Maximizing biogas yield through scientific feedstock analysis and advanced processing techniques
Explore Feedstock OptionsFeedstock selection directly impacts biogas yield, plant efficiency, and economic viability of Bio-CNG projects
The carbon-to-nitrogen ratio, moisture content, and organic matter determine methane potential
Different feedstocks produce varying amounts of methane per ton of material
Feedstock characteristics affect digestion speed and process stability
Availability, transportation costs, and pre-processing requirements impact project ROI
Comprehensive evaluation of common feedstock types for Bio-CNG production
Cattle, Poultry, Swine
Rich in nitrogen with balanced nutrients. Requires co-digestion for optimal biogas production.
Rice Straw, Corn Stover, Bagasse
High cellulose content requires pre-treatment. Excellent for co-digestion with nitrogen-rich materials.
Municipal, Commercial, Industrial
High biogas potential but requires careful management to avoid process inhibition.
Napier Grass, Sweet Sorghum
Specially grown for biogas production with high yield potential and consistent composition.
Critical parameters affecting anaerobic digestion efficiency
Optimal range: 20-30:1. Low C/N causes ammonia toxicity, high C/N slows digestion.
Ideal range: 80-90% for wet digestion. Affects microbial activity and mixing efficiency.
Percentage of organic matter. Higher VS content increases biogas potential.
Optimal range: 6.8-7.4. Extreme pH inhibits microbial activity and methane production.
Ammonia, heavy metals, and cleaning chemicals can inhibit the digestion process.
Transforming waste challenges into energy opportunities
Global municipal solid waste generated annually
Annual waste generated in India (2023)
Organic content in Indian municipal waste
Potential waste for biogas production
India generates approximately 62 million tons of waste annually, with organic waste constituting 75% of municipal solid waste. Currently, only about 22% of this waste is processed through composting or waste-to-energy facilities, while the majority ends up in landfills, causing environmental pollution and methane emissions.
The Government of India has set ambitious targets under the Solid Waste Management Rules, 2016 and the SATAT scheme to establish 5,000 Bio-CNG plants by 2025, creating significant opportunities for waste-to-energy conversion.
Shreeja Bio-Tech's optimized pathway from feedstock to clean energy
Sourcing from agriculture, industry, and municipalities
Shredding, sorting, and slurry preparation
CSTR digesters at optimal conditions
Semi-cryogenic upgradation to 98% methane
Compression and storage for distribution
Proprietary techniques for maximizing biogas yield from energy crops
In-house facility for comprehensive feedstock characterization
Screwpress technology for efficient feedstock preparation
Optimal blend ratios for mixed feedstock digestion
Successful projects with palm oil effluent in Malaysia
MNRE-approved technologies and funding assistance