Working Towards Protection Guidance for Warehouse Storage Li-ion Batteries



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Transcription:

Working Towards Protection Guidance for Warehouse Storage Li-ion Batteries Benjamin Ditch, FM Global Tom Long, Exponent Inc. SUPDET 2016, March 1 4, San Antonio TX

Experimental Knowledge Timeline Reducedcommodity evaluation 2.6 Ah Phase 2, 2012 Cylindrical Polymer Power tool packs 20 Ah Phase 3, 2015 Polymer Sprinklered fire test 20 Ah Phase 3, 2016 Polymer

Li-Ion Battery Characterization 3

4 Package Description Cardboard box: 17 x13.5 x6.5 Total weight: 27 lb. (including cells) Contents: 20 battery cells White polystyrene crates Polyethylene bubble wraps 13.5 6.5 17

5 Battery Cell Description Lithium-Ion Pouch Cell Dimension: 9 x6 x0.3 Weight: 1.1 lb Capacity: 20 Ah Voltage: 3.3 volts

6 Electrical Characterization Stacked Electrode Design Cell Chemistry: Lithium Iron Phosphate (LiFePO 4 ) As-Received SOC: 49.4% Electrolyte Mass: 0.083 lb

7 Battery Package Mass Summary Cardboard Box, 5.0% Twenty (20) Battery Cells including Electrolyte, 80.5% Packing Material (Bubble Wrap), 0.1% Ten (10) White Battery Crates, 14.3% Content per One Package 20 Battery Cells (including Electrolyte) Weight 21.7 lb (80.5%) 10 White Battery Crates 3.9 lb (14.3%) Cardboard Parking Material Electrolyte Total Weight 1.4 lb (5.0%) 0.04 lb (0.1%) 1.7 lb (6.2%) 27.0 lb

Task 1 Completed: July, 2015 REDUCED-COMMODITY TEST

Reduced-Commodity Test: Design Cartoned Li-ion Batteries Storage height: 15 ft Protection: none Freeburn Commodity: 5 ft 4 full pallet loads 4,480 batteries 1.1 ft Ring burner Non-Combustible Non-Combustible Ignition Propane, 45 kw Ignition flue

Reduced-Commodity Test 30 s 60 s 90 s 120 s

Hazard Comparison

Hazard Comparison

Hazard Comparison

Hazard Comparison

Comparison to Previous Testing Similar fire development Initial growth dominated by cartons Fire size and growth rate similar at sprinkler operation Time of significant battery Involvement Large-format: 90-120 s Small-format: 300 s Higher hazard than small format Li-ion cells

Potential Application of Results Sprinkler protection option established Applied to all cells with a hazard cell used in sprinklered test Cell hazard evaluated in reduced-commodity test Hazard comparison Reduced-commodity test Protection guidance Large-scale test

Task 2 Scheduled: April, 2016 LARGE-SCALE TEST

Large-Scale Test: Schematics CUP CUP CUP CUP CUP CUP Large-scale test conducted with a standard external ignition

Large-Scale Test: Design Storage height: 15 ft (4.6 m) Ceiling height: 40 ft (12.2 m) Sprinkler: K22.4 gpm/psi 1/2 (320 lpm/bar 1/2 ) Response: quick-response, 165 o F (74 o C) Density: 1.3 gpm/ft 1/2 (53 mm/min) Spacing: 10 10 ft (3 x 3 m) Ignition: Offset, under-1 sprinkler Commodity: 24 pallet loads (~27k batteries)

Existing vs. Typical CUP CUP CUP CUP CUP CUP CUP CUP CUP CUP CUP CUP Smaller main array Class 2 Class 2 Class 2 Class 2 Class 2 Class 2 Reduced damage area Minimize target jump CUP target commodity No fire within carton Requires early extinguishment Increased protection Class 2 Class 2

Task 3 Completed: September 2015 INTERNAL IGNITION TEST

Battery-to-Battery Spread How does thermal run away spread from battery to battery? 1) Combustion of chemical energy Battery rupture releases flammable electrolyte Burning electrolyte produces heat 2) Release of electrochemical energy Electrical energy is converted to heat Heat transferred to adjacent batteries Results in Fire Results in Heat

Combustion of Chemical Energy How much air is needed? Electrolyte Air-to-fuel ratio: 7:1 Mass per battery: 34 g Required Air Per Battery Available Air Per Carton 0.2 m 3 0.01 m 3 Not enough air to burn ONE battery Fire must burn outside carton

Electrochemical Heat Film heaters: 650 o F Battery at middle level Battery rupture @ 5 min 2 hour test duration Three batteries ruptured Propagation did not occur

Task 3 In progress: 2015/2016 SUPPRESSION TESTS

What if batteries do become involved? Suppression tests Internal ignition Pilot flame outside carton Water Application Apparatus Water applied when batteries are involved in fire Allows for water application at a later stage of battery involvement than large-scale test 0.3 gpm/ft 2 Pilot flame Front View

Ignition Scenarios 6in. Ignition Carton Aisle Ignition Internal ignition within central carton Flue Ignition

Aisle Ignition Scenario 31:37 50:27 55:27 Pilot Ignition 46:00 Flame spread Start of water application Required external pilot ignition Center pallet load collapsed Fire extinguished Water application delayed 70s 30% of batteries damaged Suppression Final

Summary Large-format Li-ion batteries represent higher hazard than small-format batteries Thus, large-scale results with large-format batteries can be applied to small-format batteries Large-scale fire test scheduled for April, 2016 External ignition should be used for large-scale test Suppression test suggest sprinkler water can extinguish a developed battery fire Conclusion to be finalized at completion of project

Acknowledgements Property Insurance Research Group Fire Protection Research Foundation Property Insurance Research Group C. Mikolajczak, M. Kahn, K. White, R. T. Long Jr., "Lithium-Ion Batteries Hazard and Use Assessment," Fire Protection Research Foundation, June, 2011 B. Ditch and J. de Vries, Flammability Characterization of Li-ion Batteries in Bulk Storage, FM Global Technical Report, 2013 R. T. Long Jr., J. A. Sutula, M. J. Kahn, "Lithium Ion Batteries Hazard and Use Assessment Phase IIB - Flammability Characterization of Li-ion Batteries for Storage Protection, Fire Protection Research Foundation, 2013

Pallet Design 20 cells 20 cells 20 cells 20 cells 20 cells 20 cells 20 cells 20 cells Plan View Front View Cartons as received (no repack) Pallet loads require restacking (42 in. 42 in.)

Current Battery Hazard Knowledge Use and Hazard Assessment (Phase 1) Reduced-commodity test (Phase 2) 2.6 Ah cells (cylindrical, polymer, packs) and standard cartoned commodities Comparison of hazard up to 1 st sprinkler operation Cylindrical and polymer cells similar Power packs equivalent to CUP Applicable to cartoned warehouse storage No protection options directly from battery tests

QR Sprinkler, 10 ft (3 m) Clearance Commodity Link Operation Time (s) Q be (kw) Sprinkler: RTI = 50 ft 1/2 s 1/2, 165 o F : RTI =(28 m 1/2 s 1/2 ), (74 o C) Fire Growth Rate (kw/s) Li-ion, 20 Ah Prismatic Pouch 37 335 33 Li-ion, 2.6 Ah small-format 43 270 20 Class 2 59 209 15 CUP 43 232 16