| Tag |
First Indicator |
Second Indicator |
Subfields |
| LEADER |
00000cam a22000007i 4500 |
| 001 |
in00005776326 |
| 005 |
20260327191531.5 |
| 006 |
m o d |
| 007 |
cr cnu---unuuu |
| 008 |
251101s2025 ne o 000 0 eng d |
| 040 |
|
|
|a EBLCP
|b eng
|e rda
|c EBLCP
|d OPELS
|d OCLCO
|d N$T
|d SFB
|d OCLCQ
|d YDX
|
| 020 |
|
|
|a 9780443292866
|q electronic book
|
| 020 |
|
|
|a 0443292868
|q electronic book
|
| 020 |
|
|
|z 9780443292859
|
| 035 |
|
|
|a (OCoLC)1546972438
|
| 050 |
|
4 |
|a TJ808
|b .S65 2025
|
| 082 |
0 |
4 |
|a 621.042
|2 23/eng/20251104
|
| 049 |
|
|
|a TXAM
|
| 100 |
1 |
|
|a Srivastava, Rohit.
|
| 245 |
1 |
0 |
|a Photoelectrochemical and Enzymatic Conversion of CO2 into Fuels :
|b A Shift Towards Net Zero Energy Landscape.
|
| 264 |
|
1 |
|a Amsterdam, Netherlands ;
|a Cambridge, MA :
|b Elsevier,
|c 2025.
|
| 300 |
|
|
|a 1 online resource (673 p.).
|
| 336 |
|
|
|a text
|b txt
|2 rdacontent
|
| 337 |
|
|
|a computer
|b c
|2 rdamedia
|
| 338 |
|
|
|a online resource
|b cr
|2 rdacarrier
|
| 490 |
0 |
|
|a Emerging Technologies and Materials in Thermal Engineering Series
|
| 520 |
|
|
|a Photoelectrochemical and Enzymatic Conversion of CO2 into Fuels: A Shift Towards Net Zero Energy Landscape introduces a comprehensive guide on the effective utilization of renewable energy to convert CO2 into fuels or commodity chemicals, presenting new materials such as MXenes and phosphorenes that are now being used in the catalytic conversion...
|
| 505 |
0 |
|
|a Front Cover -- Photoelectrochemical and Enzymatic Conversion of CO2 into Fuels -- Copyright Page -- Contents -- List of contributors -- Foreword -- Preface -- Acknowledgment -- 1 Electrochemical reduction of CO2 -- 1.1 Introduction -- 1.2 C1 products -- 1.2.1 Methane -- 1.2.2 Carbon monoxide -- 1.2.3 Methanol -- 1.2.4 Formic acid/formate -- 1.3 C2 product -- 1.3.1 Ethane -- 1.3.2 Ethylene -- 1.3.3 Ethanol -- 1.4 C3 products -- 1.5 Future prospective and challenges -- 1.6 Conclusion -- Acknowledgments -- References -- 2 Photochemical reduction of CO2 -- 2.1 Introduction -- 2.2 Photochemical reduction of CO2 -- 2.2.1 Thermodynamic aspects -- 2.2.2 Kinetic aspects of CO2 photoreduction -- 2.2.3 Exploring the pathways of CO2 photoreduction -- 2.3 Engineering approaches for precise photoreduction of CO2 -- 2.3.1 Adjusting the structures of morphology and bandgap -- 2.3.2 Manipulating the surface's chemical compositions -- 2.3.3 Regulating acidity-alkalinity of supports -- 2.3.4 Harnessing solvent effects -- 2.3.5 Enhancing the characteristics of the interface -- 2.3.6 Incorporating appropriate cocatalysts -- 2.4 Cocatalysts' crucial function in CO2 photoreduction -- 2.4.1 Increasing CO2 photoreduction selectivity -- 2.4.2 Reducing CO2 photoreduction overpotentials -- 2.4.3 Encouraging the segregation of charges in photocatalysts -- 2.4.4 Making CO2 adsorption and activation more efficient -- 2.5 Inhibition of undesirable processes -- 2.5.1 Suppressed production of hydrogen gas -- 2.5.2 Prevented the oxidation of products -- 2.6 Conclusions and prospects -- References -- 3 Enzymatic reduction of CO2 -- 3.1 Introduction -- 3.2 Types of CO2 fixation enzymes and sources of these enzymes -- 3.2.1 Rubisco -- 3.3 Natural conversion of CO2 in cells -- 3.4 Conversion of CO2 to carbon monoxide (CO) -- 3.5 Conversion of CO2 to formic acid or formate (HCOOH).
|
| 505 |
8 |
|
|a 3.6 Conversion of CO2 to bicarbonate by carbonic anhydrase (CA) -- 3.7 Conversion of CO2 to methane (CH4) -- 3.8 Conversion of CO2 to methanol (CH3OH) -- 3.9 Conversion of CO2 to other essential products using the multienzyme system -- 3.10 Carboxylation reactions -- 3.11 Carboxylation of epoxides -- 3.12 Carboxylation of aromatics -- 3.13 Carboxylation of hetero-aromatics -- 3.14 Carboxylation of aliphatic substrates -- 3.15 Future perspectives -- References -- 4 Artificial photosynthesis: sunlight, water, and carbon dioxide into fuels -- 4.1 Background -- 4.2 Motivation for artificial photosynthesis -- 4.3 Natural photosynthesis versus artificial photosynthesis -- 4.4 Advantages of artificial photosynthesis -- 4.5 Technological challenges -- 4.6 Environmental and economic opportunities -- 4.7 Future perspective -- 4.8 Conclusion -- Acknowledgments -- References -- 5 Advances and mechanistic insights of perovskite oxide catalysts for photocatalytic and electrocatalytic CO2 reduction -- 5.1 Introduction -- 5.2 Mechanism of perovskite oxide materials -- 5.3 Double perovskites as catalysts for CO₂ reduction -- 5.4 Effect of A-site cation doping -- 5.5 Effect of B-site cation doping -- 5.6 Effect of anion doping -- 5.7 Effect of oxygen vacancies -- 5.8 Future aspect and summary -- References -- 6 Phosphorene-based catalyst for CO2 conversion -- 6.1 Introduction -- 6.2 Phosphorene: history, synthesis, and properties -- 6.2.1 Synthesis routes -- 6.2.1.1 Delamination/electrochemical exfoliation -- 6.2.1.2 Ball milling -- 6.2.2 Properties -- 6.3 Overview of CO2 reduction -- 6.3.1 First-principles calculations of phosphorene-based catalyst for CO2 reduction -- 6.3.2 Practical investigations of phosphorene-based catalyst for CO2 reduction -- 6.4 Conclusion -- References -- 7 Polymer-based catalysts for CO₂ conversion -- 7.1 Introduction.
|
| 505 |
8 |
|
|a 7.2 Mechanism and products of CO2 reduction using polymer-based catalysts -- 7.3 Conventional catalysts and CRR cell constructions -- 7.4 Electrochemical techniques for monitoring the behavior of the catalysts -- 7.4.1 Linear sweep voltammetry and cyclic voltammetry -- 7.5 CP-based electrocatalysts -- 7.5.1 PANI-based electrocatalysts for CRR -- 7.5.1.1 Electrocatalysts based on pure PANI films -- 7.5.1.1.1 PANI-coated Pt electrodes -- 7.5.1.1.2 Silicon p-type electrodes coated with PANI -- 7.5.1.1.3 PANI films for alcohol-to-CO2 reduction -- 7.5.1.1.4 PANI-coated platinum plate electrodes -- 7.5.1.2 Electrocatalysts based on a composite of PANI with metals -- 7.5.1.2.1 Electrochemical evaluation of the Sn-PANI composite -- 7.5.1.2.2 Selective CO2 reduction using Cu-PANI composite film -- 7.5.1.2.3 Core-shell Au-PANI nanocomposites -- 7.5.1.2.4 Systems PANI-Pt and Pd-PANI -- 7.5.1.2.5 Enhancement of HCOOH efficiency with metallic nanoparticles -- 7.5.1.2.6 Mechanistic insights and catalyst performance -- 7.5.1.2.7 Doping PANI with metal ions -- 7.5.1.2.8 Computations based on density functional theory (DFT) provide insights -- 7.5.1.3 Electrocatalysts based on composites of PANI/metal oxide -- 7.5.1.3.1 Cu2O nanoparticles encapsulated in PANI matrix -- 7.5.1.3.2 Polyvinylsulfate/WO3/PANI composite -- 7.5.1.3.3 Pt-promoted PANI-TiO2 nanocomposites -- 7.5.1.3.4 CuBi2O4/PANI catalyst -- 7.5.1.4 Electrocatalysts based on composites of PANI/iron complex/Prussian Blue -- 7.5.1.4.1 The electrode was immobilized with FeL2 PANI/Prussian Blue (Ogura et al., 1996) -- 7.5.1.4.2 The iron (II) complex of 1,8-dihydroxynaphthalene-3,6-disulfonato and PANI/Prussian Blue (Ogura et al., 1994) -- 7.5.2 Electrocatalysts based on polypyrrole -- 7.5.2.1 Electrocatalysts based on PPy/metal complexes.
|
| 505 |
8 |
|
|a 7.5.2.1.1 Rhenium(I) complexes with PPy-coated electrodes (Liang et al., 2019) -- 7.5.2.1.2 Cobalt(II) Schiff Base complexes with Ppy (Losada et al., 1995) -- 7.5.2.1.3 Nickel(II) complexes with PPy-covered electrodes (Zhalko-Titarenko et al., 1990) -- 7.5.2.1.4 Cobalt phthalocyanine (CoPc) composite with Ppy (Zhang et al., 2009) -- 7.5.2.2 Electrocatalysts based on composites of PPy/metal or metal oxide -- 7.5.2.2.1 Re and Cu-Re alloy dispersed in PPy films (Periasamy et al., 2018) -- 7.5.2.2.2 PPy/Cu2O composite shell on linen texture sheets -- 7.6 Electrocatalysts based on other conducting polymers -- 7.6.1 Electrocatalysts based on polythiophene -- 7.6.2 Electrocatalysts based on polycarbazole -- 7.6.3 Electrocatalysts based on polydopamine -- 7.6.4 Electrocatalysts based on polyphenylene -- 7.6.5 Electrocatalysts based on tetraphenylethylene-based conjugated microporous polymer (TPE-CMP) -- 7.7 Challenges and prospects -- 7.8 Conclusions -- References -- 8 Transition metal-based single atom catalyst for CO2 conversion -- 8.1 Introduction -- 8.1.1 Clear active site and atom economy -- 8.1.2 Choice of metal centers and support materials -- 8.1.3 Intrinsic activity by surface structure modulation -- 8.2 A timeline of the evolution of SACs and its applications in CO2RR -- 8.3 CO2 reduction mechanism -- 8.3.1 C1 products pathways -- 8.3.1.1 CO formation pathway -- 8.3.1.2 HCOOH formation pathway -- 8.4 Classification of products -- 8.4.1 The mechanism of the C1 products beyond the two-step CO formation -- 8.4.2 The mechanism for Cn products, with n greater than 1 -- 8.5 SACs favor CO2R reaction over HER -- 8.6 d-Band theory -- 8.7 Dipole-field interactions in CO2 activation -- 8.8 Effect of structure-property relationships on the catalytic efficiency of SACs -- 8.8.1 Effect of coordination engineering -- 8.8.1.1 MN5 configuration.
|
| 505 |
8 |
|
|a 8.8.1.1.1 MN3 configuration -- 8.8.1.2 MN2 configuration -- 8.9 Activity table for different SACs with product selectivity -- 8.10 Synthesis and characterization of SACs -- 8.11 Perspective -- 8.11.1 Effect of reaction environment on the catalytic activity -- 8.11.1.1 Electrolyte pH -- 8.11.1.2 Solvent -- 8.11.1.3 Cation and anion effects -- 8.11.2 Strategies to improve the activity of SACs: effect of structural and electronic factors -- 8.11.2.1 The surface charge and radii of the metal active sites -- 8.11.2.2 The introduction of axial ligation increases the product selectivity of single-atom catalysts (SACs) for beyond-CO products -- 8.11.3 Theoretical classification of CO2R products -- 8.11.4 Dimensionality -- 8.11.5 Higher Cn product -- 8.11.6 Proceeding beyond the Sabatier principle -- Acknowledgments -- Conflicts of interest -- References -- 9 Blue-titania catalyst for CO2 conversion -- 9.1 Introduction -- 9.1.1 The threat of excess CO2 and global warming -- 9.1.2 Importance of CO2 conversion methods -- 9.1.3 Photocatalytic CO2 reduction using TiO2 -- 9.1.4 Limitations of pristine TiO2 -- 9.2 Blue titania: a promising alternative -- 9.2.1 Enhancing the photocatalytic activity of TiO2 -- 9.2.2 Generation and role of oxygen vacancies -- 9.2.3 Mechanisms of photocatalytic CO2 conversion with defective TiO2 -- 9.3 Synthetic strategies -- 9.3.1 Under a reducing atmosphere -- 9.3.1.1 Hydrogen (H2) atmosphere -- 9.3.1.2 Use of hydrides -- 9.3.1.3 High energy particle: H2 plasma application -- 9.3.2 Formation of imperfections during annealing in an oxygen-deficient environment -- 9.3.2.1 Annealing under the influence of inert environment (such as He, Ar, and N2) -- 9.3.2.2 Flame reduction method -- 9.3.2.3 Using organic reducing agents -- 9.3.3 Metallothermic reduction -- 9.3.4 Facet engineering -- 9.4 Challenges and future directions.
|
| 532 |
1 |
|
|3 EBSCOhost
|a "EBSCO evaluates our products based on the Web Content Accessibility Guidelines (WCAG) and the related Section 508 and EN 301 549 regulations in the US and EU. Most EBSCO products are substantially conformant with WCAG 2.2 level AA." Source: https://connect.ebsco.com/s/article/EBSCO-VPATs?language=en_US. Last accessed April 22, 2025.
|
| 650 |
|
0 |
|a Renewable energy sources.
|
| 650 |
|
0 |
|a Carbon dioxide.
|
| 650 |
|
0 |
|a Alternative fuels.
|
| 650 |
|
6 |
|a Énergies renouvelables.
|
| 650 |
|
6 |
|a Gaz carbonique.
|
| 650 |
|
7 |
|a carbon dioxide.
|2 aat
|
| 655 |
|
7 |
|a Electronic books.
|2 local
|
| 700 |
1 |
|
|a Bastakoti, Bishnu.
|
| 710 |
2 |
|
|a ScienceDirect (Online service)
|
| 776 |
0 |
8 |
|i Print version:
|a Srivastava, Rohit
|t Photoelectrochemical and Enzymatic Conversion of CO2 into Fuels
|d Chantilly : Elsevier,c2025
|z 9780443292859
|
| 856 |
4 |
0 |
|u http://proxy.library.tamu.edu/login?url=https://www.sciencedirect.com/science/book/9780443292859
|z Connect to the full text of this electronic book
|t 0
|
| 955 |
|
|
|a Elsevier ScienceDirect 2026-2027
|
| 994 |
|
|
|a 92
|b TXA
|
| 999 |
f |
f |
|i 5a7a02c4-dab4-4ddc-99e2-4a4ad73cf615
|s f4a43f2a-cb88-4e0c-8e13-056358fb5ff9
|t 0
|
| 952 |
f |
f |
|a Texas A&M University
|b College Station
|c Electronic Resources
|s www_evans
|d Available Online
|t 0
|e TJ808 .S65 2025
|h Library of Congress classification
|
| 998 |
f |
f |
|a TJ808 .S65 2025
|t 0
|l Available Online
|