Linked from

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

• Chemical feedstockRelated: It compares feedstock options beyond the emissions released at the factory.

• Disposable tablewareRelated: It compares disposable options by accounting for production, transport, use, and disposal.

• Fish mealRelated: It compares fish meal’s impacts with those of alternative feed ingredients.

• Glass recyclingRelated: It compares recycling's energy and emissions with making glass from virgin materials.

• Green burialRelated: It can compare burial practices across materials, transport, land, and emissions.

• Human impact on the environmentRelated: It reveals impacts that shift between production, use, and disposal stages.

• Hybrid vehicleRelated: It captures battery production and electricity generation as well as tailpipe emissions.

• Polylactic acidRelated: It compares PLA’s feedstock and production impacts with those of competing materials.

• Steel recyclingRelated: It compares the impacts of recycled steel with alternative production and material routes.

• SustainabilityRelated: It can reveal impacts shifted between extraction, production, use, and disposal.

• Vertical farmingRelated: It can compare vertical farms with field and greenhouse production beyond land and water use.

• Food scienceRelated: It evaluates trade-offs among food processing, packaging, transport, and resource use.

• Building materialRelated: It compares impacts from extraction, manufacture, construction, use, and disposal.

• By-productRelated: It counts incidental outputs and emissions alongside a product’s intended function.

• Paper towelRelated: It compares towel impacts from fiber sourcing and manufacture through disposal.

• VodkaRelated: It can compare the energy, water, and crop impacts of different vodka supply chains.

• Aluminum canRelated: It compares can production, transport, use, and end-of-life impacts.

• Construction engineeringRelated: Construction choices influence material impacts, site effects, and future maintenance.

• Disposable productRelated: It compares disposal with the impacts of making, transporting, and reusing products.

• Environmental impact of aviationRelated: It can compare aviation with alternatives while accounting for fuel production, vehicles, and infrastructure.

• Food engineeringRelated: It compares energy, water, packaging, and emissions across processing and distribution options.

• Food technologyRelated: It helps compare the environmental costs of competing food processes and packaging.

• Plastic bottleRelated: It compares bottle materials and reuse patterns across production, transport, use, and disposal.

• Precast concreteRelated: It can compare transport, material use, construction, and service-life impacts of precast systems.

• Sustainable designRelated: It reveals impacts from extraction through production, use, and disposal.

• Architectural engineeringRelated: It reveals impacts from building materials, construction, operation, and end-of-life decisions.

• Energy conversion efficiencyRelated: It can reveal whether operational efficiency gains are offset by impacts elsewhere in the system.

• Environmental degradationRelated: It can reveal impacts shifted between materials, production, use, and disposal.

• Environmental impact of agricultureRelated: It can compare food products while accounting for impacts beyond the farm gate.

• Environmental studiesRelated: It compares impacts that may shift between materials, manufacturing, use, and disposal.

• Insects as foodRelated: It tests whether insect production actually reduces impacts relative to alternatives.

• Milk substituteRelated: It compares substitutes and dairy across farming, processing, packaging, and transport.

• SyngasRelated: It compares syngas pathways beyond emissions at the production plant.

• White meatRelated: Environmental comparisons often separate poultry from other meat categories.

• Extractive metallurgyRelated: It compares extraction routes beyond the mine, including energy use and emissions.

• Kawasaki Heavy IndustriesRelated: Long-lived industrial equipment has impacts from material sourcing through operation and disposal.

• NanocatalysisRelated: Mining, fabrication, use, and disposal determine whether nanocatalyst benefits are sustainable overall.

• Paper bagRelated: It compares bags across production, transport, use, and disposal rather than by material alone.

• Paper cupRelated: It compares cups by including material production, transport, use, and end-of-life treatment.

• Plastic bagRelated: It compares bags by material, production, reuse, transport, and end-of-life treatment.

• Process engineeringRelated: It reveals impacts that process-level efficiency measures may shift elsewhere in production.

• Rice milkRelated: It provides a way to compare rice milk’s impacts with other drinks.

• Scooter-sharing systemRelated: Vehicle production, charging, collection, and lifespan determine whether scooter trips reduce emissions.

• Advanced materialsRelated: Novel performance must be weighed against extraction, production, use, and disposal impacts.

• Alternative fuel vehicleRelated: Vehicle and fuel manufacturing can change the apparent environmental advantage of a powertrain.

• Artificial leatherRelated: It compares artificial leather's production and disposal impacts with alternatives.

• Cardboard boxRelated: It compares box materials and formats across production, transport, use, and disposal.

• Energy engineeringRelated: It captures impacts beyond a power plant’s operating emissions.

• Energy sourceRelated: It compares source impacts beyond emissions at the point of operation.

• Engineered woodRelated: It compares engineered wood with alternatives while accounting for manufacturing, use, and end of life.