spaces in energy for and from ...Figure 9.10 A schematic depicting the “take, make, waste” linear approach to...Figure 9.11 Dividing‐wall column for three‐phase separation in distillation ...Figure 9.12 Elimination of dioxin/furans formation in bleaching pulp by inte...Figure 9.13 Schematic diagram of three‐stage ReACT™ process.Figure 9.14 SOx recovery and converting it to H2SO4 in acid plant.Figure 9.15 Internal model of AC – pore structure.Figure 9.16 Mercury vapor removal efficiency (%) versus time.Figure 9.17 “Biorefinery” concept based on pulp and paper manufacturing faci...Figure 9.18 Pressurized, oxygen‐blown, HTBLG technology being developed by C...Figure 9.19 Simplified schematic representative “mill‐scale” BLGCC (BLGCC)....Figure 9.20 Schematic of biorefinery of DME. Key features include recycling ...Figure 9.21 Flow diagram of power/recovery system in pulp mill BLGCC.Figure 9.22 Schematic of liquid‐phase synthesis reactor.Figure 9.23 Schematic of the Pitéa DME production plant.10 Chapter 10Figure 10.1 Environment and sustainability in the product realization proces...Figure 10.2 Methodological framework for life cycle process or product desig...Figure 10.3 Five E's of sustainable development is an ethical concept.Figure 10.4 The pathways to sustainability in emerging economy.
11 Appendix DFigure D.1 Coordinate system and nomenclature for the Gaussian plume idea.Figure D.2 Behavior of the downwind, elevated transverse concentration profi...Figure D.3 Use of an imaginary source to describe mathematically gaseous ref...Figure D.4 SO2 concentration with changing heights.Figure D.5 Effects on stack emissions and land use.
12 Appendix GFigure G.1 Schematic of a municipal solid waste‐to‐energy facility in the ci...
Guide
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