The Military Perspective on Power & Energy

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The Military Perspective on Power & Energy Kevin Pointon & Robert Reeve Defence Science & Technology Laboratory

Dstl s Role in MoD An agency of MoD Dstl provides technical advice on research programme formulation monitoring, assessment and integration of knowledge Dstl provides services & connectivity research that must be within government access to external information sources Dstl assists in S&T management process helping to set strategic direction provision of S&T knowledge management services

Dstl Power Sources Function Largely advice based technology watch programme monitoring assessment Focus on electrical power sources e.g. fuel cells, batteries, etc International partnership US, Canada, Germany, etc Current research carbon-air battery (with St Andrews University) borohydride fuel cell (US Office of Naval Research) submarine power system modelling energy harvesting 250W sodium borohydride fuel cell stack, developed for underwater application Carbon-air cell

MoD Operational Context Joint operations Expeditionary operations Extreme conditions Joint warfighting puts a premium on interoperability. Here a UK Tornado refuels from a US KC-10 tanker. Remote theatres of operation mean there s no power supply power sources must be carried (left). Delivery deep into the battlespace is costly and hazardous (right). Military kit must be able to tolerate hot & dusty conditions e.g. Iraq (left). The Afghanistan mountains present a different challenge (right)

Top Level Requirements Power and energy sources are a means to an end... Variant of Future Rapid Effects system. Hybrid electric drives are an option for the future Mobility Information superiority Electrical power Survivability Lethality Electric armour test against rocket propelled grenades Zephyr high altitude long endurance unmanned air vehicle... they enable defence capabilities 90mm electromagnetic gun test firing

Energy Sources (1) For large energy demand mainstream applications, liquid hydrocarbon fuels are mandated MoD is not a large user of fuel (relatively speaking) cannot lead on future fuels Door is partially open for synthetic fuels Operability on NATO single fuel is required for ground based equipment Royal Navy requires high flashpoint fuels such as F-76 UK defence standard for jet fuel allows for blending synthetic fuels up to 50% Thermal stability required for fast jet application with higher flashpoint jet fuel variants for carrier borne aircraft

Energy Sources (2) For niche applications or where overall energy requirement is relatively low, unusual energy sources are possible Batteries used extensively platform energy storage dismounted application Packaged fuels such as methanol could be acceptable conceptually similar to batteries similar logistics issues could be used in dismounted applications No other option provides the endurance of a nuclear reactor for submarine power

Power Source Requirements Power source requirements are complex and peculiar to the application Generally power source will be mobile located on weight and/or space-constrained platform portable transportable Frequent themes longer endurance higher power lower weight/volume higher efficiency safer, more reliable, rugged low maintenance stealth integration Pushing the limits of energy storage density and power density Lower through life and logistics costs Benefits of more-electric and all-electric platforms Desire to reduce fuel usage

Case Study the Dismounted Soldier Heavy physical load Up to 25% of overall weight carried can be batteries Electrical demand communications navigation targeting sensing Main current usage is primary AA cells and larger rechargeable batteries The dismounted soldier shoulders a heavy burden

Future Soldier Technology Near term potential loads personal role radio (data) radio GPS, navigation system, situational awareness computer image intensifying sight thermal sight & head-up display Medium term chemical/biological agent sensors Long term possibilities micro-climate control systems exoskeletons energy weapons Power (W) 100 10 1 0.1 WW1 WW2 Now Soon MoD is currently militarising and optimising for UK requirements a reformed methanol fuel cell for evaluation as a potential central power source for soldier kit

Energy Systems/Materials Requirements Increased energy density secondary batteries new chemistries, improved safety, etc Fuel cells operable on military fuels e.g. sulphur-tolerant materials durable catalysts direct oxidation materials More rugged power sources e.g. air contaminant tolerance Improved energy harvesting materials e.g. higher ZT thermoelectrics Multifunctional materials e.g. stiff and light electrode materials

MoD Initiatives/Opportunities Centre for Defence Enterprise gateway for disruptive/innovative proposals Defence Technology Centres MoD/academia/industry partnerships SEAS DTC has a power strand Counter-Terrorism Centre open to new partnerships Joint Academic Research Defence Programme joint MoD/research council funding Dstl good first point of contact Equipment programme contracts www.science.mod.uk www.ctcentre.mod.uk www.contracts.mod.uk High Impact Rapid Implementation Demonstrator Programme (HIRID) high risk, high payoff technologies portable power is one of the pilot themes