Technologyisprobablythe finestagentof change nowadays.While neverwithoutrisk,technological
breakthroughspromise innovativetechniquestomostlikelyprobablythe mostpressingglobal
challengesof ourlives.Fromzero-emissioncarsdrivenbyhydrogentocomputerchipsmodelledround
the mind,2010 10 emergingtechnologiesgiveavividlookinthe energyof innovationtoboostlives,
transformindustriesandsafeguardthe world.Tocompile theirlist,the earthEconomicForum’sMeta-
Council onEmergingTechnologies,apanel of 18 experts,drawsroundthe collectiveexpertise inthe
Forum’scitiestoacknowledge the keyrecenttechnological trends.Inthatway,the Meta-Council aims
to improve knowledgeof theirpotential andresultinclosingthe gapsininvestment,regulationand
publicrealizingthatfrequentlythwartprogress.Getmore informationat: WendyPurcell
1. Fuel Cell Automobiles
However,the technologyhasonlynowbegantoattain where automotiveinformationmill planningto
produce themforclients.Initial pricesmightbe inall the different$70,000, butmightcome lower
substantiallyasvolumesincreasenextcoupleof years.Unlike batteries,whichneedstobe chargedfrom
an exteriorsource,fuel cellsgenerate electricitydirectly,usingfuelsforinstance hydrogenorgas.Used,
fuel cellsandbatteriesare combined,while usingfuel cellcreatingelectricityaswell asthe batteries
storingthisenergyuntil neededwiththe motors thatdrive the car.Fuel cell automobilestherefore are
compounds,andmaylikelyalsodeployrestorative healingpreventing - animportantconvenience of
takingadvantage of efficiencyandrange.
2. Next-GenerationRobotics
Typicallythe mostpopularimaginationhasextendedforeseenaworldwide where robotsdominate
variouseverydaytasks.Thisrobotfuture hasstubbornlyrejectedtomaterialize,however,withrobots
still limitedtofactorysetuplinestogetherwithothercontrolledtasks.Althoughheavilyused(inside the
automotive industry,forinstance) these robotsare large anddangeroustohumanco-employeesthey
shouldbe separatedbysafetycages.Advancesinroboticstechnologyare generatinghuman-machine
collaborationadailyreality.Betterandcheapersensorsproduce arobotmore capable of understand
and respondtoitsatmosphere.Robotphysiqueshave growntobe more adaptive andversatile,with
designerstakinginspirationwithinthe amazingflexibilityandtalentof complexbiologicalstructures,
such as the humanhands.Androbots have grownto be more connected,enjoyinguseful benefitswithin
the cloud-computingrevolutionbyhavingthe abilitytoview instructionsandunderstandingremotely,
rather thanrequiringtobecome designedjustlikeafullyautonomousunit.The completelynew agesof
roboticstakestheyinthe large manufacturingsetuplines,andintonumeroustasks.UsingGps
navigationnavigationtechnology,similartocell phones,robotsare beginningtobe usedinprecision
agriculture forweedcontrol andpopping.InJapan,robotsare increasinglybeingtrialledinnursingroles:
guide patientsfrombedmattressandsupportstroke sufferersinrebuildingcontrol of theirhandsor
legs.Smallersizedplusmuchmore dextrous robots,forinstance DexterBot,BaxterandLBR iiwa,are
producedtobecome easilyprrr-rrrglablealsotohandle manufacturingtasksthatare laboriousor
uncomfortable forhumanemployees.Indeed,robotsare ideal fortasksthatare too repetitive or
dangerousforhumansto try,and couldwork 24 several hourseverydaylessexpensivethanhuman
employees.The simple truthis,new-generationrobotmachineswill mostlikelycollaborate withhumans
rather thanreplace them.Evenconsideringadvancesindesignandartificial intelligence,human
participationandoversightwill remainessential.
3. Recyclable Thermoset Plastics
Plasticsare splitupintothermoplasticsandthermosetplastics.The priormightbe heatedandcreated
manyoccasions,and soare ubiquitousnowadays,made upof fromchildren’stoystolavatoryseats.
Simplybecause theymightbe meltedlowerandcool,thermoplasticsare oftenrecyclable.Thermoset
plasticshoweverisonlyable tobe heatedandcreatedonce,thenmolecularchangesimplythattheyare
“cured”,retainingtheirshape andstrengthevenwhenprone tointense warmthandpressure.Due to
thisdurability,thermosetplasticsare partwithinourmodernworld,andsoare foundinfrommobile
phonesandcircuitboards forthe aerospace industry.Neverthelessthe same characteristicswhichmake
themessential inmodernmanufacturingalsomake certainthey're impossibletorecycle.Consequently,
mostthermosetpolymersfinishaslandfill.Due tothe bestreasonforsustainability,there'sextended
beena pressingrequirementof recyclabilityinthermosetplastics.
4. Genetic-EngineeringTechniques
Conventionalgeneticengineeringhasextendedtriggereddebate.However,new techniquesare
emergingthatallowusdirectly“edit”the geneticcode of plantstobe,for example,muchhealthieror
bettersuitedtocope witha changingclimate.Presently,the geneticengineeringof cropsisdependent
aroundthe bacteriaagrobacteriumtumefacienstotransferpreferredDNA tothe targetgenome.The
processisprovenand reliable,anddespitecommonpublicfears,there isaconsensusinsidethe
scientificcommunitythatgeneticallymodifyingmicrobesapplyingthistechnique isignoreharmful than
modifyingthemusingconventionalbreeding.However, while agrobacteriumisuseful,more precise and
variedgenome-editingtechniquesare actuallydevelopedlately.Anotherpartof geneticengineering
that appearspoisedforjustaboutany majoradvance isapplyingRNA interference (RNAi) incrops.RNAi
iseffective againstinfectionsandyeastpathoenicagents,andcanalsosafeguardplantsagainstinsect
undesirableunwantedpests,reducingthe requirementof chemical pesticide oral sprays.Viral genesare
actuallyfamiliarwithsafeguardpapayaplantsinthe ringspotvirus,forexample,withnosymbol of
resistance alteringinaroundthe decade helpfulinHawaii.RNAi mayalsobenefitmajorstaple-food
crops,safeguardingwheatagainststemrust,grainagainstblast,potatoagainstblightandblueberry
againstfusariumwilt.
5. Additive Manufacturing
AMT-iconAsthe title signifies,additive manufacturingmightbe the the completeopposite of subtractive
manufacturing.The secondreasoniswhenmanufacturinghastypicallybeendone:beginninggettinga
largerlittle bitof material (wood,metal,stone,etc),layersare removed,orsubtracted,togo awaythe
mostwell-likedshape.Additivemanufacturingratherstartswithloose material,eitherliquidorpowder,
thenevolvesitintoa three-dimensional shape employingadigital template.3dproductsmightbe
highlypersonalizedforthe consumer,unlike mass-producedmerchandisethat.Anexamplemaybe the
organizationInvisalign,whichutilizescomputerimagingof customers’teethtoproduce near-invisible
bracespersonalizedforhisorhermouths.Othermedical programstake 3d printinginthe more
biological direction:bydirectlyprintinghumancells,itissimpletocreate livingtissuethatmayfind
potential applicationindrugsafetyscreeningand,ultimately,tissue repairandregrowth.Anearlyon
instance of thisbioprintingisOrganovo’sprintedliver-cell layers,whichare specificatdrug testing,and
may eventuallybe familiarwithcreate transplantorgans.Bioprintinghadbeenfamiliarwithgenerate
skinand bone,additionallytoheartandvascular tissue,thatprovide huge potentialafterwards
personalizedmedicine.
6. EmergentArtificial Intelligence
EAI-iconArtificial intelligence (AI)is,essentially,the sciencetocomplete bycomputerstuff thatpeople
are capable of doing.Inthe last couple of years,AIhas advancedsubstantially:manyof usare actually
usingcell phonesthatcouldrecognize humanspeech,andalsohave travelledbyhavinganairport
terminal terminal immigrationqueue using image-recognitiontechnology.Self-drivingcarsand
automaticflyingdroneshave arrivedatthe testingstage before anticipatedcommonuse,while for
manylearningandmemorytasks,machinesnow outshinehumans.Watson,anabnormallyintelligent
computer, beatthe mosteffective humancandidateswithinthe quizgame Risk.Artificial intelligence,
insteadof normal hardware andsoftware,enablesadevice todetermineandrespondtoitschanging
atmosphere.EmergentAItakesvidstepfurther,withprogressdevelopingfrommachinesthatlearn
instantlybyassemblingmajorityof understanding.AnexampleisNELL,the Never-EndingLearning
projectfromCarnegie MellonCollege,yourpersonal computersystemthatdoesn'tonlyreads
particularsbymovingthroughhundredsof numerouswebpages,butattemptstoimprove itsreading
throughthroughand understandingcompetenceonthe wayto have the abilitytoperformbetter
afterwards.
7. DistributedManufacturing
DM-iconDistributedmanufacturingtriggersitsmindhow youmake anddistribute products.In
traditional manufacturing,recycleablesare introducedtogether,come upwithandfabricatedinlarge
centralizedproductionfacilitiesintoidentical finishedproductsthatare thenprovidedtothe customer.
In distributedmanufacturing,the recycleablesandmethodsof fabricationare decentralized,aswell as
the final technique ismanufacturednotnotevenclose tothe bestcustomer.
8. ‘Sense andAvoid’Drones
SAAD-iconUnmannedaerialautomobiles,ordrones,are becominganimportantandquestionablepart
of militarycapacitylately.Theyare alsofoundinagriculture,forfilmingandmultiple otherindividuals
that require cheapandextensive aerialsurveillance.Butupto now everyone of these droneshave
observed humanaircraftaircraftpilotsthe primarydifference isalwaysthattheiraircraftaircraftpilots
are on the groundand flythe aircraftremotely.The nextthingwithdrone technologyisalwaysto
developmachinesthatflythemselves,openingthemupto widerchoice of programs.To getthisdone,
dronesmustbe capable of sense andrespondtotheirlocal atmosphere,alteringtheirheightandflying
trajectoryto have the abilitytoavoidcollidingtogetherwithotherobjectsinside theirpath.In
character, wildwildbirds,seafoodandbugsall can congregate inswarms,eachanimal responding
towardsthe neighbourquicklyallowingthe swarmtoflyor frolicinthe waterjustlike a single unit.
Dronescan emulate this.
9. NeuromorphicTechnology
NT-iconEventoday’sbestsupercomputerscannotrival the sophisticationinthe mind.Personal
computersare linear,movingdataforwardandbackward betweenmemorychipstogetherwithamain
processoraroundthe high-speedbackbone.Yourbrain,however,isfullyinterconnected,withlogicand
memorycompletelymix-linkedathuge levelsof occasionsthe densityandnumberof thiscontainedina
moderndaycomputer.Neuromorphicchipsgoal toprocessinformationinthe basicallydifferentway
fromtraditional hardware,resemblingthe brain’sarchitecture tosupplyamassive increase ina
computer’sthinkingandrespondingenergy.Miniaturizationhasshippedmassive increasesin
conventional computingenergyovertime,neverthelessthe bottleneckof shiftingdataconstantly
betweensavedmemoryandcentral processorsuseshuge amountsof aperson'sandproduces
undesirablewarmth,restrictingfurtherimprovements.Incontrast,neuromorphicchipsmaywell be
more energy-effective andefficient,mixingdata-storage andunderstanding-processingcomponentsto
the same interconnectedmodules.Inthisparticularsense,the device copiesthe networkednervesthat,
inside theirbillions,inthe mind.
10. Digital Genome
DG-iconWhile the initial sequencingfromthe 3 major.2 billionbase pairsof DNA define anindividuals
genome neededaverylongtime andcost 100s of vast amounts,todayyourgenome mightbe
sequencedandscannedinside acouple of minutesandalsoatthe fee for justa few One Hundred
Dollars.The final resultsmightbe shippedforthe laptoparoundthe USB stickand justsharedonline.
Thiscapacity to rapidlyandcheaplydetermine ourindividual unique geneticmake-uppromisesa
revolutioninpersonalizedandefficienthealthcare.Quite afew mostintractable healthchallenges,from
coronary disease tocancer,have a verygeneticcomponent.Indeed,cancerismuchbetterknownto
love anillnessinthe genome.Withdigitization,doctorswill have awaytocreate optionsof a patient’s
cancer treatmentinformedhavingatumour’sgeneticmake-up.Thisnew understandingmayalsobe
makingprecisionmedicinepossiblebyenablingthe developmentof highlyspecificremediesthatoffer
the chance of enhancedtreatmentbenefits,particularlyforpatientsfightingcancer.

Wendy purcell

  • 1.
    Technologyisprobablythe finestagentof changenowadays.While neverwithoutrisk,technological breakthroughspromise innovativetechniquestomostlikelyprobablythe mostpressingglobal challengesof ourlives.Fromzero-emissioncarsdrivenbyhydrogentocomputerchipsmodelledround the mind,2010 10 emergingtechnologiesgiveavividlookinthe energyof innovationtoboostlives, transformindustriesandsafeguardthe world.Tocompile theirlist,the earthEconomicForum’sMeta- Council onEmergingTechnologies,apanel of 18 experts,drawsroundthe collectiveexpertise inthe Forum’scitiestoacknowledge the keyrecenttechnological trends.Inthatway,the Meta-Council aims to improve knowledgeof theirpotential andresultinclosingthe gapsininvestment,regulationand publicrealizingthatfrequentlythwartprogress.Getmore informationat: WendyPurcell 1. Fuel Cell Automobiles However,the technologyhasonlynowbegantoattain where automotiveinformationmill planningto produce themforclients.Initial pricesmightbe inall the different$70,000, butmightcome lower substantiallyasvolumesincreasenextcoupleof years.Unlike batteries,whichneedstobe chargedfrom an exteriorsource,fuel cellsgenerate electricitydirectly,usingfuelsforinstance hydrogenorgas.Used, fuel cellsandbatteriesare combined,while usingfuel cellcreatingelectricityaswell asthe batteries storingthisenergyuntil neededwiththe motors thatdrive the car.Fuel cell automobilestherefore are compounds,andmaylikelyalsodeployrestorative healingpreventing - animportantconvenience of takingadvantage of efficiencyandrange. 2. Next-GenerationRobotics Typicallythe mostpopularimaginationhasextendedforeseenaworldwide where robotsdominate variouseverydaytasks.Thisrobotfuture hasstubbornlyrejectedtomaterialize,however,withrobots still limitedtofactorysetuplinestogetherwithothercontrolledtasks.Althoughheavilyused(inside the automotive industry,forinstance) these robotsare large anddangeroustohumanco-employeesthey shouldbe separatedbysafetycages.Advancesinroboticstechnologyare generatinghuman-machine collaborationadailyreality.Betterandcheapersensorsproduce arobotmore capable of understand and respondtoitsatmosphere.Robotphysiqueshave growntobe more adaptive andversatile,with designerstakinginspirationwithinthe amazingflexibilityandtalentof complexbiologicalstructures, such as the humanhands.Androbots have grownto be more connected,enjoyinguseful benefitswithin the cloud-computingrevolutionbyhavingthe abilitytoview instructionsandunderstandingremotely, rather thanrequiringtobecome designedjustlikeafullyautonomousunit.The completelynew agesof roboticstakestheyinthe large manufacturingsetuplines,andintonumeroustasks.UsingGps navigationnavigationtechnology,similartocell phones,robotsare beginningtobe usedinprecision agriculture forweedcontrol andpopping.InJapan,robotsare increasinglybeingtrialledinnursingroles: guide patientsfrombedmattressandsupportstroke sufferersinrebuildingcontrol of theirhandsor legs.Smallersizedplusmuchmore dextrous robots,forinstance DexterBot,BaxterandLBR iiwa,are producedtobecome easilyprrr-rrrglablealsotohandle manufacturingtasksthatare laboriousor uncomfortable forhumanemployees.Indeed,robotsare ideal fortasksthatare too repetitive or dangerousforhumansto try,and couldwork 24 several hourseverydaylessexpensivethanhuman employees.The simple truthis,new-generationrobotmachineswill mostlikelycollaborate withhumans
  • 2.
    rather thanreplace them.Evenconsideringadvancesindesignandartificialintelligence,human participationandoversightwill remainessential. 3. Recyclable Thermoset Plastics Plasticsare splitupintothermoplasticsandthermosetplastics.The priormightbe heatedandcreated manyoccasions,and soare ubiquitousnowadays,made upof fromchildren’stoystolavatoryseats. Simplybecause theymightbe meltedlowerandcool,thermoplasticsare oftenrecyclable.Thermoset plasticshoweverisonlyable tobe heatedandcreatedonce,thenmolecularchangesimplythattheyare “cured”,retainingtheirshape andstrengthevenwhenprone tointense warmthandpressure.Due to thisdurability,thermosetplasticsare partwithinourmodernworld,andsoare foundinfrommobile phonesandcircuitboards forthe aerospace industry.Neverthelessthe same characteristicswhichmake themessential inmodernmanufacturingalsomake certainthey're impossibletorecycle.Consequently, mostthermosetpolymersfinishaslandfill.Due tothe bestreasonforsustainability,there'sextended beena pressingrequirementof recyclabilityinthermosetplastics. 4. Genetic-EngineeringTechniques Conventionalgeneticengineeringhasextendedtriggereddebate.However,new techniquesare emergingthatallowusdirectly“edit”the geneticcode of plantstobe,for example,muchhealthieror bettersuitedtocope witha changingclimate.Presently,the geneticengineeringof cropsisdependent aroundthe bacteriaagrobacteriumtumefacienstotransferpreferredDNA tothe targetgenome.The processisprovenand reliable,anddespitecommonpublicfears,there isaconsensusinsidethe scientificcommunitythatgeneticallymodifyingmicrobesapplyingthistechnique isignoreharmful than modifyingthemusingconventionalbreeding.However, while agrobacteriumisuseful,more precise and variedgenome-editingtechniquesare actuallydevelopedlately.Anotherpartof geneticengineering that appearspoisedforjustaboutany majoradvance isapplyingRNA interference (RNAi) incrops.RNAi iseffective againstinfectionsandyeastpathoenicagents,andcanalsosafeguardplantsagainstinsect undesirableunwantedpests,reducingthe requirementof chemical pesticide oral sprays.Viral genesare actuallyfamiliarwithsafeguardpapayaplantsinthe ringspotvirus,forexample,withnosymbol of resistance alteringinaroundthe decade helpfulinHawaii.RNAi mayalsobenefitmajorstaple-food crops,safeguardingwheatagainststemrust,grainagainstblast,potatoagainstblightandblueberry againstfusariumwilt. 5. Additive Manufacturing AMT-iconAsthe title signifies,additive manufacturingmightbe the the completeopposite of subtractive manufacturing.The secondreasoniswhenmanufacturinghastypicallybeendone:beginninggettinga largerlittle bitof material (wood,metal,stone,etc),layersare removed,orsubtracted,togo awaythe mostwell-likedshape.Additivemanufacturingratherstartswithloose material,eitherliquidorpowder, thenevolvesitintoa three-dimensional shape employingadigital template.3dproductsmightbe highlypersonalizedforthe consumer,unlike mass-producedmerchandisethat.Anexamplemaybe the organizationInvisalign,whichutilizescomputerimagingof customers’teethtoproduce near-invisible bracespersonalizedforhisorhermouths.Othermedical programstake 3d printinginthe more
  • 3.
    biological direction:bydirectlyprintinghumancells,itissimpletocreate livingtissuethatmayfind potentialapplicationindrugsafetyscreeningand,ultimately,tissue repairandregrowth.Anearlyon instance of thisbioprintingisOrganovo’sprintedliver-cell layers,whichare specificatdrug testing,and may eventuallybe familiarwithcreate transplantorgans.Bioprintinghadbeenfamiliarwithgenerate skinand bone,additionallytoheartandvascular tissue,thatprovide huge potentialafterwards personalizedmedicine. 6. EmergentArtificial Intelligence EAI-iconArtificial intelligence (AI)is,essentially,the sciencetocomplete bycomputerstuff thatpeople are capable of doing.Inthe last couple of years,AIhas advancedsubstantially:manyof usare actually usingcell phonesthatcouldrecognize humanspeech,andalsohave travelledbyhavinganairport terminal terminal immigrationqueue using image-recognitiontechnology.Self-drivingcarsand automaticflyingdroneshave arrivedatthe testingstage before anticipatedcommonuse,while for manylearningandmemorytasks,machinesnow outshinehumans.Watson,anabnormallyintelligent computer, beatthe mosteffective humancandidateswithinthe quizgame Risk.Artificial intelligence, insteadof normal hardware andsoftware,enablesadevice todetermineandrespondtoitschanging atmosphere.EmergentAItakesvidstepfurther,withprogressdevelopingfrommachinesthatlearn instantlybyassemblingmajorityof understanding.AnexampleisNELL,the Never-EndingLearning projectfromCarnegie MellonCollege,yourpersonal computersystemthatdoesn'tonlyreads particularsbymovingthroughhundredsof numerouswebpages,butattemptstoimprove itsreading throughthroughand understandingcompetenceonthe wayto have the abilitytoperformbetter afterwards. 7. DistributedManufacturing DM-iconDistributedmanufacturingtriggersitsmindhow youmake anddistribute products.In traditional manufacturing,recycleablesare introducedtogether,come upwithandfabricatedinlarge centralizedproductionfacilitiesintoidentical finishedproductsthatare thenprovidedtothe customer. In distributedmanufacturing,the recycleablesandmethodsof fabricationare decentralized,aswell as the final technique ismanufacturednotnotevenclose tothe bestcustomer. 8. ‘Sense andAvoid’Drones SAAD-iconUnmannedaerialautomobiles,ordrones,are becominganimportantandquestionablepart of militarycapacitylately.Theyare alsofoundinagriculture,forfilmingandmultiple otherindividuals that require cheapandextensive aerialsurveillance.Butupto now everyone of these droneshave observed humanaircraftaircraftpilotsthe primarydifference isalwaysthattheiraircraftaircraftpilots are on the groundand flythe aircraftremotely.The nextthingwithdrone technologyisalwaysto developmachinesthatflythemselves,openingthemupto widerchoice of programs.To getthisdone, dronesmustbe capable of sense andrespondtotheirlocal atmosphere,alteringtheirheightandflying trajectoryto have the abilitytoavoidcollidingtogetherwithotherobjectsinside theirpath.In character, wildwildbirds,seafoodandbugsall can congregate inswarms,eachanimal responding
  • 4.
    towardsthe neighbourquicklyallowingthe swarmtoflyorfrolicinthe waterjustlike a single unit. Dronescan emulate this. 9. NeuromorphicTechnology NT-iconEventoday’sbestsupercomputerscannotrival the sophisticationinthe mind.Personal computersare linear,movingdataforwardandbackward betweenmemorychipstogetherwithamain processoraroundthe high-speedbackbone.Yourbrain,however,isfullyinterconnected,withlogicand memorycompletelymix-linkedathuge levelsof occasionsthe densityandnumberof thiscontainedina moderndaycomputer.Neuromorphicchipsgoal toprocessinformationinthe basicallydifferentway fromtraditional hardware,resemblingthe brain’sarchitecture tosupplyamassive increase ina computer’sthinkingandrespondingenergy.Miniaturizationhasshippedmassive increasesin conventional computingenergyovertime,neverthelessthe bottleneckof shiftingdataconstantly betweensavedmemoryandcentral processorsuseshuge amountsof aperson'sandproduces undesirablewarmth,restrictingfurtherimprovements.Incontrast,neuromorphicchipsmaywell be more energy-effective andefficient,mixingdata-storage andunderstanding-processingcomponentsto the same interconnectedmodules.Inthisparticularsense,the device copiesthe networkednervesthat, inside theirbillions,inthe mind. 10. Digital Genome DG-iconWhile the initial sequencingfromthe 3 major.2 billionbase pairsof DNA define anindividuals genome neededaverylongtime andcost 100s of vast amounts,todayyourgenome mightbe sequencedandscannedinside acouple of minutesandalsoatthe fee for justa few One Hundred Dollars.The final resultsmightbe shippedforthe laptoparoundthe USB stickand justsharedonline. Thiscapacity to rapidlyandcheaplydetermine ourindividual unique geneticmake-uppromisesa revolutioninpersonalizedandefficienthealthcare.Quite afew mostintractable healthchallenges,from coronary disease tocancer,have a verygeneticcomponent.Indeed,cancerismuchbetterknownto love anillnessinthe genome.Withdigitization,doctorswill have awaytocreate optionsof a patient’s cancer treatmentinformedhavingatumour’sgeneticmake-up.Thisnew understandingmayalsobe makingprecisionmedicinepossiblebyenablingthe developmentof highlyspecificremediesthatoffer the chance of enhancedtreatmentbenefits,particularlyforpatientsfightingcancer.