Li-CF x /MnO 2 Hybrid D-cell with Wide Operating Temperature Range for Military Batteries

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Transcription:

www.ultralifecorp.com Li-CF x /MnO 2 Hybrid D-cell with Wide Operating Temperature Range for Military Batteries Xinrong (Ron) Wang and David Modeen

Outline Introduction Objective Design of Li-CF x /MnO 2 Hybrid Chemistry Phase I D-Cell Performance Phase II D-cell Performance Summary Acknowledgement 2 315-359-6213; rwang@ulbi.com

Introduction Design, Manufacture, Install & Maintain Power and Communications Systems Battery & Energy Products Communications Systems Government, Defense & Commercial Markets Ultralife Batteries, ABLE McDowell, RedBlack, AMTI Headquarters in Newark, NY Sales & Operations in US, Europe and Asia 3 315-359-6213; rwang@ulbi.com

Objective Develop Li-CF x /MnO 2 Hybrid D-cells into Different Formats of Military Batteries Goal: 1) High Capacity 2) High Power 3) Light Weight (High Energy Density) 4) Wide Operating Temperature Range 5) Long Shelf Life 6) Cost Effective 7) Safe (Robust) 4 315-359-6213; rwang@ulbi.com

Objective D-cell in BAXX90 Battery BA5590: 200 Wh, 2.2 lbs, Li-SO 2 BA5390: 300 Wh, 2.9 lbs, Li-MnO 2 Target: 1) 400 Wh, 2.2 lbs in same footprint 2) 200 Wh, 1.1 lbs in half size 400 Wh/kg 5 315-359-6213; rwang@ulbi.com

Chemistry Comparison Comparison of D-cells with Different Chemistries Lithium Cathode Chemistry System Theoretical specific capacity (mah/g) Safety Concern Specific power (W/kg) 2A Discharge Capacity (Ah) Voltage Delay CF x 864 Safe ~15 15.5; 16.8 Yes Cost Very High SOCl 2 480 Yes 140 7.0 Yes Medium SO 2 418 Yes 680 7.5 Yes Low MnO 2 308 Safe 300 10.5, 13 No Low CF x /MnO 2 308~864 Safe 15~300 15 No Medium 6 315-359-6213; rwang@ulbi.com

Design of Li-CF x / MnO 2 Hybrid Chemistry Hybrid Advantages Flexibility of cell design Lower self-discharge rate Higher energy density 7 315-359-6213; rwang@ulbi.com Lower overall thermal signature Without voltage delay at LT Relatively low cost

Design Considerations 1) D-cell (34605) 2) Anode limited design 3) Cathode hybrid structure of CF x and MnO 2 4) Thermal shutdown separator 5) Common components of UBI existing Li-MnO 2 production D-cell 8 315-359-6213; rwang@ulbi.com

Phase I Li-CF x /MnO 2 Hybrid D-cell Goal was: Operating T range: -30 o C to +55 o C 1) Different anode 2) Different cathode with hybrid mixture of CF x and MnO 2 3) All other parts as same as existing Ultralife Li-MnO 2 D-cell Shutdown separator Electrolyte Cell enclosure 9 315-359-6213; rwang@ulbi.com

Phase I D-Cell Performance Phase I Li-CF x /MnO 2 hybrid D-cell discharge under 250mA constant current at 23 o C, 55 o C, -10 o C and -30 o C Capacity to 2V cutoff 23 o C: 16.06 Ah 55 o C: 15.89 Ah -10 o C: 15.11 Ah -30 o C: 11.30 Ah Li-MnO 2 : 23 o C: 11.20 Ah -30 o C: 5.90 Ah 10 315-359-6213; rwang@ulbi.com

Phase I D-Cell Performance Phase I Li-CF x /MnO 2 hybrid D-cell discharge under 2 A constant current at 23 o C, 55 o C, -10 o C and -30 o C Capacity to 2V cutoff 23 o C: 15.50 Ah 55 o C: 15.20 Ah -10 o C: 13.23 Ah -30 o C: 1.85 Ah Li-MnO 2 : 23 o C: 10.51 Ah -30 o C: 2.63 Ah 11 315-359-6213; rwang@ulbi.com

Phase I D-Cell Safety Performance No Name Description Result 1 UNTR-T1 Altitude Pass 2 UNTR-T2 Thermal Test Pass 3 UNTR-T3 Vibration Pass 4 UNTR-T4 Shock Pass 5 UNTR-T5 External Short Circuit Pass 6 UNTR-T6 Impact Pass 7 UNTR-T8 Forced Discharge Pass 8 UL Crush Pass 9 SAR Nail Penetration Pass 12 315-359-6213; rwang@ulbi.com

Phase II Li-CF x /MnO 2 Hybrid D-cell Goal was: Operating T range: -40 o C to +100 o C Worked on engineering for 1) Anode 2) Cathode using hybrid mixture of CF x and MnO 2 with different particle size 3) Electrolyte 4) Separator 13 315-359-6213; rwang@ulbi.com

Phase II D-Cell Performance Phase II Li-CF x /MnO 2 hybrid D-cell discharge under 250mA constant current at 72 o C, 55 o C, 23 o C, -10 o C, -30 o C and -40 o C Capacity to 2V cutoff 23 o C: 16.05 Ah 55 o C: 15.57 Ah 72 o C: 15.67 Ah -10 o C: 15.13 Ah -30 o C: 12.16 Ah -40 o C: 8.15 Ah 14 315-359-6213; rwang@ulbi.com

Phase II D-Cell Performance Phase II Li-CF x /MnO 2 hybrid D-cell discharge under 2 A constant current at 72 o C, 55 o C, 23 o C, -10 o C, -30 o C and -40 o C Capacity to 2V cutoff 23 o C: 15.13 Ah 55 o C: 15.36 Ah 72 o C: 12.66 Ah -10 o C: 13.66 Ah -30 o C: 9.80 Ah -40 o C: 0.59 Ah 15 315-359-6213; rwang@ulbi.com

Phase II D-Cell Performance Phase II Li-CF x /MnO 2 hybrid D-cell discharge under 250mA constant current at 95 o C 2V Cutoff Capacity: 14.92 Ah Energy: 43.59 Wh Max. Skin T: 96.8 o C 16 315-359-6213; rwang@ulbi.com

Phase II D-Cell Safety Performance No Name Description Result 1 UNTR-T1 Altitude Pass 2 UNTR-T2 Thermal Test Pass 3 UNTR-T3 Vibration Pass 4 UNTR-T4 Shock Pass 5 UNTR-T5 External Short Circuit Pass 6 UNTR-T6 Impact Pass 7 UNTR-T8 Forced Discharge Pass 8 UL Crush Pass 9 SAR Nail Penetration Pass 17 315-359-6213; rwang@ulbi.com

Acceleration Testing for Shelf Life Li-CF x /MnO 2 hybrid D-cells (Phase I) discharge 250 ma after storage 50 days or 100 days at different acceleration temperatures Equivalent storage terms at 23 o C by that at acceleration temperatures Capacity to 2V cutoff (Ah) Percentage of capacity remain Self-discharge rate 100 days at 23 o C 15.44 100% 0 5 years at 23 o C 15.32 99% 0.4%/year 10 years at 23 o C 14.45 94% 0.6%/year 20 years at 23 o C 14.15 92% 0.4%/year Initial Shelf Life Testing 92% of capacity remains for 20 years by acceleration testing 18 315-359-6213; rwang@ulbi.com

Summary Li-CF x /MnO 2 Hybrid D-cell 15 Ah under 2A constant discharge for both Phase I & Phase II Specific energy density increases 47% more than Li-MnO 2 D-cell Pass UNTR and other SAR tests for both Phase I & Phase II Phase I has operating temperature range from -30 o C to 55 o C Phase II has operating temperature range from -40 o C to 72 o C Initial shelf life tests indicate up to 20 years with 92% capacity remain Ready to be used for different formats of military batteries, such as xx47, half size xx90, full size xx90 and large size xx90, some in progress 19 315-359-6213; rwang@ulbi.com

Acknowledgement Li-CF x /MnO 2 Hybrid D-cell Development Is Also Under Support of Contract W15P7T-05-D-C002/002 With US Army CERDEC Special Thanks to Mr. Michael Brundage & Mr. Chris Hurley of US Army RDECOM 20 315-359-6213; rwang@ulbi.com

Thank You for Your Attention