Journal of Spacecraft and Rockets · 2015 · 22 citations · 4 references
EngineeringNano-opticsNm Polystyrene NanoparticlesOptical PropertiesPlasmonic Space PropulsionSolar LightNanophotonicsPlasmonic MaterialPhysicsNanotechnologyPropulsionPlasmonicsAerospace EngineeringNanomaterialsApplied PhysicsOptical TrappingNanofabricationSelf-propulsionAerospace PropulsionSpace Engineering
Plasmonic space propulsion uses solar light focused onto deep-subwavelength nanostructures to excite strong optical forces that accelerate and expel nanoparticle propellant. Simulations predict that light within the solar spectrum can excite asymmetric nanostructures to create plasmonic forces that will accelerate and expel nanoparticles. A peak force of is predicted for a 50-nm-wide, 400-nm-long nanostructure that resonates at 500 nm. Results for a conceptual design of a plasmonic thruster that has 35 layers, 86 array columns, a multistage length of 5 mm, a 5-cm-diam light focusing lens, and uses 100 nm polystyrene nanoparticles expelled at a rate of per second would have a thrust of 250 nN, specific impulse of 10 s, and minimum impulse bit of .
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Plasmonics for extreme light concentration and manipulation
Jon A. Schuller, Edward S. Barnard, Wenshan Cai et al. · Nature Materials · 2010 · 4.3K citations
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Mathieu L. Juan, Maurizio Righini, Romain Quidant · Nature Photonics · 2011 · 1.4K citations
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Xiaodong Yang, Yongmin Liu, Rupert F. Oulton et al. · Nano Letters · 2011 · 222 citations
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Optical forces in twisted split-ring-resonator dimer stereometamaterials
Chaojun Tang, Qiugu Wang, Fanxin Liu et al. · Optics Express · 2013 · 16 citations · Full text