Linked from

The 168 pages that link to Life-cycle assessment, each with the reason it gives.

• Seaweed farmingRelated: Assessments test whether seaweed products deliver net benefits after farming, processing, and transport.

• Sustainable architectureRelated: It compares building choices beyond initial construction, including material production, operation, and disposal.

• Adipic acidRelated: It compares adipic acid’s feedstocks, manufacturing emissions, and downstream material uses.

• Biodegradable plasticRelated: It compares biodegradability benefits with feedstock, manufacturing, transport, and waste-treatment impacts.

• Chemical intermediateRelated: Assessing intermediates and their production reveals impacts hidden beyond the final product.

• Single-use plasticRelated: It compares disposable plastics with alternatives beyond the point of disposal.

• Vegetable oilRelated: It compares impacts from crop cultivation, processing, transport, and disposal.

• BiogeochemistryRelated: Element and material flows inform inventories of emissions, resource use, and environmental burdens.

• Cellulose acetateRelated: It can compare acetate products with alternative fibers, films, and filter materials.

• Material balanceRelated: Material-flow inventories quantify resource use and emissions in an assessment.

• Solar energyRelated: It accounts for manufacturing, installation, operation, and disposal impacts of solar equipment.

• Transport emissionsRelated: It can include vehicle manufacture, energy supply, use, and disposal in emissions comparisons.

• Animal nutritionRelated: It can compare the environmental burdens of alternative feeds and feeding systems.

• Building information modelingRelated: BIM-linked quantities can inform environmental assessments of building materials and systems.

• Carbon mineralizationRelated: Mining, grinding, transport, and injection can offset mineralization's net carbon benefit.

• Electric bicycleRelated: It compares manufacturing and battery impacts with emissions avoided during use.

• EngineeringRelated: It broadens design evaluation beyond manufacture to use, disposal, and material flows.

• Feed conversion ratioRelated: FCR can help estimate the feed-related resource use and emissions of animal products.

• Green hydrogenRelated: It captures emissions from electricity, equipment, water supply, and hydrogen delivery.

• Plant-based meatRelated: It compares plant-based meat with animal meat using measures such as emissions and land use.

• Appropriate technologyRelated: It tests whether a locally suitable design also limits wider environmental costs.

• Beef productionRelated: It evaluates impacts from cattle raising through beef processing and distribution.

• Energy return on investmentRelated: It shares lifecycle boundary choices with EROI but measures multiple environmental impacts.

• Goat milkRelated: It offers a way to compare goat milk’s emissions and resource use with other dairy and food options.

• Metabolic engineeringRelated: It tests whether biological production reduces impacts beyond the factory.

• NanoparticleRelated: Assessing nanoparticle products requires accounting for production, use, and end-of-life impacts.

• Process intensificationRelated: It tests whether smaller equipment reduces total impacts rather than shifting them to materials or utilities.

• Recycled paperRelated: It compares recycled and virgin paper across production, transport, and disposal.

• Water consumptionRelated: It can reveal consumptive water use hidden in upstream production stages.

• Environmental designRelated: It helps compare material and construction choices beyond their initial appearance or cost.

• Integrated multi-trophic aquacultureRelated: It can test whether added crops reduce impacts across the whole production system.

• Metal–organic frameworkRelated: MOF sustainability depends on synthesis inputs, service life, regeneration, and end-of-life treatment.

• Pollution preventionRelated: Life-cycle comparisons can reveal whether a proposed source reduction shifts pollution elsewhere.

• Advanced oxidation processRelated: Energy, chemical production, and residual handling affect the overall footprint of oxidation.

• BiomassRelated: It tests whether using biomass for energy reduces impacts over its full supply chain.

• Conventional agricultureRelated: It helps compare farming systems beyond field-level impacts, including inputs and output quantities.

• GasificationRelated: It compares gasification pathways while accounting for feedstock supply, conversion, and final use.

• LambRelated: It helps compare lamb's land use and greenhouse-gas footprint with other foods.

• Oat milkRelated: It provides a framework for comparing oat milk with dairy and other drinks.

• Operations managementRelated: Process and sourcing choices shape impacts beyond the factory or service site.

• Packaging designRelated: It can compare packaging options beyond material weight or recyclability alone.

• Power-to-XRelated: It reveals emissions from electricity, carbon sourcing, conversion, and transport together.

• Primary cellRelated: It compares primary and rechargeable cells beyond their purchase price or use phase.

• Vehicle emissionsRelated: It includes vehicle and fuel production, exposing impacts beyond tailpipe emissions.

• Aquaculture feedRelated: It compares the impacts of feed ingredients, processing, transport, and use.

• Automotive manufacturingRelated: It compares factory impacts with material extraction, vehicle use, and end-of-life treatment.

• Azeotropic distillationRelated: It can compare entrainers and process designs beyond separation efficiency alone.

• Bean (food)Related: It helps compare the resource and emissions footprints of beans with other protein foods.

• Bioprocess engineeringRelated: It tests whether biological production reduces impacts across feedstocks, energy, processing, and disposal.

• Built environmentRelated: It can compare the resource and emissions burdens of buildings and infrastructure.