Experimental Study on the Bundle Lithium-Ion Batteries Fire

2017 ◽  
Vol 890 ◽  
pp. 263-266
Author(s):  
Ming Yi Chen ◽  
Richard Yuen ◽  
Jian Wang

In this paper, a report is given on an experimental study of the combustion characteristics of six bundle lithium-ion batteries in a calorimeter. Several parameters including mass loss, heat release rate, surface temperature and heat flux distribution were measured to evaluate the hazards. The experimental results show that the lithium-ion batteries undergo fierce combustion processes. The total mass loss of six lithium-ion batteries fire is 67.8g, and the effective heat of the fire is 7.06 kJ/g. The highest temperature of the batteries fire is 816.9 °C and the maximum heat flux is 0.68 kW/m2.The results provide scientific basis for the development of fire protection measures during the usage, storage and distribution of primary lithium batteries.

2018 ◽  
Vol 20 (40) ◽  
pp. 25701-25715 ◽  
Author(s):  
Anand Narayanan Kirshnamoorthy ◽  
Kristina Oldiges ◽  
Martin Winter ◽  
Andreas Heuer ◽  
Isidora Cekic-Laskovic ◽  
...  

Combined atomistic molecular dynamics, quantum chemical, and experimental study regarding the properties of two lithium conducting salts in high voltage electrolyte solvent adiponitrile.


Author(s):  
Sung Joong Kim ◽  
Tom McKrell ◽  
Jacopo Buongiorno ◽  
Lin-Wen Hu

Nanofluids are known as dispersions of nano-scale particles in solvents. Recent reviews of pool boiling experiments using nanofluids have shown that they have greatly enhanced critical heat flux (CHF). In many practical heat transfer applications, however, it is flow boiling that is of particular importance. Therefore, an experimental study was performed to verify whether or not a nanofluid can indeed enhance the CHF in the flow boiling condition. The nanofluid used in this work was a dispersion of aluminum oxide particles in water at very low concentration (≤0.1 v%). CHF was measured in a flow loop with a stainless steel grade 316 tubular test section of 5.54 mm inner diameter and 100 mm long. The test section was designed to provide a maximum heat flux of about 9.0 MW/m2, delivered by two direct current power supplies connected in parallel. More than 40 tests were conducted at three different mass fluxes of 1,500, 2,000, and 2,500 kg/m2sec while the fluid outlet temperature was limited not to exceed the saturation temperature at 0.1 MPa. The experimental results show that the CHF could be enhanced by as much as 45%. Additionally, surface inspection using Scanning Electron Microscopy reveals that the surface morphology of the test heater has been altered during the nanofluid boiling, which, in turn, provides valuable clues for explaining the CHF enhancement.


2015 ◽  
Vol 273 ◽  
pp. 216-222 ◽  
Author(s):  
Yangyang Fu ◽  
Song Lu ◽  
Kaiyuan Li ◽  
Changchen Liu ◽  
Xudong Cheng ◽  
...  

2021 ◽  
Vol 44 ◽  
pp. 103274
Author(s):  
Jan Kleiner ◽  
Alexander Heider ◽  
Lidiya Komsiyska ◽  
Gordon Elger ◽  
Christian Endisch

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