The　catalytic　conversion　of　light　paraffins　into　ethylene　and　propylene　represents　a　highly　efficient　process,　primarily　due　to　their　abundant　availability　and　low　cost.　These　factors　confer　a　significant　economic　advantage,　making　this　approach　an　attractive　option　for　large-scale　industrial　applications.　In　this　work,　we　designed　a　novel　core-shell　structured　bifunctional　catalyst　of　GaZ5-20Si,　which　combined　reaction　pathway　modulation　and　shape-selective　catalysis　to　simultaneously　convert　n-pentane　into　light　olefins　(ethylene,　propylene,　and　butylene)　and　para-xylene　as　dominant　products.　By　coating　an　external　SiO2　layer,　the　external　surface　acid　sites　of　the　zeolite　are　successfully　passivated,　thereby　suppressing　the　aromatic　cycle　and　side　reactions　such　as　alkylation,　which　reduces　catalyst　coke　formation　and　extends　catalyst　life.　The　total　selectivity　for　light　olefins　and　para-xylene　reaches　up　to　63%,　with　para-xylene　selectivity　in　the　xylene　fraction　reaching　as　high　as　93%.　Moreover,　no　significant　decline　in　catalytic　performance　was　observed　in　an　80-hour　reaction-regeneration　cycle　test.　This　work　introduces　an　effective　＂SiO2　coating＂　strategy,　enriching　the　pathways　on　the　valueadded　utilization　of　n-pentane.