Green-Synthesized Nanocomposites for Sustainable Fuel Desulfurization: Advances and Challenges

Kitap BölümüYalnız künye
  • SDG 7 · Erişilebilir ve Temiz Enerji
  • SDG 12 · Sorumlu Üretim ve Tüketim
  • SDG 13 · İklim Eylemi

Özet

The mounting global demand for energy signifies that we must depend on fossil fuels, which engenders environmental degradation and precipitates the emission of substantial quantities of sulfur oxides (SOx). Protecting themselves from environmental pollution is a top priority for many countries. Proper removal of sulfur- containing compounds from fossil fuels is becoming a major focus. Fuels such as diesel, fuel oil, and gasoline are particularly important in this regard. Fuels such as diesel, fuel oil, and gasoline are particularly important in this regard. The numerous negative consequences of traditional hydrodesulfurization (HDS) methods are what researchers focus on, and these methods are limited. Some examples of these negative effects include higher costs, the use of too much pressure and temperature, and using too much hydrogen. Scientific studies show that biosourced nanocomposite materials are good for desulfurization methods because they can reduce the potential negative consequences. Using raw materials such as microorganisms, biopolymers, and plant extracts is one of the most important ways to increase energy efficiency and eliminate chemical emissions. The large surface areas, enhanced active site homogeneity, and diverse functional groups of nanocomposite materials obtained from such biosourced raw materials make them promising candidates for use in adsorptive and oxidative desulfurization processes. Metal- metal oxide (Fe, Ni, Cu, TiO2) and carbon- based (graphene, carbon nanotube, and biochar- supported) nanocomposites are particularly preferred for achieving high sulfur removal with low energy consumption. The provision of information on the production methods, chemical properties, sulfur removal methods, and recent scientific research on biosourced nanocomposites is the purpose of this section. In addition, the environmental benefits, economic benefits, and potential roles of biosourced materials in alternative energy systems are discussed.

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dc.contributor.authorOzkan, Abdullah
dc.contributor.authorOzkan, Vildan
dc.contributor.authorBozbeyoglu, Pinar
dc.contributor.authorAltuner, Elif Esra
dc.date.accessioned2026-10-22T10:19:55.423652703Z
dc.date.available2026-10-22T10:19:55.423652703Z
dc.date.issued2026
dc.description.abstractThe mounting global demand for energy signifies that we must depend on fossil fuels, which engenders environmental degradation and precipitates the emission of substantial quantities of sulfur oxides (SOx). Protecting themselves from environmental pollution is a top priority for many countries. Proper removal of sulfur- containing compounds from fossil fuels is becoming a major focus. Fuels such as diesel, fuel oil, and gasoline are particularly important in this regard. Fuels such as diesel, fuel oil, and gasoline are particularly important in this regard. The numerous negative consequences of traditional hydrodesulfurization (HDS) methods are what researchers focus on, and these methods are limited. Some examples of these negative effects include higher costs, the use of too much pressure and temperature, and using too much hydrogen. Scientific studies show that biosourced nanocomposite materials are good for desulfurization methods because they can reduce the potential negative consequences. Using raw materials such as microorganisms, biopolymers, and plant extracts is one of the most important ways to increase energy efficiency and eliminate chemical emissions. The large surface areas, enhanced active site homogeneity, and diverse functional groups of nanocomposite materials obtained from such biosourced raw materials make them promising candidates for use in adsorptive and oxidative desulfurization processes. Metal- metal oxide (Fe, Ni, Cu, TiO2) and carbon- based (graphene, carbon nanotube, and biochar- supported) nanocomposites are particularly preferred for achieving high sulfur removal with low energy consumption. The provision of information on the production methods, chemical properties, sulfur removal methods, and recent scientific research on biosourced nanocomposites is the purpose of this section. In addition, the environmental benefits, economic benefits, and potential roles of biosourced materials in alternative energy systems are discussed.
dc.identifier.doi10.4018/979-8-3373-5966-3.ch007
dc.identifier.endpage225
dc.identifier.isbn979-833735968-7
dc.identifier.isbn979-833735966-3
dc.identifier.scopus2-s2.0-105032360134
dc.identifier.startpage181
dc.identifier.urihttps://rdlopen.rawdatalibrary.net/r/gumushane/12300
dc.language.isoen
dc.publisherIGI Global
dc.relation.ispartofEvolving Approaches to Fuel Desulfurization With Nanocomposites
dc.rightsinfo:eu-repo/semantics/closedAccess
dc.subject.otherCarbon nanotubes
dc.subject.otherEnergy efficiency
dc.subject.otherEnvironmental protection
dc.subject.otherGasoline
dc.subject.otherHydrodesulfurization
dc.subject.otherRaw materials
dc.subject.otherSulfur compounds
dc.subject.otherSulfur determination
dc.subject.otherSustainable development
dc.subject.otherYarn
dc.subject.otherDesulphurization
dc.subject.otherEnergy
dc.subject.otherEnvironmental pollutions
dc.subject.otherFuel gasoline
dc.subject.otherFuels oil
dc.subject.otherGlobal demand
dc.subject.otherRemoval of sulfur
dc.subject.otherSulfur oxide
dc.subject.otherSustainable fuels
dc.subject.otherSynthesised
dc.subject.otherTitanium dioxide
dc.titleGreen-Synthesized Nanocomposites for Sustainable Fuel Desulfurization: Advances and Challenges
dc.typeBook Chapter
rdl.citation.openalex1
rdl.citation.scopus1
rdl.oa.statusclosed
rdl.sdgSDG07
rdl.sdgSDG12
rdl.sdgSDG13
rdl.source.indexSCOPUS