Biography
Jamie is an ecophysiologist and chemical ecologist who uses interdisciplinary tools to understand the interactions between plants and their environment, with a particular focus on herbivory. Specifically, his work explores how chemical, morphological and developmental plant traits shape herbivore feeding patterns and vice versa. Jamie uses techniques spanning chemistry, molecular biology and behavioural ecology to understand these interactions on a mechanistic level. He holds a BS in Forestry from the University of Vermont (2018) and a PhD in Ecology from Western Sydney University (2021). During his PhD, he explored how silicon accumulation and deposition integrate with carbon-based defence pathways in silicon hyperaccumulating plant species, and how these silicon-based defences impact herbivores. In 2021, Jamie was awarded a Swiss National Science Foundation Postdoctoral Research Fellowship to conduct an independent research project at the University of Bern, where he investigated the dynamic patterns of stress-induced plant volatile production, emission and perception. Currently, Jamie is building kinetic models to understand the relationship between complex damage patterns and plant defence responses, as well as actively seeking funding to continue exploring the physiological mechanisms underlying the dynamic patterns and processes of plant-environment interactions across scales.
Publications and Further Research Outputs
- Waterman JM, Cofer TM, Wang L, Glauser G, Erb M., High-resolution kinetics of herbivore-induced plant volatile transfer reveal clocked response patterns in neighboring plants., eLife, 12, 2024, pRP89855Journal Article, 2024
- Hajdu C, Molnár BP, Waterman JM, Machado RAR, Radványi D, Fónagy A, Khan SA, Vassor T, Biet B, Erb M, Kárpáti Z, Robert CAM., Volatile-mediated oviposition preference for healthy over root-infested plants by the European corn borer., Plant, cell & environment, 47, (6), 2024, p2228-2239Journal Article, 2024
- Johnson SN, Waterman JM, Hartley SE, Cooke J, Ryalls JMW, Lagisz M, Nakagawa S., Plant Silicon Defences Suppress Herbivore Performance, but Mode of Feeding Is Key., Ecology letters, 27, (10), 2024, pe14519Journal Article, 2024
- Wang L, Jäggi S, Cofer TM, Waterman JM, Walthert M, Glauser G, Erb M., Immature leaves are the dominant volatile-sensing organs of maize., Current biology : CB, 33, (17), 2023, p3679-3689.e3Journal Article, 2023
- Johnson SN, Cibils-Stewart X, Waterman JM, Biru FN, Rowe RC, Hartley SE., Elevated atmospheric CO2 changes defence allocation in wheat but herbivore resistance persists., Proceedings. Biological sciences, 289, (1969), 2022, p20212536Journal Article, 2022
- Waterman JM, Cibils-Stewart X, Cazzonelli CI, Hartley SE, Johnson SN., Short-term exposure to silicon rapidly enhances plant resistance to herbivory., Ecology, 102, (9), 2021, pe03438Journal Article, 2021
- Hall CR, Dagg V, Waterman JM, Johnson SN., Silicon Alters Leaf Surface Morphology and Suppresses Insect Herbivory in a Model Grass Species., Plants (Basel, Switzerland), 9, (5), 2020, pE643Journal Article, 2020
- Johnson SN, Waterman JM, Hall CR., Increased insect herbivore performance under elevated CO2 is associated with lower plant defence signalling and minimal declines in nutritional quality., Scientific reports, 10, (1), 2020, p14553Journal Article, 2020
- Waterman JM, Cazzonelli CI, Hartley SE, Johnson SN., Simulated Herbivory: The Key to Disentangling Plant Defence Responses., Trends in ecology & evolution, 34, (5), 2019, p447-458Journal Article, 2019
- Hall CR, Waterman JM, Vandegeer RK, Hartley SE, Johnson SN., The Role of Silicon in Antiherbivore Phytohormonal Signalling., Frontiers in plant science, 10, 2019, p1132Journal Article, 2019
- Biru F.N., Nayak J.J., Waterman J.M., Cazzonelli C.I., Elbaum R., Johnson S.N., Elevated atmospheric CO2 and silicon antagonistically regulate anti-herbivore phytohormone and defence gene expression levels in wheat, Environmental and Experimental Botany, 227, 2024Journal Article, 2024, DOI
- Escobar-Bravo R., Lin P.-A., Waterman J.M., Erb M., Dynamic environmental interactions shaped by vegetative plant volatiles, Natural Product Reports, 40, (4), 2023, p840 - 865, p840-865Review, 2023, DOI
- Putra R., Waterman J.M., Mathesius U., Wojtalewicz D., Powell J.R., Hartley S.E., Johnson S.N., Benefits of silicon-enhanced root nodulation in a model legume are contingent upon rhizobial efficacy, Plant and Soil, 477, (1-2), 2022, p201 - 217, p201-217Journal Article, 2022, DOI
- Johnson S.N., Waterman J.M., Wuhrer R., Rowe R.C., Hall C.R., Cibils-Stewart X., Siliceous and non-nutritious: Nitrogen limitation increases anti-herbivore silicon defences in a model grass, Journal of Ecology, 109, (11), 2021, p3767 - 3778, p3767-3778Journal Article, 2021, DOI
- Waterman J.M., Hall C.R., Mikhael M., Cazzonelli C.I., Hartley S.E., Johnson S.N., Short-term resistance that persists: Rapidly induced silicon anti-herbivore defence affects carbon-based plant defences, Functional Ecology, 35, (1), 2021, p82 - 92, p82-92Journal Article, 2021, DOI
- Waterman J.M., D'Amato A.W., Foster D.R., Orwig D.A., Pederson N., Historic forest composition and structure across an old-growth landscape in New Hampshire, USA, Journal of the Torrey Botanical Society, 147, (4), 2020, p291 - 303, p291-303Review, 2020, DOI
- Waterman J.M., Mann T.J., Cazzonelli C.I., Hartley S.E., Johnson S.N., Microbes in Helicoverpa armigera oral secretions contribute to increased senescence around plant wounds, Ecological Entomology, 45, (5), 2020, p1224 - 1229, p1224-1229Journal Article, 2020, DOI
Recognition
- Swiss National Science Postdoctoral Research Fellowship 2022-2024
- British Ecological Society