Alexei Petrov
University of California, Berkeley
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Featured researches published by Alexei Petrov.
Archive | 2012
Steven J. Visco; Yevgeniy S. Nimon; Lutgard C. De Jonghe; Alexei Petrov; Nikolay Goncharenko
High specific energy density batteries are attracting increased attention as possible power sources for electric vehicles (EVs) (Girishkumar et al. in J Phys Chem Lett 1:2193, 2010; Armand and Tarascon in Nature 451:652, 2008; Padbury and Zjhang in J Power Sources 196:4436, 2011; Bruce et al. in Nat Mater 11:19, 2012; Wang et al. in Nano Energy 2:433, 2013; Imanishi and Yamamoto in Mater Today 17:24, 2014; Kuwabi et al. in MRS Bull 39:443, 2014). However, the driving range of commercialized EVs with the current lithium-ion batteries is considerably lower than that of the vehicles with internal combustion (IC) engines, because the energy density for lithium-ion battery packs of around 100 Wh kg−1 is too low compared with the IC engine.
Archive | 2014
Steven J. Visco; Vitaliy Nimon; Alexei Petrov; Kirill Pridatko; Nikolay Goncharenko; Eugene Nimon; Lutgard C. De Jonghe; Mary A. Hendrickson; Edward J. Plichta
The last major advance in portable electrochemical energy storage was the introduction of Li-ion chemistry by Sony in 1991. Since that time battery manufacturers have been relentless in pursuing incremental improvements to Li-ion technology. Still, there are fundamental limits to any battery chemistry and Li-ion technology is clearly maturing. In pursuit of the next battery breakthrough, a number of researchers are exploring the Li/O2 couple, due largely to its extremely high theoretical energy density and the low cost of the oxygen electrode. However, in order to realize those gains, the Li/O2 battery will need to utilize ambient air, and this presents a major technical hurdle as ambient moisture will attack and rapidly corrode the lithium metal electrode. Fortunately, the invention of the protected lithium electrode (PLE) by PolyPlus solves this problem and enables the practical construction of both primary and secondary lithium air batteries. In this chapter we highlight the advances and challenges in aqueous and nonaqueous lithium air battery technology. Notably, external testing of PolyPlus 10 Ah primary lithium air cells has confirmed specific energies in excess of 800 Wh/kg.
Archive | 2006
Steven J. Visco; Yevgeniy S. Nimon; Lutgard C. De Jonghe; Bruce D. Katz; Alexei Petrov
Archive | 2006
Steven J. Visco; Yevgeniy S. Nimon; Lutgard C. De Jonghe; Bruce D. Katz; Alexei Petrov
Journal of Solid State Electrochemistry | 2014
Steven J. Visco; Vitaliy Nimon; Alexei Petrov; Kirill Pridatko; Nikolay Goncharenko; Eugene Nimon; Lutgard C. De Jonghe; Yury M. Volfkovich; D. A. Bograchev
Archive | 2009
Steven J. Visco; Lutgard C. De Jonghe; Yevgeniy S. Nimon; Alexei Petrov; Kirill Pridatko
Archive | 2009
Steven J. Visco; Lutgard C. De Jonghe; Yevgeniy S. Nimon; Alexei Petrov; Kirill Pridatko
Archive | 2009
Steven J. Visco; Lutgard C. De Jonghe; Yevgeniy S. Nimon; Alexei Petrov; Kirill Pridatko
Archive | 2009
Steven J. Visco; Jonghe Lutgard C. De; Yevgeniy S. Nimon; Alexei Petrov; Kirill Pridatko
Archive | 2009
Steven J. Visco; Lutgard C. De Jonghe; Yevgeniy S. Nimon; Alexei Petrov; Kirill Pridatko; Bruce D. Katz