Trust is good, control is better: a review on monitoring and characterization techniques for flow battery electrolytes.
暂无分享,去创建一个
[1] Shawn Li,et al. Joint SoC and SoH Estimation for Zinc–Nickel Single-Flow Batteries , 2020, IEEE Transactions on Industrial Electronics.
[2] U. Schubert,et al. Aqueous Redox Flow Battery Suitable for High Temperature Applications Based on a Tailor‐Made Ferrocene Copolymer , 2020, Advanced Energy Materials.
[3] Andrea Trovò,et al. Battery management system for industrial-scale vanadium redox flow batteries: Features and operation , 2020 .
[4] S. Gahlot,et al. Graphene based polymer electrolyte membranes for electro-chemical energy applications , 2020 .
[5] R. Gordon,et al. Extremely Stable Anthraquinone Negolytes Synthesized from Common Precursors , 2020, Chem.
[6] Yonghong He,et al. An Optimized Angular Total Internal Reflection Sensor With High Resolution in Vanadium Flow Batteries , 2020, IEEE Transactions on Instrumentation and Measurement.
[7] J. Liang,et al. A symmetric aqueous redox flow battery based on viologen derivative , 2020, Chinese Chemical Letters.
[8] Xinjie Zhou,et al. Highly-conductive composite bipolar plate based on ternary carbon materials and its performance in redox flow batteries , 2020 .
[9] Fikile R. Brushett,et al. A Method for Evaluating Soluble Redox Couple Stability Using Microelectrode Voltammetry , 2020, Journal of The Electrochemical Society.
[10] Amornchai Arpornwichanop,et al. Optimal operational strategy for a vanadium redox flow battery , 2020, Comput. Chem. Eng..
[11] Yongchai Kwon,et al. Neutral pH aqueous redox flow batteries using an anthraquinone-ferrocyanide redox couple , 2020 .
[12] Meng-Yue Lu,et al. Numerical examination of the performance of a vanadium redox flow battery under variable operating strategies , 2020 .
[13] Xiangrong Li,et al. Unraveling the viscosity impact on volumetric transfer in redox flow batteries , 2020 .
[14] H. Girault,et al. Vanadium-manganese redox flow battery: Study of Mn(III) disproportionation in the presence of other metallic ions. , 2020, Chemistry.
[15] J. Buriak,et al. Water-soluble pH-switchable cobalt complexes for aqueous symmetric redox flow batteries. , 2020, Chemical communications.
[16] A. Nikitenko,et al. Vanadium redox flow battery parameters optimization in a transportation microgrid: A case study , 2020 .
[17] C. Weidlich,et al. Monitoring the state of charge of all-vanadium redox flow batteries to identify crossover of electrolyte , 2020 .
[18] J. Diard,et al. The effects of time-variance on impedance measurements: examples of a corroding electrode and a battery cell , 2020 .
[19] X. Chi,et al. A High Energy Density Aqueous Battery Achieved by Dual Dissolution/Deposition Reactions Separated in Acid‐Alkaline Electrolyte , 2020, Advanced Energy Materials.
[20] Ruiyong Chen,et al. An “interaction-mediating” strategy towards enhanced solubility and redox properties of organics for aqueous flow batteries , 2020, Nano Energy.
[21] C. Grey,et al. In situ NMR metrology reveals reaction mechanisms in redox flow batteries , 2020, Nature.
[22] Yi-min Zhang,et al. Improved energy density and temperature range of vanadium redox flow battery by controlling the state of charge of positive electrolyte , 2020 .
[23] Fikile R. Brushett,et al. On Lifetime and Cost of Redox-Active Organics for Aqueous Flow Batteries , 2020 .
[24] Chuanwei Yan,et al. Electrolyte transfer mechanism and optimization strategy for vanadium flow batteries adopting a Nafion membrane , 2020 .
[25] David G. Kwabi,et al. Electrolyte Lifetime in Aqueous Organic Redox Flow Batteries: A Critical Review. , 2020, Chemical reviews.
[26] Bingjun Liu,et al. Boosting the performance of positive electrolyte for VRFB by employing zwitterion molecule containing sulfonic and pyridine groups as the additive , 2020, Ionics.
[27] Jeffrey A. Kowalski,et al. The impact of bulk electrolysis cycling conditions on the perceived stability of redox active materials , 2020 .
[28] Sun-Hwa Yeon,et al. Real-time monitoring of the state of charge (SOC) in vanadium redox-flow batteries using UV–Vis spectroscopy in operando mode , 2020 .
[29] Jian-hang Zhang,et al. Real-time peak power prediction for zinc nickel single flow batteries , 2020, Journal of Power Sources.
[30] Dong Kyu Kim,et al. Transport phenomena associated with capacity loss of all-vanadium redox flow battery , 2020 .
[31] W. Olthuis,et al. Spectroelectrochemistry, the future of visualizing electrode processes by hyphenating electrochemistry with spectroscopic techniques. , 2020, The Analyst.
[32] Jun Chen,et al. A Comparative Review of Electrolytes for Organic‐Material‐Based Energy‐Storage Devices Employing Solid Electrodes and Redox Fluids , 2020, ChemSusChem.
[33] C. Agert,et al. Electrolyte Imbalance Determination of a Vanadium Redox Flow Battery by Potential‐Step Analysis of the Initial Charging , 2020, ChemSusChem.
[34] Min‐Sik Park,et al. Applications of Voltammetry in Lithium Ion Battery Research , 2020 .
[35] Meng-Yue Lu,et al. An optimal electrolyte addition strategy for improving performance of a vanadium redox flow battery , 2020, International Journal of Energy Research.
[36] Chao Ma. A Novel State of Charge Estimating Scheme Based on an Air-Gap Fiber Interferometer Sensor for the Vanadium Redox Flow Battery , 2020, Energies.
[37] Jingyu Xi,et al. Boosting the thermal stability of electrolytes in vanadium redox flow batteries via 1-hydroxyethane-1,1-diphosphonic acid , 2020, Journal of Applied Electrochemistry.
[38] Yi-min Zhang,et al. Investigations of the influences of K+ impurity on the electrolyte for vanadium redox flow battery , 2020, Ionics.
[39] Jianhua Zhang,et al. A novel model predictive control scheme based observer for working conditions and reconditioning monitoring of Zinc-Nickel single flow batteries , 2020, Journal of Power Sources.
[40] Xuezhe Wei,et al. Building Safe Lithium-Ion Batteries for Electric Vehicles: A Review , 2019, Electrochemical Energy Reviews.
[41] T. Yamamura,et al. Direct observation of vanadium ion permeation behavior through Nafion 117 using 48V radiotracer for all-vanadium redox flow battery , 2019 .
[42] Kathryn E. Toghill,et al. Metal coordination complexes in nonaqueous redox flow batteries , 2019 .
[43] M. Ghalambaz,et al. Optimization of pulse current on energy storage of zinc-air flow batteries , 2019 .
[44] Ki Won Jung,et al. Monitoring the State‐of‐Charge of a Vanadium Redox Flow Battery with the Acoustic Attenuation Coefficient: An In Operando Noninvasive Method , 2019, Small Methods.
[45] Fikile R. Brushett,et al. Engineering porous electrodes for next-generation redox flow batteries: recent progress and opportunities , 2019, Current Opinion in Electrochemistry.
[46] M. Guarnieri,et al. Comparison of energy losses in a 9 kW vanadium redox flow battery , 2019, Journal of Power Sources.
[47] J. Lemmon,et al. A nonaqueous all organic semisolid flow battery. , 2019, Chemical communications.
[48] T. L. Liu,et al. A pH Neutral, Metal Free Aqueous Organic Redox Flow Battery Employing an Ammonium Anthraquinone Anolyte. , 2019, Angewandte Chemie.
[49] Aldo Bischi,et al. Energy efficiency analysis for a kilo-watt class vanadium redox flow battery system , 2019, Applied Energy.
[50] Yongchai Kwon,et al. Iron-vanadium redox flow batteries with polybenzimidazole membranes: High coulomb efficiency and low capacity loss , 2019, Journal of Power Sources.
[51] H. Girault,et al. Vanadium-oxygen cell for positive electrolyte discharge in dual-circuit vanadium redox flow battery , 2019, Journal of Power Sources.
[52] Zhuoyu Li,et al. The indefinite cycle life via a method of mixing and online electrolysis for vanadium redox flow batteries , 2019, Journal of Power Sources.
[53] Baohua Li,et al. Organic quinones towards advanced electrochemical energy storage: recent advances and challenges , 2019, Journal of Materials Chemistry A.
[54] G. Maranzana,et al. Symmetric-cell characterization of the redox flow battery system: Application to the detection of degradations , 2019, Electrochimica Acta.
[55] Michael P. Marshak,et al. Chelated Chromium Electrolyte Enabling High-Voltage Aqueous Flow Batteries , 2019, Joule.
[56] Yongchai Kwon,et al. Effect of temperature on the performance of aqueous redox flow battery using carboxylic acid functionalized alloxazine and ferrocyanide redox couple , 2019, Korean Journal of Chemical Engineering.
[57] Thomas G. Habetler,et al. A survey of methods for monitoring and detecting thermal runaway of lithium-ion batteries , 2019, Journal of Power Sources.
[58] K. Kang,et al. Bio-inspired Molecular Redesign of a Multi-redox Catholyte for High-Energy Non-aqueous Organic Redox Flow Batteries , 2019, Chem.
[59] Hee‐Tak Kim,et al. Catalytic production of impurity-free V3.5+ electrolyte for vanadium redox flow batteries , 2019, Nature Communications.
[60] T. Zawodzinski,et al. Elucidation of the interplay between vanadium species and charge-discharge processes in VRFBs by Raman spectroscopy , 2019, Electrochimica Acta.
[61] A. Arpornwichanop,et al. A review on the electrolyte imbalance in vanadium redox flow batteries , 2019, International Journal of Hydrogen Energy.
[62] Li Tang,et al. Investigations on physicochemical properties and electrochemical performance of sulfate-chloride mixed acid electrolyte for vanadium redox flow battery , 2019, Journal of Power Sources.
[63] Hongwen He,et al. Towards a smarter battery management system: A critical review on optimal charging methods of lithium ion batteries , 2019, Energy.
[64] Fikile R. Brushett,et al. Dimerization of 9,10-anthraquinone-2,7-Disulfonic acid (AQDS) , 2019, Electrochimica Acta.
[65] M. Perry,et al. Electrolyte Compositions in a Vanadium Redox Flow Battery Measured with a Reference Cell , 2019, Journal of The Electrochemical Society.
[66] Kathryn E. Toghill,et al. Dithiolene Complexes of First‐Row Transition Metals for Symmetric Nonaqueous Redox Flow Batteries , 2019, ChemSusChem.
[67] Q. Ma,et al. Lattice Boltzmann model for complex transfer behaviors in porous electrode of all copper redox flow battery with deep eutectic solvent electrolyte , 2019, Applied Thermal Engineering.
[68] Micah S. Ziegler,et al. Storage Requirements and Costs of Shaping Renewable Energy Toward Grid Decarbonization , 2019, Joule.
[69] U. Schubert,et al. (2,2,6,6-Tetramethylpiperidin-1-yl)oxyl-Containing Zwitterionic Polymer as Catholyte Species for High-Capacity Aqueous Polymer Redox Flow Batteries , 2019, Chemistry of Materials.
[70] Ergang Wang,et al. Electrochemical Evaluation of a Napthalene Diimide Derivative for Potential Application in Aqueous Organic Redox Flow Batteries , 2019, Energy Technology.
[71] Vahid Esfahanian,et al. Reduced‐order modeling of lead‐acid battery using cluster analysis and orthogonal cluster analysis method , 2019, International Journal of Energy Research.
[72] Piergiorgio Alotto,et al. High current polarization tests on a 9 kW vanadium redox flow battery , 2019, Journal of Power Sources.
[73] T. L. Liu,et al. Status and Prospects of Organic Redox Flow Batteries toward Sustainable Energy Storage , 2019, ACS Energy Letters.
[74] Jun Ma,et al. Research on performance of vanadium redox flow battery stack , 2019, IOP Conference Series: Materials Science and Engineering.
[75] Yu Ding,et al. Pathways to Widespread Applications: Development of Redox Flow Batteries Based on New Chemistries , 2019, Chem.
[76] Binyu Xiong,et al. Model-Based Condition Monitoring of a Vanadium Redox Flow Battery , 2019, Energies.
[77] L. F. Arenas,et al. Redox flow batteries for energy storage: their promise, achievements and challenges , 2019, Current Opinion in Electrochemistry.
[78] Xiangrong Li,et al. Numerical modelling and in-depth analysis of multi-stack vanadium flow battery module incorporating transport delay , 2019, Applied Energy.
[79] Heesung Park,et al. Electrokinetic parameters of a vanadium redox flow battery with varying temperature and electrolyte flow rate , 2019, Renewable Energy.
[80] A. Mendes,et al. Integrated design of hematite and dye-sensitized solar cell for unbiased solar charging of an organic-inorganic redox flow battery , 2019, Nano Energy.
[81] U. Schubert,et al. An Amperometric, Temperature-Independent, and Calibration-Free Method for the Real-Time State-of-Charge Monitoring of Redox Flow Battery Electrolytes , 2019, Chemistry of Materials.
[82] Huamin Zhang,et al. Progress and Perspectives of Flow Battery Technologies , 2019, Electrochemical Energy Reviews.
[83] Liang Wu,et al. A Long-Lifetime All-Organic Aqueous Flow Battery Utilizing TMAP-TEMPO Radical , 2019, Chem.
[84] Ji Won Kim,et al. An Enzyme-Inspired Formulation of the Electrolyte for Stable and Efficient Vanadium Redox Flow Battery at High Temperatures. , 2019, ACS applied materials & interfaces.
[85] A. B. Jorge,et al. High-power nitrided TiO2 carbon felt as the negative electrode for all-vanadium redox flow batteries , 2019, Carbon.
[86] T. Bechtold,et al. Electrochemistry of Iron(II/III)‐N,N'‐ethylene‐bis‐(o‐hydroxyphenylglycine) Complexes in Aqueous Solution Indicates Potential for Use in Redox Flow Batteries , 2019, ChemElectroChem.
[87] Jianguo Liu,et al. Investigation of electrolytes of the vanadium redox flow battery (VII): Prediction of the viscosity of mixed electrolyte solution (VOSO4 + H2SO4 + H2O) based on Eyring’s theory , 2019, The Journal of Chemical Thermodynamics.
[88] Xiao‐Zi Yuan,et al. A review of all‐vanadium redox flow battery durability: Degradation mechanisms and mitigation strategies , 2019, International Journal of Energy Research.
[89] S. Jiang,et al. The Structure–Activity Relationship in Membranes for Vanadium Redox Flow Batteries , 2019, Advanced Sustainable Systems.
[90] Zhiling Zhao,et al. Evaluating ferrocene ions and all-ferrocene salts for electrochemical applications , 2019, Journal of Organometallic Chemistry.
[91] L. Gubler,et al. Tackling Capacity Fading in Vanadium Redox Flow Batteries with Amphoteric Polybenzimidazole/Nafion Bilayer Membranes. , 2019, ChemSusChem.
[92] L. Wan,et al. Stable positive electrolyte containing high-concentration Fe2(SO4)3 for vanadium flow battery at 50 °C , 2019, Electrochimica Acta.
[93] Weiwei Yang,et al. Mitigating capacity decay and improving charge-discharge performance of a vanadium redox flow battery with asymmetric operating conditions , 2019, Electrochimica Acta.
[94] A. Bentien,et al. Investigation of Tetramorpholinohydroquinone as a Potential Catholyte in a Flow Battery , 2019, ACS Applied Energy Materials.
[95] Lu Zhang,et al. On Transferability of Performance Metrics for Redox-Active Molecules , 2019, The Journal of Physical Chemistry C.
[96] Andrew Swingler,et al. Opportunity for Improving Lead-Acid Battery Management of Photovoltaic-Genset-Battery Hybrid Power Systems Based on Measured Field Data , 2019, Energies.
[97] Seung M. Oh,et al. Counter anion effects on the energy density of Ni(II)-chelated tetradentate azamacrocyclic complex cation as single redox couple for non-aqueous flow batteries , 2019, Electrochimica Acta.
[98] Lei Wang,et al. All-polymer particulate slurry batteries , 2019, Nature Communications.
[99] M. Guarnieri,et al. Thermal modeling of industrial-scale vanadium redox flow batteries in high-current operations , 2019, Journal of Power Sources.
[100] B. Gollas,et al. State of charge indicators for alkaline zinc-air redox flow batteries , 2019, Journal of Power Sources.
[101] U. Schubert,et al. State-of-charge monitoring for redox flow batteries: A symmetric open-circuit cell approach , 2019, Journal of Power Sources.
[102] Huamin Zhang,et al. A novel aqueous Li+ (or Na+)/Br− hybrid-ion battery with super high areal capacity and energy density , 2019, Journal of Materials Chemistry A.
[103] David G. Kwabi,et al. A Water-Miscible Quinone Flow Battery with High Volumetric Capacity and Energy Density , 2019, ACS Energy Letters.
[104] Yu Ding,et al. Biredox Eutectic Electrolytes Derived from Organic Redox-Active Molecules: High-Energy Storage Systems. , 2019, Angewandte Chemie.
[105] Seunghun Jung,et al. Comprehensive study of the performance of alkaline organic redox flow batteries as large‐scale energy storage systems , 2019, International Journal of Energy Research.
[106] Jingyu Xi,et al. Revealing sulfuric acid concentration impact on comprehensive performance of vanadium electrolytes and flow batteries , 2019, Electrochimica Acta.
[107] Xin Li,et al. State of charge estimation of vanadium redox battery based on improved extended Kalman filter. , 2019, ISA transactions.
[108] S. Seitz,et al. Metrological advances in reference measurement procedures for electrolytic conductivity , 2019, Metrologia.
[109] T. L. Liu,et al. A 1.51 V pH neutral redox flow battery towards scalable energy storage , 2019, Journal of Materials Chemistry A.
[110] L. Pozzo,et al. Fluorenone Based Anolyte for an Aqueous Organic Redox-Flow Battery , 2019, ECS Transactions.
[111] J. Yi,et al. Correlations of Through-Plane Cell Voltage Losses, Imbalance of Electrolytes, and Energy Storage Efficiency of a Vanadium Redox Flow Battery. , 2019, ChemSusChem.
[112] Eugene E. Kwan,et al. Extending the Lifetime of Organic Flow Batteries via Redox State Management. , 2019, Journal of the American Chemical Society.
[113] L. Tan,et al. Control strategy optimization of electrolyte flow rate for all vanadium redox flow battery with consideration of pump , 2019, Renewable Energy.
[114] C. Dagdeviren,et al. Recent Progress in Electrochemical pH-Sensing Materials and Configurations for Biomedical Applications. , 2019, Chemical reviews.
[115] H. Girault,et al. On-Site Purification of Copper-Contaminated Vanadium Electrolytes by using a Vanadium Redox Flow Battery. , 2019, ChemSusChem.
[116] Vikram Singh,et al. Aqueous organic redox flow batteries , 2019, Nano Research.
[117] Lei Wang,et al. Bilayer Designed Hydrocarbon Membranes for All-Climate Vanadium Flow Batteries To Shield Catholyte Degradation and Mitigate Electrolyte Crossover. , 2019, ACS applied materials & interfaces.
[118] J. Košek,et al. A complex four-point method for the evaluation of ohmic and faradaic losses within a redox flow battery single-cell , 2019, MethodsX.
[119] Abhisek Ukil,et al. Recent development of membrane for vanadium redox flow battery applications: A review , 2019, Applied Energy.
[120] R. Hempelmann,et al. Photometrical Determination of the State-of-Charge in Vanadium Redox Flow Batteries Part II: In Combination with Open-Circuit-Voltage , 2019, Zeitschrift für Physikalische Chemie.
[121] R. Hempelmann,et al. Photometrical Determination of the State-of-Charge in Vanadium Redox Flow Batteries Part I: In Combination with Potentiometric Titration , 2019, Zeitschrift für Physikalische Chemie.
[122] Yi-min Zhang,et al. Improved broad temperature adaptability and energy density of vanadium redox flow battery based on sulfate-chloride mixed acid by optimizing the concentration of electrolyte , 2019, Journal of Power Sources.
[123] F. Jiang,et al. Low-Carbon-Content Composite Bipolar Plates: A Novel Design and Its Performance in Vanadium Redox Flow Batteries , 2019, ChemistrySelect.
[124] D. Kim,et al. The effect of Cr3+-Functionalized additive in zinc-bromine flow battery , 2019, Journal of Power Sources.
[125] Nyunt Wai,et al. Vanadium redox flow battery with slotted porous electrodes and automatic rebalancing demonstrated on a 1 kW system level , 2019, Applied Energy.
[126] Md. Parvez Akter,et al. Optimal Charging of Vanadium Redox Flow Battery with Time-Varying Input Power , 2019, Batteries.
[127] David G. Kwabi,et al. A Phosphonate‐Functionalized Quinone Redox Flow Battery at Near‐Neutral pH with Record Capacity Retention Rate , 2019, Advanced Energy Materials.
[128] T. L. Liu,et al. Unprecedented Capacity and Stability of Ammonium Ferrocyanide Catholyte in pH Neutral Aqueous Redox Flow Batteries , 2019, Joule.
[129] P. Leung,et al. A deep eutectic solvent (DES) electrolyte-based vanadium-iron redox flow battery enabling higher specific capacity and improved thermal stability , 2019, Electrochimica Acta.
[130] T. Turek,et al. Monitoring the State of Charge of the Positive Electrolyte in a Vanadium Redox-Flow Battery with a Novel Amperometric Sensor , 2019, Batteries.
[131] A. Hawkes,et al. Projecting the Future Levelized Cost of Electricity Storage Technologies , 2019, Joule.
[132] Ruiyong Chen. Toward High‐Voltage, Energy‐Dense, and Durable Aqueous Organic Redox Flow Batteries: Role of the Supporting Electrolytes , 2018, ChemElectroChem.
[133] Chengyi Song,et al. Temperature effect and thermal impact in lithium-ion batteries: A review , 2018, Progress in Natural Science: Materials International.
[134] Yu Ding,et al. Highly Concentrated Phthalimide-Based Anolytes for Organic Redox Flow Batteries with Enhanced Reversibility , 2018, Chem.
[135] Yunxu Sun,et al. Real-Time Study of the Disequilibrium Transfer in Vanadium Flow Batteries at Different States of Charge via Refractive Index Detection , 2018, The Journal of Physical Chemistry C.
[136] J. Alexander,et al. Rechargeable redox flow batteries: flow fields, stacks and design considerations. , 2018, Chemical Society reviews.
[137] Timothy R. Cook,et al. Repurposing the Industrial Dye Methylene Blue as an Active Component for Redox Flow Batteries , 2018 .
[138] K. Friedrich,et al. Verification of Redox Flow Batteries’ Functionality by Electrochemical Impedance Spectroscopy Tests , 2018, Batteries.
[139] A. Bhattacharjee,et al. Development of an efficient thermal management system for Vanadium Redox Flow Battery under different charge-discharge conditions , 2018, Applied Energy.
[140] Hubert H. Girault,et al. Characterisation of a 200 kW/400 kWh Vanadium Redox Flow Battery , 2018, Batteries.
[141] Jinpeng Tian,et al. Towards a smarter battery management system: A critical review on battery state of health monitoring methods , 2018, Journal of Power Sources.
[142] P. Alotto,et al. Developing vanadium redox flow technology on a 9-kW 26-kWh industrial scale test facility: Design review and early experiments , 2018, Applied Energy.
[143] Dana Dan,et al. Effect of Operating Temperature on Individual Half-Cell Reactions in All-Vanadium Redox Flow Batteries , 2018, Batteries.
[144] D. N. Buckley,et al. Measurement and computer simulation of catholyte stability in vanadium flow batteries (VFBs) , 2018 .
[145] Sang Jun Yoon,et al. Improved All-Vanadium Redox Flow Batteries using Catholyte Additive and a Cross-linked Methylated Polybenzimidazole Membrane , 2018, ACS Applied Energy Materials.
[146] Zhongbao Wei,et al. Online monitoring of state of charge and capacity loss for vanadium redox flow battery based on autoregressive exogenous modeling , 2018, Journal of Power Sources.
[147] H. Hng,et al. Novel Approaches for Solving the Capacity Fade Problem during Operation of a Vanadium Redox Flow Battery , 2018, Batteries.
[148] Dong Kyu Kim,et al. Parametric study and flow rate optimization of all-vanadium redox flow batteries , 2018, Applied Energy.
[149] A. Casalegno,et al. Local potential measurement through reference electrodes in vanadium redox flow batteries: Evaluation of overpotentials and electrolytes imbalance , 2018, Journal of Power Sources.
[150] T. Laino,et al. Revealing the role of phosphoric acid in all-vanadium redox flow batteries with DFT calculations and in situ analysis. , 2018, Physical chemistry chemical physics : PCCP.
[151] U. Schubert,et al. Micro-Tubular Flow Cell Design Utilizing Commercial Hollow Fiber Dialysis Membranes for Size-Exclusion Based Flow Batteries , 2018, Energy Technology.
[152] James R. McKone,et al. Flow Battery Electroanalysis: Hydrodynamic Voltammetry of Aqueous Fe(III/II) Redox Couples at Polycrystalline Pt and Au , 2018, ACS Applied Energy Materials.
[153] Jingyu Xi,et al. Broad temperature adaptability of vanadium redox flow battery–part 4: Unraveling wide temperature promotion mechanism of bismuth for V2+/V3+ couple , 2018, Journal of Energy Chemistry.
[154] K. Kang,et al. Multi-redox Molecule for High-Energy Redox Flow Batteries , 2018, Joule.
[155] Y. S. Li,et al. Effect of carbon dioxide additive on the characteristics of a deep eutectic solvent (DES) electrolyte for non-aqueous redox flow batteries , 2018, Chemical Physics Letters.
[156] Jarrod D Milshtein,et al. Quantifying the impact of viscosity on mass-transfer coefficients in redox flow batteries , 2018, Journal of Power Sources.
[157] Yi‐Chun Lu,et al. Recent progress in organic redox flow batteries: Active materials, electrolytes and membranes , 2018, Journal of Energy Chemistry.
[158] Jianguo Liu,et al. The reduction reaction kinetics of vanadium(V) in acidic solutions on a platinum electrode with unusual difference compared to carbon electrodes , 2018, Electrochimica Acta.
[159] David G. Kwabi,et al. Alkaline Quinone Flow Battery with Long Lifetime at pH 12 , 2018, Joule.
[160] Ali Ghorbani Kashkooli,et al. An all-aqueous redox flow battery with unprecedented energy density , 2018 .
[161] W. Hu,et al. Metal–Air Batteries: From Static to Flow System , 2018, Advanced Energy Materials.
[162] Jeffrey S. Moore,et al. Impact of Charge Transport Dynamics and Conditioning on Cycling Efficiency within Single Redox Active Colloids , 2018, ChemElectroChem.
[163] Dan Liu,et al. Exploring polycyclic aromatic hydrocarbons as an anolyte for nonaqueous redox flow batteries , 2018 .
[164] Huamin Zhang,et al. Ion conducting membranes for aqueous flow battery systems. , 2018, Chemical communications.
[165] Antonio C. Baclig,et al. High-Voltage, Room-Temperature Liquid Metal Flow Battery Enabled by Na-K|K-β″-Alumina Stability , 2018, Joule.
[166] Frank C. Walsh,et al. The characteristics and performance of hybrid redox flow batteries with zinc negative electrodes for energy storage , 2018, Renewable and Sustainable Energy Reviews.
[167] D. N. Buckley,et al. Electrolyte Stability in Vanadium Flow Batteries , 2018, MRS Advances.
[168] Sun-Hwa Yeon,et al. Effect of organophosphorus compound additives for thermal stability on the positive electrolyte of a vanadium redox flow battery , 2018, Journal of Applied Electrochemistry.
[169] Xiaoze Du,et al. Influence of temperature on performance of all vanadium redox flow battery: analysis of ionic mass transfer , 2018, Ionics.
[170] Zhuoyu Li,et al. A low-cost average valence detector for mixed electrolytes in vanadium flow batteries , 2018, RSC advances.
[171] E. Plichta,et al. Improvements to the Coulombic Efficiency of the Iron Electrode for an All-Iron Redox-Flow Battery , 2018 .
[172] Zhongbao Wei,et al. Real-time monitoring of capacity loss for vanadium redox flow battery , 2018, Journal of Power Sources.
[173] Kathryn E. Toghill,et al. Stability of molecular radicals in organic non-aqueous redox flow batteries: A mini review , 2018 .
[174] Yong-Song Chen,et al. Modeling the effect of shunt current on the charge transfer efficiency of an all-vanadium redox flow battery , 2018, Journal of Power Sources.
[175] Juan Xu,et al. A highly reversible anthraquinone-based anolyte for alkaline aqueous redox flow batteries , 2018 .
[176] M. Aziz,et al. Flow Battery Molecular Reactant Stability Determined by Symmetric Cell Cycling Methods , 2018 .
[177] Tianshou Zhao,et al. Improved electrolyte for zinc-bromine flow batteries , 2018 .
[178] J. Košek,et al. Commercial perfluorosulfonic acid membranes for vanadium redox flow battery: Effect of ion-exchange capacity and membrane internal structure , 2018 .
[179] S. Narayanan,et al. Understanding and Mitigating Capacity Fade in Aqueous Organic Redox Flow Batteries , 2018 .
[180] Jonathon K. Schuh,et al. Solution Properties and Practical Limits of Concentrated Electrolytes for Nonaqueous Redox Flow Batteries , 2018 .
[181] M. Mench,et al. Critical Review—Experimental Diagnostics and Material Characterization Techniques Used on Redox Flow Batteries , 2018 .
[182] M. Pritzker,et al. Electrodeposition and electrodissolution of zinc in mixed methanesulfonate-based electrolytes , 2018 .
[183] F. Soavi,et al. Carbonaceous catholyte for high energy density semi-solid Li/O2 flow battery , 2018 .
[184] Yingqi Lu,et al. Sodium–Sulfur Flow Battery for Low‐Cost Electrical Storage , 2018 .
[185] Jonathan A. Hamel,et al. Metal-Free Aqueous Flow Battery with Novel Ultrafiltered Lignin as Electrolyte , 2018 .
[186] A. Chica,et al. State of charge monitoring of vanadium redox flow batteries using half cell potentials and electrolyte density , 2018 .
[187] Inamuddin,et al. Iron-based flow batteries to store renewable energies , 2018, Environmental Chemistry Letters.
[188] J. Janek,et al. Quest for Organic Active Materials for Redox Flow Batteries: 2,3-Diaza-anthraquinones and Their Electrochemical Properties , 2018 .
[189] T. Turek,et al. Materials, system designs and modelling approaches in techno-economic assessment of all-vanadium redox flow batteries – A review , 2018 .
[190] Meng Yue,et al. Flow field design and optimization of high power density vanadium flow batteries: A novel trapezoid flow battery , 2018 .
[191] Dong Kyu Kim,et al. Redox Flow Batteries for Energy Storage: A Technology Review , 2018 .
[192] P. Cañizares,et al. Vanadium redox flow batteries for the storage of electricity produced in wind turbines , 2018 .
[193] Jing Xiong,et al. Investigation of the use of electrolyte viscosity for online state-of-charge monitoring design in vanadium redox flow battery , 2018 .
[194] Kazuki Yoshii,et al. Redox reaction of Tris(acetylacetonato)iron(III) complex in an amide-type ionic liquid , 2018 .
[195] Yu Ding,et al. Molecular engineering of organic electroactive materials for redox flow batteries. , 2018, Chemical Society reviews.
[196] Boon-Hee Soong,et al. Modelling and control of vanadium redox flow battery for profile based charging applications , 2017 .
[197] Alán Aspuru-Guzik,et al. UV-Vis spectrophotometry of quinone flow battery electrolyte for in situ monitoring and improved electrochemical modeling of potential and quinhydrone formation. , 2017, Physical chemistry chemical physics : PCCP.
[198] M. Rodrigo,et al. Performance of a vanadium redox flow battery for the storage of electricity produced in photovoltaic solar panels , 2017 .
[199] T. L. Liu,et al. Unraveling pH dependent cycling stability of ferricyanide/ferrocyanide in redox flow batteries , 2017 .
[200] S. Souentie,et al. Temperature, charging current and state of charge effects on iron-vanadium flow batteries operation , 2017 .
[201] Thomas J. Schmidt,et al. Tackling capacity fading in vanadium flow batteries with amphoteric membranes , 2017 .
[202] Jingyu Xi,et al. Asymmetric vanadium flow batteries: long lifespan via an anolyte overhang strategy. , 2017, Physical chemistry chemical physics : PCCP.
[203] Kelley J. Rountree,et al. A Practical Beginner’s Guide to Cyclic Voltammetry , 2017 .
[204] Timothy R. Cook,et al. An FeIII Azamacrocyclic Complex as a pH-Tunable Catholyte and Anolyte for Redox-Flow Battery Applications. , 2017, Chemistry.
[205] P. Poulin,et al. Complete study of a millifluidic flow battery using iodide and ferricyanide ions: modeling, effect of the flow and kinetics , 2017 .
[206] C. Sevov,et al. Low-Potential Pyridinium Anolyte for Aqueous Redox Flow Batteries , 2017 .
[207] D. N. Buckley,et al. Conductivity of Vanadium Flow Battery (VFB) Catholytes: Dependence on Sulfur and Vanadium Concentration and Temperature , 2017 .
[208] A. Bentien,et al. Differential pH as a method for increasing cell potential in organic aqueous flow batteries , 2017 .
[209] T. Turek,et al. Kinetic studies at carbon felt electrodes for vanadium redox-flow batteries under controlled transfer current density conditions , 2017 .
[210] Rajeev S. Assary,et al. Toward Improved Catholyte Materials for Redox Flow Batteries: What Controls Chemical Stability of Persistent Radical Cations? , 2017 .
[211] Jingyu Xi,et al. The benefits and limitations of electrolyte mixing in vanadium flow batteries , 2017 .
[212] S. Passerini,et al. Influence of electrochemical cycling on the rheo-impedance of anolytes for Li-based Semi Solid Flow Batteries , 2017 .
[213] Hiranmay Saha,et al. Design and experimental validation of a generalised electrical equivalent model of Vanadium Redox Flow Battery for interfacing with renewable energy sources , 2017 .
[214] P. Fischer,et al. The role of phosphate additive in stabilization of sulphuric-acid-based vanadium(V) electrolyte for all-vanadium redox-flow batteries , 2017 .
[215] J. Jeon,et al. A high-temperature tolerance solution for positive electrolyte of vanadium redox flow batteries , 2017 .
[216] Kyle C. Smith,et al. Assessing the impact of electrolyte conductivity and viscosity on the reactor cost and pressure drop of redox-active polymer flow batteries , 2017 .
[217] David M. Reed,et al. Materials and Systems for Organic Redox Flow Batteries: Status and Challenges , 2017 .
[218] M. R. Mohamed,et al. Recent developments in organic redox flow batteries: A critical review , 2017 .
[219] J. Vaughey,et al. An investigation of 2,5-di-tertbutyl-1,4-bis(methoxyethoxy)benzene in ether-based electrolytes , 2017 .
[220] Menglian Zheng,et al. Dynamic control strategy for the electrolyte flow rate of vanadium redox flow batteries , 2017, Applied Energy.
[221] Akeel A. Shah,et al. Measurement of key electrolyte properties for improved performance of the soluble lead flow battery , 2017 .
[222] L. Gubler,et al. Amphoteric Ion-Exchange Membranes with Significantly Improved Vanadium Barrier Properties for All-Vanadium Redox Flow Batteries. , 2017, ChemSusChem.
[223] Tianshou Zhao,et al. High-performance zinc bromine flow battery via improved design of electrolyte and electrode , 2017 .
[224] Akeel A. Shah,et al. Cyclohexanedione as the negative electrode reaction for aqueous organic redox flow batteries , 2017 .
[225] A. Chica,et al. Performance of a vanadium redox flow battery with tubular cell design , 2017 .
[226] Joaquín Rodríguez-López,et al. Interrogating Charge Storage on Redox Active Colloids via Combined Raman Spectroscopy and Scanning Electrochemical Microscopy. , 2017, Langmuir : the ACS journal of surfaces and colloids.
[227] Soo Min Hwang,et al. Hybrid Na–air flow batteries using an acidic catholyte: effect of the catholyte pH on the cell performance , 2017 .
[228] Frank C. Walsh,et al. Engineering aspects of the design, construction and performance of modular redox flow batteries for energy storage , 2017 .
[229] Fikile R. Brushett,et al. Concentration-Dependent Dimerization of Anthraquinone Disulfonic Acid and Its Impact on Charge Storage , 2017 .
[230] T. Zhao,et al. A hydrogen-ferric ion rebalance cell operating at low hydrogen concentrations for capacity restoration of iron-chromium redox flow batteries , 2017 .
[231] M. Mench,et al. Architecture for improved mass transport and system performance in redox flow batteries , 2017 .
[232] T. Zawodzinski,et al. High Performance Redox Flow Batteries: An Analysis of the Upper Performance Limits of Flow Batteries Using Non-aqueous Solvents , 2017 .
[233] D. Lee,et al. Development of multifunctional carbon composite bipolar plate for vanadium redox flow batteries , 2017 .
[234] Zhaoxiang Qi,et al. Review Article: Flow battery systems with solid electroactive materials , 2017 .
[235] Tao Wang,et al. Dynamic Flow Rate Control for Vanadium Redox Flow Batteries , 2017 .
[236] Bor Yann Liaw,et al. On state-of-charge determination for lithium-ion batteries , 2017 .
[237] Binyu Xiong,et al. State of Charge Estimation of Vanadium Redox Flow Battery Based on Sliding Mode Observer and Dynamic Model Including Capacity Fading Factor , 2017, IEEE Transactions on Sustainable Energy.
[238] Huamin Zhang,et al. Porous membranes in secondary battery technologies. , 2017, Chemical Society Reviews.
[239] M. Aziz,et al. Dissection of the Voltage Losses of an Acidic Quinone Redox Flow Battery , 2017 .
[240] Nanfang Wang. Influence of L-cystine as an Additive in the Negative Electrolyte on Performance of Vanadium Redox Flow Battery , 2017 .
[241] Shigang Sun,et al. In Situ Monitoring Potential-Dependent Electrochemical Process by Liquid NMR Spectroelectrochemical Determination: A Proof-of-Concept Study. , 2017, Analytical chemistry.
[242] K. Han,et al. Molecular Level Structure and Dynamics of Electrolytes Using 17O Nuclear Magnetic Resonance Spectroscopy , 2017 .
[243] Xiulin Fan,et al. Electrochemical Techniques for Intercalation Electrode Materials in Rechargeable Batteries. , 2017, Accounts of chemical research.
[244] Patrick Ruch,et al. 3D-printed fluidic networks for high-power-density heat-managing miniaturized redox flow batteries , 2017 .
[245] S. Sen,et al. Electroactive nanofluids with high solid loading and low viscosity for rechargeable redox flow batteries , 2017, Journal of Applied Electrochemistry.
[246] Dong Won Shin,et al. Hydrocarbon-Based Polymer Electrolyte Membranes: Importance of Morphology on Ion Transport and Membrane Stability. , 2017, Chemical reviews.
[247] Hee‐Tak Kim,et al. A review of vanadium electrolytes for vanadium redox flow batteries , 2017 .
[248] Gary M. Koenig,et al. Carbon-free Solid Dispersion LiCoO2 Redox Couple Characterization and Electrochemical Evaluation for All Solid Dispersion Redox Flow Batteries , 2017 .
[249] M. R. Mohamed,et al. Membrane-less hybrid flow battery based on low-cost elements , 2017 .
[250] R. Gordon,et al. A Neutral pH Aqueous Organic–Organometallic Redox Flow Battery with Extremely High Capacity Retention , 2017 .
[251] U. Schubert,et al. An Approach Toward Replacing Vanadium: A Single Organic Molecule for the Anode and Cathode of an Aqueous Redox‐Flow Battery , 2017, ChemistryOpen.
[252] H. Hamelers,et al. Energy efficiency of a concentration gradient flow battery at elevated temperatures , 2017 .
[253] U. Schubert,et al. A Tubular Polymer Redox Flow Battery with a Ceramic Membrane , 2017 .
[254] D. Park,et al. Performance of the all-vanadium redox flow battery stack , 2017 .
[255] F. Mugele,et al. Mechanical History Dependence in Carbon Black Suspensions for Flow Batteries: A Rheo-Impedance Study , 2017, Langmuir : the ACS journal of surfaces and colloids.
[256] Xinping Qiu,et al. Reduction of capacity decay in vanadium flow batteries by an electrolyte-reflow method , 2017 .
[257] K. Ramanujam,et al. On In–situ Redox Balancing of Vanadium Redox Flow Battery Using D‐Fructose as Negative Electrolyte Additive , 2017 .
[258] Javier Carretero-González,et al. Materials’ Methods: NMR in Battery Research , 2017 .
[259] Ali Ahmadian,et al. Factor analysis based optimal storage planning in active distribution network considering different battery technologies , 2016 .
[260] Zhichuan J. Xu,et al. The oxidation of organic additives in the positive vanadium electrolyte and its effect on the performance of vanadium redox flow battery , 2016 .
[261] Guoming Weng,et al. A high-energy and low-cost polysulfide/iodide redox flow battery , 2016 .
[262] Musbaudeen O. Bamgbopa,et al. Systematic selection of solvent mixtures for non-aqueous redox flow batteries – vanadium acetylacetonate as a model system , 2016 .
[263] Jianguo Liu,et al. Investigation of electrolytes of the vanadium redox flow battery (IV): Measurement and prediction of viscosity of aqueous VOSO4 solution at 283.15 to 323.15 K , 2016 .
[264] S. König,et al. Innovative model-based flow rate optimization for vanadium redox flow batteries , 2016 .
[265] H. Girault,et al. High energy density MnO4-/MnO42- redox couple for alkaline redox flow batteries. , 2016, Chemical communications.
[266] J. Park,et al. Capacity Decay Mitigation by Asymmetric Positive/Negative Electrolyte Volumes in Vanadium Redox Flow Batteries. , 2016, ChemSusChem.
[267] A. Vassallo,et al. The influence of novel bromine sequestration agents on zinc/bromine flow battery performance , 2016 .
[268] Maria Skyllas-Kazacos,et al. Adaptive estimation of state of charge and capacity with online identified battery model for vanadium redox flow battery , 2016 .
[269] Ning-Yih Hsu,et al. A novel ultrasonic velocity sensing approach to monitoring state of charge of vanadium redox flow battery , 2016 .
[270] Jianguo Liu,et al. Thermodynamic Investigation of Electrolytes of the Vanadium Redox Flow Battery (V): Conductivity and Ionic Dissociation of Vanadyl Sulfate in Aqueous Solution in the 278.15–318.15 K Temperature Range , 2016, Journal of Solution Chemistry.
[271] Matthew M. Mench,et al. Coupled Membrane Transport Parameters for Ionic Species in All-Vanadium Redox Flow Batteries , 2016 .
[272] Ulrich S. Schubert,et al. Redox‐Flow Batteries: From Metals to Organic Redox‐Active Materials , 2016, Angewandte Chemie.
[273] U. Schubert,et al. An Aqueous Redox-Flow Battery with High Capacity and Power: The TEMPTMA/MV System. , 2016, Angewandte Chemie.
[274] Fikile R. Brushett,et al. High current density, long duration cycling of soluble organic active species for non-aqueous redox flow batteries , 2016 .
[275] A. B. Gallo,et al. Energy storage in the energy transition context: A technology review , 2016 .
[276] Soo‐Kyoung Kim,et al. Temperature-dependent 51V nuclear magnetic resonance spectroscopy for the positive electrolyte of vanadium redox flow batteries , 2016 .
[277] Michele Dassisti,et al. Sustainability of vanadium redox-flow batteries: Benchmarking electrolyte synthesis procedures , 2016 .
[278] Fikile R. Brushett,et al. 4-acetamido-2,2,6,6-tetramethylpiperidine-1-oxyl as a model organic redox active compound for nonaqueous flow batteries , 2016 .
[279] Joaquín Rodríguez-López,et al. Redox Active Colloids as Discrete Energy Storage Carriers. , 2016, Journal of the American Chemical Society.
[280] Shubo Wang,et al. Experimental investigation of expanded graphite/phenolic resin composite bipolar plate , 2016 .
[281] C. Roth,et al. Degradation of all-vanadium redox flow batteries (VRFB) investigated by electrochemical impedance and X-ray photoelectron spectroscopy: Part 2 electrochemical degradation , 2016 .
[282] K. Pinkwart,et al. Towards an all-vanadium redox-flow battery electrolyte: electrooxidation of V(III) in V(IV)/V(III) redox couple , 2016 .
[283] Jianguo Liu,et al. Improved electrochemical performance for vanadium flow battery by optimizing the concentration of the electrolyte , 2016 .
[284] Mingzhe Yu,et al. pH-Tuning a Solar Redox Flow Battery for Integrated Energy Conversion and Storage , 2016 .
[285] Gary M. Koenig,et al. A carbon-free lithium-ion solid dispersion redox couple with low viscosity for redox flow batteries , 2016 .
[286] F. L. Mantia,et al. Cell Design for Electrochemical Characterizations of Metal-Ion Batteries in Organic and Aqueous Electrolyte. , 2016, Analytical chemistry.
[287] Michael G. Verde,et al. The impact of pH on side reactions for aqueous redox flow batteries based on nitroxyl radical compounds , 2016 .
[288] Jingyu Xi,et al. A comparative study of Nafion series membranes for vanadium redox flow batteries , 2016 .
[289] Maria Skyllas-Kazacos,et al. Vanadium Electrolyte Studies for the Vanadium Redox Battery-A Review. , 2016, ChemSusChem.
[290] L. F. Arenas,et al. Electrochemical redox processes involving soluble cerium species , 2016 .
[291] Luis Fialho,et al. Implementation and Validation of a Self-Consumption Maximization Energy Management Strategy in a Vanadium Redox Flow BIPV Demonstrator , 2016 .
[292] Joan Ramon Morante,et al. Static and Dynamic Studies on LiNi1/3Co1/3Mn1/3O2‐Based Suspensions for Semi‐Solid Flow Batteries , 2016, ChemSusChem.
[293] Maria Skyllas-Kazacos,et al. Online state of charge and model parameter co-estimation based on a novel multi-timescale estimator for vanadium redox flow battery , 2016 .
[294] M. Skyllas-Kazacos,et al. Superior Electrocatalytic Activity of a Robust Carbon-Felt Electrode with Oxygen-Rich Phosphate Groups for All-Vanadium Redox Flow Batteries. , 2016, ChemSusChem.
[295] Anna L. Dunn,et al. Reaction monitoring using online vs tube NMR spectroscopy: seriously different results , 2016, Magnetic resonance in chemistry : MRC.
[296] Ke Gong,et al. All-Soluble All-Iron Aqueous Redox-Flow Battery , 2016 .
[297] Gareth H. McKinley,et al. A low-dissipation, pumpless, gravity-induced flow battery , 2016 .
[298] Jingyu Xi,et al. Insights into the Impact of the Nafion Membrane Pretreatment Process on Vanadium Flow Battery Performance. , 2016, ACS applied materials & interfaces.
[299] Yi-Chun Lu,et al. A High‐Energy‐Density Multiple Redox Semi‐Solid‐Liquid Flow Battery , 2016 .
[300] Kathryn E. Toghill,et al. All-vanadium dual circuit redox flow battery for renewable hydrogen generation and desulfurisation , 2016 .
[301] K. Mueller,et al. Nuclear magnetic resonance studies of the solvation structures of a high-performance nonaqueous redox flow electrolyte , 2016 .
[302] Fikile R. Brushett,et al. A symmetric organic-based nonaqueous redox flow battery and its state of charge diagnostics by FTIR , 2016 .
[303] Brian J. Koeppel,et al. Performance of a low cost interdigitated flow design on a 1 kW class all vanadium mixed acid redox flow battery , 2016 .
[304] Lidiya Komsiyska,et al. Investigation of crossover processes in a unitized bidirectional vanadium/air redox flow battery , 2016 .
[305] Christine Minke,et al. Cost and performance prospects for composite bipolar plates in fuel cells and redox flow batteries , 2016 .
[306] Jingyu Xi,et al. Broad temperature adaptability of vanadium redox flow battery—Part 2: Cell research , 2016 .
[307] K. Pinkwart,et al. Detection of capacity imbalance in vanadium electrolyte and its electrochemical regeneration for all-vanadium redox-flow batteries , 2016 .
[308] Ekkehard Boggasch,et al. Experimental assessment of hydrogen systems and vanadium-redox-flow-batteries for increasing the self-consumption of photovoltaic energy in buildings , 2016 .
[309] Kathryn E. Toghill,et al. Redox Flow Batteries, Hydrogen and Distributed Storage. , 2015, Chimia.
[310] Amornchai Arpornwichanop,et al. Measuring the state of charge of the electrolyte solution in a vanadium redox flow battery using a four-pole cell device , 2015 .
[311] Le Liu,et al. An on-line spectroscopic monitoring system for the electrolytes in vanadium redox flow batteries , 2015 .
[312] Wei Wang,et al. Nanostructured Electrocatalysts for PEM Fuel Cells and Redox Flow Batteries: A Selected Review , 2015 .
[313] S. Sen,et al. Engineering nanofluid electrodes: controlling rheology and electrochemical activity of γ-Fe2O3 nanoparticles , 2015, Journal of Nanoparticle Research.
[314] Yutao Li,et al. A chemistry and material perspective on lithium redox flow batteries towards high-density electrical energy storage. , 2015, Chemical Society reviews.
[315] Feng Pan,et al. Redox Species of Redox Flow Batteries: A Review , 2015, Molecules.
[316] U. Schubert,et al. An aqueous, polymer-based redox-flow battery using non-corrosive, safe, and low-cost materials , 2015, Nature.
[317] David W Otterson. Tech Talk: (10) Electrolytic Conductivity Measurement Basics , 2015 .
[318] C. Zhang,et al. Effects of operating temperature on the performance of vanadium redox flow batteries , 2015 .
[319] C. Friebe,et al. Development of Active Organic and Polymeric Materials for Batteries and Solar Cells: Introduction to Essential Characterization Techniques , 2015 .
[320] Jens Noack,et al. The Chemistry of Redox-Flow Batteries. , 2015, Angewandte Chemie.
[321] Nirala Singh,et al. Levelized cost of energy and sensitivity analysis for the hydrogen-bromine flow battery , 2015 .
[322] S. Dou,et al. A technology review of electrodes and reaction mechanisms in vanadium redox flow batteries , 2015 .
[323] Liu Jiayi,et al. Numerical and experimental studies of stack shunt current for vanadium redox flow battery , 2015 .
[324] Bin Li,et al. Radical Compatibility with Nonaqueous Electrolytes and Its Impact on an All-Organic Redox Flow Battery. , 2015, Angewandte Chemie.
[325] Pengyuan Liu,et al. The study of electrochemistry with ambient mass spectrometry , 2015 .
[326] A. Berg,et al. Miniaturization of electrochemical cells for mass spectrometry , 2015 .
[327] A. Bruins. An overview of electrochemistry combined with mass spectrometry , 2015 .
[328] Álvaro Cunha,et al. Vanadium redox flow batteries: a technology review , 2015 .
[329] J. Janek,et al. Online Continuous Flow Differential Electrochemical Mass Spectrometry with a Realistic Battery Setup for High-Precision, Long-Term Cycling Tests. , 2015, Analytical chemistry.
[330] A. Arpornwichanop,et al. Analysis and measurement of the electrolyte imbalance in a vanadium redox flow battery , 2015 .
[331] Huamin Zhang,et al. Effects of phosphate additives on the stability of positive electrolytes for vanadium flow batteries , 2015 .
[332] Sam F. Y. Li,et al. Nonaqueous redox-flow batteries: features, challenges, and prospects , 2015 .
[333] Michael Suriyah,et al. Model based examination on influence of stack series connection and pipe diameters on efficiency of vanadium redox flow batteries under consideration of shunt currents , 2015 .
[334] N. Brandon,et al. A novel regenerative hydrogen cerium fuel cell for energy storage applications , 2015 .
[335] Wei Wang,et al. Porous Polymeric Composite Separators for Redox Flow Batteries , 2015 .
[336] Maxime Montaru,et al. From a novel classification of the battery state of charge estimators toward a conception of an ideal one , 2015 .
[337] Kensuke Takechi,et al. A Highly Concentrated Catholyte Based on a Solvate Ionic Liquid for Rechargeable Flow Batteries , 2015, Advanced materials.
[338] W. Daoud,et al. Electrochemical behavior of carbon paper on cerium methanesulfonate electrolytes for zinc-cerium flow battery , 2015 .
[339] Huamin Zhang,et al. Dramatic performance gains of a novel circular vanadium flow battery , 2015 .
[340] Anthony K. Burrell,et al. Liquid Catholyte Molecules for Nonaqueous Redox Flow Batteries , 2015 .
[341] Jun Liu,et al. Ambipolar zinc-polyiodide electrolyte for a high-energy density aqueous redox flow battery , 2015, Nature Communications.
[342] S. Suarez,et al. A variable temperature study of the transport properties of aqueous solutions of VOSO4 and NH4VO3 in 2 M H2SO4 , 2015 .
[343] D. N. Buckley,et al. Factors Affecting Spectroscopic State-of-Charge Measurements of Positive and Negative Electrolytes in Vanadium Redox Flow Batteries , 2015 .
[344] P. Fischer,et al. Low-Temperature, High Energy Density Non-Aqueous Redox Flow Battery , 2015 .
[345] Jun Liu,et al. Understanding Aqueous Electrolyte Stability through Combined Computational and Magnetic Resonance Spectroscopy: A Case Study on Vanadium Redox Flow Battery Electrolytes , 2015 .
[346] M. Skyllas-Kazacos,et al. Simulation Analysis of Regional Temperature Effects and Battery Management Schedules for a Residential‐Scale Vanadium Redox Flow Battery System , 2015 .
[347] Yi-Chun Lu,et al. Sulphur-impregnated flow cathode to enable high-energy-density lithium flow batteries , 2015, Nature Communications.
[348] Maochun Wu,et al. A novel high-energy-density positive electrolyte with multiple redox couples for redox flow batteries , 2014 .
[349] Dongmei Chen,et al. Peak power prediction of a vanadium redox flow battery , 2014 .
[350] Yibin Tao,et al. An Operating Control Strategy of Zinc Bromine Flow Battery Energy Storage Systems in Microgrid , 2014 .
[351] Lelia Cosimbescu,et al. TEMPO‐Based Catholyte for High‐Energy Density Nonaqueous Redox Flow Batteries , 2014, Advanced materials.
[352] Tao Liu,et al. Investigation on the performance evaluation method of flow batteries , 2014 .
[353] Qiong Zheng,et al. Development and perspective in vanadium flow battery modeling , 2014 .
[354] P. Fischer,et al. Increasing the energy density of the non-aqueous vanadium redox flow battery with the acetonitrile-1,3-dioxolane–dimethyl sulfoxide solvent mixture , 2014 .
[355] Joaquín Rodríguez-López,et al. Impact of redox-active polymer molecular weight on the electrochemical properties and transport across porous separators in nonaqueous solvents. , 2014, Journal of the American Chemical Society.
[356] Zhangxing He,et al. A new redox flow battery of high energy density with V/Mn hybrid redox couples , 2014 .
[357] Tianshou Zhao,et al. Effects of SOC-dependent electrolyte viscosity on performance of vanadium redox flow batteries , 2014 .
[358] Wenquan Lu,et al. In situ X-ray near-edge absorption spectroscopy investigation of the state of charge of all-vanadium redox flow batteries. , 2014, ACS applied materials & interfaces.
[359] Binyu Xiong,et al. Extended Kalman filter method for state of charge estimation of vanadium redox flow battery using thermal-dependent electrical model , 2014 .
[360] Jaephil Cho,et al. Material selection and optimization for highly stable composite bipolar plates in vanadium redox flow batteries , 2014 .
[361] Kevin G. Gallagher,et al. Pathways to Low Cost Electrochemical Energy Storage: A Comparison of Aqueous and Nonaqueous Flow Batteries , 2014 .
[362] Peter Fischer,et al. A multi-stack simulation of shunt currents in vanadium redox flow batteries , 2014 .
[363] F. Walsh,et al. Corrosion of the zinc negative electrode of zinc–cerium hybrid redox flow batteries in methanesulfonic acid , 2014, Journal of Applied Electrochemistry.
[364] M. Youssry,et al. Surfactant for Enhanced Rheological, Electrical, and Electrochemical Performance of Suspensions for Semisolid Redox Flow Batteries and Supercapacitors , 2014 .
[365] Christian Fleischer,et al. Critical review of the methods for monitoring of lithium-ion batteries in electric and hybrid vehicles , 2014 .
[366] Suqin Liu,et al. Effects of organic additives with oxygen- and nitrogen-containing functional groups on the negative electrolyte of vanadium redox flow battery , 2014 .
[367] Michael L. Perry,et al. Redox Flow Batteries: An Engineering Perspective , 2014, Proceedings of the IEEE.
[368] Federico Silvestro,et al. Experimental testing procedures and dynamic model validation for vanadium redox flow battery storage system , 2014 .
[369] Mariesa L. Crow,et al. Battery Energy Storage System (BESS) and Battery Management System (BMS) for Grid-Scale Applications , 2014, Proceedings of the IEEE.
[370] C. Roth,et al. Determination of Overpotentials in All Vanadium Redox Flow Batteries , 2014 .
[371] Joshua R. Stachel,et al. Carbon Nanotube Chemiresistor for Wireless pH Sensing , 2014, Scientific Reports.
[372] Jianguo Liu,et al. A novel mechanism for the oxidation reaction of VO2+ on a graphite electrode in acidic solutions , 2014 .
[373] Cheng Yuanhui,et al. Effect of temperature on the performances and in situ polarization analysis of zinc–nickel single flow batteries , 2014 .
[374] Young-Seak Lee,et al. Effect of inorganic additive sodium pyrophosphate tetrabasic on positive electrolytes for a vanadium redox flow battery , 2014 .
[375] T. Zawodzinski,et al. Hydrogen evolution at the negative electrode of the all-vanadium redox flow batteries , 2014 .
[376] J. Bao,et al. Studies on pressure losses and flow rate optimization in vanadium redox flow battery , 2014 .
[377] C. Monroe,et al. Solvents and supporting electrolytes for vanadium acetylacetonate flow batteries , 2014 .
[378] M. H. Chakrabarti,et al. Prospects of applying ionic liquids and deep eutectic solvents for renewable energy storage by means of redox flow batteries , 2014 .
[379] Michael P. Marshak,et al. A metal-free organic–inorganic aqueous flow battery , 2014, Nature.
[380] D. Hall,et al. Impact of electrolyte composition on the performance of the zinc-cerium redox flow battery system , 2013 .
[381] Yong-Gun Shul,et al. A novel cathodic electrolyte based on H2C2O4 for a stable vanadium redox flow battery with high charge–discharge capacities , 2013 .
[382] Hamzah Ahmad,et al. Electrical Circuit Model of a Vanadium Redox Flow Battery Using Extended Kalman Filter , 2013 .
[383] Lei Zhang,et al. Modeling and Power Control of Energy Storage System for Wind Park Based on Vanadium Redox Flow Battery , 2013 .
[384] Alasdair J. Crawford,et al. 1 kW/1 kWh advanced vanadium redox flow battery utilizing mixed acid electrolytes , 2013 .
[385] Suqin Liu,et al. Effects of organic additives containing NH2 and SO3H on electrochemical properties of vanadium redox flow battery , 2013 .
[386] Uwe Schröder,et al. On-line controlled state of charge rebalancing in vanadium redox flow battery , 2013 .
[387] F. Baronti,et al. Battery Management System: An Overview of Its Application in the Smart Grid and Electric Vehicles , 2013, IEEE Industrial Electronics Magazine.
[388] Seung-Hyeon Moon,et al. A review of current developments in non-aqueous redox flow batteries: characterization of their membranes for design perspective , 2013 .
[389] A. Whitehead,et al. Investigation of a method to hinder charge imbalance in the vanadium redox flow battery , 2013 .
[390] M. Perry,et al. Vanadium redox-flow-battery electrolyte preparation with reducing agents , 2013 .
[391] Mike L. Perry,et al. Half-Cell, Steady-State Flow-Battery Experiments , 2013 .
[392] D. N. Buckley,et al. Spectroscopic Study of Vanadium Electrolytes in Vanadium Redox Flow Battery (VRFB) , 2013 .
[393] Uwe Schröder,et al. High resolution state of charge monitoring of vanadium electrolytes with IR optical sensor , 2013 .
[394] Jianqiu Li,et al. A review on the key issues for lithium-ion battery management in electric vehicles , 2013 .
[395] Qian Xu,et al. On-line mass spectrometry study of electrochemical corrosion of the graphite electrode for vanadium redox flow battery , 2013 .
[396] Bin Li,et al. Capacity decay and remediation of nafion-based all-vanadium redox flow batteries. , 2013, ChemSusChem.
[397] Hamzah Ahmad,et al. Estimating the State-of-Charge of All-Vanadium Redox Flow Battery using a Divided, Open-circuit Potentiometric Cell , 2013 .
[398] Jie Bao,et al. Thermal modelling of battery configuration and self-discharge reactions in vanadium redox flow battery , 2012 .
[399] U. Karst,et al. Electrochemistry coupled to (liquid chromatography/) mass spectrometry--current state and future perspectives. , 2012, Journal of chromatography. A.
[400] C. Low,et al. Progress in redox flow batteries, remaining challenges and their applications in energy storage , 2012 .
[401] C. Ponce de León,et al. The influence of operational parameters on the performance of an undivided zinc–cerium flow battery , 2012 .
[402] Xinping Qiu,et al. State of charge monitoring for vanadium redox flow batteries by the transmission spectra of V(IV)/V(V) electrolytes , 2012, Journal of Applied Electrochemistry.
[403] Nanfang Wang,et al. Influence of organic additives on electrochemical properties of the positive electrolyte for all-vanadium redox flow battery , 2012 .
[404] Qinghua Liu,et al. Dramatic performance gains in vanadium redox flow batteries through modified cell architecture , 2012 .
[405] Martha Schreiber,et al. Practical and commercial issues in the design and manufacture of vanadium flow batteries , 2012 .
[406] Thomas A. Zawodzinski,et al. Monitoring the State of Charge of Operating Vanadium Redox Flow Batteries , 2012, ECS Transactions.
[407] T. Zawodzinski,et al. Electron Spin Resonance Investigation of the Effects of Vanadium Ions in Ion Exchange Membranes for Uses in Vanadium Redox Flow Batteries , 2012 .
[408] Gang Sun,et al. Discussion of the Performance of VRB Based on Modeling by Using EKF to Estimate SOC , 2012 .
[409] W. Craig Carter,et al. Modeling the hydrodynamic and electrochemical efficiency of semi-solid flow batteries , 2012 .
[410] Gang Sun,et al. State of Charge Estimation Using EKF Method for VRB , 2012 .
[411] Jie Bao,et al. Thermal modelling and simulation of the all-vanadium redox flow battery , 2012 .
[412] Qinghua Liu,et al. Tetrabutylammonium hexafluorophosphate and 1-ethyl-3-methyl imidazolium hexafluorophosphate ionic liquids as supporting electrolytes for non-aqueous vanadium redox flow batteries , 2012 .
[413] Debi Zhou,et al. Methanesulfonic acid solution as supporting electrolyte for zinc-vanadium redox battery , 2012 .
[414] Changwei Hu,et al. Coulter dispersant as positive electrolyte additive for the vanadium redox flow battery , 2012 .
[415] Jianguo Liu,et al. Thermodynamic Investigation of Electrolytes of the Vanadium Redox Flow Battery (III): Volumetric Properties of Aqueous VOSO4 , 2012 .
[416] Jie Bao,et al. Dynamic modelling of the effects of ion diffusion and side reactions on the capacity loss for vanadi , 2011 .
[417] Huamin Zhang,et al. Shunt current loss of the vanadium redox flow battery , 2011 .
[418] B. Liaw,et al. Mechanistic understanding of monosaccharide-air flow battery electrochemistry , 2011 .
[419] Maria Skyllas-Kazacos,et al. State of charge monitoring methods for vanadium redox flow battery control , 2011 .
[420] Zhenguo Yang,et al. Chloride supporting electrolytes for all-vanadium redox flow batteries. , 2011, Physical chemistry chemical physics : PCCP.
[421] Zhenguo Yang,et al. A new redox flow battery using Fe/V redox couples in chloride supporting electrolyte , 2011 .
[422] M. Mench,et al. Redox flow batteries: a review , 2011 .
[423] Thomas A. Zawodzinski,et al. Polarization curve analysis of all-vanadium redox flow batteries , 2011 .
[424] Frank C. Walsh,et al. Zinc deposition and dissolution in methanesulfonic acid onto a carbon composite electrode as the negative electrode reactions in a hybrid redox flow battery , 2011 .
[425] Victor E. Brunini,et al. Semi‐Solid Lithium Rechargeable Flow Battery , 2011 .
[426] Frank C. Walsh,et al. Characterization of a zinc–cerium flow battery , 2011 .
[427] Debi Zhou,et al. Nitroso-R-Salt in Aqueous Solutions for Redox Flow Battery Application , 2011 .
[428] Emin Caglan Kumbur,et al. Open circuit voltage of vanadium redox flow batteries: Discrepancy between models and experiments , 2011 .
[429] C. Low,et al. Ce(III)/Ce(IV) in methanesulfonic acid as the positive half cell of a redox flow battery , 2011 .
[430] Kang G. Shin,et al. DESA: Dependable, Efficient, Scalable Architecture for Management of Large-Scale Batteries , 2010, IEEE Transactions on Industrial Informatics.
[431] A. Velichenko,et al. Electrodeposition of lead dioxide from methanesulfonate solutions , 2009 .
[432] Faizur Rahman,et al. Vanadium redox battery: Positive half-cell electrolyte studies , 2009 .
[433] Haisheng Chen,et al. Progress in electrical energy storage system: A critical review , 2009 .
[434] V. P. Fadeeva,et al. Elemental analysis of organic compounds with the use of automated CHNS analyzers , 2008 .
[435] Bernhard Jakoby,et al. Characterizing Vibrating Cantilevers for Liquid Viscosity and Density Sensing , 2008, J. Sensors.
[436] F C Walsh,et al. The use of electrolyte redox potential to monitor the Ce(IV)/Ce(III) couple. , 2008, Journal of environmental management.
[437] D. Wilkinson,et al. Advancements in the Direct Hydrogen Redox Fuel Cell , 2008 .
[438] G. Guiochon,et al. Prediction of the influence of the heat generated by viscous friction on the efficiency of chromatography columns. , 2008, Journal of chromatography. A.
[439] Huamin Zhang,et al. Characteristics and performance of 10 kW class all-vanadium redox-flow battery stack , 2006 .
[440] P. Regtien,et al. Modeling Battery Behavior for Accurate State-of-Charge Indication , 2006 .
[441] Yusheng Yang,et al. A study of the Fe(III)/Fe(II)-triethanolamine complex redox couple for redox flow battery application , 2006 .
[442] B. Yi,et al. Studies on Iron "Fe 3+ /Fe 2+ …-Complex/Bromine "Br 2 /Br … Redox Flow Cell in Sodium Acetate Solution , 2006 .
[443] T. Yamamura,et al. Electrolytic preparation, redox titration and stability of pentavalent state of uranyl tetraketonate in dimethyl sulfoxide , 2006 .
[444] Derek Pletcher,et al. A novel flow battery—A lead acid battery based on an electrolyte with soluble lead(II). III. The influence of conditions on battery performance , 2005 .
[445] Chen Jianrong,et al. New technology for the detection of pH. , 2005, Journal of biochemical and biophysical methods.
[446] Yasushi Katayama,et al. Investigation on V(IV)/V(V) species in a vanadium redox flow battery , 2004 .
[447] T. Yamamura,et al. Characterization of tetraketone ligands for active materials of all-uranium redox flow battery , 2004 .
[448] Kenichi Fujii,et al. ERRATUM: Present state of the solid and liquid density standards , 2004 .
[449] W Wagner,et al. Densimeters for very accurate density measurements of fluids over large ranges of temperature, pressure, and density , 2004 .
[450] Hans D. Jensen,et al. Primary methods for the measurement of electrolytic conductivity , 2003 .
[451] Chulheung Bae,et al. Chromium redox couples for application to redox flow batteries , 2002 .
[452] S. Iwasa,et al. A study of the Ce(III)/Ce(IV) redox couple for redox flow battery application , 2002 .
[453] Stephen E. Creager,et al. Redox potentials and kinetics of the Ce3+/Ce4+ redox reaction and solubility of cerium sulfates in sulfuric acid solutions , 2002 .
[454] G. S. Wilson,et al. Measurement of pH. Definition, standards, and procedures (IUPAC Recommendations 2002) , 2002 .
[455] P. Childs,et al. Review of temperature measurement , 2000 .
[456] S. Rodrigues,et al. A review of state-of-charge indication of batteries by means of a.c. impedance measurements , 2000 .
[457] H. Yamana,et al. An Application of Actinide Elements for a Redox Flow Battery , 2000 .
[458] A. Jossen,et al. Reliable battery operation — a challenge for the battery management system , 1999 .
[459] A. Heintz,et al. Thermodynamics of Vanadium Redox Flow Batteries ‐ Electrochemical and Calorimetric Investigations , 1998 .
[460] M. Skyllas-Kazacos,et al. Solubility of vanadyl sulfate in concentrated sulfuric acid solutions , 1998 .
[461] James F. Rusling,et al. Characterizing Materials with Cyclic Voltammetry , 1994 .
[462] H. Dewald,et al. Rotating disk voltammetry experiment , 1991 .
[463] M. Skyllas-Kazacos,et al. Vanadium redox cell electrolyte optimization studies , 1990 .
[464] MalcolmH. Moody,et al. A high reliability battery management system , 1986 .
[465] D. Chin,et al. A Hydrogen‐Bromine Cell for Energy Storage Applications , 1980 .
[466] S. Block,et al. Viscosity measurements in the diamond anvil pressure cell. , 1978, The Review of scientific instruments.
[467] R. S. Nicholson,et al. Theory of Stationary Electrode Polarography. Single Scan and Cyclic Methods Applied to Reversible, Irreversible, and Kinetic Systems. , 1964 .
[468] R. E. Kalman,et al. New Results in Linear Filtering and Prediction Theory , 1961 .
[469] R. E. Kalman,et al. A New Approach to Linear Filtering and Prediction Problems , 2002 .
[470] R. Gautam,et al. Predicting operational capacity of redox flow battery using a generalized empirical correlation derived from dimensional analysis , 2020 .
[471] Martin Winter,et al. A reality check and tutorial on electrochemical characterization of battery cell materials: How to choose the appropriate cell setup , 2020 .
[472] Jianguo Liu,et al. Prediction of viscosity for high-concentrated ternary solution (CH3SO3H + VOSO4 + H2O) in vanadium flow battery , 2020 .
[473] P. Cañizares,et al. Impact of carbonaceous particles concentration in a nanofluidic electrolyte for vanadium redox flow batteries , 2020 .
[474] M. Skyllas-Kazacos,et al. Vanadium Electrolyte for All-Vanadium Redox-Flow Batteries: The Effect of the Counter Ion , 2019, Batteries.
[475] Ertan Agar,et al. Operando Spectroelectrochemical Characterization of a Highly Stable Bioinspired Redox Flow Battery Active Material , 2019, Journal of The Electrochemical Society.
[476] C. Dennison,et al. Elucidating Effects of Faradaic Imbalance on Vanadium Redox Flow Battery Performance: Experimental Characterization , 2019, Journal of The Electrochemical Society.
[477] T. Zhao,et al. Anion exchange membranes for aqueous acid-based redox flow batteries: Current status and challenges , 2019, Applied Energy.
[478] Jingyu Xi,et al. Broad temperature adaptability of vanadium redox flow battery-Part 3: The effects of total vanadium concentration and sulfuric acid concentration , 2018 .
[479] Fan Zhang,et al. L-cystine additive in the negative electrolyte of vanadium redox flow battery for improving electrochemical performance , 2018, Ionics.
[480] T. Bechtold,et al. Monitoring the State-of-Charge in All-Iron Aqueous Redox Flow Batteries , 2018 .
[481] Z. Qu,et al. Effect of various strategies of soc-dependent operating current on performance of a vanadium redox flow battery , 2018 .
[482] A. Bentien,et al. Performance Optimization of Differential pH Quinone-Bromide Redox Flow Battery , 2018 .
[483] Jinho Chang,et al. Quantitative determination of chemical species in high concentration ZnX2 (X = Br and I) media by steady state voltammetry on Pt ultramicroelectrode , 2018 .
[484] M. Aziz,et al. Rational Evaluation and Cycle Life Improvement of Quinone-Based Aqueous Flow Batteries Guided by In-Line Optical Spectrophotometry , 2018 .
[485] Jianguo Liu,et al. Investigation of the electrolyte properties for the vanadium redox flow battery (VI): Measurement and prediction of surface tension of aqueous VOSO4 at 283.15 to 313.15 K , 2017 .
[486] D. N. Buckley,et al. Effects of Temperature and Composition on Catholyte Stability in Vanadium Flow Batteries: Measurement and Modeling , 2017 .
[487] Jeffrey S. Moore,et al. Redox active polymers for non-aqueous redox flow batteries: Validation of the size-exclusion approach , 2017 .
[488] P. Cheng,et al. The Dependence of Mass Transfer Coefficient on the Electrolyte Velocity in Carbon Felt Electrodes: Determination and Validation , 2017 .
[489] Jingyu Xi,et al. Rapid detection of the positive side reactions in vanadium flow batteries , 2017 .
[490] T. Zawodzinski,et al. Ion Effects on Vanadium Transport in Nafion Membranes for Vanadium Redox Flow Batteries , 2017 .
[491] D. Steingart,et al. Quantification of the voltage losses in the minimal architecture zinc-bromine battery using GITT and EIS , 2017 .
[492] Hyun Ju Lee,et al. Estimation of state-of-charge for zinc-bromine flow batteries by in situ Raman spectroscopy , 2017 .
[493] E. Plichta,et al. A High Efficiency Iron-Chloride Redox Flow Battery for Large-Scale Energy Storage , 2016 .
[494] G. Botte,et al. Electrochemical Determination of the Concentration of Vanadium(IV) and Vanadium(V) Simultaneously , 2016 .
[495] J. Zhong,et al. Investigations of High Voltage Vanadium-Metal Hydride Flow Battery toward kWh Scale Storage with 100 cm2 Electrodes , 2016 .
[496] C. Dennison,et al. Enhancing Mass Transport in Redox Flow Batteries by Tailoring Flow Field and Electrode Design , 2016 .
[497] Jingyu Xi,et al. Broad temperature adaptability of vanadium redox flow battery—Part 1: Electrolyte research , 2016 .
[498] D. N. Buckley,et al. Communication-observation of arrhenius behavior of catholyte stability in vanadium flow batteries , 2016 .
[499] L. F. Arenas,et al. The Importance of Cell Geometry and Electrolyte Properties to the Cell Potential of Zn-Ce Hybrid Flow Batteries , 2016 .
[500] Chris Menictas,et al. A High Energy Density Vanadium Redox Flow Battery with 3 M Vanadium Electrolyte , 2016 .
[501] R. Savinell,et al. Communication—Iron Ionic Liquid Electrolytes for Redox Flow Battery Applications , 2016 .
[502] David M. Reed,et al. Stack Developments in a kW Class All Vanadium Mixed Acid Redox Flow Battery at the Pacific Northwest National Laboratory , 2016 .
[503] L. Gubler,et al. Bifunctional Ion-Conducting Polymer Electrolyte for the Vanadium Redox Flow Battery with High Selectivity , 2016 .
[504] C. Monroe,et al. Spectroelectrochemistry of Vanadium Acetylacetonate and Chromium Acetylacetonate for Symmetric Nonaqueous Flow Batteries , 2016 .
[505] D. N. Buckley,et al. Spectroscopic Measurement of State of Charge in Vanadium Flow Batteries with an Analytical Model of VIV-VV Absorbance , 2016 .
[506] James R. McKone,et al. On the Benefits of a Symmetric Redox Flow Battery , 2016 .
[507] Curtis J. Bell,et al. Determining Vanadium Concentrations Using the UV-Vis Response Method , 2015 .
[508] Sheng-Hui Chen,et al. The effect of annealing on nanothick indium tin oxide transparent conductive films for touch sensors , 2015 .
[509] Sang-Ho Cha. Recent development of nanocomposite membranes for vanadium redox flow batteries , 2015 .
[510] D. N. Buckley,et al. Towards Optical Monitoring of Vanadium Redox Flow Batteries (VRFBs): An Investigation of the Underlying Spectroscopy , 2014 .
[511] Piergiorgio Alotto,et al. Redox flow batteries for the storage of renewable energy: A review , 2014 .
[512] Hansung Kim,et al. Analysis of Concentration Polarization Using UV-Visible Spectrophotometry in a Vanadium Redox Flow Battery , 2014 .
[513] Kyle C. Smith,et al. Maximizing Energetic Efficiency in Flow Batteries Utilizing Non-Newtonian Fluids , 2014 .
[514] R. Savinell,et al. Studies of Iron-Ligand Complexes for an All-Iron Flow Battery Application , 2014 .
[515] Yonghong He,et al. Online Spectroscopic Study on the Positive and the Negative Electrolytes in Vanadium Redox Flow Batteries , 2013 .
[516] Thomas A. Zawodzinski,et al. Concentration Dependence of VO2+ Crossover of Nafion for Vanadium Redox Flow Batteries , 2013 .
[517] Guoming Weng,et al. High Voltage Vanadium-Metal Hydride Rechargeable Semi-Flow Battery , 2013 .
[518] T. Zawodzinski,et al. Composition and Conductivity of Membranes Equilibrated with Solutions of Sulfuric Acid and Vanadyl Sulfate , 2013 .
[519] Akeel A. Shah,et al. The importance of key operational variables and electrolyte monitoring to the performance of an all vanadium redox flow battery , 2013 .
[520] Hansung Kim,et al. Analysis of the Oxidation of the V(II) by Dissolved Oxygen Using UV-Visible Spectrophotometry in a Vanadium Redox Flow Battery , 2013 .
[521] H. Hsu,et al. Stability of Vanadium Electrolytes in the Vanadium Redox Flow Battery , 2013 .
[522] Venkat Srinivasan,et al. High Performance Hydrogen/Bromine Redox Flow Battery for Grid-Scale Energy Storage , 2012 .
[523] Su-Moon Park,et al. Electrochemical impedance spectroscopy. , 2010, Annual review of analytical chemistry.
[524] Gaoping Cao,et al. A study of tiron in aqueous solutions for redox flow battery application , 2010 .
[525] H. Vogel,et al. Quadrupolar metal ion NMR studies of metalloproteins. , 1998, Biochemistry and cell biology = Biochimie et biologie cellulaire.
[526] Alfonso R. Gennaro,et al. Remington:the science and practice of pharmacy , 1995 .
[527] T. J. Reeves. On-Line Viscosity Measurement Under Industrial Conditions , 1990 .
[528] Adam Hulanicki,et al. Metal-Metal Oxide and Metal Oxide Electrodes as pH Sensors. , 1989, Critical reviews in analytical chemistry.
[529] Maria Skyllas-Kazacos,et al. Characteristics of a new all-vanadium redox flow battery , 1988 .
[530] Allen J. Bard,et al. Electrochemical Methods: Fundamentals and Applications , 1980 .
[531] E. Pungor,et al. Oscillometry and conductometry , 1965 .
[532] R. Kalman,et al. New results in linear prediction and filtering theory Trans. AMSE , 1961 .
[533] J. Randles,et al. A cathode ray polarograph. Part II.—The current-voltage curves , 1948 .
[534] A. Ševčík,et al. Oscillographic polarography with periodical triangular voltage , 1948 .