Publications

2025

Rose K, Nisbet H, Migdisov A, Xu HW, Boukhalfa H, Gysi A, Hurtig N, Zhu C, Navrotsky A, An Experimental Study of SyntheticLa-hydroxybastnäsite-(La) Solubility and Speciation in Carbonate Bearing Solution at 175-250 ^oC. Submitted to Geochimica et Cosmochimica Acta on February 3, 2025.

Wei Wei1, Yaser Zayer, Abdulkareem Sofi, Chen Zhu, Underground Hydrogen Storage: Comprehensive Screening and Ranking of Depleted Oil and Gas Reservoirs for their Potentials. Submitted to Renewable and Sustainable Energy Reviews. RSER-D-25-01121 submitted March 14, 2025.

Tariq Z, Yan BC, Gudala M, Sun SY, Mahmoud M, and Zhu C. Fast forward models to forecast safe trapping indices in a coupled chemo-hydro-mechanical model for CO₂ sequestration in deep saline aquifers. In review.

Pan RG and Zhu C. Linear correlations of Gibbs free energy for rare earth element oxide, hydroxide, chloride, fluoride, carbonate, and ferrite minerals and crystalline solids. Geochimica et Cosmochimica Acta. Submitted May 3, 2024. DOI

[102] Ayers J and Zhu C. Zircon solubility, metamict zircon replacement, and hydrothermal zircon formation at upper crustal pressures (2025). Geochemistry, Geophysics, and Geosystems V 26. DOI

[101] Banerjee D, Waters LE, Hurtig NC, Gysi AP, Harlov D, Zhu C, Migdisov A (2025), Hydrothermal experiments at 500 to 700 °C and 1.7 kbar: Insights into NdPO₄ solubility and aqueous Nd speciation in supercritical fluids. Geochimica et Cosmochimica Acta. DOI.

[100] Chen MK, Gong L, Schott J, Lu P, Song YC, Chen KY, Yuan HL, Sun J, Apps J, Zhu C (2024). Coupled feldspar dissolution and secondary mineral precipitation in batch systems: 6. Labradorite dissolution, calcite growth, and clay precipitation at 60 °C and pH 8.2–8.4. Geochimica et Cosmochimica Acta v390, 181-198.  DOI .

2024

[100] Chen MK, Gong L, Jacques Schott, Lu P, Song YC, Chen KY, Yuan HL, Sun J, Apps J, Zhu C. Coupled feldspar dissolution and secondary mineral precipitation in batch systems: 6. Labradorite dissolution, calcite growth, and clay precipitation at 60 °C and pH 8.2–8.4. Geochimica et Cosmochimica Acta  DOI

[99] Zuo ZD, Lu P, Zhu C and Ji XY (2024) A SAFT equation of state for the CH₄–CO₂–H₂O–NaCl quaternary system. Chemical Geology,DOI

[98] Wei W, Lu P, Zhu C, Luo P and Mesdour R (2024) Advanced Machine Learning Models for CO₂ and H₂S Solubility in Water and NaCl Brine: Implications for Geoenergy Extraction and Carbon Storage. Energy & Fuels, DOI

[97] ToupalJ, Zhu C, Zaccarini F, Vigliaturo R, Servetto GP and Gieré R (2024)  Experimental leaching of lithium ores in simulated environmental conditions. Geochemistry, p126132, DOI.

[96] Lu P, Zhang GR, Apps J, Gysi A and Zhu C (2024) Knowledge Gaps and Research Needs for Modeling CO₂ Mineralization in the Basalt-CO₂-Water System: A Review of Laboratory Experiments. Earth-Science Reviews, DOI. Acknowledged EAR-2221907.

[95] Schott J, Saldi GD, Zhu C, Gong L and Chen KY (2024) Albite dissolution and precipitation kinetics as a function of departure from equilibrium in ²⁹Si spiked aqueous solutions at 150 and 180° C: Direct evidence for the decrease of the forward dissolution rate and the reactive surface area with the reaction progress. Geochimica et Cosmochimica Acta. DOI. Acknowledged EAR-2221907.

[94] ^PDPan, RG, Gysi A, Migdisov A, Gong L, Lu P and Zhu C (2024) Linear correlations of Gibbs free energy of REE phosphates (monazite, xenotime, and rhabdophane) and internally consistent binary mixing properties. Minerals 14, 305. DOI.

[93] ^PDPan RG, Gysi AP, Miron GD and Zhu C (2024) Optimized thermodynamic properties of REE aqueous species (REE³⁺ and REEOH²⁺) and experimental database for modeling the solubility of REE phosphate minerals (monazite, xenotime, and rhabdophane) from 25 to 300 °C. Chemical Geology, paper 121817, DOI.

[92] ^GChen MK, Lu P, Song YC and Zhu C (2024) Geochemical modeling to aid experimental design for multiple isotope tracer studies of coupled dissolution and precipitation reaction kinetics, Acta Geochimica. DOI. Acknowledged EAR-1926734 but should be 2221907.

[91] Zhu C, Fryar A and Apps J (2023) Inorganic hydrogeochemistry in the 21^st century. Groundwater DOI. Acknowledged PRF grant 57727-ND2, NSF EAR-1926734, EAR-2221907, DE-SC0022269.

[90] ^*Zhu C and Nordstrom DK (2022) Flying blind: Geochemical modeling and thermodynamic data files. Groundwater. DOI

[89] Lu P, ^GZhang GR, Huang Y, Apps J, and Zhu C (2022) Dawsonite as a temporary but effective sink for geological carbon storage. International Journal of Greenhouse Gas Control. v119: 103733. DOI. Acknowledged PRF grant 57727-ND2, NSF-1926734, OVPR, Murray chair.

[88] Majeske N, Zhang XS, ^GSabaj MM, Gong L, Zhu C and Azad A (2022) Inductive Predictions of Hydrologic Events Using a Long Short-Term Memory Network and the Soil and Water Assessment Tool. Journal of Environmental Modelling and Software, v152. DOI.

[87] Shabani B, Lu P, Kammer R and Zhu C (2022) Effects of Hydrogeological Heterogeneity on CO₂ Migration and Mineral Trapping: 3D Reactive Transport Modeling of Geological CO₂ Storage in the Mt. Simon Sandstone, Indiana, USA. Energies, v15. DOI.

[86] Toupal J, Vann DR, Zhu C and Gieré R (2022) Geochemistry of surface waters around four hard-rock lithium deposits in Central Europe. Journal of Geochemical Exploration v234, 106937. DOI.

[85] ^GKang JT, Bracco JN, Rimstidt JR, Zhu GH, Huang F and ^*Zhu C (2022). Ba attachment and detachment fluxes to and from barite surfaces in ¹³⁷Ba-enriched solutions with variable [Ba²⁺]/[SO₄^2-] ratios near solubility equilibrium. Geochimica et Cosmochimica Acta. v317, 180-200. DOI. Acknowledged Haydn Murray chair endowment.

[84] ^GLu P, ^GZhang GR, Apps J and ^*Zhu C (2022) Comparison of thermodynamic data files for PHREEQC. Earth-Science Reviews. DOI. Acknowledged NSF-1926734, Murray chair endowment, FRSP-ER.

[83] Lu P, Luo P, Wei W and Zhu C (2022) Effects of gas saturation and reservoir heterogeneity on thermochemical sulfate reduction reaction in a dolomite reservoir, Puguang Gas Field, China. Marine and Petroleum Geology, v135, 105403, DOI. Acknowledged PRF grant 57727-ND2.

[82] ZhangGR, ^*Lu P, Huang Y, Li GH and ^*Zhu C (2021) Investigation of mineral trapping processes based on coherent front propagation theory: A dawsonite-rich natural CO₂ reservoir as an example. International Journal of Greenhouse Gas Control v110, 103400. DOI.

[81] ^*Zhu C, ^GZhangYL, Rimstidt JD, Gong L, ^UBurkhart, JA, Chen KY and Yuan HL (2021) Testing hypotheses of albite dissolution mechanisms at near-equilibrium using Si isotope tracers. Geochimica et Cosmochimica Acta. v303, 15-37. DOI. Acknowledged NSF-1926734, Murray chair endowment, FRSP-ER.

[80] Majeske N, ^GAbesh B, Zhu C and Azad A. (2021) Inductive Predictions of Extreme Hydrologic Events in the Wabash River Watershed. In Proceedings of 34th Conference on Neural Information Processing Systems (NeurIPS 2020) Vancouver, Canada. (In this discipline, conference proceedings papers are peer-reviewed and have the same standing as journal articles).  Web link.

[79] Lu P, Luo P, ^GZhang GR, Zhang S and ^*Zhu C (2020). A Mineral-Water-Gas Interaction Model of pCO₂ as a Function of Temperature in Sedimentary Basins. Chemical Geology. v.558. DOI, Acknowledged PRF grant 57727-ND2.

[78] Zhang GR, Lu P, ^GZhang YL, ^UTu K and ^*Zhu C (2020) SupPhreeqc: A program to generate customized Phreeqc thermodynamic database based on Supcrtbl. Computers & Geosciences. v143. DOI. Acknowledged NSF-1926734, OVPR, Murray chair endowment, PRF grant 57727-ND2.

[77] ^PDDierauer J, Zhu C, Gong L, Walsh A, Pamidighantam S, Wang J, Christie M and Abeysinghe E (2020) FutureWater Indiana: A science gateway for spatiotemporal modeling of water in Wabash basin with a focus on climate change. In Proceedings of CATCH THE WAVE AT PEARC20: Practice and Experience in Advanced Research Computing (PEARC ’20). ACM, New York, NY, USA, 252-261. DOI. With acknowledgments to PfEC. (In this discipline, conference proceeding papers are peer-reviewed and have the same standing as journal articles). 

[76] ^GWang JR, Liu GM and *Zhu C (2020) Evaluating precipitation products for hydrologic modeling over a large river basin in the Midwestern USA. Hydrological Science Journal, Bulletin of International Association of Hydrologic Science. v65(7), 1221-1238. DOI. Acknowledged PfEC.

[75] Barna JM, Fryar AE, Cao L, Currens BJ, Peng T and Zhu C (2020) Variability in Groundwater Flow and Chemistry in the Houzhai Karst Basin, Guizhou Province, China. Environmental and Engineering Geoscience v26(3), 273-289. DOI.

[74] ^PDDierauer JR and *Zhu C. (2020) Drought in the twenty-first century in a water-rich region: Modeling study of the Wabash River Watershed, USA. Water. v12(1), #181. DOI. Acknowledged ERI/PfEC.

[73] ^*Zhu C, Rimstidt JD, ^GZhang YL, ^GKang JT, Schott J and Yuan HL (2020) Decoupling feldspar dissolution and precipitation rates at near-equilibrium with Si isotope tracers: Implications for modeling silicate weathering. Geochimica et Cosmochimica Acta. v271, 132-153. DOI . Acknowledged NSF-1926734, OVPR

[72]Gong L, Rimstidt JD^†, ^GZhang YL, Chen KY and *Zhu C (2019) Unidirectional kaolinite dissolution rates at near-equilibrium and near-neutral pH conditions. Applied Clay Science v182. DOI. Acknowledged NSF-1926734, OVPR

[71] ^GZhang YL, Gong L, Chen KY, ^UBurkhart J, Yuan HL and ^*Zhu C (2020) A method for Si isotope tracer kinetics experiments: Using Q-ICP-MS to obtain ²⁹Si/²⁸Si ratios in aqueous solutions. Chemical Geology v531. DOI. Acknowledged NSF-1926734, OVPR

[70] ^GZhang YL, ^GHu B, Teng YG and ^*Zhu C (2019) A library of BASIC scripts of reaction rates for geochemical modeling using Phreeqc. Computers & Geosciences, v133. DOI. Acknowledged NSF-1926734, OVPR

[69] ^GZhang YL, Rimstidt JD, Huang Y and ^*Zhu C (2019) Kyanite far from equilibrium dissolution rate at 0–22 °C and pH of 3.5–7.5. Acta Geochimica 38: 1-9.Acknowledged NSF-1225733 and IU. DOI.

[68] ^GHu B, Teng YG, ^GZhang YL and ^*Zhu C (2019) Review: The projected hydrological cycle under the scenario of 936 ppm CO₂ in 2100. Hydrogeology Journal, 27(1): 31-53. DOI. Acknowledged PfEC/ERI.

[67] ^GZhang GR, LuP, Luo P, Sonnenthal E, Huang Y and ^*Zhu C (2019) Effects of natural gas acidic components on local porosity generation in a carbonate reservoir: Insights from reactive transport modeling. AAPG Bulletin 103(12): 2975-3001. DOI. Acknowledged PRF grant 57727-ND2

[66]Teng, YG, ^GHu B, Zheng J, Wang JS, Zhai YZ and Zhu C (2018) Water quality responses to the interaction between surface water and groundwater along the Songhua River, NE China. Hydrogeology Journal, 26(5): 1591-1607. DOI

[65]Zhang GR, ^GKang JT, Wang TX and ^*Zhu C (2017) Review and outlook for agromineral research in agriculture and climate mitigation. Soil Research. 56(2): 113-122. DOI.

[64]Rimstidt, JD, ^GZhang Y and Zhu C (2016) Rate equations for sodium catalyzed amorphous silica dissolution. Geochimica et Cosmochimica Acta 195: 120-125. DOI

[63] ^*Zhu C, ^PDLiu ZY, ^PDWang C, ^USchaefer A, ^GLu P, ^GZhang GR, ^GZhang YL, Georg RB, Rimstidt JD and Yuan HL (2016) Measuring silicate mineral dissolution rates using Si isotope doping. Chemical Geology, 445: 146-163. DOI

[62] ^GZimmer K, ^GZhang YL, ^GLu P, ^GChen YY, ^GZhang GR and ^*Zhu C (2016) SUPCRTBL: A revised and extended thermodynamic dataset and software package of SUPCRT92. Computers & Geosciences 90: 97-111. DOI. EAR-1225733

[61] ^GZhang GR, ^GLu P, ^GZhang YL, Wei XM and ^*Zhu C (2016) Impacts of mineral reaction kinetics and regional groundwater flow on long-term CO₂ fate at Sleipner. Energy & Fuel 30(5): 4159-4180. DOI

[60]He HT, Zhang, ST, Zhu C and Liu Y (2016) Equilibrium and kinetic Si isotope fractionation factors and their implications for Si isotope distributions in the Earth’s surface environments. Acta Geochimica 35(1), 15-24, DOI.

[59] ^PDLiu ZY, ^GZhang YL, Yuan HL, Rimstidt JD and ^*Zhu C (2016) A stable isotope doping method to test the range of applicability of detailed balance. Geochemical Perspective Letters 2(1): 78-86. DOI

[58] Yan W, Fan TL, Wang HY, Zhu C, Gao ZQ, Meng X, Sun YZ and Yang F (2017) Micropaleontology and paleoclimate during the early Cretaceous in the Lishu depression, Songliao Basin, Northeast China. Geoscience Frontiers 8(1), 93-106. DOI

[57] ^GZhang GR, ^GPeng L, ^GZhang YL, Wei XM and ^*Zhu C (2015) Effects of rate law formulation on predicting CO₂ sequestration in sandstone formations. International Journal of Energy Research 39(14): 1890-1908. DOI.

[56] Dasgupta S, Siegel DI, Zhu C, Chanton J and Glaser PH (2015) Geochemical mixing in peatland waters: The role of organic acids. Wetlands 35(3): 567-575, DOI.

[55] ^GLu P, Oelkers EH, ^PDKonishi H and ^*Zhu C (2015) Coupled Alkali Feldspar Dissolution and Secondary Mineral Precipitation in Batch Systems: 5. Results of K-feldspar hydrolysis experiments. Acta Geochimica 34(1): 1-12. DOI

[54] Zhu C, ^GZhang GR, ^GLu P, Meng LF and Ji X (2015) Benchmark modeling of the Sleipner CO₂ plume: Calibration to seismic data for the uppermost layer and model sensitivity analysis. The International Journal of Greenhouse Gas Control 43: 233-246, DOI

[53] Gruber C, Zhu C, Georg, RB, Zakon J and Ganor J (2014) Resolving the gap between laboratory and field rates of feldspar weathering. Geochimica et Cosmochimica Acta 147: 90–106, DOI.

[52]Gruber C, Harpaz L, Zhu C, Bullen TD and Ganor J (2013) A new approach for measuring dissolution rates of silicate minerals by using silicon isotope. Geochimica et Cosmochimica Acta 104: 261-280. DOI.

[51] ^GLu P, Fu Q, Seyfried Jr. WE, Jones K and ^*Zhu C (2013) Coupled alkali feldspar dissolution and secondary mineral precipitation in batch systems: 2. Effects of CO₂ and implications for carbon sequestration. Applied Geochemistry 30: 75-90. DOI.

[50] Ji X and Zhu C (2013) Predicting possible effects of H₂S impurity on CO₂ transportation and geological storage. Environmental Science & Technology 47: 55-62. DOI

[49] Ji X and Zhu C (2012) A SAFT Equation of State for the Quaternary H₂S-CO₂-H₂O-NaCl system. Geochimica et Cosmochimica Acta 91: 40–59. DOI.

[48] ^GLiu Y, ^GLu P, Griffith C, Soong Y, Hedges SW, Hellevang H and Zhu C (2012) CO₂-caprock-brine interaction: Reactivity experiments on Eau Claire Shale and a review of literature. The International Journal of Greenhouse Gas Control 7: 153–167. DOI

[47] ^*Zhu C, Rehrey CG, Treadwell B and Johnson CC (2012) Looking Back to Move Ahead: How Students Learn Deep Geological Time by Predicting Future Environmental Impacts. Journal of College Science Teaching - A peer-reviewed journal published by the National Science Teachers Association 41(3): 61-66.  in ERIC (Education Resources Information Center)

[46] ^GLu P, Nuhfer NT, Kelly S, Li Q, Konishi H, Elswick E and ^*Zhu C (2011) Pb²⁺ coprecipitation with iron oxyhydroxide nano-particles. Geochimica et Cosmochimica Acta 75: 4547-4561. DOI.

[45] ^*Zhu C and Schwartz FW (2011) Hydrogeochemical processes and their controls on water quality and water management. Elements 7(3): 169-174. DOI

[44] Oelkers OH, Hering J and Zhu C (2011) Water: Is there a global crisis. Elements 7(3): 157-162. DOI

[43] Su W, Zhang H, Hu R, Ge X,  Xia B, ^GChen Y and Zhu C (2011) Mineralogy and geochemistry of gold-bearing arsenian pyrite from the Shuiyindong Carlin-type gold deposit, Guizhou, China: Implications for gold depositional processes. Mineralium Deposita 47(6): 653–662. DOI.

[42] Pham VTH, ^GLu P, Aagaard P, Zhu C and Hellevang H (2011) On the potential of CO₂-water-rock interactions for CO₂ storage using a modified kinetic model. The International Journal of Greenhouse Gas Control 5(4): 1002-1015. DOI.

[41] ^GLiu Y, ^GLu P, Zhu C and Xiao Y (2011) Coupled reactive transport modeling of CO₂ Sequestration in the Mt. Simon Sandstone Formation, Midwest U.S.A. The International Journal of Greenhouse Gas Control 52(2): 294-307. DOI

[40] ^GLu P, Fu Q, Seyfried WE Jr, ^‡Hereford AG and ^*Zhu C (2011) Navajo Sandstone-Brine-CO₂ interaction: Implications for Geological Carbon Sequestration. Environmental Earth Sciences 62(1): 101-118. DOI.

[39] ^GLu P and ^*Zhu C (2011) Arsenic Eh-pH Diagrams at 25 ^oC and 1 bar. Environmental Earth Sciences 62(8): 1673 – 1683, DOI.

[38] Ji X and Zhu C (2010) Modelling of phase equilibria in the H₂S-H₂O system with statistical associating fluid theory. Energy & Fuels 24: 6208-6213, DOI.

[37] McKnight-Whitford A, Chen B, Naranmandura H, Zhu C and Le XC (2010) New Method and Detection of High Concentrations of Monomethylarsonous Acid Detected in Contaminated Groundwater.  Environmental Science & Technology 44: 5875-5880, DOI.

[36]^*Zhu C and Kipfer R (2010) Noble Gas Evidence for the Passing of the Southern Branch of Jet Streams in Late Pleistocene over Black Mesa, Arizona, USA. Geology 38 (1): 83-86, DOI

[35] ^GLiu  Y, Le C, McKnight-Whitford A, Xia Y, Wu F, Elswick E, Johnson CC and ^*Zhu C (2010) Antimony Speciation and Contamination of Waters in Xikuangshan Sb Mining and Smelting Area, China. Environmental Geochemistry and Health 32(5): 401-414, DOI.

[34] ^*Zhu C, ^GLu P, ^PDZheng Z and Ganor J (2010) Coupled Alkali Feldspar Dissolution and Secondary Mineral Precipitation in Batch Systems: 4. Numerical modeling of reaction path. Geochimica et Cosmochimica Acta 74: 3963-3983, DOI.

[33] ^*Zhu C and ^GLu P (2009) Alkali Feldspar Dissolution and Secondary Mineral Precipitation in Batch Systems: 3. Saturation States of Product Minerals and Reaction Paths. Geochimica et Cosmochimica Acta 73: 3171-3120, DOI.

[32] ^*Zhu C (2009) Geochemical modeling of reaction paths and networks. In: Oelkers EH and Schott J (eds) Thermodynamics and Kinetics of Water-rock Interactions, Review in Mineralogy and Geochemistry v70: Mineralogical Society of America, pp 533-569, DOI.

[31] Georg RB, Zhu C, Reynolds RC and Halliday AN (2009) Stable silicon isotopes of groundwater, feldspars, and clay coatings in the Navajo Sandstone aquifer, Black Mesa, Arizona, USA. Geochimica et Cosmochimica Acta 73: 2229-2241, DOI

[30] Fu Q, P ^GLu, ^PDKonishi H, Dilmore R, Xu H, Seyfried W E Jr and Zhu C (2009) Coupled alkali-feldspar Dissolution and Secondary Mineral Precipitation in Batch Systems: 1. New Experimental Data at 200°C and 300 bars. Chemical Geology 91(3): 955-964, DOI

[29] ^PDYang C, Samper J, Zhu C and Jones SB (2009), Numerical modeling of the development of a preferentially leached layer on feldspar surfaces. Environmental Geology 57: 1639-1647, DOI.

[28] Dilmore R, ^GLu P, Soong Y, Allen D, Hedges SW, Fu JK, Dobbs C, Degalbo A and Zhu C (2008) Sequestration of CO₂ in mixtures of bauxite residue and saline wastewater. Energy & Fuels 22(1): 343-353, DOI

[27] Duan Z, Sun R, Liu R and Zhu C (2007) Accurate thermodynamic model for H₂S solubility in pure water and brines. Energy & Fuels 21: 2056-2065, DOI

[26] Hu J, Duan Z, Zhu C and Chou I (2007) PVTx properties of the CO₂-H₂O and CO₂-H₂O-NaCl systems below 647K: Assessment of experimental data and thermodynamic models. Chemical Geology 238: 249-267, DOI

[25] ^GHereford AG, Keating E, Guthrie G and ^*Zhu C (2007) Reactions and reaction rates in the regional aquifer beneath Pajarito Plateau, north-central New Mexico. Environmental Geology 52(5): 965-977, DOI.

[24] ^GYang C, Park M and Zhu C (2007) A Method for Estimating In Situ Reaction Rates from Push-Pull Experiments for Arbitrary Solute Background Concentrations. Environmental Geosciences and Engineering 13(4): 345-354.  DOI

[23] Ganor J, ^GLu P, ^PDZheng Z,and Zhu C (2007) Bridging the gap between laboratory measurements and field estimations of weathering using simple calculations. Environmental Geology 53 (3):  599-610, DOI.

[22] ^*Zhu C, Veblen DR, Blum AE and Chipera S (2006) Naturally weathered feldspar surfaces in the Navajo Sandstone aquifer, Black Mesa, Arizona: Electron microscopic characterization. Geochimica et Cosmochimica Acta 70(18): 4600-4616, DOI.

[21] Stubbs JE, Elbert DC, Veblen DR and Zhu C (2006) Electron microbeam investigation of uranium-contaminated soils from Oak Ridge, TN, USA. Environmental Science & Technology 40: 2108-2113, DOI

[20] ^GStrazisar BR, ^*Zhu C and Hedges SW (2006) Preliminary modeling of the long-term fate of CO₂ following injection into deep geological formations. Environmental Geosciences 13(1): 1-15, DOI

[19] Duan Z, Sun R, Zhu C and Chou I (2006) An improved model for the calculation of CO₂ solubility in aqueous solutions containing Na⁺, K⁺, Ca²⁺, Mg²⁺, Cl^-, and SO₄^2-. Marine Chemistry 98: 131-139, DOI

[18] ^*Zhu C (2005) In situ feldspar dissolution rates in an aquifer. Geochimica et Cosmochimica Acta 69(6): 1435-1453, DOI

[17] ^GMartin S, ^*Zhu C, Rule J, Nuhfer NT, Ford R, Hedges S and Yee S (2005) A high resolution TEM-AEM, pH titration, and modeling study of Zn²⁺ coprecipitation with ferrihydrite. Geochimica et Cosmochimica Acta 69(6): 1543-1553, DOI

[16] ^*Zhu C (2004) Coprecipitation in the barite isostructural family: 1. Binary mixing properties. Geochimica et Cosmochimica Acta 68(16): 3327-3337, DOI

[15] ^*Zhu C (2004) Coprecipitation in the barite isostructural family: 2. Numerical simulations of precipitation kinetics and reactive transport. Geochimica et Cosmochimica Acta 68(16): 3339-3349, DOI

[14] ^*Zhu C, Winterle JR and ^‡Love EI (2003) Late Pleistocene and Holocene recharge rates from the chloride mass balance method and chloride-36 data. Water Resources Research 39(8): 1182, DOI

[13] ^*Zhu C (2003) A case against K_d-based transport model: Natural attenuation at a mill tailings site. Computers & Geosciences 29: 351-359, DOI

[12] ^*Zhu C, Anderson GM and Burden DS (2002) Natural attenuation reactions at a uranium mill tailings site, western USA. Ground Water 40(1-2): 5-13. DOI

[11] ^*Zhu C (2002) Estimation of surface precipitation constants from linear free energy correlation. Chemical Geology 188: 23-32.

[10] Penn RL, Zhu C, Xu H and Veblen DR (2001), Iron oxide coatings on sand grains from the Atlantic coastal plain: HRTEM characterization. Geology 29 (9): 843-846. DOI

[9] ^*Zhu C, Hu FQ and Burden DS (2001) Multi-component reactive transport modeling of natural attenuation of an acid ground water plume at a uranium mill tailings site. Journal of Contaminant Hydrology 52(1-2): 85-108. DOI

[8] ^*Zhu C and Burden DS (2001) Mineralogical compositions of aquifer matrix as necessary initial conditions in reactive contaminant transport models. Journal of Contaminant Hydrology 51(3-4): 145-161. DOI

[7] ^*Zhu C (2000) Estimate of recharge from radiocarbon dating of groundwater and numerical flow and transport modeling. Water Resources Research 36(9): 2607-2620. DOI

[6] ^*Zhu C and Murphy WM (2000) On radiocarbon dating of ground water. Ground Water 38(6): 802-804. DOI

[5] ^*Zhu C, Waddell RK, Star I and Ostrander M (1998) Responses of groundwater in the Black Mesa basin, northeastern Arizona to paleoclimatic changes during late Pleistocene and Holocene. Geology 26: 127-130. DOI

[4] ^*Zhu C, Xu H, Ilton E, Veblen DR, Henry D, Tivey MK and Thompson G (1994) TEM-AEM observations of high-Cl biotite and amphibole and possible petrological implications. American Mineralogist 79: 909-920.

[3] ^*Zhu C (1993) New pH sensor for hydrothermal fluids. Geology 21: 983-986.  DOI

[2] ^*Zhu C and Sverjensky DA (1992) F-Cl-OH partitioning between apatite and biotite. Geochimica et Cosmochimica Acta 56: 3435-3467.  DOI

[1] ^*Zhu C and Sverjensky DA (1991) Partitioning of F-Cl-OH between minerals and hydrothermal fluids. Geochimica et Cosmochimica Acta 55: 1837-1858.  DOI

Ji X and Zhu C (2015) CO₂ storage in deep saline aquifers. In: Morreale B, Shi F (eds) Novel Materials for Carbon Dioxide Mitigation Technology, Elsevier, pp 299-332. DOI

Zhu C (2012) Geochemical modeling in environmental and geological studies. In: Meyers RA (ed) Encyclopedia of Sustainability Science and Technology, Springer, doi: DOI.

Kelly S, ^GLu P, Newville MG, Bolin T, Chattopadhyay S, Shibata T and Zhu C (2008) Molecular structure of Lead (II) coprecipitated with Iron(III) oxyhydroxide. In: Barnett M and Kent D (eds) Adsorption of Metals by Geomedia II: Variables, Mechanisms, and Model Applications, Elsevier,  pp 67-94, DOI

Book Reviews

Zhu (2017) Geochemical Rate Models: An Introduction to Geochemical Kinetics. By J. Donald Rimstidt (2013) Cambridge University Press, 232 p. $84.99 Hardback, ISBN: 9781107029972. American Mineralogist 101: 921-922.