Review on natural clay ceramic membrane: Fabrication and application in water and wastewater treatment

Azaman, Fazureen; Nor, Mohd Al Amin Muhamad; Abdullah, Wan Rafizah Wan; Razali, Mohd Hasmizam; Zulkifli, Rumaizah Che; Zaini, Muhammad Abbas Ahmad; Asmadi, A.

doi:10.11113/mjfas.v17n1.2169

Cited by 20 publications

(7 citation statements)

References 55 publications

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“…Molecules 2021, 26, 6344 7 of 12 at a higher temperature such as 1300 °C for 3 h, the pure CaO exhibit the best densification [72]. Tuning the bioceramic membrane pores by using additives or pore-forming agents could be added in the CaO sintering processes [73][74][75].…”

Section: Methodsmentioning

confidence: 99%

Marine-Derived Biowaste Conversion into Bioceramic Membrane Materials: Contrasting of Hydroxyapatite Synthesis Methods

et al. 2021

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Marine-derived biowaste increment is enormous, yet could be converted into valuable biomaterial, e.g., hydroxyapatite-based bioceramic. Bioceramic material possesses superiority in terms of thermal, chemical, and mechanical properties. Bioceramic material also has a high level of biocompatibility when projected into biological tissues. Tuning the porosity of bioceramic material could also provide benefits for bioseparation application, i.e., ultrafiltration ceramic membrane filtration for food and dairy separation processes. This work presents the investigation of hydroxyapatite conversion from crab-shells marine-based biowaste, by comparing three different methods, i.e., microwave, coprecipitation, and sol–gel. The dried crab-shells were milled and calcinated as calcium precursor, then synthesized into hydroxyapatite with the addition of phosphates precursors via microwave, coprecipitation, or sol–gel. The compound and elemental analysis, degree of crystallinity, and particle shape were compared. The chemical compounds and elements from three different methods were similar, yet the degree of crystallinity was different. Higher Ca/P ratio offer benefit in producing a bioceramic ultrafiltration membrane, due to low sintering temperature. The hydroxyapatite from coprecipitation and sol–gel methods showed a significant degree of crystallinity compared with that of the microwave route. However, due to the presence of Fe and Sr impurities, the secondary phase of Ca9FeH(PO4)7 was found in the sol–gel method. The secondary phase compound has high absorbance capacity, an advantage for bioceramic ultrafiltration membranes. Furthermore, the sol–gel method could produce a snake-like shape, compared to the oval shape of the coprecipitation route, another benefit to fabricate porous bioceramic for a membrane filter.

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Section: Methodsmentioning

confidence: 99%

Marine-Derived Biowaste Conversion into Bioceramic Membrane Materials: Contrasting of Hydroxyapatite Synthesis Methods

et al. 2021

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“…Membranes act as a physical barrier in wastewater treatment and ensure that pollutants in wastewater are removed from the water without any chemical addition and degradation [26]. Since the production of polymeric membranes is easy and has lower cost, there are many more industrial applications [12,37]. However, porous ceramic membranes provide advantages over polymeric membranes in terms of mechanical properties, hightemperature pressure resistance and stability, good chemical stability, rugged structure, environmental friendliness, anti-fouling performance, operational durability, and longterm use [5,12,25,37].…”

Section: Membrane Filtersmentioning

confidence: 99%

“…Every industry produces wastewater with different contents [42]. Industrial wastewaters may contain heavy metal ions, bacteria, organic compounds, nutrients, oil, suspended matters, dyes, pesticides, endocrine disrupting compounds, and some other toxic substances [12,27,32,42]. Consequently, efficient treatment of wastewater is required to protect people, the environment, and the harmful effects on aquatic life as a receiving medium [42].…”

Section: Introductionmentioning

confidence: 99%

Studies on Production of Low-Cost Ceramic Membranes and Their Uses in Wastewater Treatment Processes

Artun

Aşkın

2022

EJRnD

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The need for water is increasing owing to the rapidly increasing world population, urbanization, industrialization, global climate changes, and intensive agricultural activities. While the importance of water is increasing day by day, the purification and reuse of water have become more and more essential. Reducing the pollutants at the source as much as possible and if it will be given to the receiving environment, giving the wastewater treatment in accordance with the current discharge regulations, are priority processes. Of the advanced separation methods, membrane separation technology is used to reduce water resource use and control environmental pollution and has advantages such as high separation efficiency, convenient operation, compact equipment, and energy-saving. Membranes are divided into two categories according to their structures: organic and inorganic membranes (or ceramic membranes). Compared to organic membranes, inorganic membranes have many advantages such as high thermal and chemical stability, good resistance to microbial erosion, easy regeneration and cleaning, high mechanical strength, and long-term stability in harsh conditions. The high cost of ceramic membranes is an important disadvantage. In recent years, it is seen that membrane production costs are reduced by using natural minerals such as kaolin, quartz, bauxite, diatomite, clay, limestone, dolomite, zeolite, and industrial wastes instead of the commonly used ceramic membrane raw materials. By using these raw materials, besides reducing the cost of ceramic membranes, it also contributes to lowering the temperatures required for their production. In this study, studies on ceramic membranes produced from industrial wastes (waste ash, sawdust, sewage sludge, construction and demolition wastes, waste diatomite, rice husk ash, sugarcane pulp ash, corn cob ash waste etc.) were examined.

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“…Despite this, commercial ceramic supports are considered expensive due to the two main aspects: i) high cost of the synthetic raw materials used (e.g., alumina, cordeirite, titanium Research, Society and Development, v. 12, n. 2, e22612240023, 2023 (CC BY 4.0) | ISSN 2525-3409 | DOI: http://dx.doi.org/10.33448/rsd-v12i2.40023 3 oxide, and mullite); and ii) high firing temperature used to produce the porous support. For these reasons, the development of new porous ceramic supports using cheap raw materials such as kaolin and clays, and the use of lower firing temperatures have been increasingly encouraged (Kouras et al, 2017;Ali et al, 2018;Saini et al, 2019;Aissat et al, 2019;Abdullayev et al, 2019;Elgamouz et al, 2019;Azaman et al, 2021). In addition to this, it should be highlighted that several solid wastes have been used as alternative raw materials to produce porous ceramic supports (Liu et al, 2016;Hossain et al, 2018;Rawat & Bulasara, 2018;Hubadillah et al, 2018a;Abdullayev et al, 2019;Liang et al, 2021).…”

Section: Introductionmentioning

confidence: 99%

Valorization potential of coffee grounds waste as a renewable pore-forming agent to produce low-cost porous ceramic support

Maciel

Areias²,

Holanda³

2023

RSD

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Every day expressive amounts of coffee grounds waste generated during making the coffee beverage are produced worldwide. The aim of this work was to investigate the valorization potential of the coffee grounds waste as an alternative pore-forming agent to produce porous kaolin-based ceramic supports. For this purpose, kaolin-based ceramic support formulations containing up to 40 mass % of coffee grounds waste were pressed and fired at temperatures ranging from 1000 to 1200 ºC. The sintering behavior and technical properties (linear shrinkage, mass loss, apparent density, mechanical strength, and apparent porosity) have been investigated. The microstructural evolution has been accompanied by scanning electron microscopy (SEM) and 3D-confocal microscopy. The obtained results demonstrated that the coffee grounds waste could serve as a very effective pore-forming agent to produce kaolin-based ceramic support with highly porous structures. Such ceramic supports incorporated with coffee grounds waste exhibited values of apparent porosity within the range of 41.87 % to 70.96 %. This results suggests that the coffee grounds waste, in the range of 10 - 40 mass %, could be a highly promising renewable porogenic material to be valorized to produce low-cost kaolin-based ceramic support with good porosity properties. This new approach could be an innovative alternative for the sustainable use of coffee grounds waste.

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Review on natural clay ceramic membrane: Fabrication and application in water and wastewater treatment

Cited by 20 publications

References 55 publications

Marine-Derived Biowaste Conversion into Bioceramic Membrane Materials: Contrasting of Hydroxyapatite Synthesis Methods

Marine-Derived Biowaste Conversion into Bioceramic Membrane Materials: Contrasting of Hydroxyapatite Synthesis Methods

Studies on Production of Low-Cost Ceramic Membranes and Their Uses in Wastewater Treatment Processes

Valorization potential of coffee grounds waste as a renewable pore-forming agent to produce low-cost porous ceramic support

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