Search results for " bisphenol A"

showing 3 items of 3 documents

Resource or waste? A perspective of plastics degradation in soil with a focus on end-of-life options.

2018

‘Capable-of-being-shaped’ synthetic compounds are prevailing today over horn, bone, leather, wood, stone, metal, glass, or ceramic in products that were previously left to natural materials. Plastic is, in fact, economical, simple, adaptable, and waterproof. Also, it is durable and resilient to natural degradation (although microbial species capable of degrading plastics do exist). In becoming a waste, plastic accumulation adversely affects ecosystems. The majority of plastic debris pollutes waters, accumulating in oceans. And, the behaviour and the quantity of plastic, which has become waste, are rather well documented in the water, in fact. This review collects existing information on pla…

PLA polylactic acidPS polystyreneETS European Emissions Trading schemePOM polyoxymethyleneHMC heat melt compactor technology02 engineering and technology010501 environmental sciencesNHV net habitable volumeLDPE low-density polyethylene01 natural sciencesPC polycarbonateResin identification codeLCP liquid crystal polymerslcsh:Social sciences (General)PAC pro-oxidant additive containingPET polyethylene terephthalateEPR Extended Producers ResponsibilityMultidisciplinaryWaste managementNatural materials021001 nanoscience & nanotechnologyPU or PUR polyurethaneSettore AGR/02 - Agronomia E Coltivazioni ErbaceeEPS expandable polystyreneRIC resin identification codeSettore AGR/14 - PedologiaPVDF polydifluoroethylenelcsh:H1-990210 nano-technologyBiogeoscienceGPPS Polystyrene (General Purpose)PVC polyvinyl chlorideResource (biology)Polymethyl methacrylatePA polyamidePBT polybutylene terephthalatePSU polyarylsulfonePTFE polytetrafluoroethylenePMMA polymethyl methacrylatePHA polyhydroxyalkanoateMicrobiologyPEEK polyaryletheretherketoneArticleEnvironmental scienceEnvironmental science Biogeoscience Industry MicrobiologyPPA polyphthalamideTPE thermoplastic polyester elastomerNatural degradationIndustryPPS polyphenylene sulphidelcsh:Science (General)ABS acrylonitrile-butadiene-styrene0105 earth and related environmental sciencesbusiness.industryPP polypropyleneHDPE high-density polyethyleneBPA bisphenol AHBCD hexabromocyclododecaneFuture studyAgricultureDOM dissolved organic matterDegradation (geology)Environmental sciencebusinesslcsh:Q1-390Heliyon
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Biomass-based composite catalysts for catalytic wet peroxide oxidation of bisphenol A : preparation and characterization studies

2019

Abstract The wet granulation process was used to prepare new, efficient, and cost-effective granular biomass-based composite catalysts for catalytic wet peroxide oxidation (CWPO) of bisphenol A (BPA). The most stable composite granules was prepared by mixing biomass-based carbon residue (CR) with metakaolin (MK) combined with calcium oxide (CaO) or cement and a solvent (NaOH or KOH). For all the prepared composite granules, the optimized binding agents to carbon ratio was 0.3, the solvent to carbon ratio 1.2, and the agitation rate 1200 rpm. The specific surface area of the prepared catalysts was 152–205 m2/g. The composite granular catalyst (CR + MK + CaO + NaOH) had the most durable and s…

Thermal desorption spectroscopybiomassacomposite catalystComposite numbergranular activated carbon02 engineering and technologyjätevesi010501 environmental sciences01 natural sciencesPeroxidewastewater purificationCatalysisGranulationchemistry.chemical_compoundSpecific surface areaChemical Engineering (miscellaneous)Calcium oxideWaste Management and Disposalta116komposiitit0105 earth and related environmental sciencesjäteveden käsittelybiomassProcess Chemistry and Technology021001 nanoscience & nanotechnologyPollutionSolventchemistryaktiivihiilioxidation of bisphenol A0210 nano-technologyNuclear chemistryJournal of Environmental Chemical Engineering
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Biomass-based composite catalysts for catalytic wet peroxide oxidation of bisphenol A:preparation and characterization studies

2019

The wet granulation process was used to prepare new, efficient, and cost-effective granular biomass-based composite catalysts for catalytic wet peroxide oxidation (CWPO) of bisphenol A (BPA). The most stable composite granules was prepared by mixing biomass-based carbon residue (CR) with metakaolin (MK) combined with calcium oxide (CaO) or cement and a solvent (NaOH or KOH). For all the prepared composite granules, the optimized binding agents to carbon ratio was 0.3, the solvent to carbon ratio 1.2, and the agitation rate 1200 rpm. The specific surface area of the prepared catalysts was 152–205 m2/g. The composite granular catalyst (CR + MK + CaO + NaOH) had the most durable and stable str…

Oxidation of bisphenol AGranular activated carbonaktiivihiiliComposite catalystWastewater purificationbiomassa (teollisuus)jätevesiBiomasskomposiititjäteveden käsittely
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