... andstoredtoprotect the health of the environment. Lifecyclethinkingisapowerfuldecision‐makingtoolwhenstrivingforsustainability.Lifecyclethinkingislookingupstreamanddownstreamat the phases of aproductslifecycle.This“cradle‐to‐grave”perspectiveemphasizesthataproducthasenvironmental,social,andhumanhealth impacts ateachstage of itslifecycle,including the extraction of rawmaterials,designandproduction,packaginganddistribution,useandmaintenance,anddisposal.Thiscomprehensiveviewcompels the decision‐makertoconsiderafullrange of impactindicatorsassociatedwith the inputsandoutputs of eachsystem,especiallyenergyconsumption,waterrequirements,solidwastes,atmosphericemissions,humanhealtheffects,andothercumulative impacts to the biosphere. Impacts of Technology on the Environment |Page30PHASE #2D Inventory Analysis Key Impacts of Technology on the Environment |Page21Directions:Conductanimpactassessment of mercurybyfollowingthesesteps:1. ... 3.2mgFormulasforCalculating the MercuryReleasePotential of UseandDisposal:C=ElectricalPowerusedperyear(kWh)=(AxB)÷1000W/kWhD=Averagemercuryemissionsfromcoal‐firedelectricitygeneration=0.012mg/kWhE=Averagemercuryinabulb:CFL=4.0mg;Incandescent=0.00F=Mercuryreleasepotentialfromuseanddisposal of bulbs(mg)=(CxD)+E ●●● Impacts of Technology on the Environment |Page32 Impacts of Technology on the Environment |Page8Figure ... Applymethodsforassessing the impact of technology upon the environment, the economy,andhumanhealth.10. Synthesizeandevaluatecontradictoryinformation.11. Proposealternativedecisionsorpoliciesandpredictpotential impacts of thosedecisions.12....