Appendix C. Results of PERMANOVA analyses examining the effects of lake alkalinity and trophic status on the relative variability of the spatial distances among lakes sampled for invertebrates.

Appendix B: Some morphometric parameters of named lakes with areas [greater than or equal to] 1.0 km2, and some smaller lakes, in New Zealand

Lowe, David J.
Green, John D.

January 1987

Gaps indicate uncertainty or that accurate data are unavailable. Note that lakes with fluctuating le...

Appendix C. The effects of experimental treatments on periphyton biomass and benthic invertebrate abundance and diversity.

Jorge García Molinos (700269)
Ian Donohue (331956)

August 2016

The effects of experimental treatments on periphyton biomass and benthic invertebrate abundance and ...

Relationships Between Lake Morphometry, Geographic Location and Water Quality Parameters of European Lakes

NOGES Tiina

September 2009

I addressed the question how lake and catchment morphometry influences water chemistry and water qua...

Appendix D. Results of SIMPER analyses identifying the five taxa contributing most to the dissimilarity between nutrient-poor and nutrient-rich lakes and indicating the relative changes in the abundance of each taxon in lakes of differing trophic status.

Ian Donohue (331956)
Andrew L. Jackson (331957)
Martin T. Pusch (2918735)
Kenneth Irvine (740512)

August 2016

Results of SIMPER analyses identifying the five taxa contributing most to the dissimilarity between ...

Appendix A. Means and ranges of limnological variables measured in the study ponds and lakes over the survey period.

Erica A. Garcia (2914328)
Gary G. Mittelbach (2912393)

August 2016

Means and ranges of limnological variables measured in the study ponds and lakes over the survey per...

Appendix A. A summary of chemical and physical data for the five source lakes that contributed dispersers for this study and for mesocosms averaged across weeks of the experiment, and a graph illustrating the first two axes of a principle coordinates analysis of the plankton communities across the three dispersal treatments using compositional data collected on the last day of the experiment.

Brandon S. Schamp (497231)
Shelley E. Arnott (2907266)
Katelyn L. Joslin (2929041)

August 2016

A summary of chemical and physical data for the five source lakes that contributed dispersers for th...

Permutational analysis of variance (PERMANOVA) results, testing the effects of lake types (Freshwater, Transitional and Brackish) and lakes (two of each type) on the species richness, density and diversity of invertebrates.

Krystian Obolewski (6009506)
Katarzyna Glińska-Lewczuk (4710234)
Monika Szymańska (6009509)
Natalia Mrozińska (6009512)
Martyna Bąkowska (6009515)
Aleksander Astel (6009518)
Sylwia Lew (6009521)
Ewa Paturej (6009524)

November 2018

Permutational analysis of variance (PERMANOVA) results, testing the effects of lake types (Freshwate...

Appendix C. Table containing group-specific and total zooplankton production and terrestrial resource reliance estimates for each lake.

Patrick T. Kelly (2927535)
Christopher T. Solomon (687929)
Brian C. Weidel (687930)
Stuart E. Jones (466568)

August 2016

Table containing group-specific and total zooplankton production and terrestrial resource reliance e...

Appendix E. A table showing select physical and chemical characteristics of the 17 study lakes, along with the percentage relative abundance of the three target species in surface sediment samples.

Jasmine E. Saros (250782)
Jeffery R. Stone (639225)
Gregory T. Pederson (837821)
Krista E. H. Slemmons (2924697)
Trisha Spanbauer (2924691)
Anna Schliep (2924694)
Douglas Cahl (2924700)
Craig E. Williamson (2288485)
Daniel R. Engstrom (813021)

August 2016

A table showing select physical and chemical characteristics of the 17 study lakes, along with the p...

Appendix A. Figuresand tables showing the absolute biomass of organisms, the effect of latitudinal location, the relative biomass of predator species, habitat complexity, listing all species and statistical results.

Jana S. Petermann (244274)
Vinicius F. Farjalla (137364)
Merlijn Jocque (170221)
Pavel Kratina (702924)
A. Andrew M. MacDonald (702926)
Nicholas A. C. Marino (702925)
Paula M. de Omena (2928714)
Gustavo C. O. Piccoli (2928717)
Barbara A. Richardson (2928711)
Michael J. Richardson (307418)
Gustavo Q. Romero (217663)
Martin Videla (2928708)
Diane S. Srivastava (135453)

August 2016

Figuresand tables showing the absolute biomass of organisms, the effect of latitudinal location, the...

Appendix C. Details of statistical analyses to compare carbon and nitrogen isotope signatures between lakes, treatments, and seasons.

K. Scharnweber (2927688)
J. Syväranta (2927676)
S. Hilt (2927685)
M. Brauns (2927682)
M. J. Vanni (2927667)
S. Brothers (2927673)
J. Köhler (2738410)
J. Knežević-Jarić (2927670)
T. Mehner (2927679)

August 2016

Details of statistical analyses to compare carbon and nitrogen isotope signatures between lakes, tre...

Appendix D. Additional information on the gradients realized through the lake-selection procedure.

S. Declerck (2913887)
J. Vandekerkhove (2913878)
L. Johansson (2913920)
K. Muylaert (1545736)
J. M. Conde-Porcuna (2913917)
K. Van der Gucht (2913902)
C. Pérez-Martínez (2913905)
T. Lauridsen (2913908)
K. Schwenk (2913890)
G. Zwart (2913893)
W. Rommens (2913911)
J. López-Ramos (2913884)
E. Jeppesen (2913914)
W. Vyverman (2913896)
L. Brendonck (2913899)
L. De Meester (2913881)

August 2016

Additional information on the gradients realized through the lake-selection procedure

Appendix B. Zooplankton vertical distributions for Lakes Kulik and Nerka (southwestern Alaska).

Mark D. Scheuerell (648157)
Daniel E. Schindler (128949)

August 2016

Zooplankton vertical distributions for Lakes Kulik and Nerka (southwestern Alaska)

Appendix B. Computational details of the null model showing that lakes within watersheds are more connected than across watersheds.

Renato Henriques-Silva (2925261)
Zoë Lindo (2925264)
Pedro R. Peres-Neto (498761)

August 2016

Computational details of the null model showing that lakes within watersheds are more connected than...

Appendix C. Results of variation partitioning for the taxa richness of phytoplankton and zooplankton in terms of fractions of variation explained.

Janne Soininen (136179)
Miska Luoto (809195)

August 2016

Results of variation partitioning for the taxa richness of phytoplankton and zooplankton in terms of...

Appendix B: Some morphometric parameters of named lakes with areas [greater than or equal to] 1.0 km2, and some smaller lakes, in New Zealand

Lowe, David J.
Green, John D.

January 1987

Gaps indicate uncertainty or that accurate data are unavailable. Note that lakes with fluctuating le...

Appendix C. The effects of experimental treatments on periphyton biomass and benthic invertebrate abundance and diversity.

Jorge García Molinos (700269)
Ian Donohue (331956)

August 2016

The effects of experimental treatments on periphyton biomass and benthic invertebrate abundance and ...

Relationships Between Lake Morphometry, Geographic Location and Water Quality Parameters of European Lakes

NOGES Tiina

September 2009

I addressed the question how lake and catchment morphometry influences water chemistry and water qua...

Appendix D. Results of SIMPER analyses identifying the five taxa contributing most to the dissimilarity between nutrient-poor and nutrient-rich lakes and indicating the relative changes in the abundance of each taxon in lakes of differing trophic status.

Ian Donohue (331956)
Andrew L. Jackson (331957)
Martin T. Pusch (2918735)
Kenneth Irvine (740512)

August 2016

Results of SIMPER analyses identifying the five taxa contributing most to the dissimilarity between ...

Appendix A. Means and ranges of limnological variables measured in the study ponds and lakes over the survey period.

Erica A. Garcia (2914328)
Gary G. Mittelbach (2912393)

August 2016

Means and ranges of limnological variables measured in the study ponds and lakes over the survey per...

Appendix A. A summary of chemical and physical data for the five source lakes that contributed dispersers for this study and for mesocosms averaged across weeks of the experiment, and a graph illustrating the first two axes of a principle coordinates analysis of the plankton communities across the three dispersal treatments using compositional data collected on the last day of the experiment.

Brandon S. Schamp (497231)
Shelley E. Arnott (2907266)
Katelyn L. Joslin (2929041)

August 2016

A summary of chemical and physical data for the five source lakes that contributed dispersers for th...

Permutational analysis of variance (PERMANOVA) results, testing the effects of lake types (Freshwater, Transitional and Brackish) and lakes (two of each type) on the species richness, density and diversity of invertebrates.

Krystian Obolewski (6009506)
Katarzyna Glińska-Lewczuk (4710234)
Monika Szymańska (6009509)
Natalia Mrozińska (6009512)
Martyna Bąkowska (6009515)
Aleksander Astel (6009518)
Sylwia Lew (6009521)
Ewa Paturej (6009524)

November 2018

Permutational analysis of variance (PERMANOVA) results, testing the effects of lake types (Freshwate...

Appendix C. Table containing group-specific and total zooplankton production and terrestrial resource reliance estimates for each lake.

Patrick T. Kelly (2927535)
Christopher T. Solomon (687929)
Brian C. Weidel (687930)
Stuart E. Jones (466568)

August 2016

Table containing group-specific and total zooplankton production and terrestrial resource reliance e...

Appendix E. A table showing select physical and chemical characteristics of the 17 study lakes, along with the percentage relative abundance of the three target species in surface sediment samples.

Jasmine E. Saros (250782)
Jeffery R. Stone (639225)
Gregory T. Pederson (837821)
Krista E. H. Slemmons (2924697)
Trisha Spanbauer (2924691)
Anna Schliep (2924694)
Douglas Cahl (2924700)
Craig E. Williamson (2288485)
Daniel R. Engstrom (813021)

August 2016

A table showing select physical and chemical characteristics of the 17 study lakes, along with the p...

Appendix A. Figuresand tables showing the absolute biomass of organisms, the effect of latitudinal location, the relative biomass of predator species, habitat complexity, listing all species and statistical results.

Jana S. Petermann (244274)
Vinicius F. Farjalla (137364)
Merlijn Jocque (170221)
Pavel Kratina (702924)
A. Andrew M. MacDonald (702926)
Nicholas A. C. Marino (702925)
Paula M. de Omena (2928714)
Gustavo C. O. Piccoli (2928717)
Barbara A. Richardson (2928711)
Michael J. Richardson (307418)
Gustavo Q. Romero (217663)
Martin Videla (2928708)
Diane S. Srivastava (135453)

August 2016

Figuresand tables showing the absolute biomass of organisms, the effect of latitudinal location, the...

Appendix C. Details of statistical analyses to compare carbon and nitrogen isotope signatures between lakes, treatments, and seasons.

K. Scharnweber (2927688)
J. Syväranta (2927676)
S. Hilt (2927685)
M. Brauns (2927682)
M. J. Vanni (2927667)
S. Brothers (2927673)
J. Köhler (2738410)
J. Knežević-Jarić (2927670)
T. Mehner (2927679)

August 2016

Details of statistical analyses to compare carbon and nitrogen isotope signatures between lakes, tre...

Appendix D. Additional information on the gradients realized through the lake-selection procedure.

S. Declerck (2913887)
J. Vandekerkhove (2913878)
L. Johansson (2913920)
K. Muylaert (1545736)
J. M. Conde-Porcuna (2913917)
K. Van der Gucht (2913902)
C. Pérez-Martínez (2913905)
T. Lauridsen (2913908)
K. Schwenk (2913890)
G. Zwart (2913893)
W. Rommens (2913911)
J. López-Ramos (2913884)
E. Jeppesen (2913914)
W. Vyverman (2913896)
L. Brendonck (2913899)
L. De Meester (2913881)

August 2016

Additional information on the gradients realized through the lake-selection procedure

Appendix B. Zooplankton vertical distributions for Lakes Kulik and Nerka (southwestern Alaska).

Mark D. Scheuerell (648157)
Daniel E. Schindler (128949)

August 2016

Zooplankton vertical distributions for Lakes Kulik and Nerka (southwestern Alaska)

Appendix B. Computational details of the null model showing that lakes within watersheds are more connected than across watersheds.

Renato Henriques-Silva (2925261)
Zoë Lindo (2925264)
Pedro R. Peres-Neto (498761)

August 2016

Computational details of the null model showing that lakes within watersheds are more connected than...

Appendix C. Results of variation partitioning for the taxa richness of phytoplankton and zooplankton in terms of fractions of variation explained.

Janne Soininen (136179)
Miska Luoto (809195)

August 2016

Results of variation partitioning for the taxa richness of phytoplankton and zooplankton in terms of...

Appendix B: Some morphometric parameters of named lakes with areas [greater than or equal to] 1.0 km2, and some smaller lakes, in New Zealand

Lowe, David J.
Green, John D.

January 1987

Gaps indicate uncertainty or that accurate data are unavailable. Note that lakes with fluctuating le...

Appendix C. The effects of experimental treatments on periphyton biomass and benthic invertebrate abundance and diversity.

Jorge García Molinos (700269)
Ian Donohue (331956)

August 2016

The effects of experimental treatments on periphyton biomass and benthic invertebrate abundance and ...

Relationships Between Lake Morphometry, Geographic Location and Water Quality Parameters of European Lakes

NOGES Tiina

September 2009

I addressed the question how lake and catchment morphometry influences water chemistry and water qua...

Appendix C. Results of PERMANOVA analyses examining the effects of lake alkalinity and trophic status on the relative variability of the spatial distances among lakes sampled for invertebrates.

Abstract

Extracted data

Appendix C. Results of PERMANOVA analyses examining the effects of lake alkalinity and trophic status on the relative variability of the spatial distances among lakes sampled for invertebrates.

Abstract

Extracted data

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