Julian L. Fairey
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Associate Professor
Also affiliated: ETH Zurich (2022); Texas Water Development Board (2003); Carnegie Mellon University (2007); The University of Texas at Austin (2003–2006)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Julian L. Fairey's research focuses on the chemical processes within drinking water distribution systems, particularly concerning disinfection byproducts and water quality. His work investigates the formation, decomposition, and quantification of various chemical species that impact water safety and treatment efficacy. Fairey has published on the reaction pathways of dichloramine decomposition, identifying the formation of reactive nitrogen species and N-nitrosodimethylamine (NDMA). He has also explored the kinetics of chloramine reactions and the generation of disinfection byproducts such as chlorite, chlorate, perchlorate, and chloronitramide anion.
His research also extends to analytical methodologies for detecting and quantifying these substances. This includes work on mitigating interferences from natural organic matter when quantifying nitrite and developing methods for chloronitramide anion quantitation in tap water using ion chromatography. Fairey has received federal funding from the National Science Foundation (NSF) for both equipment acquisition, including a high-resolution mass spectrometer, and for an I-Corps project focused on developing a fluorescence sensor for early detection of nitrification in drinking water. His scholarship metrics include an h-index of 13, with 34 total publications and 717 citations.
Metrics
- h-index: 13
- Publications: 34
- Citations: 722
Selected Publications
-
Chloronitramide Anion Yields During Monochloramine Formation: Impact of Reagent Addition Order, pH, and Mixing (2026)Journal of the Arkansas Academy of Science OpenAlex
-
PFAS quantitation with diffusive gradients in thin-film passive samplers: Capturing time-weighted average concentrations around maximum contaminant levels to facilitate compliance (2026)
-
Chloronitramide Anion Quantitation in Tap Waters by Ion Chromatography with Electrical Conductivity and Ultraviolet Absorbance Detection (2026)
-
Intrinsic disinfection byproducts in free chlorine and chloramine systems: Formation of chlorite, chlorate, perchlorate, and chloronitramide anion (2025)
-
Chloronitramide anion is a decomposition product of inorganic chloramines (2024)
-
Closing Dichloramine Decomposition Nitrogen and Oxygen Mass Balances: Relative Importance of End-Products from the Reactive Nitrogen Species Pathway (2024)
-
Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers (2023)
-
Nitrite Quantification by Second Derivative Chemometric Models Mitigates Natural Organic Matter Interferences under Chloraminated Drinking Water Distribution System Conditions (2022)
-
Updated Reaction Pathway for Dichloramine Decomposition: Formation of Reactive Nitrogen Species and <i>N</i>-Nitrosodimethylamine (2021)
-
<i>N</i> ‐Nitrosodimethylamine ( <scp>NDMA</scp> ) Formation Mechanisms in Drinking Water Systems (2019)
-
Emerging investigators series: trihalomethane, dihaloacetonitrile, and total N-nitrosamine precursor adsorption by modified carbon nanotubes (CNTs) and CNT micropillars (2017)
-
Revealing a Size-Resolved Fluorescence-Based Metric for Tracking Oxidative Treatment of Total <i>N</i>-Nitrosamine Precursors in Waters from Wastewater Treatment Plants (2017)
-
Potential of electrodialytic techniques in brackish desalination and recovery of industrial process water for reuse (2017)
-
Trihalomethane, dihaloacetonitrile, and total N-nitrosamine precursor adsorption by carbon nanotubes: the importance of surface oxides and pore volume (2016)
-
Improved (and Singular) Disinfectant Protocol for Indirectly Assessing Organic Precursor Concentrations of Trihalomethanes and Dihaloacetonitriles (2015)
Federal Grants 2 $684,526 total
Collaboration Network
Top Collaborators
- Updated Reaction Pathway for Dichloramine Decomposition: Formation of Reactive Nitrogen Species and <i>N</i>-Nitrosodimethylamine
- Chloronitramide anion is a decomposition product of inorganic chloramines
- Closing Dichloramine Decomposition Nitrogen and Oxygen Mass Balances: Relative Importance of End-Products from the Reactive Nitrogen Species Pathway
- Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers
- Nitrite Quantification by Second Derivative Chemometric Models Mitigates Natural Organic Matter Interferences under Chloraminated Drinking Water Distribution System Conditions
Showing 5 of 6 shared publications
- Updated Reaction Pathway for Dichloramine Decomposition: Formation of Reactive Nitrogen Species and <i>N</i>-Nitrosodimethylamine
- Closing Dichloramine Decomposition Nitrogen and Oxygen Mass Balances: Relative Importance of End-Products from the Reactive Nitrogen Species Pathway
- Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers
- Chloronitramide anion is a decomposition product of inorganic chloramines
- Nitrite Quantification by Second Derivative Chemometric Models Mitigates Natural Organic Matter Interferences under Chloraminated Drinking Water Distribution System Conditions
- Nitrite Quantification by Second Derivative Chemometric Models Mitigates Natural Organic Matter Interferences under Chloraminated Drinking Water Distribution System Conditions
- Intrinsic disinfection byproducts in free chlorine and chloramine systems: Formation of chlorite, chlorate, perchlorate, and chloronitramide anion
- Nitrite Quantification by Second Derivative Chemometric Models Mitigates Natural Organic Matter Interferences under Chloraminated Drinking Water Distribution System Conditions
- Chloronitramide Anion Quantitation in Tap Waters by Ion Chromatography with Electrical Conductivity and Ultraviolet Absorbance Detection
- Chloronitramide anion is a decomposition product of inorganic chloramines
- Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers
- Chloronitramide anion is a decomposition product of inorganic chloramines
- Chloronitramide Anion Quantitation in Tap Waters by Ion Chromatography with Electrical Conductivity and Ultraviolet Absorbance Detection
- Nitrite Quantification by Second Derivative Chemometric Models Mitigates Natural Organic Matter Interferences under Chloraminated Drinking Water Distribution System Conditions
- Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers
- Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers
- Non-Steady-State Fickian Diffusion Models Decrease the Estimated Gel Layer Diffusion Coefficient Uncertainty for Diffusive Gradients in Thin-Films Passive Samplers
- Chloronitramide anion is a decomposition product of inorganic chloramines
- Chloronitramide anion is a decomposition product of inorganic chloramines
- Chloronitramide Anion Quantitation in Tap Waters by Ion Chromatography with Electrical Conductivity and Ultraviolet Absorbance Detection
- Chloronitramide Anion Quantitation in Tap Waters by Ion Chromatography with Electrical Conductivity and Ultraviolet Absorbance Detection
Similar Researchers
Based on overlapping research topics