso, and D.A. Rutherford. 1992. Growth, fecundity, and mortality of paddlefish in Louisiana. Trans. Am.

Fish. Soc. 121: 378-384.

Reed, J.R. and W.D. Davies. 1991. Population dynamics of black crappies and white crappies in Weiss Reservoir, Alabama:

implications for the implementation of harvest restrictions. N Am J Fish Manage 11: 598-603.

Reed, M.S. and C.F. Rabeni. 1989. Characteristics of an unexploited smallmouth bass population in a Missouri Ozark stream. N

Am J Fish Manage 9: 420-426.

Reed, R.J. 1959. Age, growth, and food of longnose dace, Rhinichthys cataractae in northwestern Pennsylvania. Coepia 1959:

160-162.

Reed, R.J. 1971. Biology of the fallfish, Semotilus corporalis (Pisces, Cyprinidae). Trans. Am. Fish. Soc. 100: 717-725.

Reed, R.J. and J.C. Moulton. 1973. Age and growth of blacknose dace, Rhinichthys atratulus and longnose dace, R. cataractae in

Massachusetts. Am. Midl. Nat. 90: 206-210.

Rice, J.A., J.E. Breck, S.M. Bartell, and J.F. Kitchell. 1983. Evaluating the constraints of temperature, activity and consumption

on growth of largemouth bass. Environ Biol Fishes 9: 263-275.

Robotham, P.W.J. 1978. The dimensions of the gills of two species of loach, Noemacheilus barbatulus and Cobitis taenia. J. Exp.

Biol. 76: 181-184.

Rodnick, K.J., A.K. Gamperl, K.R. Lizars, M.T. Bennett, R.N. Rausch, and E.R. Keeley. 2004. Thermal tolerance and metabolic

physiology among redband trout populations in south-eastern Oregon. J. Fish Biol. 64: 310–335.

Roelofs, E.W. 1957. Age and growth of whitefish, Coregonus clupeaformis (Mitchill), in Big Bay de Noc and northern Lake

Michigan. Trans. Am. Fish. Soc. 87: 190-199.

Rogers, K.B., L.C. Bergsted, and E.P. Bergersen. 1996. Standard weight equation for mountain whitefish. N Am J Fish Manage

16: 207-209.

Rombough, P.J. and B.M. Moroz. 1990. The scaling and potential importance of cutaneous and branchial surfaces in respiratory

gas exchange in young chinook salmon (Oncorhynchus tshawytscha). J. Exp. Biol. 154: 1-12.
DRAFT August 1, 2012 87

Rose, K.A. and J.H. Cowan, Jr. 1993. Individual-based model of young-of-the-year striped bass population dynamics. I. Model

description and baseline simulations. Trans. Am. Fish. Soc. 122: 415-438.

Rose, K.A., E.S. Rutherford, D.S. McDermot, J.L. Forney, and E.L. Mills. 1999. Individual-based model of yellow perch and

walleye populations in Oneida Lake. Ecol. Monogr. 69: 127-154.

Roy, P.K. and J.S.D. Munshi. 1986. Morphometrics of the respiratory organs of a freshwater major carp, Cirrhinus mrigala in

relation to body weight. Jap. J. Ichthyol. 33: 269-279.

Rudershausen, P.J., J.E. Tuomikoski, J.A. Buckel, and J.E. Hightower. 2005. Prey selectivity and diet of striped bass in western

Albemarle Sound, North Carolina. Trans. Am. Fish. Soc. 134: 1059-1074.

Rudstam, L.G., F.P. Binkowski, and M.A. Miller. 1994. A bioenergetics model for the analysis of food consumption patterns of

bloater in Lake Michigan. Trans. Am. Fish. Soc. 123: 344-357.

Rudstam, L.G., P.E. Peppard, T.W. Fratt, R.E. Bruesewitz, D.W. Coble, F.A. Copes, and J.F. Kitchell. 1995. Prey consumption by

the burbot (Lota lota) population in Green Bay, Lake Michigan, based on a bioenergetics model. Can. J. Fish. Aquat. Sci. 52:

1074-1082.

Ruelle, R. 1971. Factors influencing growth of white bass in Lewis and Clark Lake. American Fisheries Society Special

Publication 8: 411-423.

Ruggerone, G.T. 1989. Gastric evacuation rates and daily ration of piscivorous coho salmon, Oncorhynchus kisutch Walbaum. J.

Fish Biol. 34: 451-463.

Ruohonen, K., D.J. Grove, and J.T. McIlroy. 1997. The amount of food ingested in a single meal by rainbow trout offered

chopped herring, dry and wet diets. J. Fish Biol. 51: 93-105.

Rupprecht, R.J. and L.A. Jahn. 1980. Biological notes on blue suckers in the Mississippi River. Trans. Am. Fish. Soc. 109: 323-

326.

Ruzcki, J.R., D.A. Beauchamp, and D.L. Yule. 2003. Effects of introduced lake trout on native cutthroat trout in Yellowstone

Lake. Ecological Applications 13: 23-37.

Saiki, M.K. and C.J. Schmitt. 1986. Organochlorine chemical residues in bluegills and common carp from the irrigated San

Joaquin Valley floor, California. Arch. Environ. Contam. Toxicol. 15: 357-366.

Sandow, J.T., Jr, D.R. Holder, and L.E. McSwain. 1974. Life history of the redbreast sunfish in the Satilla River, Georgia.

Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 28: 279-295.

Santos, C.T.C., M.N. Fernandes, and W. Severi. 1994. Respiratory gill surface area of a facultative air- breathing loricariid fish,

Rhinelepis strigosa. Can. J. Zool. 72: 2009-2015.

Saunders, R.L. 1962. The irrigation of the gills in fishes. II. Efficiency of oxygen uptake in relation to respiratory flow activity and

concentrations of oxygen and carbon dioxide. Can. J. Zool. 40: 817-862.

Schaffter, R.G. 1997. Growth of white catfish in California's Sacramento-San Joaquin Delta. California Fish and Game 83: 57-67.

Schemske, D.W. 1974. Age, length and fecundity of the creek chub, Semotilus atromaculatus (Mitchill), in central Illinois. Am.

Midl. Nat. 92: 505-509.

Schmitt, C.J. and W.G. Brumbaugh. 1990. National Contaminant Biomonitoring Program: Concentrations of arsenic, cadmium,
DRAFT August 1, 2012 88

copper, lead, mercury, selenium, and zinc in U.S. freshwater fish, 1976-1984. Arch. Environ. Contam. Toxicol. 19: 731-747.

Schmitt, C.J., J.L. Zajicek, and M.A. Ribick. 1985. National Pesticide Monitoring Program: Residues of organochlorine chemicals

in freshwater fish, 1980-1981. Arch. Environ. Contam. Toxicol. 14: 225-260.

Schmitt, C.J., J.L. Zajicek, and P.H. Peterman. 1990. National Contaminant Biomonitoring Program: Residues of organochlorine

chemicals in U.S. freshwater fish, 1976-1984. Arch. Environ. Contam. Toxicol. 19: 748-781.

Schneider, C.P., P.W. Laarman, and H. Gowing. 2000. Length-weight relationships. In Manual of Fishery Survey Methods II: with

Periodic Updates. Edited by C.P. Schneider. Michigan Department of Natural Resources, Ann Arbor, MI. 

Schoenebeck, C.W., S.R. Chipps, and M.L. Brown. 2008. Improvement of an Esocid bioenergetics model for juvenile fish. Trans.

Am. Fish. Soc. 137: 1891–1897.

Schramm, H.L., Jr and D.C. Smith. 1987. Differences in growth rate between sexes of Florida largemouth bass. Proceedings of the

Annual Conference of Southeastern Association of Fish and Wildlife Agencies 41: 76-84.

Schultze, R.F. 1974. Age and growth of largemouth bass in California farm ponds. California Fish and Game 60: 94-96.

Semakula, S.N. and P.A. Larkin. 1968. Age, growth, food, and yield of the white sturgeon (Acipenser transmontanus) of the

Fraser River, British Columbia. J. Fish. Res. Board Can. 25: 2589-2602.

Serns, S.L. and K. Strawn. 1975. Age and growth of bluegill, Lepomis macrochirus, in two heated Texas reservoirs. Trans. Am.

Fish. Soc. 104: 506-512.

Settles, W.H. and R.D. Hoyt. 1976. Age structure, growth patterns, and food habits of the southern redbelly dace Chrosomus

erythrogaster in Kentucky. Transactions of the Kentucky Academy of Science 37: 1-10.

Severi, W., F.T. Rantin, and M.N. Fernandes. 1997. Respiratory gill surface of the serrasalmid fish Piaractus mesopotamicus. J.

Fish Biol. 50: 127-136.

Shakuntala, K. and S.R. Reddy. 1977. Influence of body weight/age on the food intake, growth and conversion efficiencies of

Gambusia affinis. Hydrobiologia 55: 65-69.

Sharma, S.N., G. Guha, and B.R. Singh. 1982. Gill dimensions of a hillstream fish, Botia lohachata (Pisces, Cobitidae).

Proceedings of the Indian National Science Academy B 48: 81-91.

Shepherd, M.E. and M.T. Huish. 1978. Age, growth, and diet of the pirate perch in a coastal plain stream of North Carolina.

Trans. Am. Fish. Soc. 107: 457-459.

Shuter, B.J. and J.R. Post. 1990. Climate, population viability, and the zoogeography of temperate fishes. Trans. Am. Fish. Soc.

119: 314:336.

Siefert, R.E. 1969. Biology of the white crappie in Lewis and Clark Lake. U.S. Department of Interior, Fish and Wildlife Service,

Washington, DC. Technical Papers of the Bureau of Sport Fisheries and Wildlife No. 22.

Singh, B.R., A.N. Yadav, J. Ojha, and J.S.D. Munshi. 1981. Gross structure and dimensions of the gills of an intestinal airbreathing fish (Lepidocephalichthys guntea). Copeia 1981(1): 224-229.

Singh, O.N. and J.S.D. Munshi. 1985. Oxygen uptake in relation to body weight, respiratory surface area and group size in a

freshwater goby, Glossogobius giuris (Ham.). Proceedings of the Indian National Science Academy B 51: 33-40.
DRAFT August 1, 2012 89

Singh, O.N., P.K. Roy, and J.S.D. Munshi. 1988. Gill dimensions of an Indian hill-stream cyprinid fish, Botia dario (Ham.).

Archives of Biology, Bruxelles 99: 162-182.

Smatresk, N.J. and J.N. Cameron. 1982. Respiration and acid-base physiology of the spotted gar, a bimodal breather: II.

Responses to temperature change and hypercapnia. J. Exp. Biol. 96: 281-293.

Smith, L.L., Jr and R.L. Pycha. 1961. Factors related to commercial production of the walleye in the Red Lakes, Minnesota.

Trans. Am. Fish. Soc. 90: 190-217.

Smith, L.L., Jr and R.H. Kramer. 1964. The spottail shiner in the Lower Red Lake, Minnesota. Trans. Am. Fish. Soc. 93: 35-45.

Smith, W.B. 1971. The biology of the Roanoke bass, Ambloplites cavifrons Cope, in North Carolina. Proceedings of the Annual

Conference of Southeastern Association of Fish and Wildlife Agencies 25: 561-570.

Specziár, A. 2002. In situ estimates of gut evacuation and its dependence on temperature in five cyprinids. J. Fish Biol. 60: 1222-

1236.

Spier, H.J. 1969. Comparison of rock bass, Ambloplites rupestris (Rafinesque), populations in Obed River and Spring Creek,

Tennessee, pp. 58. Tennessee Technological University, Cookeville, TN.

Staples, D.J. and M. Nomura. 1976. Influence of body size and food ration on the energy budget of rainbow trout Salmo gairdneri

Richardson. J. Fish Biol. 9: 29-43.

Starmach, J. 1971. Oxygen consumption and respiratory surface of gills in Cottus poecilopus Heckel and Cottus gobio L. Acta

Biol. Cracov. Ser. Zool. 14: 9-15.

Starostka, V.J. and W.R. Nelson. 1974. Age, growth, sexual maturity, and food of channel catfish in central Lake Oahe, 1968-69.

U.S. Department of Interior, Fish and Wildlife Service, Washington, DC. Technical Papers of the Bureau of Sport Fisheries and

Wildlife No. 81.

Steingrímsson, S.O. and J.W.A. Grant. 1999. Allometry of territory size and metabolic rate as predictors of self thinning in youngof-year Atlantic salmon. J. Anim. Ecol. 68: 17-86.

Stewart, D.J. and F.P. Binkowski. 1986. Dynamics of consumption and food conversion by Lake Michigan alewives: an

energetics-modeling synthesis. Trans. Am. Fish. Soc. 115: 643-659.

Stewart, D.J. and M. Ibarra. 1991. Predation and production by salmonine fishes in Lake Michigan, 1978-88. Can. J. Fish. Aquat.

Sci. 48: 909-922.

Stewart, D.J., D. Weininger, D.V. Rottiers, and T.A. Edsall. 1983. An energetics model for lake trout Salvelinus namaycush:

application to the Lake Michigan population. Can. J. Fish. Aquat. Sci. 40: 681-698.

Stiefvater, R.J. and S.P. Malvestuto. 1985. Seasonal analysis of predator-prey size relationships in West Point Lake, AlabamaGeorgia. Proc Ann Conf SE Assoc Fish Wildl Agencies 39: 19-27.

Stroud, R.H. 1948. Growth of the basses and black crappie in Norris Reservoir, Tennessee. J. Tennessee Acad. Sci. 23: 31-99.

Surmont, A.F. 1999. Muskellunge streams investigation at Fox, Triplett, and North Fork Triplett Creeks. Fishery Bulletin of the

Kentucky Department of Fish and Wildlife Resources 101: 1-00.

Swann, D.L., L.E. Rider, and F.J. Bulow. 1991. Age, growth, and summer foods of four centrarchid species in a Big South Fork

National River and Recreational Area stream fish community. J. Tennessee Acad. Sci. 66: 23-28.
DRAFT August 1, 2012 90

Swedberg, D.V. 1968. Food and growth of the freshwater drum in Lewis and Clark Lake, South Dakota. Trans. Am. Fish. Soc. 97:

442-447.

Tandler, A. and F.W.H. Beamish. 1981. Apparent specific dynamic action (SDA), fish weight and level of caloric intake in

largemouth bass, Micropterus salmoides Lacepede. Aquaculture 23: 231-242.

Tarby, M.J. 1980. Metabolic expenditure of walleye (Stizostedion vitreum vitreum) as determined by rate of oxygen consumption.

Can. J. Zool. 59: 882-889.

Tatum, W.M. and P.A. Hackney. 1969. Age and growth of river redhorse, Moxostoma carinatum (Cope) from the Cahaba River,

Alabama. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 23: 255-261.

Tatum, W.R. 1965. A study of an introduced population of redeye bass, Micropterus coosae Hubbs and Bailey, in Spring Creek,

Tennessee. Tennessee Technological University, Cookeville, TN.

Tharratt, R.C. 1966. The age and growth of centrarchid fishes in Folsom Lake, California. California Fish and Game 52: 4-16.

Timmerman, C.M. and L.J. Chapman. 2004. Hypoxia and interdemic variation in Poecilia latipinna. J. Fish Biol. 65: 635-650.

Timmons, T.J., W.L. Shelton, and W.D. Davies. 1980. Differential growth of largemouth bass in West Point Reservoir, AlabamaGeorgia. Trans. Am. Fish. Soc. 109: 176-186.

Trebitz, A., S. Carpenter, P. Cunningham, B. Johnson, R. Lillie, D. Marshall, T. Martin, R. Narf, T. Pellett, S. Stewart, C. Storlie,

and J. Unmuth. 1997. A model of bluegill-largemouth bass interactions in relation to aquatic vegation and its management. Ecol.

Model. 94: 139-156.

Trudel, M. and D. Boisclair. 1994. Seasonal consumption by dace (Phoxinus eos X P. neogaeus): a comparison between field and

bioenergetic model estimates. Can. J. Fish. Aquat. Sci. 51: 2558-2567.

Trudel, M. and D.W. Welch. 2005. Modeling the oxygen consumption rates in Pacific salmon and steelhead: model development.

Trans. Am. Fish. Soc. 134: 1542–1561.

Turesson, H., A. Persson, and C. Brönmark. 2002. Prey size selection in piscivorous pikeperch (Stizostedion lucioperca) includes

active prey choice. Ecology of Freshwater Fish 11: 223-233.

Tyler, J.D. and M.N. Granger. 1984. Notes on food habits, size, and spawning behavior of Spotted gar in Lake Lawtonka,

Oklahoma. Proc. Okla. Acad. Sci. 64: 8-10.

Umezawa, S.-I. and H. Watanabe. 1973. On the respiration of the killifish Oryzias latipes. J. Exp. Biol. 58: 305-325.

Van Den Avyle, M.J. and B.J. Higginbotham. 1979. Growth, survival and distribution of striped bass stocked into Watts Bar

Reservoir, Tennessee. Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 33: 361-

370.

Van Oosten, J. 1961. Records, ages, and growth of the mooneye, Hiodon tergisus, of the Great Lakes. Trans. Am. Fish. Soc. 90:

170-174.

van Winkle, W., H.I. Jager, S.F. Railsback, B.D. Holcomb, and T.K. Studley. 1998. Individual-based model of sympatric

populations of brown and rainbow trout for instream flow assessment: model description and calibration. Ecol. Model. 110: 175-

207.

Vanicek, C.D. and R.H. Kramer. 1969. Life history of the Colorado squawfish, Ptychocheilus lucius, and the Colorado chub, Gila
DRAFT August 1, 2012 91

robusta, in the Green River in Dinosaur National Monument, 1964-1966. Trans. Am. Fish. Soc. 98: 193-208.

Varley, J.D., A.F. Regenthal, and R.W. Wiley. 1971. Growth of rainbow trout in Flaming Gorge Reservoir during the first six

years of impoundment. American Fisheries Society Special Publication 8: 121-136.

Villa, N.A. 1985. Life history of the Sacramento sucker, Catostomus occidentalis, in Thomes Creek, Tehama County, California.

California Fish and Game 71: 88-106.

Wagner, W.C. 1972. Utilization of alewives by inshore piscivorous fishes in Lake Michigan. Trans. Am. Fish. Soc. 101: 55-63.

Wares, W.D., II and R. Igram. 1979. Oxygen consumption in the fathead minnow (Pimephales promelas Rafinesque) - I. effects of

weight, temperature, group size, oxygen level and opercular movement rate as a function of temperature. Comparative

Biochemistry and Physiology A 62: 351-356.

Webb, J.F. and D.D. Moss. 1967. Spawning behavior and age and growth of white bass in Center Hill Reservoir, Tennessee.

Proceedings of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 21: 343-357.

Webster, D.A., W.A. Lund, Jr, R.W. Wahl, and W.D. Youngs. 1960. Observed and calculated lengths of lake trout (Salvelinus

namaycush) in Cayuga Lake, New York. Trans. Am. Fish. Soc. 89: 274-279.

Whitledge, G.W., R.S. Hayward, R.D. Zweifel, and C.F. Rabeni. 2003. Development and laboratory evaluation of a bioenergetics

model for subadult and adult smallmouth bass. Trans. Am. Fish. Soc. 132: 316–325.

Whittinghill, K.W. 1973. A pre-impoundment study of the age, growth, and condition of various fishes in the Cordell Hull section

of the Cumberland River, pp. 51. Tennessee Technological University, Cookeville, TN.

Whitworth, W.R. 1989. Evaluation of largemouth bass growth estimates obtained from angler-collected scale samples. N Am J

Fish Manage 9: 116-119.

Wiegert, L. 1966. A four-year study of the smallmouth bass in the outlying waters of Door County, Wisconsin. Wisconsin

Conservation Department, Madison, WI. Fish Management Report 1.

Wiener, J.G. and W.R. Hanneman. 1982. Growth and condition of bluegills in Wisconsin lakes: effects of population density and

lake pH. Trans. Am. Fish. Soc. 111: 761-767.

Wiens, J.R., C.S. Guy, and M.L. Brown. 1996. A revised standard weight (Ws

) equation for spotted bass. N Am J Fish Manage 16:

958-959.

Wiley, M.J. and L.D. Wike. 1986. Energy balances of diploid, triploid, and hybrid grass carp. Trans. Am. Fish. Soc. 115: 853-

863.

Williamson, F.A. 1974. Population studies of the striped bass (Morone saxatilis) in the Saint John and Annapolis Rivers. Acadia

University, Wolfville, Nova Scotia.

Willis, D.W. 1989. Proposed standard length-weight equation for northern pike. N Am J Fish Manage 9: 203-208.

Willis, D.W., J.F. Smeltzer, and S.A. Flickinger. 1984. Characteristics of a crappie population in an unfished small impoundment

containing northern pike. N Am J Fish Manage 4: 385-389.

Willis, D.W., C.S. Guy, and B.R. Murphy. 1991. Development and evaluation of a standard weight (Ws

) equation for yellow

perch. N Am J Fish Manage 11: 374-380.
DRAFT August 1, 2012 92

Windell, J.T., D.O. Norris, J.F. Kitchell, and J.S. Norris. 1969. Digestive response of rainbow trout, Salmo gairdneri, to pellet

diets. J. Fish. Res. Board Can. 26: 1801-1812.

Wohlschlag, D.E. 1957. Differences in metabolic rates of migratory and resident freshwater forms of an Arctic whitefish. Ecology

38: 502-510.

Wohlschlag, D.E. and R.O. Juliano. 1959. Seasonal changes in bluegill metabolism. Limnol. Oceanogr. 4: 195-209.

Wolfe, G.W., B.H. Bauer, and B.A. Branson. 1978. Age and growth, length-weight relationships, and condition factors of the

greenside darter from Silver Creek, Kentucky. Transactions of the Kentucky Academy of Science 39: 131-134.

Wolfert, D.R. 1977. Age and growth of the walleye in Lake Erie, 1963-1968. Trans. Am. Fish. Soc. 106: 569-577.

Wolfert, D.R. and T.J. Miller. 1978. Age, growth, and food of northern pike in eastern Lake Ontario. Trans. Am. Fish. Soc. 107:

696-702.

Woodward, R.L. and T.E. Wissing. 1976. Age, growth, and fecundity of the quillback (Carpiodes cyprinus) and highfin (C.

velifer) carpsuckers in an Ohio stream. Trans. Am. Fish. Soc. 105: 411-415.

Wootton, R.J., J.R.M. Allen, and S.J. Cole. 1980. Effect of body weight and temperature on the maximum daily food consumption

of Gasterosteus aculeatus L. and Phoxinus phoxinus (L.): selecting an appropriate model. J. Fish Biol. 17: 695-705.

Worischka, S. and T. Mehner. 1998. Comparison of field-based and indirect estimates of daily food consumption in larval perch

and zander. J. Fish Biol. 53: 1050-1059.

Wrenn, W.B. 1968. Life history aspects of smallmouth buffalo and freshwater drum in Wheeler Reservoir, Alabama. Proceedings

of the Annual Conference of Southeastern Association of Fish and Wildlife Agencies 22: 479-495.

Wright, L.D. 1970. Forage size preference of the largemouth bass. Progressive Fishery Culture 32: 39-42.

Wydoski, R.G. and R.S. Wydoski. 2002. Age, growth, and reproduction of mountain suckers in Lost Creek Reservoir, Utah.

Trans. Am. Fish. Soc. 131: 320-328.

Xiaojun, X. and S. Ruyung. 1990. The bioenergetics of the southern catfish (Silurus meridionalis Chen). I. Resting metabolic rate

as a function of body weight and temperature. Physiological Zoology 63: 1181-1195.

Yamamoto, K.-I. 1992. Relationship of respiration to body weight in the tilapia Oreochromis niloticus under resting and normoxic

conditions. Comparative Biochemistry and Physiology Part A: Physiology 103: 81-83.

Young, K.L. and P.C. Marsh. 1990. Age and growth of flathead catfish in four southwestern rivers. California Fish and Game 76:

224-233.

Zweiacker, P.L., R.C. Summerfelt, and J.N. Johnson. 1972. Largemouth bass growth in relationship to annual variations in mean

pool elevations in Lake Carl Blackwell, Oklahoma. Proceedings of the Annual Conference of Southeastern Association of Fish

and Wildlife Agencies 26: 530-540.