Lithium Batteries: Science and Technology Christian Julien, Alain Mauger, Ashok Vijh, and Karim Zaghib

  • PDF / 297,108 Bytes
  • 1 Pages / 585 x 783 pts Page_size
  • 112 Downloads / 230 Views

DOWNLOAD

REPORT


Lithium Batteries: Science and Technology Christian Julien, Alain Mauger, Ashok Vijh, and Karim Zaghib Springer, 2016 619 pages, $179.00 (e-book $139.00) ISBN 978-3-319-19107-2

L

ithium-ion batteries dominate mobile electronics: laptops, cell phones, e-readers, etc. Their role is expanding as electric propulsion, wearable electronics, and the Internet of things are being developed. However, they fall short of their potential: current technologies achieve only 20% of the theoretical energy densities. This situation has motivated much research. In the book reviewed here, four authors combine their expertise in solidstate physics and chemistry, electrochemistry, and battery technology to bring us up to date. Additionally, they discuss the fire problems that occur from time to time in lithium batteries and recent progress in the use of nanotechnology to improve performance. The first two chapters include a lucid introduction to energy storage and lithium batteries. The third chapter includes a thermodynamic background and explains intercalation, the reversible process of introducing and extracting ions from the layers of the host structure. The next chapter explores the use of the rigid-bond

model for intercalation in transition-metal chalcogenides and oxides, concluding that it “can only be rarely applied.” The density functional theory, which has been used with considerable success, is not discussed. In contrast to other chapters, this chapter has no references after 2010. Chapters 5 to 9 discuss cathode materials, which have attracted a lot of attention. Layered structures such as lithium cobalt oxide, which is used commercially, and its potential replacements, which are cheaper and less toxic, are discussed in chapter 5. The next four chapters discuss three-dimensional networks, polyanionic compounds, fluoro-polyionic compounds, and disordered compounds. Chapter 10 is devoted to anodes based on carbon, silicon, lithium titanate, and several other materials. Electrolytes and separators are discussed together in chapter 11 since the choice of one depends on the other materials. The important role of solid-electrolyte interphase comes up for a detailed and authoritative discussion here. A special feature of the book is the

Continuum Damage and Fracture Mechanics Andreas Öchsner Springer, 2016 163 pages, $89.99 (e-book $69.99) ISBN 978-981-287-863-2

T

his book is a well-condensed, useful textbook that introduces damage mechanics and fracture mechanics. It does not dive deeply into all of the failure modes or mathematical models of all the related theories in applied mechanics, but

is a sufficient level of introduction that is necessary to understand the content. The book is comprised of five chapters. Chapter 1 starts from a classical uniaxial tensile test with round and flat shapes to introduce the stress–strain behavior

discussion in chapter 12 on synthesis of nanomaterials and their electrochemical and physical properties. A lot of ongoing research on batteries involves nanotechnology. It is convenient to ha