C. Villevieille

发表

Influence of Conversion Material Morphology on Electrochemistry Studied with Operando X‐Ray Tomography and Diffraction

P. Novák, F. Marone, C. Villevieille, 2015, Advanced materials.

Enhancement of the high potential specific charge in layered electrode materials for lithium-ion batteries

P. Novák, C. Villevieille, R. Robert, 2014 .

Circular in situ neutron powder diffraction cell for study of reaction mechanism in electrode materials for Li-ion batteries

Claire Villevieille, Petr Novák, Jean-François Colin, 2013 .

Electrochemical impedance spectroscopy of a Li–S battery: Part 1. Influence of the electrode and electrolyte compositions on the impedance of symmetric cells

P. Novák, C. Villevieille, S. Trabesinger, 2017 .

Electrochemical impedance spectroscopy of a Li–S battery: Part 2. Influence of separator chemistry on the lithium electrode/electrolyte interface

P. Novák, C. Villevieille, S. Trabesinger, 2017 .

Rechargeable Batteries: Grasping for the Limits of Chemistry

Claire Villevieille, Petr Novák, Erik J. Berg, 2015 .

Magnetically aligned graphite electrodes for high-rate performance Li-ion batteries

Florian Bouville, Juliette Billaud, Tommaso Magrini, 2016, Nature Energy.

Combined operando X-ray diffraction–electrochemical impedance spectroscopy detecting solid solution reactions of LiFePO4 in batteries

Claire Villevieille, Petr Novák, Tsuyoshi Sasaki, 2015, Nature Communications.

Li/Fe substitution in Li-rich Ni, Co, Mn oxides for enhanced electrochemical performance as cathode materials

D. Aurbach, P. Novák, C. Villevieille, 2019, Journal of Materials Chemistry A.

Is the Li–S battery an everlasting challenge for operando techniques?

C. Villevieille, J. Conder, 2018, Current Opinion in Electrochemistry.

Understanding the Interaction of the Carbonates and Binder in Na-Ion Batteries: A Combined Bulk and Surface Study

Erik J. Berg, P. Novák, C. Villevieille, 2015 .

Architectured ZnO–Cu particles for facile manufacturing of integrated Li-ion electrodes

C. Villevieille, A. Studart, Juliette Billaud, 2020, Scientific Reports.

Biowaste Lignin-Based Carbonaceous Materials as Anodes for Na-Ion Batteries

C. Villevieille, M. Povia, C. Mariño, 2018 .

Chitin and Chitosan—Structurally Related Precursors of Dissimilar Hard Carbons for Na-Ion Battery

C. Villevieille, J. Conder, C. Vaulot, 2019, ACS Applied Energy Materials.

Differential Electrochemical Mass Spectrometry Study of the Interface of xLi2MnO3·(1–x)LiMO2 (M = Ni, Co, and Mn) Material as a Positive Electrode in Li-Ion Batteries

Erik J. Berg, P. Novák, C. Villevieille, 2014 .

Interface and Safety Properties of Phosphorus-Based Negative Electrodes in Li-Ion Batteries

Erik J. Berg, C. Villevieille, Minglong He, 2017 .

A structural and electrochemical study of Ni0.5TiOPO4 synthesized via modified solution route

P. Novák, C. Villevieille, J. Colin, 2012 .

A Cylindrical Cell for Operando Neutron Diffraction of Li-Ion Battery Electrode Materials

P. Novák, C. Villevieille, D. Sheptyakov, 2018, Front. Energy Res..

Cr-Doped Li-Rich Nickel Cobalt Manganese Oxide as a Positive Electrode Material in Li-Ion Batteries to Enhance Cycling Stability

P. Novák, C. Villevieille, D. Sheptyakov, 2020 .

M. Guizar‐Sicairos, C. Villevieille, D. Grolimund, 2018, iScience.

Consequences of Electrolyte Degradation for the Electrochemical Performance of Li1+x(NiaCobMn1-a-b)1-xO2

P. Novák, C. Villevieille, S. Trabesinger, 2015 .

Phosphorus anionic redox activity revealed by operando P K-edge X-ray absorption spectroscopy on diphosphonate-based conversion materials in Li-ion batteries.

P. Novák, C. Villevieille, C. Borca, 2018, Chemical communications.

Surface / Interface Study on Full xLi 2 MnO 3 × ( 1 – x ) LiMO 2

P. Novák, C. Villevieille, M. Kazzi, 2020 .

Is There a Ready Recipe for Hard Carbon Electrode Engineering to Enhance Na-Ion Battery Performance?

C. Villevieille, J. Conder, Camélia Matei Ghimbeu, 2022, ACS Applied Energy Materials.

A new ternary Li4FeSb2 structure formed upon discharge of the FeSb2/Li cell

C. Villevieille, L. Monconduit, J. Jumas, 2009 .

121Sb Mössbauer study of the electrochemical reaction of NiSb2 vs lithium

C. Villevieille, C. Ionica-Bousquet, L. Monconduit, 2008 .

In situ X-ray diffraction characterisation of Fe0.5TiOPO4 and Cu0.5TiOPO4 as electrode material for sodium-ion batteries

P. Novák, C. Villevieille, H. Kaiser, 2015 .

Co-Free P2–Na0.67Mn0.6Fe0.25Al0.15O2 as Promising Cathode Material for Sodium-Ion Batteries

C. Villevieille, Sunkyu Park, N. Hérault, 2018, ACS Applied Energy Materials.

Self supported nickel antimonides based electrodes for Li ion battery

C. Villevieille, J. Pierson, P. Simon, 2011 .

MSnS2 (M = Cu, Fe) Electrode Family as Dual-Performance Electrodes for Li–S and Li–Ion Batteries

P. Novák, C. Villevieille, 2015 .

Elucidation of the reaction mechanisms of isostructural FeSn2 and CoSn2 negative electrodes for Na-ion batteries

C. Villevieille, L. Vogt, 2017 .

Versatile Approach Combining Theoretical and Experimental Aspects of Raman Spectroscopy To Investigate Battery Materials: The Case of the LiNi0.5Mn1.5O4 Spinel

P. Novák, C. Villevieille, C. Tessier, 2016 .

Comparative study of NiSb2 and FeSb2 as negative electrodes for Li-ion batteries

C. Villevieille, C. Ionica-Bousquet, L. Monconduit, 2011 .

MnSn2 negative electrodes for Na-ion batteries: a conversion-based reaction dissected

C. Villevieille, L. Vogt, 2016 .

A metastable β-sulfur phase stabilized at room temperature during cycling of high efficiency carbon fibre–sulfur composites for Li–S batteries

P. Novák, C. Villevieille, 2013 .

Influence of Cut-Off Potential on the Electrochemistry of M0.5TiOPO4 (M = Fe, Cu) Synthesized by a New Route

P. Novák, C. Villevieille, Peter Bleith, 2013 .

Self-supported binder-free hard carbon electrodes for sodium-ion batteries: insights into their sodium storage mechanisms

C. Villevieille, P. Taberna, P. Simon, 2020, Journal of Materials Chemistry A.

Impact of Water-Based Binder on the Electrochemical Performance of P2-Na0.67Mn0.6Fe0.25Co0.1502 Electrodes in Na-Ion Batteries

C. Villevieille, Sunkyu Park, E. Marelli, 2018, Batteries.

Impact of Water-Based Binder on the Electrochemical Performance of P 2Na 0 . 67 Mn 0 . 6 Fe 0 . 25 Co 0 . 15 O 2 Electrodes in NaIon Batteries

C. Villevieille, Sunkyu Park, E. Marelli, 2018 .

Impact of cobalt content in Na0.67MnxFeyCozO2 (x + y + z = 1), a cathode material for sodium ion batteries

C. Villevieille, E. Marelli, C. Marino, 2017 .

Lithium Iron Methylenediphosphonate: A Model Material for New Organic–Inorganic Hybrid Positive Electrode Materials for Li Ion Batteries

P. Novák, C. Villevieille, J. Jumas, 2015 .

Electrochemical characterization of rechargeable lithium batteries

C. Villevieille, 2015 .

Carbon modified Li2Ti3O7 ramsdellite electrode for Li-ion batteries

C. Villevieille, L. Monconduit, J. Jumas, 2010 .

Operando Visualization of Morphological Dynamics in All‐Solid‐State Batteries

F. Marone, C. Villevieille, Juliette Billaud, 2019, Advanced Energy Materials.

Ligand influence in Li-ion battery hybrid active materials: Ni methylenediphosphonate vs. Ni dimethylamino methylenediphosphonate.

P. Novák, C. Villevieille, D. Sheptyakov, 2017, Chemical communications.

Effect of Size and Shape on Electrochemical Performance of Nano-Silicon-Based Lithium Battery

N. Herlin‐Boime, C. Villevieille, J. P. Alper, 2021, Nanomaterials.

Antimony based negative electrodes for next generation Li-ion batteries

P. Novák, C. Villevieille, J. L. Gómez‐Cámer, 2013 .

Interfaces and Interphases in Batteries: How to Identify and Monitor Them Properly Using Surface Sensitive Characterization Techniques

C. Villevieille, 2022, Advanced Materials Interfaces.

Engineering of Sn and Pre‐Lithiated Sn as Negative Electrode Materials Coupled to Garnet Ta‐LLZO Solid Electrolyte for All‐Solid‐State Li Batteries

Chih‐Long Tsai, S. Uhlenbruck, P. Novák, 2020 .

How to overcome Na deficiency in full cell using P2-phase sodium cathode – A proof of concept study of Na-rhodizonate used as sodium reservoir

C. Villevieille, Christoph Bolli, E. Marelli, 2020 .

Insights into the chemical and electronic interface evolution of Li4Ti5O12 cycled in Li2S–P2S5 enabled by operando X-ray photoelectron spectroscopy

P. Novák, C. Villevieille, M. El Kazzi, 2020 .

Monitoring the chemical and electronic properties of electrolyte-electrode interfaces in all-solid-state batteries using operando X-ray photoelectron spectroscopy.

P. Novák, C. Villevieille, M. El Kazzi, 2018, Physical chemistry chemical physics : PCCP.

Direct observation of lithium polysulfides in lithium–sulfur batteries using operando X-ray diffraction

C. Villevieille, S. Trabesinger, R. Bouchet, 2017, Nature Energy.

Ex situ and in situ Raman microscopic investigation of the differences between stoichiometric LiMO2 and high-energy xLi2MnO3·(1–x)LiMO2 (M = Ni, Co, Mn)

P. Novák, C. Villevieille, P. Lanz, 2014 .

Surface and morphological investigation of the electrode/electrolyte properties in an all-solid-state battery using a Li2S-P2S5 solid electrolyte

C. Villevieille, M. El Kazzi, Xiaohan Wu, 2017, Journal of Electroceramics.

Elucidation of reaction mechanisms of Ni 2 SnP in Li-ion and Na-ion systems

C. Villevieille, N. Dupré, C. Marino, 2017 .

Ammonolyzed MoO3 Nanobelts as Novel Cathode Material of Rechargeable Li‐Ion Batteries

P. Novák, C. Villevieille, R. Nesper, 2013 .

MoS2 coating on MoO3 nanobelts: A novel approach for a high specific charge electrode for rechargeable Li-ion batteries ☆

P. Novák, C. Villevieille, R. Nesper, 2015 .

Surface/Interface Study on Full xLi2MnO3·(1 − x)LiMO2 (M = Ni, Mn, Co)/Graphite Cells

P. Novák, C. Villevieille, L. Boulet-Roblin, 2015 .

Influence of Na/Mn arrangements and P2/P′2 phase ratio on the electrochemical performance of NaxMnO2 cathodes for sodium-ion batteries

P. Novák, C. Villevieille, K. Walczak, 2020 .

Do imaging techniques add real value to the development of better post-Li-ion batteries?

Claire Villevieille, Petr Novák, Joanna Conder, 2018 .

Mechanical vs. chemical stability of sulphide-based solid-state batteries. Which one is the biggest challenge to tackle? Overview of solid-state batteries and hybrid solid state batteries

C. Villevieille, Léa Rose Mangani, 2020, Journal of Materials Chemistry A.

SnO2 Model Electrode Cycled in Li-Ion Battery Reveals the Formation of Li2SnO3 and Li8SnO6 Phases through Conversion Reactions.

P. Novák, C. Villevieille, M. Horisberger, 2018, ACS applied materials & interfaces.

Improved electrochemical performances of Li-rich nickel cobalt manganese oxide by partial substitution of Li+ by Mg2+

C. Villevieille, D. Sheptyakov, S. Sallard, 2017 .

Understanding Inhomogeneous Reactions in Li‐Ion Batteries: Operando Synchrotron X‐Ray Diffraction on Two‐Layer Electrodes

P. Novák, C. Villevieille, Yoji Takeuchi, 2015, Advanced science.

Direct evidence of morphological changes in conversion type electrodes in Li-ion battery by acoustic emission

C. Villevieille, L. Monconduit, M. Boinet, 2010 .

Freeze-dryed LixMoO3 nanobelts used as cathode materials for lithium-ion batteries: A bulk and interface study

P. Novák, C. Villevieille, H. Fjellvåg, 2015 .

Electrochemical Performance of All-Solid-State Li-Ion Batteries Based on Garnet Electrolyte Using Silicon as a Model Electrode

Chih‐Long Tsai, S. Uhlenbruck, C. Villevieille, 2018 .

Stroboscopic neutron diffraction applied to fast time-resolved operando studies on Li-ion batteries (d-LiNi0.5Mn1.5O4vs. graphite)

C. Villevieille, V. Pomjakushin, C. Tessier, 2020 .

Operando Neutron Powder Diffraction Using Cylindrical Cell Design: The Case of LiNi0.5Mn1.5O4 vs Graphite

P. Novák, C. Villevieille, C. Tessier, 2016 .

Effects of Solvent, Lithium Salt, and Temperature on Stability of Carbonate-Based Electrolytes for 5.0 V LiNi0.5Mn1.5O4 Electrodes

Erik J. Berg, P. Novák, C. Villevieille, 2016 .

How reliable is the Na metal as a counter electrode in Na-ion half cells?

C. Villevieille, J. Conder, 2019, Chemical communications.

Bulk and surface analyses of ageing of a 5V-NCM positive electrode material for lithium-ion batteries

P. Novák, C. Villevieille, P. Lanz, 2014 .

Fe and Co methylene diphosphonates as conversion materials for Li-ion batteries

P. Novák, C. Villevieille, D. Sheptyakov, 2017 .

Accelerating Battery Characterization Using Neutron and Synchrotron Techniques: Toward a Multi‐Modal and Multi‐Scale Standardized Experimental Workflow

K. Edström, A. Grimaud, C. Villevieille, 2021, Advanced Energy Materials.

FeSn2 and CoSn2 Electrode Materials for Na-Ion Batteries

C. Villevieille, L. Vogt, 2016 .

At the Heart of a Conversion Reaction: An Operando X-ray Absorption Spectroscopy Investigation of NiSb2, a Negative Electrode Material for Li-Ion Batteries

C. Villevieille, L. Stievano, L. Monconduit, 2014 .

Electrode Engineering of Conversion-based Negative Electrodes for Na-ion Batteries.

C. Villevieille, L. Vogt, C. Marino, 2015, Chimia.

Performance-Limiting Factors of Graphite in Sulfide-Based All-Solid-State Lithium-Ion Batteries

P. Novák, F. Marone, C. Villevieille, 2021 .

Study of Graphite Cycling in Sulfide Solid Electrolytes

P. Novák, C. Villevieille, M. El Kazzi, 2020 .

Simultaneous in Situ X-ray Absorption Spectroscopy and X-ray Diffraction Studies on Battery Materials: The Case of Fe0.5TiOPO4

P. Novák, C. Villevieille, H. Kaiser, 2015 .

The good reactivity of lithium with nanostructured copper phosphide

C. Villevieille, P. Taberna, P. Simon, 2008 .

Electrochemical activation of Li2MnO3 at elevated temperature investigated by in situ Raman microscopy

Claire Villevieille, Petr Novák, P. Novák, 2013 .

Elucidating the Surface Reactions of an Amorphous Si Thin Film as a Model Electrode for Li-Ion Batteries.

P. Novák, C. Villevieille, L. Czornomaz, 2016, ACS applied materials & interfaces.

Novel electrochemical cell designed for operando techniques and impedance studies

Claire Villevieille, Petr Novák, Tsuyoshi Sasaki, 2014 .

The solid-state Li-ion conductor Li7TaO6: A combined computational and experimental study

Steven D. Lacey, S. Lacey, C. Villevieille, 2019, 1910.11079.

A low-temperature benzyl alcohol/benzyl mercaptan synthesis of iron oxysulfide/iron oxide composite materials for electrodes in Li-ion batteries

P. Novák, C. Villevieille, S. Sallard, 2015 .

CuSbS2 as a negative electrode material for sodium ion batteries

C. Villevieille, R. Pöttgen, T. Block, 2017 .

Crystal structure evolution via operando neutron diffraction during long-term cycling of a customized 5 V full Li-ion cylindrical cell LiNi0.5Mn1.5O4vs. graphite

P. Novák, C. Villevieille, C. Tessier, 2017 .

Nanostructured transition metal phosphide as negative electrode for lithium-ion batteries

C. Villevieille, S. Boyanov, L. Monconduit, 2008 .

Elucidation of the reaction mechanism upon lithiation and delithiation of Cu0.5TiOPO4

P. Novák, C. Villevieille, Peter Bleith, 2014 .

Mechanism of the carbonate-based-electrolyte degradation and its effects on the electrochemical performance of Li1+x(NiaCobMn1-a-b)1-xO2 cells

P. Novák, C. Villevieille, S. Trabesinger, 2016 .

Multiple redox couples cathode material for Li-ion battery: Lithium chromium phosphate

P. Novák, C. Villevieille, D. Sheptyakov, 2018 .

Reducing Mass Transfer Effects on the Kinetics of 5V HE-NCM Electrode Materials for Li-Ion Batteries

P. Novák, C. Villevieille, J. L. Gómez‐Cámer, 2014 .

Influence of Conversion Material Morphology on Electrochemistry Studied with Operando X‐Ray Tomography and Diffraction

P. Novák, F. Marone, C. Villevieille, 2015, Advanced materials.