[{"data":1,"prerenderedAt":517},["ShallowReactive",2],{"homepage-hero":3,"homepage-hero-carousel":25,"homepage-pi-highlight":47,"pi":68,"publications-home":94,"homepage-funding":494},{"id":4,"title":5,"body":6,"description":10,"extension":13,"meta":14,"navigation":15,"path":16,"primaryButtonLabel":17,"primaryButtonLink":18,"secondaryButtonLabel":19,"secondaryButtonLink":20,"seo":21,"stem":22,"subtitle":23,"__hash__":24},"homepageHero\u002Fhero.md","Pushing the limits of space exploration.",{"type":7,"value":8,"toc":9},"minimark",[],{"title":10,"searchDepth":11,"depth":11,"links":12},"",2,[],"md",{},true,"\u002Fhero","Explore Research","\u002Fresearch","View Publications","\u002Fpublications",{"title":5,"description":10},"hero","At UCLA in Los Angeles, California, we develop innovative technologies from microengineering and nanoscale materials to push the limits of space exploration or address the emerging needs of our time, such as efficient thermal control or alternative computation methods.","Xg5rugBV9ViTFoKn7CptVWTPQgX8EtbcgfElKkBUUdk",{"id":26,"extension":27,"items":28,"meta":44,"stem":45,"__hash__":46},"homepageHeroCarousel\u002Fhero-carousel.yml","yml",[29,32,35,38,41],{"src":30,"alt":31},"\u002Fimages\u002Fresearch\u002Fsolar-sails\u002Fsail-1.webp","Solar sail metasurface concept",{"src":33,"alt":34},"\u002Fimages\u002Fresearch\u002Flaser-ablation-propulsion\u002Fablation-plumes-1.webp","Laser ablation plume",{"src":36,"alt":37},"\u002Fimages\u002Fresearch\u002Fmems-micro-mirror-arrays\u002Fmems-ucla-1.webp","MEMS micro-mirror array",{"src":39,"alt":40},"\u002Fimages\u002Fresearch\u002Fkirigami-actuators\u002Fkirigami-1.webp","Kirigami actuator",{"src":42,"alt":43},"\u002Fimages\u002Fresearch\u002Fmeta-materials\u002Fmetasurface-1.webp","Metasurface design",{},"hero-carousel","J-k2fJKHjbvx2cuX8PUeu3RmvpEkRhuiG3tZJhlKZzw",{"id":48,"title":49,"badge":50,"body":51,"description":56,"extension":13,"meta":59,"navigation":15,"path":60,"seo":61,"stats":62,"stem":66,"__hash__":67},"homepagePi\u002Fpi-highlight.md","Pi Highlight","Principal Investigator",{"type":7,"value":52,"toc":57},[53],[54,55,56],"p",{},"Artur Davoyan is an Associate Professor in the Department of Mechanical and\nAerospace Engineering at UCLA. His group works on micro and nano engineering of\nmaterials and systems for high-energy and high-power applications across space\nexploration, fusion research, and active materials. The lab is pioneering new\nconcepts of in-space propulsion, such as laser ablation, laser sailing, and\npellet beam propulsion, as well as MEMS devices for optical and thermal control.\nHis work has been recognized through NASA NIAC Fellowships and the NASA Early\nCareer Faculty award.",{"title":10,"searchDepth":11,"depth":11,"links":58},[],{},"\u002Fpi-highlight",{"description":56},[63,64,65],"2× NASA NIAC","$1.1M+ Funded Research","Breakthrough Starshot","pi-highlight","ZVTFuKr4PaPyKyZexGLUSEEgDW6NzF18cEmFROlvaAM",{"id":69,"title":70,"body":71,"description":75,"email":78,"extension":13,"formerRole":79,"github":79,"meta":80,"name":81,"navigation":15,"orcid":79,"order":82,"path":83,"photo":84,"research":85,"role":50,"scholar":90,"seo":91,"stem":92,"__hash__":93},"team\u002Fmembers\u002Fartur-davoyan.md","Associate Professor, Mechanical & Aerospace Engineering",{"type":7,"value":72,"toc":76},[73],[54,74,75],{},"Artur Davoyan is an Associate Professor in the Department of Mechanical and Aerospace\nEngineering at UCLA. His group works on micro and nano engineering of materials and systems\nfor high-energy and high-power applications across space exploration, fusion research, and\nactive materials. The lab is pioneering new concepts of in-space propulsion, such as laser\nablation, laser sailing, and pellet beam propulsion, as well as MEMS devices for optical and\nthermal control. Davoyan's work has been recognized through NASA NIAC Fellowships and the\nNASA Early Career Faculty award.",{"title":10,"searchDepth":11,"depth":11,"links":77},[],"davoyan@ucla.edu",null,{},"Artur Davoyan",0,"\u002Fmembers\u002Fartur-davoyan","\u002Fimages\u002Fteam\u002Fphotos\u002Fdavoyan.webp",[86,87,88,89],"Solar Sails","Laser Propulsion","MEMS","Active Materials","https:\u002F\u002Fscholar.google.com\u002Fcitations?user=1aLnrhwAAAAJ&sortby=pubdate",{"title":70,"description":75},"members\u002Fartur-davoyan","W1Agy8oO-_tnSBtgKBuDexR8TnVZU3N8rtXo4VQe4mg",{"id":95,"extension":27,"items":96,"meta":491,"stem":492,"__hash__":493},"publications\u002Fpublications.yml",[97,105,115,125,136,141,146,152,159,164,169,174,178,187,195,199,211,215,221,226,231,238,242,251,260,273,278,286,290,296,300,305,313,317,324,329,340,346,353,358,363,368,373,379,383,387,392,400,407,413,417,422,428,433,438,442,448,453,460,464,469,479,486],{"title":98,"authors":99,"journal":102,"year":103,"tags":104,"featured":15},"Anomalous reflection of sunlight for solar sailing",[100,101],"T. 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Y. Chen","L. Friedman",[86],{"title":325,"authors":326,"journal":327,"year":271,"tags":328},"Fast transit interstellar probe mission with extreme solar sailing",[110],"AIAA SCITECH Forum",[86],{"title":330,"authors":331,"journal":338,"year":271,"tags":339},"Non-nuclear exploration of the solar system study",[332,333,334,335,204,336,337,132],"J. Brophy","S. Pellegrino","P. Lubin","L. Alkalai","A. Biswas","A. Boca","Technical report",[210],{"title":341,"authors":342,"journal":343,"year":344,"tags":345},"Freestanding specular reflective carbon nanotube thin film for solar sailing",[265,110],"Nanoengineering: Fabrication, Properties, Optics, Thin Films, and Devices",2022,[86],{"title":347,"authors":348,"journal":351,"year":344,"tags":352},"Thermoelectric photodetectors for low power and quantum light",[349,110,156,155,350],"A. A. Kuzanyan","S. Harutyunyan","Quantum Communications and Quantum Imaging XX",[114],{"title":354,"authors":355,"journal":356,"year":344,"tags":357},"Deeply subwavelength photonics enabled by high index Van der Waals materials",[128,101],"Metamaterials, Metadevices, and Metasystems",[113,114],{"title":359,"authors":360,"journal":361,"year":344,"tags":362},"Nanophotonics with Van der Waals metastructures",[110],"Active Photonic Platforms",[113,114],{"title":364,"authors":365,"journal":366,"year":344,"tags":367},"Metamaterials for breakthrough space exploration",[101],"Metamaterials, Metadevices, and Metasystems 2022",[86,114],{"title":369,"authors":370,"journal":144,"year":344,"tags":372},"Atomic-void van der Waals channel waveguides",[128,371,101],"J. B. Khurgin",[113,114],{"title":374,"authors":375,"journal":377,"year":344,"tags":378},"The Heliosphere From Top to Bottom: Close Out of the Ecliptic Solar Orbiter Now and Then Beyond the Heliopause",[256,376,183,132],"S. Gibson","White paper for Decadal Survey on Solar and Space Physics",[86],{"title":380,"authors":381,"journal":377,"year":344,"tags":382},"Enabling 4D Mapping of the Inner Corona at High Latitudes and Poles with Extreme Solar Sailing",[110,183,182,181],[86],{"title":384,"authors":385,"journal":258,"year":344,"tags":386},"A fast response mission to rendezvous with an interstellar object",[255,254,110,132],[86],{"title":388,"authors":389,"journal":390,"year":344,"tags":391},"Light control with atomically thin magnets",[128,101],"Nature Photonics",[113,114],{"title":393,"authors":394,"journal":398,"year":344,"tags":399},"Highly accurate, reliable, and non-contaminating two-dimensional material transfer system",[395,396,397,132],"C. Patil","H. Dalir","J. H. Kang","Applied Physics Reviews",[113],{"title":401,"authors":402,"journal":405,"year":344,"tags":406},"Framework for expediting discovery of optimal solutions with blackbox algorithms in non-topology photonic inverse design",[403,404,101],"J. Digani","P. W. C. Hon","ACS Photonics",[114],{"title":408,"authors":409,"journal":411,"year":344,"tags":412},"Light-matter coupling in large-area van der Waals superlattices",[247,246,410,132],"B. 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Shur","Graphene-Based Terahertz Electronics and Plasmonics",[113,114],{"title":480,"authors":481,"journal":477,"year":426,"tags":485},"Active Guiding of Dirac Plasmons in Graphene",[482,101,483,484,475,472],"M. Y. Morozov","I. M. Moiseenko","A. 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