Materials for Lithium-Ion Batteries (Hardcover)

Preface. Acknowledgements. Part 1: Lectures. Design considerations for lithium batteries; C. Julien. Principles determining the potentials and capacities of electrochemical cells; R.A. Huggins. Binary electrodes under equilibrium or near-equilibrium conditions; R.A. Huggins. Better electrode materials for energy storage applications through chemistry; J.M. Tarascon. Carbon-lithium negative electrode for lithium ion batteries: main characteristics and features; R. Yazami. Reactivity and safety aspects of carbonaceous anodes used in lithium-ion batteries. Correlation of structural parameters and reactivity; G.A. Nazri, B. Yebka. Structure and electrochemistry of new lithium intercalation compounds prepared via low temperature techniques; J.P. Pereira-Ramos, et al. Structure and electrochemistry of doped LiMO2 (M=Ni, Co) cathode materials; C. Julien. New transition metal oxide electrodes for lithium batteries; A. Le Gal La Salle, et al. Electrochemical features of lithium batteries based on molybdenum-oxide compounds; C. Julien, B. Yebka. EXAFS: a structural probe for cathode materials in lithium ion batteries; M.S. Islam, et al. Atomistic computer modelling of oxide cathode materials for lithium ion batteries; M.S. Islam, B. Ammundsen. Local environment in 4-volt cathode materials for Li-ion batteries; C. Julien. Raman Spectra of anode and cathode materials; R. Aroca, et al. Advanced impendance techniques for lithium batteries study. Part I: experimental setup; Z. Stoynov. Advanced impedance techniques for lithium batteries study. Part II: data processing; Z. Stonoyv. Advanced impedance techniques for lithium batteries study. Part III: Four dimensional; Z. Stoynov. Advanced impedance techniques for lithium batteries study. PartIV: differential impedance analysis; Z. Stoynov. Litium microbatteries; C. Julien. Fundamental aspects of electrochemical, chemical and electrostatic potentials in lithium batteries; W. Weppner. Chemical stability aspects of high performance lithium batteries; W. Weppner. Kinetic aspects of high performance solid electrolytes and electrodes; W. Weppner. Solid state electrochemical methods for the characterization of the kinetics, thermodynamics and phase equilibria of lithium battery materials; W. Weppner. Part 2: Seminars. LiNi(M)O2 layered oxides: positive electrode materials for lithium batteries; A. Rougier, C. Delmas. New generation of 3-volt lithiated manganese oxide for high-performance lithium batteries; B. Banov, et al. Sol-gel synthesis and electrochemical characterization of polycrystalline powders and thin films of Li1+xV3O8; S.V. Pushko. Microstructure of Li1+xMn2-xMn2-xO4 cathode materials monitored by EPR of mn4+; E. Zhecheva, et al. EPR studies on the microstructure of LiNi1-yCoyO2 electrode materials for lithium-ion batteries; R. Stoyanova, et al. Mechanochemical synthesis of cathode materials for lithium batteries; N.V. Kosova. Electronic transport properties in LixCr0.11V2O5.16; J.C. Badot, et al. 7Li NMR in some lithium intercalation compounds. Taking advantage of electronic spins; M. Menetrier. Single conductive polymer electrolytes: from pressure conductivity measurements to transport mechanism; O. Brylev, et al. Electrochemical and structural characterisation near the NiO2 composition; L. Croguennec, et al. Synthesis of o