• 4, 1st Cross St, RA Puram, Govindaswamy Nagar, Raja Annamalai Puram, Chennai, Tamil Nadu 600028.
  • mgmt@panoleoenergy.com

Research Excellence

  • Home
  • Research Excellence

Pan Oleo Research team and sophisticated labs spearhead breakthrough developments in:

  • BIODIESEL

    Biodiesel is a renewable, biodegradable fuel produced from organic matter (plants, animals, or waste).

    • Renewable and sustainable: Derived from renewable resources.
    • Low greenhouse gas emissions: 50-86% reduction in CO2 emissions.
    • Energy independence: Reduces reliance on imported fossil fuels.
    • Improved air quality: Lower particulate matter, NOx, and SOx emissions.
  • ALGAE BASED BIOFUELS

    Algae-based biofuels are renewable, sustainable fuels produced from algae biomass, offering a low-carbon alternative to traditional fossil fuels.

    • Low Greenhouse Gas Emissions: 50-90% reduction in CO2 emissions.
    • Renewable and Sustainable: Rapid algae growth rates.
    • Non-Competitive with Food Crops: Utilizes wastewater, saline water, or marginal lands.
    • High Oil Content: Algae can contain up to 80% oil.
  • GREEN HYDROGEN ADVANCED RESEARCH
    • Hydrogen Production: Efficient electrolysis technologies using renewable energy.
    • Hydrogen Storage: Advanced materials for safe, compact, and cost-effective storage.
    • Fuel Cell Development: Improved fuel cell designs for transportation and stationary applications.
    • System Integration: Optimizing green hydrogen production, storage, and utilization.
  • ADVANCED CATALYTIC SYSTEMS

    Advanced Catalytic Systems (ACS) are innovative materials and technologies that enhance chemical reactions, improving efficiency, selectivity, and sustainability

    • Nano catalysts: Nanoparticle-based catalysts with enhanced surface area and reactivity.
    • Bimetallic Catalysts: Combining two metals for improved catalytic properties.
    • Metal-Organic Frameworks (MOFs): Hybrid materials for catalysis and separation.
  • SUSTAINABLE AVIATION FUEL (SAF)

    Sustainable Aviation Fuel (SAF) is a clean, renewable fuel source for air travel, reducing greenhouse gas emissions and environmental impact.

    • Reduced emissions: 50-80% less greenhouse gas emissions compared to traditional fossil fuels.
    • Renewable: Produced from sustainable feedstocks like waste biomass, algae, or agricultural waste.
    • Low carbon footprint: Compliant with international carbon reduction targets.
    • Energy independence: Decreases reliance on imported fossil fuels.
  • GREEN METHANOL SYNTHESIS

    Green Methanol Synthesis involves producing methanol through sustainable, low-carbon methods, reducing greenhouse gas emissions and environmental impact.

    • Low Carbon Footprint: Reduced greenhouse gas emissions (up to 90%).
    • Renewable Energy Storage: Methanol can store excess renewable energy.
    • Energy Independence: Decreases reliance on fossil fuels.
  • HYDROGENATED VEGETABLE OIL (HVO)

    Hydrogenated Vegetable Oil (HVO) is a renewable, paraffinic diesel fuel produced from waste biomass or vegetable oils.

    • Renewable and sustainable: Derived from waste biomass or renewable resources.
    • Low greenhouse gas emissions: 50-90% reduction in CO2 emissions.
    • Compatibility: Direct replacement for fossil diesel fuel.
  • DIMETHYL ETHER

    Dimethyl Ether (DME) is a clean-burning, renewable fuel and versatile chemical intermediate.

    • Renewable and sustainable: Derived from renewable resources.
    • Low greenhouse gas emissions: 50-90% reduction in CO2 emissions.
    • Energy independence: Decreases reliance on imported fossil fuels.
  • OTHER NEXT-GEN RENEWABLE FUELS
    • Reduced greenhouse gas emissions.
    • Improved air quality.
    • Energy independence.
    • Renewable energy storage.
    • Economic benefits.

Statistics Section:

  • "20+ groundbreaking research projects in progress"
  • "Targeting a daily green hydrogen production capacity of 100 tons by 2035"
  • "2 advanced research facilities across India"

Pan Oleo Research Innovation Metrics :

  • Pan Oleo Energy’s Patented Technologies
  • Substantial advancement in Carbon Reduction Achievement
  • More than a decade of Research Excellence
  • Global Research Network

Research Program

Pan Oleo Green Hydrogen Research Program

Broad Description

Green hydrogen is produced using renewable energy to power water electrolysis, splitting water into hydrogen and oxygen without emitting carbon dioxide. It is a versatile energy carrier with applications in industry, transportation, and energy storage.

Pan Oleo Hydrogen Research Objectives

  • Develop cost-efficient electrolyzers to scale up hydrogen production
  • Integrate renewable energy sources (solar and wind) with hydrogen production systems.
  • Improve storage and transport solutions for green hydrogen, focusing on liquefaction and ammonia conversion.
  • Evaluate industrial applications of green hydrogen in steelmaking, ammonia production, and fuel cells.

Pan Oleo Research Expected Outcomes

  • Reduce hydrogen production costs to below $2/kg by 2030
  • Enable the decarbonization of hard-to-abate industries.
  • Establish pilot projects for hydrogen-powered transport systems.

Pan Oleo Hydrogen Research Focus Areas

  • 1. Electrolyzer Technology:
    • Develop advanced Proton Exchange Membrane (PEM) and Solid Oxide Electrolyzers for higher efficiency
    • Research durable, low-cost catalysts for reduced production costs.
  • 2. Renewable Integration:
    • Optimize power-to-gas systems to enhance synergy with renewable energy grids.
  • 3. Storage and Transport:
    • Investigate hydrogen liquefaction and metal hydrides for compact storage.
    • Explore ammonia as a carrier for long-distance hydrogen transport.

Pan Oleo Sustainable Aviation Fuel (SAF) Research Program

Broad Description

SAF is a renewable jet fuel derived from sustainable feedstocks such as waste oils, agricultural residues, and non-edible crops. It offers a significant reduction greenhouse gas emissions compared to traditional jet fuel.

Pan Oleo SAF Research Objectives

  • Optimize production pathways for SAF, including Hydroprocessed Esters and Fatty Acids (HEFA), Fischer-Tropsch synthesis, and alcohol-to-jet processes.
  • Develop cost-effective feedstock supply chains.
  • Enhance SAF blending compatibility and performance for commercial aviation.

Pan Oleo SAF Expected Outcomes

  • Achieve SAF production costs competitive with traditional jet fuel.
  • Enable commercial flights with 100% SAF by 2035
  • Foster collaborations with airlines for large-scale SAF adoption.

Pan Oleo SAF Research Focus Areas

  • 1. Feedstock Utilization:
    • Evaluate waste oils, algae, and lignocellulosic biomass as sustainable feedstocks.
    • Research on novel feedstocks like CO₂ and renewable hydrogen.
  • 2. Process Development:
    • Improve HEFA and Fischer-Tropsch pathways for higher yields and reduced costs.
    • Explore catalytic and biotechnological methods for alcohol-to-jet conversion.
  • 3. Storage and Transport:
    • Conduct life-cycle analysis to measure carbon reductions.

Dimethyl Ether (DME) Research Program

Broad Description

Dimethyl Ether (DME) is a clean fuel alternative to LPG and diesel, offering near-zero particulate emissions when combusted. It can be synthesized from renewable feedstocks such as methanol, biomass, and captured CO₂.

Pan Oleo DME Research Objectives

  • Develop efficient processes for DME production from renewable sources
  • Explore DME's compatibility as a diesel substitute in transportation.
  • Investigate DME applications in industrial and domestic heating systems.

Pan Oleo DME Expected Outcomes

  • Establish renewable DME as a cost-effective alternative to LPG.
  • Deploy DME-powered vehicles with retrofitted diesel engines
  • Reduce particulate emissions in industrial and residential heating.

Pan Oleo DME Research Focus Areas

  • 1. Production Pathways:
    • Synthesize DME directly from syngas or via methanol dehydration using renewable feedstocks.
    • Enhance catalysts for higher selectivity and yield.
  • 2. Fuel Applications:
    • Modify internal combustion engines for DME use.
    • Assess DME's potential for hydrogen production via reformation.
  • 3. Storage and Distribution:
    • Develop pressure vessels and pipelines for safe DME transport.