Publications

Manuscripts in Review

Bucci K., et al. in review. Environmentally-relevant microplastic mixture causes gastrointestinal inflammation and changes in gene expression in yellow perch (Perca flavescens) in a large-scale in-lake mesocosm experiment. Manuscript es-2025-187655. Submitted December 31, 2026. Environmental Science & Technology.

Rochman C.M., et al. in review. Microplastics rapidly sink and beach in a whole-lake experiment. Manuscript ID: es-2026-09040f. Submitted June 14, 2026. Environmental Science & Technology.

Thompson D., et al. in review. The dorsal skin transcriptome of developing wood frogs (Rana sylvatica) is dysregulated following chronic exposure to a microplastics mixture. Manuscript ETCJ-Jul-26-00419. Submitted July 28, 2026. Environmental Toxicology & Chemistry.

Published Papers

[65] Gene S.M., Katzenback B.A., Provencher J.F., Mallory M.L., Lougheed S.C., Orihel D.M. Outdoor mesocosm experiment provides novel insights into the relative importance of water and food as sources of microplastics to aquatic amphibians. Ecotoxicology. Accepted July 30, 2026.

[64] Franklin D.J., Kelly L.T., Orihel D.M., Puddick J., Wood S.A. A global survey of cyanobacteria risk management in recreational waters: Methods, principal taxa and toxins, challenges and perspectives. Environmental Management. Accepted July 27, 2026.

[63] Hermabessiere L., Weinrauch A., Zaidi S., Hung E.T., Covernton G.A., Langenfeld D., Cable R.N., Veneruzzo C., Orihel D.M., Provencher J.F., Rennie M.D., Jeffries K.M., Rochman C.M. 2026. Yellow perch (Perca flavescens) show subtle changes in the cellular stress response following exposure to microplastics in large in-lake mesocosms. Environmental Toxicology & Chemistry 45:2328–2339. DOI: 10.1093/etojnl/vgag121.

[62] Covernton G.A., Ghosh M., Hermabessiere L., Bucci K., Langenfeld D., McNamee R., Veneruzzo C., Hoffman M.J., Orihel D.M., Paterson M.J., Provencher J.F., Rennie M.D., Rochman C.M. 2026. Microplastics reach organs outside the gastrointestinal tract of yellow perch (Perca flavescens) following long-term exposure in large, in-lake mesocosms. Contaminants, Environment, and Society 1: 1-12. DOI: 10.1139/ces-2025-0002.

[61] Lazcano R.F., Johnson E., Higgins S., Bucci K., McNamee R., Veneruzzo C., Langenfeld D., Orihel D.M., Rennie M.D., Hoffman M., Paterson M., Provencher J.F., Rochman C.M., Hoellein T.J. 2026. Microplastic addition has no detectable effect on ecosystem metabolism or diel dinitrogen flux in a large in‐lake mesocosm experiment under oligotrophic conditions. Limnology and Oceanography 71: e70392. DOI: 10.1002/lno.70392.

[60] Langenfeld D., Veneruzzo C., Cable R.N., Wang K., Rochman C.M., Rennie M.D., Hoffman M.J., Orihel D.M., Provencher J.F., Higgins S.N., Paterson M.J. 2026. Microplastics with and without chemical additives modestly affected phytoplankton and zooplankton in a large in-lake mesocosm study. Environmental Toxicology & Chemistry 45:2356–2366. DOI: 10.1093/etojnl/vgag125.

[59] Lecours J.B., Gene S.M., Orihel D.M., Katzenback B.A., Provencher J.F., Hasler C.T. 2026. Microplastic exposure induces locomotory responses in wood frog (Rana sylvatica) tadpoles. Ecotoxicology 35. DOI: 10.1007/s10646-026-03114-8.

[58] Kim J., Orihel D.M., Thompson D., Katzenback B., Rodrigues T., Provencher J. 2026. A field survey of anuran species in two boreal lakes at the Experimental Lakes Area, Ontario, Canada. The Canadian Field-Naturalist 139:126–140. DOI: 10.22621/cfn.v139i2.3541.

[57] Seabrook K.J., Adams J.E., Robinson S.A., Brinkmann M., Brown T.M., Challis J.K., Chibwe L., Marteinson S., Philibert D., Prosser R.S., Orihel D.M. 2026. What evidence exists on the environmental occurrence and toxic effects of the tire additive 6PPD: a systematic map protocol. Environmental Evidence 15:5. DOI: 10.1186/s13750-026-00383-y.

[56] Adams J.E., Elvidge C.K., Carrière K., Dodds J.W., Rogers J.A., Seabrook K.J., Raine J.C., Blais J.M., Hanson M.L., Hodson P.V., Hollebone B.P., Kennedy C.J., Mumford K.G., Orihel D.M. 2026. Comparison of three in situ egg incubators for salmonid research applications. FACETS 11:1–13. DOI: 10.1139/facets-2025-0199.

[55] Vanderlip H.L., Hughes K.D., Orihel D.M., Friesen V.L., S R.d.S., Letcher R.J., Martin P.A., Lavoie R.A., Eng M.L., Provencher J.F. 2026. Effect of Stockholm Convention listing on temporal trends of halogenated flame retardants in herring gull eggs in Canada (2008-2023). Archives of Environmental Contamination and Toxicology 90:11. DOI: 10.1007/s00244-025-01173-2.

[54] Stoyanovich S., Saunders L.J., Tugulea A.M., Hnatiw J., Strathern R., Hanson M., Hollebone B.P., Orihel D.M., Palace V., Rodriguez-Gil J.R., Blais J.M. 2025. Early mass transfer of monocyclic aromatics to water following diluted bitumen spills in freshwater limnocorrals. Environmental Science & Technology – Water 5:7051–7061. DOI: 10.1021/acsestwater.5c01023.

[53] Seabrook K.J., Winn L.M., Brinkmann M., Adams J.E., Canete A., Xie L., Peng H., Robinson S.A., Orihel D.M. 2025. First assessment of the ecotoxicological effects of the tire antioxidant 6PPD on early life stages of the popular sport fish species, the largemouth bass (Micropterus nigricans). Environmental Toxicology & Chemistry 44:3225–3235. DOI: 10.1093/etojnl/vgaf178.

[52] Rochman C.M., Langenfeld D., Cable R.N., Covernton G.A., Hermabessiere L., McNamee R., Veneruzzo C., Munno K., Omer M., Paterson M.J., Rennie M.D., Rooney R., Duhaime M.B., Jeffries K.M., McMeans B., Orihel D.M., Hoffman M.J., Provencher J.F. 2025. Where is all the plastic? How microplastic partitions across environmental compartments within a large pelagic in-lake mesocosm. Environmental Science & Technology 59:9768–9778. DOI: 10.1021/acs.est.5c01441.

[51] Graves S., Chen S.-M., McNamee R., Rodrigues T.H., Hayden B., Rochman C.M., Provencher J.F., Rennie M.D., Layton-Matthews D., M. L., Sherwood O.A., Orihel D.M. 2025. Investigating the potential uptake of microplastic-derived carbon into a boreal lake food web using carbon-13 labelled plastic. FACETS 10: 1–9. DOI: 10.1139/facets-2024-0108.

[50] Gene S.M., Katzenback B.A., Wilson J., Mallory M.L., Provencher J.F., Steel E., Orihel D.M. 2025. The effects of a microplastic mixture on wood frogs (Rana sylvatica) across multiple life stages in an outdoor mesocosm experiment. Environmental Toxicology & Chemistry 44:444–459. DOI:1093/etojnl/vgae037.

[49] Yang Z., Shah K., Hollebone B., Laforest S., MacGillivray M., Dey D., Rodriguez J.L., Lalonde B., Yang C., Beaulac V., Blais J.M., Hanson M., Orihel D.M. 2024. Occurrence, characterization, and ecological risk analysis of petroleum hydrocarbons in water and sediments following large-scale field simulated oil spills at the experimental lakes area, Northwestern Ontario, Canada. Marine Pollution Bulletin 209:117235. DOI: 10.1016/j.marpolbul.2024.117235.

[48] Langenfeld D., Bucci K., Veneruzzo C., McNamee R., Gao G., Rochman C.M., Rennie M.D., Hoffman M.J., Orihel D.M., Provencher J.F., Higgins S.N., Paterson M.J. 2024. Microplastics at environmentally relevant concentrations had minimal impacts on pelagic zooplankton communities in a large in-lake mesocosm experiment. Environmental Science and Technology 58:19419-19428. DOI: 10.1021/acs.est.4c05327.

[47] Covernton G.A., Metherel A.H., McMeans B.C., Bucci K., Langenfeld D., McNamee R., Veneruzzo C., Hoffman M.J., Orihel D.M., Paterson M.J., Provencher J.F., Rennie M.D., Rochman C.M. 2024. Increasing microplastic exposure had minimal effects on fatty acid composition in zooplankton and yellow perch in a large, in-lake mesocosm experiment. Canadian Journal of Fisheries and Aquatic Sciences 81:1717-1727. DOI: 10.1139/cjfas-2024-0149.

[46] Rochman C., Bucci K., Langenfeld D., McNamee R., Veneruzzo C., Covernton G., Gao G., Ghosh M., Cable R., Hermabessiere L., Lezcano R., Paterson M., Rennie M., Rooney R., Helm P., Duhaime M., Hoellein T., Jeffries K., Hoffman M., Orihel D., Provencher J. 2024. Informing the exposure landscape: the fate of microplastics in a large pelagic in-lake mesocosm experiment. Environmental Science & Technology 58:7998−8008. DOI: 10.1021/acs.est.3c08990.

[45] Iyare P.U., Vanderlip H.L., Dias M., Provencher J.F., Zou S., Lougheed S.C., de Groot P.V.C., Whitelaw G., Branigan M., Dyck M., Orihel D.M. 2024. An assessment of microplastics in fecal samples from polar bears (Ursus maritimus) in Canada’s North. Arctic Science 10:409–423 DOI: 10.1139/AS-2023-0060.

[44] McIlwraith H.K., Dias M., Orihel D.M., Rennie M.D., Harrison A.L., Hoffman M.J., Provencher J.F., Rochman C.M. 2024. A multicompartment assessment of microplastic contamination in semi-remote boreal lakes. Environmental Toxicology & Chemistry. DOI: 10.1002/etc.5832.

[43] Reynolds J.S., Elvidge C.K., Vander Meulen I.J., Hasler C.T., Frank R.A., Headley J.V., Hewitt L.M., Orihel D.M. 2024. Naphthenic acid fraction compounds, produced by the extraction of bitumen from oil sands, alter survival and behaviour of juvenile yellow perch (Perca flavescens). FACETS 9:1-12. DOI: 10.1139/facets-2022-0176.

[42] Stoyanovich S.S., Saunders L.J., Yang Z., Hanson M.L., Hollebone B.P., Orihel D.M., Palace V., Rodriguez-Gil J.L., Mirnaghi F.S., Shah K., Blais J.M. 2023. Chemical weathering patterns of diluted bitumen spilled into freshwater limnocorrals. Environmental Science & Technology 57:9266-9276. DOI: 10.1021/acs.est.2c05468.

[41] Graves S.D., Mason J.J., Rodriguez-Gil J.L., Seguin J.Y., Blais J.M., Hanson M.L., Hollebone B.P., Palace V.P., Clark I., Cundall L., Layton-Matthews D., Leybourne M.I., Orihel D.M. 2023. Radio- and stable carbon isotope analysis reveals minimal assimilation of petrogenic carbon into an oligotrophic freshwater food web after experimental spills of diluted bitumen. Chemosphere 329:138608. DOI: 10.1016/j.chemosphere.2023.138608.

[40] Elvidge C.K., Robinson C.E., Caza R.A., Hewitt L.M., Frank R.A., Orihel D.M. 2023. Chemical communication in wood frog (Rana sylvatica) tadpoles is influenced by early-life exposure to naphthenic acid fraction compounds. Aquatic Toxicology 257:106435. DOI: 10.1016/j.aquatox.2023.106435.

[39] Johnson L.R., Wilcox A.A.E., Alexander S.M., Bowles E., Castleden H., Henri D.A., Provencher J.F., Orihel D.M. 2023. Weaving Indigenous and Western ways of knowing in ecotoxicology and wildlife health: a review of Canadian studies. Environmental Reviews 31:452–470. DOI: 10.1139/er-2022-0087.

[38] Black T., Paterson M.J., Timlick L., Cederwall J., Blais J.M., Hollebone B., Orihel D.M., Palace V.P., Rodriguez-Gil J.L., Hanson M.L. 2023. The challenges of characterizing the zooplankton community response following simulated spills of diluted bitumen into boreal lake limnocorrals. Bulletin of Environmental Contamination and Toxicology 110:46. DOI: 10.1007/s00128-022-03680-7.

[37] Robinson C.E., Elvidge C.K., Frank R.A., Headley J.V., Hewitt L.M., Little A.G., Robinson S.A., Trudeau V.L., Meulen I.J.V., Orihel D.M. 2023. Naphthenic acid fraction compounds reduce the reproductive success of wood frogs (Rana sylvatica) by affecting offspring viability. Environmental Pollution 316:120455. DOI: 10.1016/j.envpol.2022.120455.

[36] Hataley E.K., Shahmohamadloo R.S., Almirall X.O., Harrison A.L., Rochman C.M., Zou S., Orihel D.M. 2022. Experimental evidence from the field that naturally weathered microplastics accumulate cyanobacterial toxins in eutrophic lakes. Environmental Toxicology and Chemistry 41:3017-3028. DOI: 10.1002/etc.5485.

[35] Séguin J.Y., Mason J., Hanson M.L., Hollebone B.P., Orihel D.M., Palace V.P., Rodriguez-Gil J.L., Blais J.M. 2022. Bioaccumulation and toxicokinetics of polycyclic aromatic compounds and metals in giant floater mussels (Pyganodon grandis) exposed to a simulated diluted bitumen spill. Aquatic Toxicology 252:106316. DOI: 10.1016/j.aquatox.2022.106316.

[34] Timlick L., Dearnley J., Blais J.M., Rodríguez-Gil J.L., Hanson M., Hollebone B.P., Orihel D.M., Peters L.E., Stoyanovich S.S., Palace V.P. 2022. Responses of wild finescale dace (Phoxinus neogaeus) to experimental spills of Cold Lake Blend diluted bitumen at the International Institute for Sustainable Development-Experimental Lakes Area, northwestern Ontario. Environmental Toxicology and Chemistry 41:2745-2757. DOI: 10.1002/etc.5457.

[33] Patterson S.A., Denton D.T.J., Hasler C.T., Blais J.M., Hanson M.L., Hollebone B.P., Rodriguez-Gil J.L., Langlois V.S., Patey G., Yang Z., Orihel D.M. 2022. Resilience of larval wood frogs (Rana sylvatica) to hydrocarbons and other compounds released from naturally weathered diluted bitumen in a boreal lake. Aquatic Toxicology 245:106128. DOI: 10.1016/j.aquatox.2022.106128.

[32] Reynolds J.S., Jackson B.L. (co-lead), Madison B.N., Elvidge C.K., Frank R.A., Hasler C.T., Headley J.V., Hewitt L.M., Peru K.M., Yakimowski S.B., Orihel D.M. 2022. Fathead minnows exposed to organic compounds from oil sands tailings as embryos have reduced survival, impaired development, and altered behaviors that persist into larval stages. Environmental Toxicology and Chemistry 41:1319–1332. DOI: 10.1002/etc.5314.

[31] Stoyanovich S., Yang Z., Hanson M., Hollebone B.P., Orihel D.M., Palace V., Rodriguez-Gil J.R., Mirnaghi F., Shah K., Blais J.M. 2022. Fate of polycyclic aromatic compounds from diluted bitumen spilled into freshwater limnocorrals. Science of the Total Environment 819:151993. DOI: 10.1016/j.scitotenv.2021.151993.

[30] Saunders L.J., Rodriguez-Gil J.L., Stoyanovich S.S., Kimpe L.E., Hanson M.L., Hollebone B.P., Orihel D.M., Blais J.M. 2022. Effect of spilled diluted bitumen on chemical air-water exchange in boreal lake limnocorrals. Chemosphere 291:132708. DOI: 10.1016/j.chemosphere.2021.132708.

[29] Teboul E., Orihel D.M., Provencher J.F., Drever M.C., Wilson L., Harrison A.L. 2021. Chemical identification of microplastics ingested by Red Phalaropes (Phalaropus fulicarius) using Fourier Transform Infrared spectroscopy. Marine Pollution Bulletin 171:112640. DOI: 10.1016/j.marpolbul.2021.112640.

[28] Stoyanovich S., Rodriguez-Gil J.R., Hanson M.L., Hollebone B.P., Orihel D.M., Palace V.P., Faragher R., Mirnaghi F.S., Shah K., Yang Z., Blais J.M. 2021. Simulating diluted bitumen spills in boreal lake limnocorrals – Part 2: Factors affecting the physical characteristics and submergence of diluted bitumen. Science of the Total Environment 790:148580. DOI: 10.1016/j.scitotenv.2021.148580.

[27] Rodriguez-Gil J.L., Stoyanovich S., Hanson M.L., Hollebone B., Orihel D.M., Palace V., Faragher R., Mirnaghi F.S., Shah K., Yang Z., Black T.A., Cederwall J., Mason J., Patterson S., Timlick L., Seguin J.Y., Blais J.M. 2021. Simulating diluted bitumen spills in boreal lake limnocorrals – Part 1: Experimental design and responses of hydrocarbons, metals, and water quality parameters. Science of the Total Environment 790:148537. DOI: 10.1016/j.scitotenv.2021.148537.

[26] Orihel D.M., Swanson H.K., Kelly E.N. 2021. In memoriam: David W. Schindler (1940-2021). Trends in Ecology & Evolution 36:665-667. DOI: 10.1016/j.tree.2021.06.001. [invited; not peer-reviewed]

[25] Buxton R.T., Bennett J.R., Reid A.J., Shulman C., Cooke S.J., Francis C.M., Nyboer E.A., Pritchard G., Binley A.D., Avery-Gomm S., Ban N.C., Beazley K.F., Bennett E., Blight L.K., Bortolotti L.E., Camfield A.F., Gadallah F., Jacob A.L., Naujokaitis-Lewis I., Raudsepp-Hearne C., Roche D.G., Soulard F., Stralberg D., Sadler K.D., Solarik K.A., Ziter C.D., Brandt J., McKindsey C.W., Greenwood D.A., Boxall P.C., Ngolah C.F., Chan K.M.A., Lapen D., Poser S., Girard J., Dibacco C., Hayne S., Orihel D.M., Lewis D., Littlechild D., Marshall S.J., McDermott L., Whitlow R., Browne D., Sunday J., Smith P.A. 2021. Key information needs to move from knowledge to action for biodiversity conservation in Canada. Biological Conservation 256:108983. DOI: 10.1016/j.biocon.2021.108983.

[24] Black T.A., White M.S., Blais J.M., Hollebone B., Orihel D.M., Palace V.P., Rodriguez-Gil J.L., Hanson M.L. 2021. Surface oil is the primary driver of macroinvertebrate impacts following spills of diluted bitumen in freshwater. Environmental Pollution 290:117929. DOI: 10.1016/j.envpol.2021.117929.

[23] O’Connell D.W., Ansems N., Kukkadapu R.K., Jaisi D., Orihel D.M., Cade‐Menun B.J., Hu Y., Wiklund J., Hall R.I., Chessell H., Behrends T., Van Cappellen P. 2020. Changes in sedimentary phosphorus burial following artificial eutrophication of Lake 227, Experimental Lakes Area, Ontario, Canada. Journal of Geophysical Research: Biogeosciences 125:e2020JG005713. DOI: 10.1029/2020jg005713.

[22] Madison B.N., Reynolds J., Halliwell L., Leshuk T., Gu F., Peru K.M., Headley J.V., Orihel D.M. 2020. Can the toxicity of naphthenic acids in oil sands process-affected water be mitigated by a green photocatalytic method? FACETS 5:474-487. DOI: 10.1139/facets-2019-0053.

[21] Cooke S.J., Rytwinski T., Taylor J.J., Nyboer E.A., Nguyen V.M., Bennett J.R., Young N., Aitken S., Auld G., Lane J.-F., Prior K.A., Smokorowski K.E., Smith P.A., Jacob A.L., Browne D.R., Blais J.M., Kerr J.T., Ormeci B., Alexander S.M., Burn C.R., Buxton R.T., Orihel D.M., Vermaire J.C., Murray D.L., Simon P., Edwards K.A., Clarke J., Xenopoulos M.A., Gregory-Eaves I., Bennett E.M., Smol J.P. 2020. On “success” in applied environmental research — What is it, how can it be achieved, and how does one know when it has been achieved? Environmental Reviews 28:357-372. DOI: 10.1139/er-2020-0045.

[20] Cederwall J., Black T.A., Blais J.M., Hanson M.L., Hollebone B.P., Palace V.P., Rodríguez-Gil J.L., Greer C.W., Maynard C., Ortmann A.C., Rooney R.C., Orihel D.M. 2020. Life under an oil slick: response of a freshwater food web to simulated spills of diluted bitumen in field mesocosms. Canadian Journal of Fisheries and Aquatic Sciences 77:779-788. DOI: 10.1139/cjfas-2019-0224.

[19] Stoyanovich S.S., Yang Z., Hanson M., Hollebone B.P., Orihel D.M., Palace V., Rodriguez-Gil J.L., Faragher R., Mirnaghi F.S., Shah K., Blais J.M. 2019. Simulating a spill of diluted bitumen: environmental weathering and submergence in a model freshwater system. Environmental Toxicology and Chemistry 38:2621-2628. DOI: 10.1002/etc.4600.

[18] McCune J.L., Colla S.R., Coristine L.E., Davy C.M., Flockhart D.T.T., Schuster R., Orihel D.M. 2019. Are we accurately estimating the potential role of pollution in the decline of species at risk in Canada? FACETS 4:598-614. DOI: 10.1139/facets-2019-0025.

[17] Coristine L.E., Colla S., Bennett N., Carlsson A.M., Davy C., Davies K.T.A., Favaro B., Flockhart D.T.T., Fraser K., Orihel D.M., Otto S.P., Palen W., Polfus J.L., Venter O., Ford A.T. 2019. National contributions to global ecosystem values. Conservation Biology 33:1219-1223. DOI: 10.1111/cobi.13284.

[16] Coristine L.E., Jacob A.L., Schuster R., Otto S.P., Baron N.E., Bennett N.J., Bittick S.J., Dey C., Favaro B., Ford A., Nowlan L., Orihel D.M., Palen W.J., Polfus J.L., Shiffman D.S., Venter O., Woodley S., Hutchings J. 2018. Informing Canada’s commitment to biodiversity conservation: A science-based framework to help guide protected areas designation through Target 1 and beyond. FACETS 3:531-562. DOI: 10.1139/facets-2017-0102.

[15] Schindler D.W., Carpenter S.R., Chapra S.C., Hecky R.E., Orihel D.M. 2017. Response to the letter: Nitrogen is not a “House of Cards”. Environmental Science & Technology 51:1943. DOI: 10.1021/acs.est.6b06106. [invited; not peer-reviewed]

[14] Orihel D.M., Baulch H.M., Casson N.J., North R.L., Parsons C.T., Seckar D.C.M., Venkiteswaran J.J. 2017. Internal phosphorus loading in Canadian fresh waters: a critical review and data analysis. Canadian Journal of Fisheries and Aquatic Sciences 74:2005-2029. DOI: 10.1139/cjfas-2016-0500.

[13] Schindler D.W., Carpenter S.R., Chapra S.C., Hecky R.E., Orihel D.M. 2016. Reducing phosphorus to curb lake eutrophication is a success. Environmental Science & Technology 50:8923-8929. DOI: 10.1021/acs.est.6b02204.

[12] Orihel D.M., Schindler D.W., Ballard N.C., Wilson L.R., Vinebrooke R.D. 2016. Experimental iron amendment suppresses toxic cyanobacteria in a hypereutrophic lake. Ecological Applications 26:1517-1534. DOI: 10.1890/15-1928.

[11] Orihel D.M., Bisbicos T., Darling C.T., Dupuis A.P., Williamson M., Muir D.C. 2016. Probing the debromination of the flame retardant decabromodiphenyl ether in sediments of a boreal lake. Environmental Toxicology and Chemistry 35:573-583. DOI: 10.1002/etc.3229.

[10] Orihel D.M., Schindler D.W., Ballard N.C., Graham M.D., O’Connell D.W., Wilson L.R., Vinebrooke R.D. 2015. The “nutrient pump”: iron-poor sediments fuel low nitrogen-to-phosphorus ratios and cyanobacterial blooms in polymictic lakes. Limnology and Oceanography 60:856-871. DOI: 10.1002/lno.10076.

[9] Orihel D.M., Hadas O., Pinkas R., Viner-Mozzini Y., Sukenik A. 2013. Internal nutrient loading may increase microcystin concentrations in freshwater lakes by promoting growth of Microcystis populations. Annales de Limnologie – International Journal of Limnology 49:225-235. DOI: 10.1051/limn/2013052.

[8] Orihel D.M., Rooney R.C. 2012. A field-based technique for sediment incubation experiments. Journal of Limnology 71:233-235. DOI: 10.4081/jlimnol.2012.e25.

[7] Orihel D.M., Bird D.F., Brylinsky M., Chen H., Donald D.B., Huang D.Y., Giani A., Kinniburgh D., Kling H., Kotak B.G., Leavitt P.R., Nielsen C.C., Reedyk S., Rooney R.C., Watson S.B., Zurawell R.W., Vinebrooke R.D. 2012. High microcystin concentrations occur only at low nitrogen-to-phosphorus ratios in nutrient-rich Canadian lakes. Canadian Journal of Fisheries and Aquatic Sciences 69:1457-1462. DOI: 10.1139/f2012-088.

[6] Blanchfield P.J., Shapiro J., Sukenik A., Orihel D.M., Shefer E. 2012. Low mercury levels in Lake Kinneret fish. Israeli Journal of Aquaculture-Bamidgeh 64:8.

[5] Orihel D.M., Paterson M.J., Blanchfield P.J., Bodaly R.A., Gilmour C.C., Hintelmann H. 2008. Temporal changes in the distribution, methylation, and bioaccumulation of newly deposited mercury in an aquatic ecosystem. Environmental Pollution 154:77-88. DOI: 10.1016/j.envpol.2007.12.030.

[4] Orihel D.M., Paterson M.J., Blanchfield P.J., Bodaly R.A., Hintelmann H. 2007. Experimental evidence of a linear relationship between inorganic mercury loading and methylmercury accumulation by aquatic biota. Environmental Science & Technology 41:4952-4958. DOI: 10.1021/es063061r.

[3] Poulain A.J., Orihel D.M. (co-lead), Amyot M., Paterson M.J., Hintelmann H., Southworth G.R. 2006. Relationship between the loading rate of inorganic mercury to aquatic ecosystems and dissolved gaseous mercury production and evasion. Chemosphere 65:2199-2207. DOI: 10.1016/j.chemosphere.2006.05.066.

[2] Orihel D.M., Paterson M.J., Gilmour C.C., Bodaly R.A., Blanchfield P.J., Hintelmann H., Harris R.C., Rudd J.W.M. 2006. Effect of loading rate on the fate of mercury in littoral mesocosms. Environmental Science & Technology 40:5992-6000. DOI: 10.1021/es060823+.[1] Blanchfield P.J., Flavelle L.S., Hodge T.F., Orihel D.M. 2005. The response of lake trout to manual tracking. Transactions of the American Fisheries Society 134:346-355. DOI: 10.1577/t04-048.1.