The 787 is the first major commercial airplane to make extensive use of lithium-ion batteries.
The 787 is the first airliner to make extensive use of lithium-ion batteries.
The Airbus A350, expected to be ready next year, will also make extensive use of lithium-ion batteries.
The grounding — an unusual action for a new plane — focuses on one of the more risky design choices made by Boeing, namely to make extensive use of lithium-ion batteries aboard its airplanes for the first time.
Emphasis is given to the electrochemical fundamentals of three main types of batteries that currently undergo extensive research efforts: lithium-ion battery, redox flow battery, and sodium battery.
A sustainable yet massive synthesis of porous micro-/nano-structured spinel mixed metal oxides is highly desirable as advanced anodes for their extensive applications in rechargeable lithium-ion batteries (LIBs).
Topics are the chemical modification of the polymeric, cyclic and low molecular derivates of these systems, the formation of stable membranes from these by suitable cross-linking strategies and an extensive electrochemical characterization in corresponding lithium cells.
This strategy exploits the idea that carbonate oxygen, within a single-phase carbonate siloxane polymer matrix, will facilitate extensive ionic dissociation of introduced lithium salts, and that furthermore elastomeric behavior of the matrix under ambient temperature conditions will lead to enhanced mobility of lithium ions.
Since Sony first developed lithium-ion batteries, extensive research has been carried out to obtain enhanced specific capacity, cyclic performance, and stability [1 4].
Sodium-ion batteries (SIBs) have recently regained extensive research interest as alternatives to lithium-ion batteries (LIBs) for energy storage owing to the low cost and abundance of Na [1, 2, 3, 4, 5].
