Lukumba PhiriSimon TemboLukumba PhiriLukumba PhiriS AleemS HussainT UstunT UstunS AyyubiT UstunS FarooqS HussainZ FanP KulkarniS GormusC EfthymiouG KalogridisM SooriyabandaraW ChinA AbdullahT HassanT AtmajaD AndrianiR DarussalamD FaquirN ChouliarasV SofiaK OlgaL MaglarasX FangS MisraG XueD YangM ShafiullahA RefatM HaqueD ChowdhuryM HossainA Alharbi. HossainSY LiuP NingM ReiterG ChaojunP JirutitijaroenM MotaniX LiuZ LiG LiangJ ZhaoF LuoS WellerZ DongL LiuM EsmalifalakQ DingV EmesihZ HanK ManandharX CaoF HuY LiuM CuiM KhodayarC ChenX WangY ZhangM KhodayarY LinJ WangY HeG MendisJ WeiS ForoutanF SalmasiM OzayI EsnaolaF YarmanS VuralH KulkarniPoorJ JamesY HouV LiY LiC YangY SunJ De La ReeV CentenoJ ThorpA PhadkeA MonticelliG KarvelisG KorresO DarmisR DengG XiaoR LuH LiangA VasilakosK HeX ZhangS RenJ SunR ZimmermanC Murillo-SnchezR ThomasS WangS BiY ZhangR MoslemiA MesbahiJ VelniH SedghiE JonckheereS BiY ZhangG KeQ MengT FinleyT WangW ChenW MaT Liu
In essence, smart grids are electrical networks that transmit and distribute electricity in a reliable, effective manner using information and communication technology (ICT). Trust and security are of the utmost importance. False data injection (FDI) attacks are one of the most serious new security problems, and they can drastically raise the price of the energy distribution process. However, rather than smart grid infrastructures, the majority of current research focuses on FDI defenses for conventional electricity networks. By utilizing spatial-temporal correlations between grid components, we create an effective and real-time technique to identify FDI attacks in smart grids called a deep learning framework. We show that the suggested method offers an accurate and dependable solution using realistic simulations based on the smart grid compared to the benchmarked techniques.
Po-Yu ChenShusen YangJulie A. McCannJie LinXinyu Yang
Hang YangRuijia CaoHuan PanJiayi Jin
Danda B. RawatChandra Bajracharya