| Year |
Title |
| 2025
|
Climate displaces deposition as dominant driver of dissolved organic carbon concentrations in historically acidified lakes..
Biogeochemistry.
168:5.
2025
|
| 2024
|
Seasonal and Climatic Drivers of Wet Deposition Organic Matter at the Continental Scale.
Journal of Geophysical Research (JGR): Biogeosciences.
129.
2024
|
| 2024
|
Climate, Hydrology, and Nutrients Control the Seasonality of Si Concentrations in Rivers.
Journal of Geophysical Research (JGR): Biogeosciences.
129.
2024
|
| 2024
|
Establishing fluvial silicon regimes and their stability across the Northern Hemisphere.
Limnology And Oceanography Letters.
9:237-246.
2024
|
| 2024
|
Catchment concentration–discharge relationships across temporal scales: A review.
Wiley Interdisciplinary Reviews: Water.
11.
2024
|
| 2023
|
Synchrony of Nitrogen Wet Deposition Inputs and Watershed Nitrogen Outputs Using Information Theory.
Water Resources Research.
59.
2023
|
| 2023
|
Long‐Term Changes in Concentration and Yield of Riverine Dissolved Silicon From the Poles to the Tropics.
Global Biogeochemical Cycles.
37.
2023
|
| 2023
|
Revisiting the Origins of the Power‐Law Analysis for the Assessment of Concentration‐Discharge Relationships.
Water Resources Research.
59.
2023
|
| 2023
|
Direct and Indirect Drivers of Energy and Nutrient Availability in Freshwater Ecosystems Across Spatial Scales.
Global Biogeochemical Cycles.
37.
2023
|
| 2023
|
The Environmental Responsibility Framework: A Toolbox for Recognizing and Promoting Ecologically Conscious Research.
Earth's Future.
11.
2023
|
| 2023
|
Salinization of stream water and groundwater at daily to decadal scales in a temperate climate.
Limnology And Oceanography Letters.
8:131-140.
2023
|
| 2022
|
Nitrogen wet deposition stoichiometry: the role of organic nitrogen, seasonality, and snow.
Biogeochemistry.
160:301-314.
2022
|
| 2022
|
Microbes on decomposing litter in streams: entering on the leaf or colonizing in the water?.
The ISME Journal.
16:717-725.
2022
|
| 2022
|
Influence of watershed suburbanization on leaf litter decomposition and microbial activity.
Hydrobiologia.
849:245-260.
2022
|
| 2022
|
Shifting stoichiometry: Long-term trends in stream-dissolved organic matter reveal altered C:N ratios due to history of atmospheric acid deposition..
Global Change Biology.
28:98-114.
2022
|
| 2021
|
Climate Variability Drives Watersheds Along a Transporter-Transformer Continuum.
Geophysical Research Letters.
48.
2021
|
| 2021
|
CHOSEN: A synthesis of hydrometeorological data from intensively monitored catchments and comparative analysis of hydrologic extremes.
Hydrological Processes.
35.
2021
|
| 2021
|
Divergent Controls on Stream Greenhouse Gas Concentrations Across a Land-Use Gradient.
Ecosystems.
24:1299-1316.
2021
|
| 2021
|
Gradients of Anthropogenic Nutrient Enrichment Alter N Composition and DOM Stoichiometry in Freshwater Ecosystems.
Global Biogeochemical Cycles.
35.
2021
|
| 2021
|
Luquillo experimental forest: Catchment science in the montane tropics.
Hydrological Processes.
35.
2021
|
| 2021
|
The Lamprey River Hydrological Observatory: Suburbanization and changing seasonality.
Hydrological Processes.
35.
2021
|
| 2021
|
Nitrate uptake enhanced by availability of dissolved organic matter in tropical montane streams.
Freshwater Science.
40:65-76.
2021
|
| 2021
|
Quantifying the frequency of synchronous carbon and nitrogen export to the river network.
Biogeochemistry.
152:1-12.
2021
|
| 2020
|
Dissolved Organic Carbon and Nitrate Concentration-Discharge Behavior Across Scales: Land Use, Excursions, and Misclassification.
Water Resources Research.
56.
2020
|
| 2020
|
Wildfires lead to decreased carbon and increased nitrogen concentrations in upland arctic streams..
Scientific Reports.
10:8722.
2020
|
| 2020
|
Measuring the influence of environmental conditions on dissolved organic matter biodegradability and optical properties: a combined field and laboratory study.
Biogeochemistry.
149:37-52.
2020
|
| 2020
|
Percentile-Range Indexed Mapping and Evaluation (PRIME): A new tool for long-term data discovery and application.
Environmental Modelling & Software.
124:104580-104580.
2020
|
| 2019
|
LINX I and II: Lessons Learned and Emerging Questions.
Frontiers in Environmental Science.
7:181.
2019
|
| 2019
|
Hysteretic Response of Solutes and Turbidity at the Event Scale Across Forested Tropical Montane Watersheds.
Frontiers in Earth Science.
7:126.
2019
|
| 2019
|
Fire severity, time since fire, and site- eve characteristics influence streamwater chemistry at baseflow conditions in catchments of the Sierra Nevada, California, USA.
Fire Ecology.
15:3.
2019
|
| 2019
|
Implementing and Assessing InTeGrate Critical Zone Science Materials in an Undergraduate Geoscience Program
2019
|
| 2018
|
Using In-Situ Optical Sensors to Understand the Biogeochemistry of Dissolved Organic Matter Across a Stream Network.
Water Resources Research.
54:2949-2958.
2018
|
| 2018
|
Effects of plant species on stream bacterial communities via leachate from leaf litter.
Hydrobiologia.
807:131-144.
2018
|
| 2017
|
Growing new generations of critical zone scientists.
Earth Surface Processes and Landforms.
42:2498-2502.
2017
|
| 2017
|
Critical zone structure controls concentration-discharge relationships and solute generation in forested tropical montane watersheds.
Water Resources Research.
53:6279-6295.
2017
|
| 2017
|
Integrated Interdisciplinary Science of the Critical Zone as a Foundational Curriculum for Addressing Issues of Environmental Sustainability.
Journal of Geoscience Education.
65:136-145.
2017
|
| 2016
|
Understanding Dissolved Organic Matter Biogeochemistry Through In Situ Nutrient Manipulations in Stream Ecosystems..
Journal of Visualized Experiments.
2016
|
| 2016
|
Nitrate uptake across biomes and the influence of elemental stoichiometry: A new look at LINX II.
Global Biogeochemical Cycles.
30:1183-1191.
2016
|
| 2016
|
The Influence of Time and Plant Species on the Composition of the Decomposing Bacterial Community in a Stream Ecosystem..
Microbial Ecology.
71:825-834.
2016
|
| 2016
|
DOC:NO3- ratios and NO3- uptake in forested headwater streams.
Journal of Geophysical Research (JGR): Biogeosciences.
121:205-217.
2016
|
| 2015
|
Nutrient uptake along a fire gradient in boreal streams of Central Siberia.
Freshwater Science.
34:1443-1456.
2015
|
| 2015
|
Direct response of dissolved organic nitrogen to nitrate availability in headwater streams.
Biogeochemistry.
126:1-10.
2015
|
| 2015
|
Leaf-litter leachate is distinct in optical properties and bioavailability to stream heterotrophs.
Freshwater Science.
34:857-866.
2015
|
| 2014
|
Indirect influences of a major drought on leaf litter quality and decomposition in a southwestern stream.
Fundamental and Applied Limnology.
184:1-10.
2014
|
| 2013
|
Contrasting rRNA gene abundance patterns for aquatic fungi and bacteria in response to leaf-litter chemistry.
Freshwater Science.
32:663-672.
2013
|
| 2011
|
Genes to ecosystems: exploring the frontiers of ecology with one of the smallest biological units..
New Phytologist.
191:19-36.
2011
|
| |
Long-term trends in solute concentrations and fluxes from a suburban watershed: evaluating effects of 100-year flood events..
Journal of Geophysical Research Biogeosciences.
|
