The potential of Li-ion batteries in ECOWAS solar home systems

被引:37
|
作者
Diouf, Boucar [1 ]
Avis, Christophe [1 ]
机构
[1] Kyung Hee Univ, Dept Informat Display, 26 Kyungheedae Ro, Seoul 02447, South Korea
关键词
Lithium-ion batteries; Lead-acid batteries; Rural solar home systems; Photovoltaic energy; Electric automobile; ECOWAS; ELECTRICAL ENERGY-STORAGE;
D O I
10.1016/j.est.2019.02.021
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Lead-acid batteries commonly installed in solar home systems have a short lifespan. In rural areas of developing countries, this may leave systems non-functional because of the lack of service or financial limitations to acquire a new battery. Lithium-ion (Li-ion) batteries present revolutionary attributes, as longer lifespan, higher energy and power densities, as well as better tolerance to external parameters. In this paper we present the potential of Li-ion batteries to be an ideal substitution of lead-acid batteries in off-grid rural solar home systems. We defend that the mass production of Li-ion cells, to respond to industrial demand, particularly from the electric automobile industry, will benefit renewable energy and especially small size solar home systems. The electric automobile is one of the driving forces of Li-ion industry. It will indirectly allow rural zones of developing countries to access electricity at a lower cost to replace inefficient and harmful candles and kerosene lamps. Through the prototypes, built and presented in this study, we show that Li-ion battery packs when assembled locally, in developing countries, could be more affordable and contribute to a form of technological emergence. We present the case study of the Economic Community of West African States (ECOWAS).
引用
收藏
页码:295 / 301
页数:7
相关论文
共 50 条
  • [1] Computational understanding of Li-ion batteries
    Urban, Alexander
    Seo, Dong-Hwa
    Ceder, Gerbrand
    NPJ COMPUTATIONAL MATERIALS, 2016, 2
  • [2] Plasma-Modified Cellulose-Based Li-Ion Electrodes for Rechargeable Aqueous Li-Ion Batteries
    Rousselot, Steeve
    Profili, Jacopo
    Hadidi, Lida
    Tomassi, Erica
    Nicolas, Maxime
    Briqueleur, Elsa
    Ayme-Perrot, David
    Stafford, Luc
    Dolle, Mickael
    ACS SUSTAINABLE CHEMISTRY & ENGINEERING, 2023, 11 (48) : 17098 - 17110
  • [3] Self-Healing Systems in Silicon Anodes for Li-Ion Batteries
    Yuca, Neslihan
    Kalafat, Ilknur
    Guney, Emre
    Cetin, Busra
    Taskin, Omer S.
    MATERIALS, 2022, 15 (07)
  • [4] Nanostructured organic and inorganic materials for Li-ion batteries: A review
    Shetti, Nagaraj P.
    Dias, Savio
    Reddy, Kakarla Raghava
    MATERIALS SCIENCE IN SEMICONDUCTOR PROCESSING, 2019, 104
  • [5] Nanocomposite anode materials for Li-ion batteries
    Wada, M
    Yin, J
    Tanabe, E
    Kitano, Y
    Tanase, S
    Kajita, O
    Sakai, T
    ELECTROCHEMISTRY, 2003, 71 (12) : 1064 - 1066
  • [6] Carbon nanotubes in Li-ion batteries: A review
    Sehrawat, Poonam
    Julien, C.
    Islam, S. S.
    MATERIALS SCIENCE AND ENGINEERING B-ADVANCED FUNCTIONAL SOLID-STATE MATERIALS, 2016, 213 : 12 - 40
  • [7] Composite carbonaceous materials for Li-ion batteries
    Hazra, A
    Basumallick, IN
    JOURNAL OF NEW MATERIALS FOR ELECTROCHEMICAL SYSTEMS, 2001, 4 (04) : 275 - 278
  • [8] From Li-Ion Batteries toward Na-Ion Chemistries: Challenges and Opportunities
    Chayambuka, Kudakwashe
    Mulder, Grietus
    Danilov, Dmitri L.
    Notten, Peter H. L.
    ADVANCED ENERGY MATERIALS, 2020, 10 (38)
  • [9] Cycling Results of Mechanically Damaged Li-Ion Batteries
    Sahraei, Elham
    Gilaki, Mehdi
    Lynch, William
    Kirtley, James
    Soudbakhsh, Damoon
    2019 IEEE ELECTRIC SHIP TECHNOLOGIES SYMPOSIUM (ESTS 2019): EMERGING TECHNOLOGIES FOR FUTURE ELECTRIC SHIPS, 2019, : 226 - 230
  • [10] Electrolyte additives for Li-ion batteries: classification by elements
    Bolloju, Satish
    Vangapally, Naresh
    Elias, Yuval
    Luski, Shalom
    Wu, Nae-Lih
    Aurbach, Doron
    PROGRESS IN MATERIALS SCIENCE, 2025, 147