Falkner-Skan　aspects　are　revealed　numerically　for　a　non-homogeneous　hybrid　mixture　of　50%　ethylene　glycol-50%　water,　silver　nanomaterials　Ag,　and　molybdenum　disulfide　nanoparticles　MoS2　during　its　motion　over　a　static　wedge　surface　in　a　DarcyForchheimer　porous　medium　by　employing　the　modified　Buongiorno　model.　The　Brownian　and　thermophoresis　mechanisms　are　included　implicitly　along　with　the　thermophysical　properties　of　each　phase　via　the　mixture　theory　and　some　efficient　phenomenological　laws.　The　present　simulation　also　accounts　for　the　impacts　of　nonlinear　radiative　heat　flux,　magnetic　forces,　and　Joule　heating.　Technically,　the　generalized　differential　quadrature　method　and　Newton-Raphson　technique　are　applied　successfully　for　solving　the　resulting　nonlinear　boundary　layer　equations.　In　a　limiting　case,　the　obtained　findings　are　validated　accurately　with　the　existing　literature　outcomes.　The　behaviors　of　velocity,　temperature,　and　nanoparticles　volume　fraction　are　discussed　comprehensively　against　various　governing　parameters.　As　crucial　results,　it　is　revealed　that　the　temperature　is　enhanced　due　to　magnetic　field,　linear　porosity,　radiative　heat　flux,　Brownian　motion,　thermophoresis,　and　Joule　heating　effects.　Also,　it　is　depicted　that　the　hybrid　nanoliquids　present　a　higher　heat　flux　rate　than　the　monotype　nanoliquids　and　liquids　cases.　Moreover,　the　surface　frictional　impact　is　minimized　via　the　linear　porosity　factor.　Furthermore,　the　surface　heat　transfer　rate　receives　a　prominent　improvement　due　to　the　radiative　heat　flux　inclusion.　(c)　2023　The　Authors.　Publishing　services　by　Elsevier　B.V.　on　behalf　of　KeAi　Communications　Co.　Ltd.