Status of rechargeable positive electrodes for ambient temperature lithium batteries

https://doi.org/10.1016/0378-7753(81)80058-4Get rights and content

Abstract

There have been striking advances in the technology of ambient temperature rechargeable lithium cells during the middle and late 1970s. Discoveries of new and attractive cathode systems, along with developmental efforts on some, have contributed significantly to this. A survey of the status of the positive electrodes is presented. Insoluble solid cathodes which undergo intercalation or topochemical electrode reactions appear to be the most promising for immediate application in practical cells. There are presently available several such materials suitable for fabricating cells with high energy density, rate capability, and rechargeability. It is hoped that this account will direct the attention of investigators in this area to promising systems with the result that research and developmental efforts on practical rechargeable Li batteries will be accelerated.

References (108)

  • J.J. Auborn et al.
    (1972)
  • M. Shaw and D. McClelland, U.S. Patent 3,393,092...
  • J.O. Besenhard et al.

    J. Power Sources

    (1976)
  • F. J. Disalvo and D. W. Murphy, U.S. Patent 4,159,962...
  • G. L. Holleck, EIC Corporation, unpublished...
  • G.L. Holleck et al.
    (1975)
  • J.O. Besenhard et al.

    Z. Naturforsch.

    (1976)
  • B. Van Laar et al.

    J. Solid State Chem.

    (1971)
  • D.W. Murphy et al.

    J. Electrochem. Soc.

    (1976)
  • A.H. Thompson et al.

    Mater. Res. Bull.

    (1977)
  • A. LeMehaute et al.

    Mater. Res. Bull.

    (1977)
  • M. S. Whittingham, U.S. Patent 4,049,887...
  • M. Armand et al.

    J. Power Sources

    (1978)
  • M. Eisenberg, U.S. Patent 4,136,233...
  • M. R. Kegelman, U.S. Patent 3,847,674...
  • R.J. Jasinski
    (1967)
  • L.H. Gaines et al.
    (1976)
  • S. Atlung et al.

    J. Electrochem. Soc.

    (1979)
    S. Atlung
  • G. Eichinger et al.

    J. Electroanal. Chem.

    (1976)
  • J.J. Auborn et al.

    J. Electrochem. Soc.

    (1973)
  • J. J. Auborn, K. W. French, S. I. Liebermann, V. K. Shah and A. Heller, Rep. AD 763 478, Nat. Tech. Info. Ser.,...
  • J. J. Auborn, K. W. French, A. Heller and S. Liebermann, Rep. AD 767 624, Nat. Tech. Info. Ser., Springfield, Va.,...
  • K.M. Abraham et al.

    J. Electrochem. Soc.

    (1974)
  • A. N. Dey, Contract No. DAAB07-74-C-0109, Final Rep., ERADCOM-74-0104, Fort Monmouth, N. J., U.S.A., July...
  • S. GilmanS. Gilman et al.

    J. Electrochem. Soc.

    (1980)
  • J.G. Weininger et al.

    J. Electrochem. Soc.

    (1974)
  • D. Herbert and J. Ulam, U.S. Patent 3,043,896 (1962); German Patent 1,126,464...
  • R.J. Jasinski

    Electroanal. Chem.

    (1970)
  • J. E. Chilton, Jr., W. J. Conner, G. M. Cook and A. W. Holsinger, Lockheed Missiles and Space Co., Final Rep. on AG-33...
  • J.P. Gabano et al.
    (1969)
  • J.P. Gabano et al.
  • D. P. Boden, H. R. Buhner and V. J. Spera, Final Rep. Contract DA 28-043-AMC-01394(E) September, 1966; Rep. AD 639709,...
  • D. P. Boden, H. R. Buhner and V. J. Spera, Semiannual Rep. Contract DAAB07-67-C-0385, U.S. ECOM., Fort Monmouth, N. J.,...
  • H.N. Sieger et al.
  • M. Eisenberg et al.
    (1969)
  • French Patent...
  • H. Lerner et al.

    J. Electrochem. Soc.

    (1970)
  • U.S. Patent...
  • A. N. Dey and B. M. L. Rao, Rep. AD 825241, Nat. Tech. Info. Serv., Springfield, Va., U.S.A.,...
  • A.N. Dey et al.
  • F. W. Dampier and K. W. Spiegler, Rep. AD 859386, Nat. Tech. Info. Serv., Springfield, Va., U.S.A.,...
  • F. W. Dampier and K. W. Spiegler, Rep. AD 882890, Nat. Tech. Info. Serv., Springfield, Va., U.S.A.,...
  • M.B. Arm et al.
  • R.D. Rauh et al.

    J. Electrochem. Soc.

    (1979)
  • S. B. Brummer et al., Final Rep., U.S. Department of Energy, Contract E4-76-C-02-2520, Washington, D.C., U.S.A.,...
  • K.M. Abraham et al.

    The Electrochemical Society Extended Abstracts

    (1977)
  • M. L. Rao, U.S. Patent 3,413,154...
  • J.R. Coleman et al.
  • D. Nole and V. Moss, U.S. Patent 3,532,543...
  • D.W. Murphy et al.

    Science

    (1979)
  • Cited by (95)

    • Sulfur-based redox chemistry for electrochemical energy storage

      2020, Coordination Chemistry Reviews
      Citation Excerpt :

      Although these studies demonstrate the variability of the redox mechanisms of FeS2, it seems that the research efforts on the redox mechanism of FeS2 has been extinguished after the 1990 s. With the merits of low cost and high energy density of FeS2, more research effort on its redox mechanisms is highly desirable to improve the reversibility of the battery at room temperature. As well as their crystalline counterparts, a wide range of amorphous transition metal sulfides have been developed in 1970–1980 s, which presented some interesting properties and showed potential as cathodes for rechargeable batteries [15,155]. It was unexpectedly found that amorphous MoS2 prepared at a low temperature exhibited a higher capacity than crystalline MoS2 obtained at a high temperature (greater than800 ℃).

    • A theoretical method to predict novel organic electrode materials for Na-ion batteries

      2017, Computational Materials Science
      Citation Excerpt :

      The sodium-ion battery [1,2] was originally researched in the late 1970s and 1980s in conjunction with the lithium-ion battery [3,4].

    • Synthesis of Ni<inf>x</inf>Co<inf>(1-x)</inf>F<inf>2</inf> (x = 0, 0.25, 0.50, 0.75, 1.0) and application in lithium ion batteries

      2015, Journal of Alloys and Compounds
      Citation Excerpt :

      In addition, material such as copper fluoride also faces problem of copper dissolution in the electrolyte upon storage, leading to poor discharge performance [9]. Most of the efforts in the early 1960s to utilize metal fluorides as an electrode material in lithium based batteries eventually subsided in 1970s [10]. However, in the 1990s, research into use of metal fluorides as an electrode material in lithium based batteries started to attract interest again [17].

    • Ether based electrolyte improves the performance of CuFeS<inf>2</inf> spike-like nanorods as a novel anode for lithium storage

      2015, Electrochimica Acta
      Citation Excerpt :

      Moreover, to the best of our knowledge, there are very few reports about the electrochemical studies of CuFeS2 as anode material in Li ion battery fields. Mostly, it’s regard as a kind of additive [17,18] or the cathode for lithium ion batteries [19] without stable cycle performance. How to improve the cycle stability of CuFeS2 electrode has become a pivotal concern.

    • Copper sulfides for rechargeable lithium batteries: Linking cycling stability to electrolyte composition

      2014, Journal of Power Sources
      Citation Excerpt :

      It has been suggested that the poor reversibility of the CuS system is due to the solubility of the discharge product Li2S in the electrolyte leading to a rapid loss of active material [9,16,35,36]. Especially polysulfides Li2Sx that might occur as intermediates during discharge/charge are highly soluble in many solvents and indeed this phenomenon is well-known from the lithium–sulfur cell [37]. Even though we never found evidence for a loss of the active material it is worth considering possible countermeasures (see Section 3.4).

    View all citing articles on Scopus
    View full text