Catalytic Reforming (CR) is one of the core research areas at Light Stock Processing Division, CSIR-IIP, dedicated to the development of advanced catalytic processes for producing high-octane gasoline and value-added petrochemicals. Its research focusing on the development of advanced catalysts and catalytic processes for the production of emerging fuels and value-added chemicals from both conventional and unconventional feedstocks. Backed by more than three decades of expertise in catalytic reforming, the research group has made significant contributions to refining and petrochemical technologies. The indigenously developed bi-metallic IPR-2001 commercial reforming catalyst is a notable achievement of the group. Demonstrating performance comparable to leading international technologies, the catalyst was successfully commercialized and operated for over a decade in Indian refineries, including IPCL, Baroda and CPCL, Chennai.

The current research in the CR area is centered on advanced material synthesis and catalyst design, with a strong emphasis on developing highly efficient catalytic systems capable of selectively activating light hydrocarbon molecules while maximizing atomic economy. The research team has pioneered the synthesis and functionalization of a wide range of zeolitic materials at CSIR-IIP for applications in naphtha reforming, NTGG process, CO₂ valorization, biomass valorization, alkylation, and other catalytic processes. The group has extensive experience in converting naphtha hydrocarbons into high-value products such as BTX aromatics, gasoline, and LPG. Current research efforts are directed toward upgrading conventional naphtha reforming technologies through the development of next-generation catalysts and the exploration of unconventional feedstocks for the production of BTX-Aromatics, Gasoline, LPG, aviation fuel (SAF) and other advanced transportation fuels. In line with global sustainability goals, the CR area is actively developing advanced catalytic technologies for the valorization of renewable and bio-derived feedstocks, including lignin, glycerol, ethanol, and CO₂, into clean fuels and high-value chemicals. These research activities support the transition toward low-carbon and circular carbon technologies while promoting the efficient utilization of renewable carbon resources.

Several of the developed catalysts and catalytic processes have successfully completed bench-scale validation and are progressing toward pilot-scale demonstration and industrial implementation, reflecting the group’s commitment to translating laboratory innovations into commercially viable technologies.