TY  - GEN
N2  - In the future warship power and propulsion systems need to be designed for increased flexibility, in part to sustain the demand of changing load profiles such as those characterised by high ramp-rates of new weapons and sensors intended to support enhanced future warfighting capability. Lithium-ion based battery performance is improving at a prominent pace in the automotive sector, increasing in both energy and power density, thus there is now an opportunity to exploit these characteristics for naval power systems. A common use energy storage system could facilitate benefits such as reduced fuel burn and prime mover running hours by reducing the number of running generator sets. Importantly, the improvement in battery systems, has reached a juncture where the technology could be considered to support directed energy weapons. The feasibility of a Lithium-ion NMC based energy storage system, capable of high discharge rates, to power predicted laser directed energy weapons using time domain simulation is investigated in this paper. Results verify that the simulated system is capable of high rates of fire for extended periods subject to state of charge operating limitations.
AB  - In the future warship power and propulsion systems need to be designed for increased flexibility, in part to sustain the demand of changing load profiles such as those characterised by high ramp-rates of new weapons and sensors intended to support enhanced future warfighting capability. Lithium-ion based battery performance is improving at a prominent pace in the automotive sector, increasing in both energy and power density, thus there is now an opportunity to exploit these characteristics for naval power systems. A common use energy storage system could facilitate benefits such as reduced fuel burn and prime mover running hours by reducing the number of running generator sets. Importantly, the improvement in battery systems, has reached a juncture where the technology could be considered to support directed energy weapons. The feasibility of a Lithium-ion NMC based energy storage system, capable of high discharge rates, to power predicted laser directed energy weapons using time domain simulation is investigated in this paper. Results verify that the simulated system is capable of high rates of fire for extended periods subject to state of charge operating limitations.
AD  - University College London, Department of Mechanical Engineering, London, UK
AD  - University College London, Department of Mechanical Engineering, London, UK
T1  - Assessing battery energy storage for integration with hybrid propulsion and high energy weapons
DA  - 2019-07-03
AU  - Farrier, L
AU  - Bucknall, R
L1  - https://library.imarest.org/record/7549/files/EAAW%20VIII%20Paper%20003%20Farrier%20Final%20P.pdf
JF  - Conference Proceedings of EAAW
VL  - EAAW VIII
PY  - 2019-07-03
ID  - 7549
L4  - https://library.imarest.org/record/7549/files/EAAW%20VIII%20Paper%20003%20Farrier%20Final%20P.pdf
KW  - Battery energy storage
KW  - high-energy lasers
KW  - hybrid propulsion
TI  - Assessing battery energy storage for integration with hybrid propulsion and high energy weapons
Y1  - 2019-07-03
L2  - https://library.imarest.org/record/7549/files/EAAW%20VIII%20Paper%20003%20Farrier%20Final%20P.pdf
LK  - https://www.imarest.org/eaaw
LK  - https://library.imarest.org/record/7549/files/EAAW%20VIII%20Paper%20003%20Farrier%20Final%20P.pdf
UR  - https://www.imarest.org/eaaw
UR  - https://library.imarest.org/record/7549/files/EAAW%20VIII%20Paper%20003%20Farrier%20Final%20P.pdf
ER  -