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2015-2016 Reporting Year
(1) Zhao, H.; Wang, L.; Hanigan, D.; Westerhoff, P.; Ni, J. Novel Ion-Exchange Coagulants Remove More Low Molecular Weight Organics than Traditional Coagulants. Environ. Sci. Technol. 2016, acs.est.6b00635.
(2) Loeb, S.; Hofmann, R.; Kim, J.-H. Beyond the Pipeline: Assessing the Efficiency Limits of Advanced Technologies for Solar Water Disinfection. Environmental Science & Technology Letters 2016, 3 (3), 73– 80.
(1) Werber, J. R.; Deshmukh, A.; Elimelech, M. The Critical Need for Increased Selectivity, Not Increased Water Permeability, for Desalination Membranes. Environ. Sci. Technol. Lett. 2016.
(1) Yu, C.; Li, X.; Zhang, N.; Wen, D.; Liu, C.; Li, Q. Inhibition of biofilm formation by d-tyrosine: Effect of bacterial type and d-tyrosine concentration. Water Research 2016, 92, 173–179.
Lay Summary: "Bacterial biofouling is a persisting problem in membrane systems that not only deteriorates membrane performance but also shortens membrane lifespan. D-Tyrosine showed potential in combating biofilm formation in membrane systems without damaging membrane material and bacteria inactivation. We evaluated the impact of D-tyrosine in large range of concentrations on biofilm formation in both Gram positive and Gram negative bacteria as well as in different biofilm forming stages. D-Tyrosine is able to inhibit bioiflm formation at concentration as low as 5 nM. The biofilm inhibition effect correlates to D-tyrosine concentration non-monotonically with nano molar and hundreds of micro molar being more effective than the intermediate concentrations. The production of key components in biofilms including protein and polysaccharides are also affected differently, depending on D-tyrosine concentration and bacterial type."
Impact statement: "We have shown the effectiveness of D-tyrosine at low concentrations, which allows large-scale applications in water treatment process. Our results suggest that distinct mechanisms are at play at different D-tyrosine concentrations and they may be species specific. Dosage of D-tyrosine must be carefully controlled for biofouling control applications."
(2) Zhang, P.; Kan, A. T.; Tomson, M. B. Enhanced transport of novel crystalline calcium-phosphonate scale inhibitor nanomaterials and their long term flow back performance in laboratory squeeze simulation tests. RSC Advances 2016, 6 (7), 5259–5269.
(3) Pesek, S. L.; Lin, Y.-H.; Mah, H. Z.; Kasper, W.; Chen, B.; Rohde, B. J.; Robertson, M. L.; Stein, G. E.; Verduzco, R. Synthesis of bottlebrush copolymers based on poly(dimethylsiloxane) for surface active additives. Polymer.
Lay Summary: “We developed materials that could be used as additives to modify surfaces and coatings. Adding a small quantity (1 - 5 %) can produce coatings that are much more resistant to fouling. The bases for these additives is the development of polymers with a highly branched structure. These materials are driven entropically to film surfaces and interfaces.”
Impact Statement:” We demonstrate a design concept for preparing surface-active polymers that can be used to modify films and interfaces.Small amounts of additive produce large changes in surface gettability, and bottlebrushes segregate rapidly during casting. This presents a new class of materials that can be used to develop antifouling and/or functional coatings."
(4) Werber, J. R.; Osuji, C. O.; Elimelech, M. Materials for next-generation desalination and water purification membranes. Nature Reviews Materials 2016, 16018.
(5) Ben-Sasson, M.; Lu, X.; Nejati, S.; Jaramillo, H.; Elimelech, M. In situ surface functionalization of reverse osmosis membranes with biocidal copper nanoparticles. Desalination 388 IS -, 1–8.
Sustainability & Safety
(1) Yang, Y.; Faust, J. J.; Schoepf, J.; Hristovski, K.; Capco, D. G.; Herckes, P.; Westerhoff, P. Survey of food- grade silica dioxide nanomaterial occurrence, characterization, human gut impacts and fate across its lifecycle. Sci. Total Environ. 2016.
(2) Liu, L.; Sun, M. Q.; Zhang, H. J.; Yu, Q. L.; Li, M. C.; Qi, Y.; Zhang, C. D.; Gao, G. D.; Yuan, Y. J.; Zhai, H. H.; Wei, C.; Alvarez, P. J. J. Facet Energy and Reactivity versus Cytotoxicity: The Surprising Behavior of CdS Nanorods. Nano Letters 2016, 16 (1), 688–694.
(3) Hernandez-Viezcas, J. A.; Castillo-Michel, H.; Peralta-Videa, J. R.; Gardea-Torresdey, J. L. Interactions between CeO2 Nanoparticles and the Desert Plant Mesquite: A Spectroscopy Approach.ACS Sustainable Chemistry & Engineering 2016, 4 (3), 1187–1192.
(4) Zuverza-Mena, N.; Armendariz, R., Jr; Peralta-Videa, J. R.; Gardea-Torresdey, J. L. Effects of silver nanoparticles on radish sprouts: Root growth reduction and modifications in the nutritional value.Frontiers in Plant Science 2016, 7.
(5) Majumdar, S.; Almeida, I. C.; Arigi, E. A.; Choi, H.; VerBerkmoes, N. C.; Trujillo-Reyes, J.; Flores-Margez, J. P.; White, J. C.; Peralta-Videa, J. R.; Gardea-Torresdey, J. L. Environmental Effects of Nanoceria on Seed Production of Common Bean (Phaseolus vulgaris): A Proteomic Analysis. Environ. Sci. Technol. 2015, 49 (22), 13283–13293.
(6) Mulchandani, A.; Westerhoff, P. Recovery Opportunities for Metals and Energy from Sewage Sludges. Bioresource Technology 2016.
(7) Gilbertson, L. M.; Albalghiti, E. M.; Fishman, Z. S.; Perreault, F.; Corredor, C.; Posner, J. D.; Elimelech, M.; Pfefferle, L. D.; Zimmerman, J. B. Shape-Dependent Surface Reactivity and Antimicrobial Activity of Nano- Cupric Oxide. Environ. Sci. Technol. 2016, 50 (7), 3975–3984.