Energy Conversion; Energy Storage; Ion Conductivity; Solid state battery; Nanotechnology
Asakura Ryo, Düchene Leo, Kühnel Ruben-Simon, Remhof Arndt, Hagemann Hans, Battaglia Corsin (2019), Electrochemical oxidative stability of hydroborate-based solid-state electrolytes, in ACS Applied Energy Materials
, 2, 6924-6930.
Moury Romain Moury, Łodziana Zbigniew, Remhof Arndt, Duchene Leo, Roedern Elsa, Gigante Angelina, Hagemann Hans (2019), Pressure-induced phase transitions in Na2B12H12, structural investigation on a candidate for solid- state electrolyte, in Acta Crystallographica B
, 75, 406-413.
Duchêne Léo, Lunghammer Sarah, Burankova Tatsiana, Liao Wei-Chih, Embs Jan Peter, Copéret Christophe, Wilkening H. Martin R., Remhof Arndt, Hagemann Hans, Battaglia Corsin (2019), Ionic Conduction Mechanism in the Na 2 (B 12 H 12 ) 0.5 (B 10 H 10 ) 0.5closo -Borate Solid-State Electrolyte: Interplay of Disorder and Ion–Ion Interactions, in Chemistry of Materials
, 31(9), 3449-3460.
Burankova Tatsiana, Roedern Elsa, Maniadaki Aristea E., Hagemann Hans, Rentsch Daniel, Łodziana Zbigniew, Battaglia Corsin, Remhof Arndt, Embs Jan P. (2018), Dynamics of the Coordination Complexes in a Solid-State Mg Electrolyte, in The Journal of Physical Chemistry Letters
Nestler Tina, Roedern Elsa, Uvarov Nikolai F., Hanzig Juliane, Antonio Elia Giuseppe, de Vivanco Mateo (2018), Separators and electrolytes for rechargeable batteries: Fundamentals and perspectives, in Meyer Dirk (ed.), De Gruyter , Berlin, Germany, 0(0), 1-29.
Maniadaki Aristea E., Łodziana Zbigniew (2018), Theoretical description of alkali metal closo -boranes – towards the crystal structure of MgB 12 H 12, in Physical Chemistry Chemical Physics
, 20(48), 30140-30149.
Yan Yigang, Wang Hui, Zhu Min, Cai Waitong, Rentsch Daniel, Remhof Arndt (2018), Direct Rehydrogenation of LiBH4 from H-Deficient Li2B12H12-x, in Crystals
Duchêne Leo, Kuhnel Ruben-Simon, Stilp Evelyn, Cuervo Reyes Eduardo, Remhof Arndt, Hagemann Hans, Battaglia Corsin (2017), A stable 3 V all-solid-state sodium–ion battery based on a closo-borate electrolyte, in Energy and Environmental Science
, 10, 2609.
Yan Yigang, Rentsch Daniel, Battaglia Corsin, Remhof Arndt (2017), Synthesis, stability and Li-ion mobility of nanoconfined Li2B12H12, in Dalton Transactions
, 46, 12434.
Burankova Tatsiana, Dûchene Léo, Lodziana Zbigniew, Frick Bernhard, Kühnel Ruben-Simon, Hagemann Hans, Remhof Arndt, Embs Jan Peter (2017), Reorientational Hydrogen Dynamics in Complex Hydrides With Enhanced Li + Conduction, in Journal of Physical Chemistry C
, 121(33), 17693-17702.
Yan Yigang, Kühnel Ruben-Simon, Remhof Arndt, Duchêne Leo, Cuevo Reyes Eduardo, Remtsch Daniel, Lodziana Zbigniew, Battaglia Corsin (2017), A Lithium Amide-Borohydride Solid-State Electrolyte with Lithium-Ion Conductivities Comparable to Liquid Electrolytes, in Advanced Energy Materials
Sadikin Yolanda, Schouwink Pascal, Brighi Matteo, Łodziana Zbigniew, Černý Radovan (2017), Modified Anion Packing of Na2B12H12 in Close to Room Temperature Superionic Conductors., in Inorganic chemistry
, 56(9), 5006-5016.
Duchêne Léo, Kühnel Ruben-Simon, Rentsch Daniel, Remhof Arndt, Hagemann Hans, Battaglia Corsin (2017), A highly stable sodium solid-state electrolyte based on a dodeca/deca-borate equimolar mixture., in Chemical communications (Cambridge, England)
, (30), 4195-4198.
Roedern Elsa, Kühnel Ruben-Simon, Remhof Arndt, Battaglia Corsin (2017), Magnesium Ethylenediamine Borohydride as Solid-State Electrolyte for Magnesium Batteries., in Scientific reports
, 7, 46189-46189.
Suwarno, Ngene Peter, Nale Angeloclaudio, Eggenhuisen Tamara M, Oschatz Martin, Embs Jan Peter, Remhof Arndt, de Jongh Petra E (2017), Confinement Effects for Lithium Borohydride: Comparing Silica and Carbon Scaffolds., in The journal of physical chemistry. C, Nanomaterials and interfaces
, (8), 4197-4205.
Moury Romain, Gigante Angelina, Hagemann Hans (2017), An alternative approach to the synthesis of NaB3H8 and Na2B12H12 for solid electrolyte applications, in International Journal of hydrogen energy
, 42, 22417-22421.
Sadikin Yolanda, Skoryunov Roman Y, Babanova Olga B, Soloninin Alexei V, Lodziana Zbigniew, BrighiMatteo, Skripov Alexander V, Cerny Radovan (2017), Anion Disorder in K3BH4B12H12 and Its Effect on Cation Mobility, in The Journal of Physical Chemistry C
, 121(10), 5503-5514.
Duchene Leo, Kühnel Ruben Simon, Rentsch Daniel, Remhof Arndt, Hagemann Hans, Battaglia Corsin (2017), A highly stable sodium solid-state electrolyte base d on a dodeca/deca-borate equimolar mixture, in Chemical Communications
, 53, 4195.
Suwarno, Ngene Peter, Embs Jan Peter, Remhof Arndt, de Jongh Petra et al. (2017), Confinement Effects for Lithium Borohydride: Comparing Silica and Carbon Scaffolds, in Journal of Physical Chemistry C
, 121, 4197-4205.
Elsa Roedern, Ruben-Simon Kühnel, Arndt Remhof, Corsin Battaglia (2017), Magnesium Ethylenediamine Borohydride as Solid-State Electrolyte for Magnesium Batteries, in Scientific Reports
, 7, 46189.
Mohtadi Rana, Remhof Arndt, Jena Puru (2016), Complex metal borohydrides: multifunctional materials for energy storage and conversion., in Journal of physics. Condensed matter : an Institute of Physics journal
, 28(35), 353001-353001.
Mohtadi Rana, Remhof Arndt, Jena Puru (2016), Complex metal borohydrides: multifunctional materials for energy storage and conversion, in Journal of Physics: Condensed Matter
, 28, 353001.
Yan Yigang, Kühnel Ruben-Simon, Remhof Arndt, Duchêne Léo, Cuervo Reyes Eduardo, Rentsch Daniel, Łodziana Zbigniew, Battaglia Corsin, A Lithium Amide-Borohydride Solid-State Electrolyte with Lithium-Ion Conductivities Comparable to Liquid Electrolytes, in Advanced Energy Materials
Lithium ion batteries enabled the success of portable electronics and dominate the global battery market. The demand for high energy density batteries will further increase with the market trend towards electric vehicles and grid leveling applications. Further improvements in energy density and reduction in cost are key to enable a large scale deployment of batteries for these applications. At high energy densities and large scale, absolute operational safety becomes a stringent requirement. Batteries using a solid state electrolyte instead of the conventional liquid electrolytes have a great potential to overcome the well-known challenges of traditional lithium ion batteries. However, the development of next-generation solid-state electrolytes with high ionic conductivity nearing the conductivity of liquid electrolytes represents a major scientific challenge. Recent years witnessed promising discoveries of novel solid state ionic conductors. Fast sodium ion conductivity was reported in Na2B12H12, a compound containing large dodecahydroborates. This unexpected discovery revealed a new class of superionic conductors, for which the origin of conductivity is yet to be revealed but opens new possibilities for high conductivity. This project aims at developing novel superionic conductors based on closo-borates M(BnHn) towards the application in high energy density batteries. Consisting entirely of low weight elements, closo-borates are ideal for applications that require high gravimetric energy density. We emphasize especially on sodium and magnesium conduction promising lower cost than lithium and in the case of divalent magnesium also higher energy densities. Nanoconfinement and ion substitution will be explored as means to alter the functional materials properties and to stabilize disordered ion conducting phases at room temperature. The inert matrix providing nanoconfinement additionally supports the mechanical and chemical stability of the electrolyte preventing degradation during electrochemical cycling.The project will address the following scientific questions related to this new class of ionic conductors: (i) their thermodynamic/electrochemical stability; (ii) the origin of the ionic conductivity; (iii) development of synthesis methods for the bulk and nanoconfined state; (iv) tuning their properties by ionic substitution. The consortium unites four internationally renowned research groups consisting of Empa, PSI, the University of Geneva, and the Institute of Nuclear Science of the Polish Academy of Sciences in Cracow providing the unique opportunity for forging strong synergies between the researchers that pioneered the field of borates and experts in battery research through the combination of expertise in electrochemistry, solid state chemistry and synthesis, thermodynamics and kinetic, spectroscopy, transport measurements and theoretical modeling.