of a membrane ele...Figure 32.11 (a) Cyclic voltammograms and (b) linear sweep voltammograms for...Figure 32.12 (a) Cyclic voltammograms, (b) linear sweep voltammograms and (c...Figure 32.13 (a) Proposed active site in Fe–N–C electrocatalysts. (b) Transm...32 Chapter 33Figure 33.1 Comparison between the current refinery and biorefinery. (See on...Figure 33.2 Biofuels produced from lignocellulosic biomass via biological an...Figure 33.3 Main routes for biofuel production‐derived lignocellulosic bioma...Figure 33.4 Design of steps for optimization of a heterogeneous catalytic pr...Figure 33.5 One‐pot EMF production from different feedstocks.Figure 33.6 Mechanism of DMF formation from HMF.Figure 33.7 Schematic representation of biphasic reaction system for GVL pro...
33 Chapter 34Figure 34.1 Structure of lignocellulosic biomass with cellulose, hemicellulo...Figure 34.2 Synthesis of platform chemicals from biomass.Figure 34.3 Schematic drawings of zeolite β framework (a) and an open site (...Figure 34.4 Conversions of carbohydrates to value‐added chemicals and their ...Scheme 34.1 Synthesis of polyethylene 2,5‐furandicarboxylate (a) and polyeth...Figure 34.5 Schematic drawing of Mg–Al layered double hydroxides. (See onlin...Scheme 34.2 Synthesis of FDCA from HMF or an acetal derivative of HMF.Figure 34.6 Computed reaction energy diagram for the rate‐determining step d...Figure 34.7 Diels–Alder cycloaddition of dimethylfuran [1] and ethylene prod...Figure 34.8 Synthesis of p‐xylene through Diels–Alder cycloaddition of reduc...Figure 34.9 Schematic representation of reaction network in which ketohexose...Figure 34.10 Current and new chemical process for making lactide and polylac...
34 Chapter 35Figure 35.1 The main motivations to use high‐pressure conditions for heterog...Figure 35.2 Equilibrium CO2 conversion (a) and methanol selectivity (b) at d...Figure 35.3 (a) Liquid product formation during methanol synthesis from syng...Figure 35.4 The depiction of process intensification by using microreactor (...Figure 35.5 The schematic showing a shell‐and‐tube membrane with countercurr...
35 Chapter 36Figure 36.1 Qualitative reaction scheme for CO2 conversion.Figure 36.2 Scheme of the CO2 electrochemical reduction process and differen...Figure 36.3 Volcano plots: (a) volcano plot for carbon dioxide reduction on ...Figure 36.4 Filter‐press electrochemical cell with a GDE configuration.Figure 36.5 Photoinduced generation of electron–hole pairs in CO2 reduction ...Figure 36.6 Band gap energies for common semiconductors materials relative t...Figure 36.7 Scheme for a (a) slurry reactor with top illumination, (b) optic...Figure 36.8 Representation of a (a) photocathode–dark anode, (b) photoanode–...
36 Chapter 37Figure 37.1 Schematic illustration of semiconductor‐based photocatalytic pro...Figure 37.2 (a) Donor level, (b) acceptor level, (c) mid‐gap states formed b...Figure 37.3 (a) Semiconductor structures according to the structural dimensi...Figure 37.4 Design concepts for solar water photocatalytic reactors: (a) con...
37 Chapter 38Figure 38.1 Catalytic activity profiles for NH3‐SCR of NO x over Cu zeolites....Figure 38.2 Hexagonal unit cell of an SSZ‐13 zeolite (dashed lines) illustra...Figure 38.3 Schematic of the SSZ‐13 hexagonal unit cell structure and possib...Figure 38.4 Partial density of state (PDOS) of Cu 3d states in (a) ZCu and (...Figure 38.5 Proposed overall SCR scheme as a function of the NO2/NO x ratio a...
Guide
5 Preface
8 Index
9 WILEY END USER LICENSE AGREEMENT
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