Energy distributions exhibited during thermal runaway of commercial lithium ion batteries used for human spaceflight applications

Journal of Power Sources

Volumn 329, Issue , 2016, Pages 197-206

  Yayathi, Sandeep ^a   Walker, William ^a,b   Doughty, Daniel ^c   Ardebili, Haleh ^b  

^a NASA JOHNSON SPACE CENTER   (United States)

^b UNIVERSITY OF HOUSTON   (United States)

^c Battery Safety Consulting Inc   (United States)

Author keywords

Accelerating rate calorimetry; Battery safety; Lithium ion battery; Thermal runaway; Total energy release

Indexed keywords

BATTERY MANAGEMENT SYSTEMS; CALORIMETERS; CALORIMETRY; CHARGING (BATTERIES); ELECTRIC BATTERIES; ENCLOSURES; HEAT TRANSFER; IONS; LITHIUM; LITHIUM ALLOYS; LITHIUM COMPOUNDS; MANNED SPACE FLIGHT; SECONDARY BATTERIES; SPACE FLIGHT; SPACE RESEARCH;

ACCELERATING RATE CALORIMETRY; BATTERY SAFETY; ENERGY DISTRIBUTIONS; EXPERIMENTAL CHARACTERIZATION; INVERSE RELATIONSHIP; THERMAL MANAGEMENT SYSTEMS; THERMAL RUNAWAYS; TOTAL ENERGY;

LITHIUM-ION BATTERIES;

EID: 84983508997     PISSN: 03787753     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jpowsour.2016.08.078     Document Type: Article

References (52)

1. [1] McCleskey, C., Zapata, E., Rhodes, R., An analysis and review of measures and relationships in space transportation affordability. 50th AIAA/ASME/SAE/ASEE Joint Propulsion Conference, 2014.
2. [2] Fellner, J.P., Loeber, G.J., Vukson, S.P., Riepenhoff, C.A., Lithium-ion testing for spacecraft applications. J. Power Sources 119 (2003), 911–913.
3. [3] Sone, Y., Ooto, H., Yamamoto, M., Eguro, T., Sakai, S., Yoshida, T., et al. Storage of a lithium-ion secondary battery under micro-gravity conditions. J. Power Sources 181 (2008), 149–154.
4. [4] Uno, M., Ogawa, K., Takeda, Y., Sone, Y., Tanaka, K., Mita, M., et al. Development and on-orbit operation of lithium-ion pouch battery for small scientific satellite “REIMEI”. J. Power Sources 196 (2011), 8755–8763.
5. [5] Liu, D., Wang, H., Peng, Y., Xie, W., Liao, H., Satellite lithium-ion battery remaining cycle life prediction with novel indirect health indicator extraction. Energies 6 (2013), 3654–3668.
6. [6] Sone, Y., Charge/discharge performance of lithium-ion secondary cells under microgravity conditions: lessons learned from operation of interplanetary spacecraft Hayabusa. Electrochimica Acta 100 (2013), 358–363.
7. [7] National Transportation and Safety Board, Interim Factual Report on Boeing. 787–8, JA829J, 2013, Japan Airlines, National Transportation Safety Board, Office of Aviation Safety, Washington, DC.
8. [8] Darcy, E., Thermal runaway Severity Reduction Assessment for EVA Li-ion Batteries. 2014 Huntsville, Alabama.
9. [9] Darcy, E., COTS Li-ion Cell; How Rugged are New Designs?. 2012 Huntsville, Alabama.
10. [10] Walker, W., Yayathi, S., Shaw, J., Ardebili, H., Thermo-electrochemical evaluation of lithium-ion batteries for space applications. J. Power Sources 298 (2015), 217–227.
11. [11] Russell, S., Elder, M., Williams, A., Dembeck, J., The extravehicular maneuvering unit's new long life battery and lithium ion battery charger. AIAA SPACE 2010 Conference & Exposition, 2010.
12. [12] Boston Power, Boston Power Datasheet: Boston Power Swing 5300 Rechargeable Lithium Ion Cell. 2011.
13. [13] Samsung SDI Co., LTD, Specification of Product for Lithium-ion Rechargeable Cell Model: ICR18650–26F. 2009.
14. [14] E-ONE MOLI, Energy Corporation, Product Datasheet for MoliCel ICR 18650-J. 2016.
15. [15] Thermal Hazard Technology, Determining the Specific Heat Capacity of a Battery Pack. 2016.
16. [16] Boston Power, Sonata 5300 and Swing 5300 Material Safety Data Sheet. 2015.
17. [17] Samsung SDI Co., LTD, Samsung Material Safety Datasheet ICR 18650-26F. 2013.
18. [18] E-ONE Moli Energy Corporation, MoliCel Safety Datasheet FSSF00058AB. 2016.
19. [19] Lopez, C., Jeevarajan, J., Mukherjee, P., Experimental analysis of thermal runaway and propagation in lithium-ion battery modules. J. Electrochem Soc. 162 (2015), A1905–A1915.
20. [20] Balakrishnan, P., Ramesh, R., Kumar, P.T., Safety mechanisms in lithium-ion batteries. J. Power Sources 155 (2006), 401–414.
21. [21] Bandhauer, T.M., Garimella, S., Fuller, T.F., A critical review of thermal issues in lithium-ion batteries. J. Electrochem. Soc. 158 (2011), R1–R25.
22. [22] Lisbona, D., Snee, T., A review of hazards associated with primary lithium and lithium-ion batteries. Process Saf. Environ. Prot. 89 (2011), 434–442.
23. [23] Wang, Q., Ping, P., Zhao, X., Chu, G., Sun, J., Chen, C., Thermal runaway caused fire and explosion of lithium ion battery. J. Power Sources 208 (2012), 210–224.
24. [24] Yuan, Q., Zhao, F., Wang, W., Zhao, Y., Liang, Z., Yan, D., Overcharge failure investigation of lithium-ion batteries. Electrochim Acta 178 (2015), 682–688.
25. [25] MacNeil, D.D., Dahn, J.R., The reaction of charged cathodes with nonaqueous solvents and electrolytes. J. Electrochem. Soc. 148 (2001), A1205–A1210.
26. [26] Spotnitz, R., Franklin, J., Abuse behavior of high-power, lithium-ion cells. J. Power Sources 113 (2003), 81–100.
27. [27] Ohsaki, T., Kishi, T., Kuboki, T., Takami, N., Shimura, N., Sato, Y., et al. Overcharge reaction of lithium-ion batteries. J. Power Sources 146 (2005), 97–100.
28. [28] Finegan, D., Scheel, M., Robinson, J., Tjaden, B., Hunt, I., Mason, T., et al. In-operando high-speed tomography of lithium-ion batteries during thermal runaway. Nat. Commun., 6, 2015.
29. [29] Hatchard, T.D., Trussler, S., Dahn, J.R., Building a “smart nail” for penetration tests on Li-ion cells. J. Power Sources 247 (2014), 821–823.
30. [30] Feng, X., Sun, J., Ouyang, M., Wang, F., He, X., Lu, L., et al. Characterization of penetration induced thermal runaway propagation process within a large format lithium ion battery module. J. Power Sources 275 (2015), 261–273.
31. [31] Richard, M., Accelerating rate calorimetry study on the thermal stability of lithium intercalated graphite in electrolyte. I. experimental. J. Electrochem. Soc. 146 (1999), 2068–2077.
32. [32] Richard, M., Accelerating rate calorimetry study on the thermal stability of lithium intercalated graphite in electrolyte. II. Modeling the results and predicting differential scanning calorimeter curves. J. Electrochem. Soc. 146 (1999), 2078–2084.
33. [33] Hatchard, T., MacNeil, D., Basu, A., Dahn, J., Thermal model of cylindrical and prismatic lithium-ion cells. J. Electrochem. Soc. 148 (2001), A755–A761.
34. [34] Kim, G.-H., Pesaran, A., Spotnitz, R., A three-dimensional thermal abuse model for lithium-ion cells. J. Power Sources 170 (2007), 476–489.
35. [35] Lee, C.H., Bae, S.J., Jang, M., A study on effect of lithium ion battery design variables upon features of thermal-runaway using mathematical model and simulation. J. Power Sources 293 (2015), 498–510.
36. [36] Coman, P., Rayman, S., White, R., A lumped model of venting during thermal runaway in a cylindrical Lithium Cobalt Oxide lithium-ion cell. J. Power Sources 307 (2016), 56–62.
37. [37] Thermal Hazard Technology, Accelerating Rate Calorimeter Technical Information Note 22: the Phi Correction in Accelerating Rate Calorimetry. 2016.
38. [38] Gnanaraj, J.S., Zinigrad, E., Asraf, L., Gottlieb, H.E., Sprecher, M., Aurbach, D., et al. The use of accelerating rate calorimetry (ARC) for the study of the thermal reactions of Li-ion battery electrolyte solutions. J. Power Sources 119 (2003), 794–798.
39. [39] Roth, E., Doughty, D., Thermal abuse performance of high-power 18650 Li-ion cells. J. Power Sources 128 (2004), 308–318.
40. [40] Doughty, D.H., Roth, P.E., Crafts, C.C., Nagasubramanian, G., Henriksen, G., Amine, K., Effects of additives on thermal stability of Li ion cells. J. Power Sources 146 (2005), 116–120.
41. [41] Jhu, C.-Y., Wang, Y.-W., Shu, C.-M., Chang, J.-C., Wu, H.-C., Thermal explosion hazards on 18650 lithium ion batteries with a VSP2 adiabatic calorimeter. J. Hazard. Mater. 192 (2011), 99–107.
42. [42] Wang, Y., Zaghib, K., Guerfi, A., Bazito, F., Torresi, R., Dahn, J.R., Accelerating rate calorimetry studies of the reactions between ionic liquids and charged lithium ion battery electrode materials. Electrochim Acta 52 (2007), 6346–6352.
43. [43] Feng, X., Sun, J., Ouyang, M., He, X., Lu, L., Han, X., et al. Characterization of large format lithium ion battery exposed to extremely high temperature. J. Power Sources 272 (2014), 457–467.
44. [44] Thermal Hazard Technology, Calibration of the ARC. 2016.
45. [45] Thermal Hazard Technology, Calibration for High Sensitivity and Calibration Reproducibility in the ARC. 2016.
46. [46] Golubkov, A., Scheikl, S., Planteu, R., Voitic, G., Wiltsche, H., Stangl, C., et al. Thermal runaway of commercial 18650 Li-ion batteries with LFP and NCA cathodes – impact of state of charge and overcharge. Rsc Adv. 5 (2015), 57171–57186.
47. [47] Fu, Y., Lu, S., Li, K., Liu, C., Cheng, X., Zhang, H., An experimental study on burning behaviors of 18650 lithium ion batteries using a cone calorimeter. J. Power Sources 273 (2015), 216–222.
48. [48] Barnett, B., Sriramulu, S., Stringfellow, R., Ofer, D., Takata, R., Oh, B., How to Mitigate/prevent Safety Incidents in Li-ion Cells and Batteries. 2009 Fort Lauderdale, Florida.
49. [49] Sriramulu, S., Stringfellow, R., Internal Short Circuits in Lithium-ion Cells for PHEVs. 2014, TIAX LLC.
50. [50] Doughty, D.H., Pesaran, A.A., Vehicle Battery Safety Roadmap Guidance. 2012, NREL.
51. [51] Lu, T.Y., Chiang, C.C., Wu, S.H., Chen, K.C., Lin, S.J., Wen, C.Y., Shu, C.M., Thermal hazard evaluations of 18650 lithium-ion batteries by an adiabatic calorimeter. J. Therm. Anal. Calorim. 114 (2013), 1083–1088.
52. [52] Jhu, C.Y., Wang, Y.W., Wen, C.Y., Chiang, C.C., Shu, C.M., Self-reactive rating of thermal runaway hazards on 18650 lithium-ion batteries. J. Therm. Anal. Calorim. 106 (2011), 159–163.