Covalent　2D　magnets　such　as　Cr2Te3,　which　feature　self-intercalated　magnetic　cations　located　between　monolayers　of　transition-metal　dichalcogenide　material,　offer　a　unique　platform　for　controlling　magnetic　order　and　spin　texture,　enabling　new　potential　applications　for　spintronic　devices.　Here,　it　is　demonstrated　that　the　unconventional　anomalous　Hall　effect　(AHE)　in　Cr2Te3,　characterized　by　additional　humps　and　dips　near　the　coercive　field　in　AHE　hysteresis,　originates　from　an　intrinsic　mechanism　dictated　by　the　self-intercalation.　This　mechanism　is　distinctly　different　from　previously　proposed　mechanisms　such　as　topological　Hall　effect,　or　two-channel　AHE　arising　from　spatial　inhomogeneities.　Crucially,　multiple　Weyl-like　nodes　emerge　in　the　electronic　band　structure　due　to　strong　spin-orbit　coupling,　whose　positions　relative　to　the　Fermi　level　is　sensitively　modulated　by　the　canting　angles　of　the　self-intercalated　Cr　cations.　These　nodes　contribute　strongly　to　the　Berry　curvature　and　AHE　conductivity.　This　component　competes　with　the　contribution　from　bands　that　are　less　affected　by　the　self-intercalation,　resulting　in　a　sign　change　in　AHE　with　temperature　and　the　emergence　of　additional　humps　and　dips.　The　findings　provide　compelling　evidence　for　the　intrinsic　origin　of　the　unconventional　AHE　in　Cr2Te3　and　further　establish　self-intercalation　as　a　control　knob　for　engineering　AHE　in　complex　magnets.