Feedstock Pretreatment
Explore sorting, screening, shredding, mixing, contaminant removal and conditioning processes used to prepare suitable organic resources for downstream treatment.
ExploreFrom organic resources to renewable energy, fuels and valuable co-products.
Discover how organic waste, agricultural resources and existing biogas streams can be converted into useful energy and products through different technologies.
Explore technologiesAssess your feedstockExplore resource preparation, conversion and downstream technology options.
Alternative routes, not simultaneous outputs. Existing biogas bypasses digestion; dry biomass follows a separate thermal route. Biochar is not an anaerobic-digestion output.
Explore sorting, screening, shredding, mixing, contaminant removal and conditioning processes used to prepare suitable organic resources for downstream treatment.
ExploreAnaerobic digestion uses microbial processes in oxygen-free conditions to break down biodegradable organic material, producing biogas and digestate.
ExploreExplore biomass characteristics, preparation requirements and conversion pathways for producing heat, electricity, fuels and other materials.
ExploreGas cleaning helps manage contaminants such as moisture, hydrogen sulfide and other constituents that may affect downstream equipment and gas quality.
ExploreCompare internal sulphide control, reactive media and scrubbing for biogas, biomethane and CO₂ recovery. Scope treatment against gas conditions and end-use specifications.
ExploreBiogas upgrading separates methane from carbon dioxide and other constituents to produce biomethane that may meet relevant product or network specifications.
ExploreUnderstand the technologies and infrastructure associated with biomethane production, quality verification, compression, delivery and use.
ExploreExplore cryogenic liquefaction, gas pretreatment, thermal management, storage and distribution requirements for BioLNG production.
ExploreUnderstand the complete BioLNG production pathway, including upgrading, liquefaction, storage, road transport and potential end-use applications.
ExploreExplore how biogas, biomethane, BioLNG and hydrogen pathways connect to resource availability, equipment requirements and potential markets.
ExploreLearn how different biological and thermochemical conversion routes can contribute to renewable gas production.
ExploreUnderstand biohydrogen production concepts, available technologies, feedstock dependencies and the importance of lifecycle emissions assessment.
ExploreExplore the differences between hydrogen production technologies, their energy inputs, conditioning requirements and potential applications.
ExploreExplore reforming, purification, process energy, carbon dioxide management and the commercial factors relevant to hydrogen production from biomethane.
ExploreCHP systems produce electricity and potentially useful thermal energy from fuel conversion, subject to technical configuration and heat-demand requirements.
ExploreExplore renewable heat applications, including industrial process heat, hot water, thermal networks and site-specific energy integration.
ExploreDiscover biomass boiler systems, combustion equipment, fuel handling, moisture requirements, emissions controls and industrial heat applications.
ExploreExplore gas separation, purification, drying, compression and product-quality requirements for selected CO₂ markets.
ExploreExplore digestate separation, storage, treatment, nutrient management and possible beneficial-use pathways, subject to appropriate quality and regulatory requirements.
ExploreExplore combustion, gasification, pyrolysis and related processes, including their differing operating conditions, feedstock requirements and output characteristics.
ExploreLearn about biofuel production routes, processing requirements, fuel specifications, end-use applications and commercial considerations.
ExploreA technology can be technically possible without being commercially suitable. Start with preliminary route screening.
Generate my technology pathwayBioenergy technologies convert organic resources into fuels, energy and useful materials. Suitable manure and food residues may support anaerobic digestion, while clean dry biomass may suit thermal conversion. Technology selection depends on resource quality, desired products, local infrastructure and demand. No single technology is best for every Australian project.
Confirm collectable volume, consistency, moisture, composition and contamination.
Match quality and delivery conditions to an actual energy user or potential buyer.
Check storage, transport, gas and electricity connections and useful heat demand.
Review equipment maturity, maintainability and operating evidence.
Assess capital, operations, logistics and commercial arrangements separately.
Confirm planning, waste handling, emissions, gas quality and safety requirements.
Registry records are not proof of current operation or available supply.
Explore the full mapMajor categories include anaerobic digestion, biogas cleaning and upgrading, biomass combustion, combined heat and power, thermochemical conversion, gas liquefaction and renewable gas conversion. Additional systems may recover carbon dioxide and nutrients.
Biogas is a gas mixture produced when biodegradable material breaks down without oxygen. Biomethane is a methane-rich gas made by upgrading and conditioning biogas to the specification required for its intended use.
Anaerobic digestion is a common pathway for suitable collected manure. Its biogas may support heat, electricity or biomethane production. Collection systems, composition, available quantities and local demand determine the appropriate configuration.
Suitable biodegradable food waste may support anaerobic digestion. Packaging contamination, pretreatment, feedstock quality and biological stability need assessment before production is estimated.
BioLNG requires biomethane of suitable quality, additional conditioning and cryogenic liquefaction, together with appropriate storage and transport systems.
Biogas may be upgraded to biomethane and converted into hydrogen through suitable reforming processes. Purification, process energy and carbon management must be assessed for the actual configuration.
A resource can support alternative routes and genuine co-products. The same energy or material must not be counted twice. Hydrogen, BioLNG and CHP are not automatically simultaneous outputs.
Start with your resource, available quantity, location and desired outputs. Shelby tools provide indicative screening for Sydney, NSW and across Australia. Detailed engineering, regulatory and commercial validation are required before development.
References support general principles. They do not validate specific Shelby model outputs, site viability or projected revenue. Plant images are illustrative, not evidence of operating projects.
Explore your resources, understand technologies that may apply and identify pathways worth assessing.
Generate my bioenergy pathwayExplore productsFree to explore. Your workspace is private by default. Public network participation is optional, requires your consent and is subject to Shelby review.