Green Sustainable Process for Chemical and Environmental Engineering and Science: Carbon Dioxide Capture and Utilization

616 Pages·2023·29.623 MB·English

by  Inamuddin I., Altalhi T. (ed.)

GREEN
SUSTAINABLE
PROCESS FOR
CHEMICAL AND
ENVIRONMENTAL
ENGINEERING
AND SCIENCE
GREEN
SUSTAINABLE
PROCESS FOR
CHEMICAL AND
ENVIRONMENTAL
ENGINEERING
AND SCIENCE
Carbon Dioxide Capture
and Utilization
Editedby
Inamuddin
DepartmentofAppliedChemistry,ZakirHusainCollegeofEngineeringandTechnology,Facultyof
EngineeringandTechnology,AligarhMuslimUniversity,Aligarh,UttarPradesh,India
Tariq Altalhi
DepartmentofChemistry,CollegeofScience,TaifUniversity,Taif,SaudiArabia
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Contents
Contributors xi Acknowledgment 49
References 49
Chapter1 Carbondioxidecaptureandits
utilizationtowardsefficientbiofuels Chapter3 Cookstovesforbiochar
production 1 productionandcarboncapture 53
AbhinayThakur,andAshishKumar MashuraShammi,JulienWinter,Md.MahbubulIslam,
BeautyAkter,andNazmulHasan
1.1 Introduction 1
3.1 Introduction 53
1.2 Utilizationofcapturedcarbondioxide
3.2 Cookstovesdesignedforbiochar
forbiofuelproduction 5
production 54
1.3 Conclusionandfutureperspectives 13
3.3 Biocharproductionandclimate-change
References 13
implications 62
3.4 Conclusion 64
Chapter2 Deepeutecticliquidsforcarbon
References 65
capturingandfixation 17
ZainabLiaqat,SumiaAkram,HafizMuhammadAthar, Chapter4 Metalsupportinteractionfor
andMuhammadMushtaq electrochemicalvalorizationofCO 69
2
2.1 Carbondioxideemissions 17 AbinayaStalinraja,andKeerthigaGopalram
2.2 Deepeutecticliquids 19
2.3 Typesofdeepeutecticliquids 19 4.1 Introduction 69
2.4 PreparationofDELs 20 4.2 MetalsupportsforECRofCO2 70
2.5 AuthenticationofDELs 21 4.3 Conclusion 80
2.6 DELbasedCO absorption 22 Acknowledgment 80
2
2.7 Carboncaptureefficiencyofvarious References 81
HBDs 24
Chapter5 Utilizationofcarbondioxideasa
2.8 CO absorptioninaqueoussolution
2
ofDELs 40 buildingblockinsynthesisofactive
2.9 CO2absorptioninternaryDELs 41 pharmaceuticalingredients 85
2.10 Ammonium-BasedDELs 42
MuhammadFaisal
2.11 PhosphoniumbasedDELs 44
2.12 AzolebasedDELs 44
5.1 Introduction 85
2.13 Bio-phenolderivedsuperbasebasedDELs 45
5.2 N–Nucleophile-triggered
2.14 HydrophobicDELs 45
CO -incorporatedcarboxylation
2
2.15 Non-ionicDELs 46
toformC–Nbonds 87
2.16 DELsupportedmembranes 46
5.3 N–Nucleophile-triggered
2.17 DELswithmultiplesitesinteraction 47
CO -incorporatedmethylation
2
2.18 Conclusionandfutureprospects 48
toformC–Nbonds 95
v
vi
Contents
5.4 O–Nucleophile-triggered Chapter8 Ionicliquidsaspotential
CO2-incorporatedcarboxylation materialsforcarbondioxidecapture
toformC–Obonds 96 andutilization 177
5.5 CO -catalyzedoxidationof
2
alcoholstoformC–Obonds 97 MdAbuShahynIslam,MohdArhamKhan,NimraShakeel,
MohdImranAhamed,andNaushadAnwar
5.6 C-Nucleophile-triggered
CO -incorporatedreductivecarboxylation
2 8.1 Introduction 178
toformC–Cbonds 97
8.2 TypesofILs 179
5.7 C-nucleophile-triggered
8.3 FutureapplicationsofILandGR-basedIL 191
CO -incorporateddirectC–Hcarboxylation
2 8.4 Conclusion 192
toformC–Cbond 99
References 193
5.8 C-nucleophile-triggeredCO -incorporated
2
organozinc-mediatedcarboxylationtoform
C–Cbonds 101 Chapter9 Recentadvancesin
5.9 C-nucleophile-triggeredCO -incorporated
2 carbondioxideutilization
organolithium-mediatedcarboxylation
asrenewableenergy 197
toformaC–Cbond 102
5.10 C-Nucleophile-triggeredCO2-incorporated MuhammadHussnainSiddique,FareehaMaqbool,TanvirShahzad,
organomagnesium-mediatedcarboxylation MuhammadWaseem,IjazRasul,SumreenHayat,MuhammadAfzal,
MuhammadFaisal,andSaimaMuzammil
toformaC–Cbond 108
5.11 Conclusion 111
9.1 Introduction 197
References 113
9.2 CO utilizationtechnologies 198
2
9.3 DevelopmentsinworldwideCO
Chapter6 ElectrochemicalCarbonDioxide 2
utilizationprojects 204
Detection 119
9.4 Marketscaleandvalue 205
S.Aslan,C.I¸sık,andA.E.Mamuk 9.5 Regulationandpolicy 205
9.6 Conclusionandfutureprospects 206
6.1 Introduction 119
References 206
6.2 CapturetechnologiesofCO 121
2
6.3 Fundamentalsofelectrochemistry 126
6.4 Directpotentiometricmethods 128 Chapter10 MetalOrganicFrameworks
6.5 Summaryandconclusion 139
asanEfficientMethodforCarbon
References 141
dioxidecapture 211
Chapter7 Carbondioxideinjectionfor
BhartiKataria,andChristineJeyaseelan
enhancedoilrecoveryandunderground
10.1 Introduction 211
storagetoreducegreenhousegas 149
10.2 Metalorganicframework(MOF) 212
ShubhamSaraf,andAchintaBera 10.3 SynthesisofsomeMOFS 215
10.4 PropertiesofMOFs 217
7.1 Introduction 149
10.5 CO captureusingMOF 217
7.2 OilrecoveryusingCO 156 2
2 10.6 Adsorptionofcarbondioxidein
7.3 Undergroundstorageof
metalorganicframeworks 219
CO inunconventionalreservoirs 167
2 10.7 MethodstoenhanceCO adsorption 219
7.4 Currentstatus,challengesand 2
10.8 MethodstoenhanceMOF
futuredirections 169
stability 222
7.5 Conclusions 170
10.9 Conclusion 227
Acknowledgment 172
References 227
References 172
vii
Contents
Chapter11 Industrialcarbondioxide 12.11 Conclusionandfutureinsights 291
captureandutilization 231 References 291
UzmaHira,AhmedKamal,andJaveriaTahir
Chapter13 Advancesin
11.1 Introduction 231 utilizationofcarbon-dioxideforfood
11.2 CO collectionsystemsbasedonliquid 233 preservationandstorage 297
2
11.3 CO capturingwithionicliquidsolvents 242
2 AdeshinaFadeyibi
11.4 Applications,implementation
andchallenges 244 13.1 Introduction 297
11.5 SolidCO2adsorbentsforlow-temperature 13.2 Utilizationofcarbon-dioxidein
applications 245 foodpreservation 298
11.6 Carbonadsorbents 246 13.3 Utilizationofcarbon-dioxidein
11.7 Zeoliteadsorbents 248 foodstorage 302
11.8 AdsorbentsoftheMOF(metal–organic 13.4 Prospectsandconclusion 305
framework)type 250 References 305
11.9 Adsorbentspredicatedon
carbonate-basedalkalis 252
Chapter14 Aninsightintotherecent
11.10 Layereddoublehydroxides
(LDHs)-basedadsorbents 254 developmentsinmembrane-basedcarbon
11.11 Adsorbentsmadeofmagnesium dioxidecaptureandutilization 311
oxide(MgO) 255
PritamDey,PritamSingh,andMitaliSaha
11.12 SolidCO sorbentsfor
2
high-temperatureapplications 257 14.1 Introduction 311
11.13 Pre-combustionapplications, 14.2 Carbondioxidecapturetechnologies 312
implementationandproblems 260 14.3 Abriefaboutmembranetechnology 314
11.14 TheutilisationofCO2in 14.4 CO2separationusingmembranes 316
industrialprocesses 262 14.5 CO utilizationusingmembranes 321
2
11.15 Conclusionsandprospects 268 14.6 Conclusions 322
References 270 References 323
Chapter12 Ionicliquidsforcarbon Chapter15 Carbondioxidetofuelusing
capturingandstorage 279 solarenergy 327
FaizanWaseemButt,HafizMuhammadAthar,SumiaAkram, SrijitaBasumallick
ZainabLiaqat,andMuhammadMushtaq
15.1 Introduction 327
12.1 Introduction 279 15.2 CO reductionontosemiconductor
2
12.2 CO capturetechnologies 280 surface 327
2
12.3 Ionicliquids(ILs) 281 15.3 MajorbottleneckforCO reduction 328
2
12.4 FeaturesofILs 281 15.4 Differenttypesofphotocatalyst 329
12.5 ILasabsorbentsforCO capture 283 15.5 ReductionofCO tomethanol
2 2
12.6 ILhybridsasadsorbentsfor usingCu Oasphotocatalyst 330
2
CO capture 289 15.6 ReductionofCO tomethanolusing
2 2
12.7 ILhybridswithmembranesfor Cu Oaselectrocatalyst 330
2
CO capture 289 15.7 BenefitsofusingRGOinthe
2
12.8 Ionicliquidsupportedmembrane 290 compositecatalyst 331
12.9 PolyILsmembrane 290 15.8 Conclusions 333
12.10 Compositemembranes 290
viii
Contents
Acknowledgment 333 19.1 Introduction 441
References 333 19.2 CO application–Supercriticaldrying 442
2
19.3 StarchaerogelandCO utilization 445
2
Chapter16 Adsorbentsforcarbon 19.4 CelluloseaerogelsandCO utilization 447
2
capture 337 19.5 Conclusions 448
Authorcontributions 449
VijayVaishampayan,MukeshKumar,MuthamilselviPonnuchamy,
Ethicalapproval 449
andAshishKapoor
Declarationofcompetinginterest 449
16.1 Introduction 337 Acknowledgment 449
16.2 Carboncaptureprocesses 338 References 449
16.3 AdsorbentsforCO capture 338
2
16.4 Futureperspectiveandconclusion 342 Chapter20 Advancesincarbon
References 342 bio-sequestration 451
NigelTwi-Yeboah,DacostaOsei,andMichaelK.Danquah
Chapter17 Carbondioxidecaptureand
utilizationinionicliquids 345 20.1 Introduction 451
20.2 Carbonsequestrationmethods 452
GuocaiTian
20.3 Limitationsofcarbonsequestration
17.1 Introduction 345 methods 453
17.2 CaptureofCO inILs 349 20.4 Overviewofbiologicalsequestration
2
17.3 ElectroreductionofCO inILs 391 (Cycle/Mechanism) 454
2
17.4 Conclusions 406 20.5 Bioresourcesforcarbon
Acknowledgments 407 bio-sequestration 455
References 407 20.6 Cyanobacteria 456
20.7 Microalgae 457
Chapter18 Hydrothermalcarbonizationof 20.8 Plants 457
20.9 Bacteria 458
sewagesludgeforcarbonnegativeenergy
20.10 Nanomaterialsincarbonsequestration 458
production 427
20.11 Futureperspectives 459
MilanMalhotra,AnushaSathyanadh,andKhanh-QuangTran 20.12 Conclusion 459
References 460
18.1 Introduction 427
18.2 Sludgeasapotentialsourceof Chapter21 Photosyntheticcellfactories,
alternateenergy 431
anewparadigmforcarbondioxide
18.3 Hydrothermal(HT)treatmentsforthe
(CO )valorization 463
productionoffuel 432 2
18.4 Hydrothermalcarbonization+ BijayaNag,AbdalahMakaranga,MukulSureshKareya,
gasification+ccs 437 AshaArumugamNesamma,andPannagaPavanJutur
18.5 Conclusion 437
21.1 Introduction 463
Acknowledgement 438
21.2 Carboncapture,utilizationand
References 438
storagemechanism 465
21.3 Biologicalmechanismofcarboncapture 469
Chapter19 Utilizationofsupercritical
21.4 ProductsfromCCU 470
CO fordryingandproduction
2 21.5 Challengesandopportunities 472
ofstarchandcelluloseaerogels 441
21.6 Futureperspectivesandconclusions 475
JeieliWendelGasparLima,ClaraPrestesFerreira, Fundinginformation 476
JhonatasRodriguesBarbosa,andRaulNunesdeCarvalhoJunior References 476
ix
Contents
Chapter22 Carbondioxidecapture Chapter24 Carbondioxidecapture
andsequestrationtechnologies– anditsenhancedutilization
currentperspective,challenges usingmicroalgae 531
andprospects 481
PinkuChandraNath,BiswanathBhunia,
andTarunKantiBandyopadhyay
IfeanyiMichaelSmarteAnekwe,EmmanuelKweinorTetteh,
StephenAkpasi,SamailaJoelAtuman,
24.1 Introduction 531
EdwardKwakuArmah,andYusufMakarfiIsa
24.2 PhotosynthesisandCO fixationusing
2
22.1 Introduction 481 microalgae 532
22.2 Carboncaptureandsequestration(CCS) 24.3 Cultivationsystemsforcarbondioxide
technologies 484 capturebymicroalgae 533
22.3 CO transportation,storage 24.4 CO captureimprovementstrategies 541
2 2
andopportunities/applicationsfor 24.5 Conclusion 541
CCStechnologies 493 References 541
22.4 Currentperspectiveandpoliciesof
CSStechnologiesinvariouscountries
throughouttheworld 497 Chapter25 Supportedsingle-atom
22.5 Challengesandsocio-economic catalystsincarbondioxide
implicationsofCCStechnologies 501 electrochemicalactivation
22.6 Applicationsandopportunities
andreduction 547
forCCStechniques 504
22.7 Prospectsandfuturework AmosAfugu,CarolineR.Kwawu,ElliotMenkah,andEvansAdei
considerationsforCCSapproaches 507
25.1 Introduction 547
22.8 Conclusion 508
25.2 CO ERRproducts 549
References 509 2
25.3 Single-Atomcatalystsefficiency
descriptors 549
Chapter23 Microbialcarbon
25.4 Single-Atomcatalystsupports 551
dioxidefixationfortheproduction
25.5 MechanismsforCO ERRon
2
ofbiopolymers 517
single-atomcatalysts 554
TubaSaleem,IjazRasul,MuhammadAsif,andHabibullahNadeem 25.6 Conclusion 556
References 557
23.1 Introduction 517
23.2 SourcesofCO emission 519
2
23.3 SequestrationmethodsofCO 519 Chapter26 Organicmatterand
2
23.4 Carbonconcentratingmechanisms 520 mineralogicalacumensinCO
2
23.5 Advancementsincarboncaptureand
sequestration 561
storage&carboncaptureutilization 521
23.6 Carbondioxidefixationpathways 521 SantanuGhosh,TusharAdsul,andAtulKumarVarma
23.7 Factorsaffectingthecarbondioxide
26.1 Overview 562
biofixation 527
26.2 Introduction 562
23.8 Productionofbiopolymers/bioplastics 527
26.3 Geo-sequestration 563
23.9 Conclusion 529
26.4 Bio-sequestration 563
References 529
x
Contents
26.5 Mechanismsofcarboncapture 564 26.10 AnoteonCO disposalinbasalt
2
26.6 Transportofcarbondioxide 566 formations 587
26.7 Mechanismofcarbonaccommodation 566 26.11 Summary 587
26.8 Carbondioxidesequestration References 588
inorganicmatter 566
26.9 Mineralogicalacumenofcarbon Index 595
sequestration 573