A review on the fabrication of several carbohydrate polymers into nanofibrous structures using electrospinning for removal of metal ions and dyes

Phan, Duy-Nam; Khan, Muhammad Qamar; Nguyen, Ngoc-Thang; Phan, Thanh-Thao Thi; Ullah, Azeem; Khatri, Muzamil; Kien, Nguyen Ngoc; Kim, Ick‐Soo

doi:10.1016/j.carbpol.2020.117175

Cited by 98 publications

(65 citation statements)

References 193 publications

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“…Electrospun nanofiber mats (ENMs), due to their high surface area, ease of production, fiber network interconnection, biocompatibility, breathability, and resemblance to natural extracellular matrix have been potentially considered for cell culture applications viz cell adhesion, cell migration, and cell viability [10][11][12][13]. In parallel, ENMs have been utilized in several applications including sensors [14], wound dressing [10], drug delivery [5], tissue engineering [15], smart apparels [16,17] high performance filters (water, bacteria, virus, heavy metal, and such impurities) [18][19][20][21]. Depending on the required application, cell adhesion and cell migration behaviors may differ due to the difference in cell size, type, or the culturing surface [4,6].…”

Section: Introductionmentioning

confidence: 99%

Fabrication of Poly(Ethylene-glycol 1,4-Cyclohexane Dimethylene-Isosorbide-Terephthalate) Electrospun Nanofiber Mats for Potential Infiltration of Fibroblast Cells

et al. 2021

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Recently, bio-based electrospun nanofiber mats (ENMs) have gained substantial attention for preparing polymer-based biomaterials intended for use in cell culture. Herein, we prepared poly(ethylene-glycol 1,4-Cyclohexane dimethylene-isosorbide-terephthalate) (PEICT) ENMs using the electrospinning technique. Cell adhesion and cell viability of PEICT ENMs were checked by fibroblast cell culture. Field emission electron microscope (FE-SEM) image showed a randomly interconnected fiber network, smooth morphology, and cell adhesion on PEICT ENM. Fibroblasts were cultured in an adopted cell culturing environment on the surface of PEICT ENMs to confirm their biocompatibility and cell viability. Additionally, the chemical structure of PEICT ENM was checked under Fourier-transform infrared (FTIR) spectroscopy and the results were supported by -ray photoelectron (XPS) spectroscopy. The water contact angle (WCA) test showed the hydrophobic behavior of PEICT ENMs in parallel to good fibroblast cell adhesion. Hence, the results confirmed that PEICT ENMs can be potentially utilized as a biomaterial.

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Section: Introductionmentioning

confidence: 99%

Fabrication of Poly(Ethylene-glycol 1,4-Cyclohexane Dimethylene-Isosorbide-Terephthalate) Electrospun Nanofiber Mats for Potential Infiltration of Fibroblast Cells

et al. 2021

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“…CNFs and CNCs are fabricated with the top‐down mechanical isolation from renewable natural sources such as wood and agricultural/forestry biomass residues. [ 133 ] Bacterial cellulose nanofibrils (BCNs), as high‐purity cellulose (without lignin, hemicelluloses compared with CNFs and CNCs), are prepared with the bottom‐up strategy. [ 134 ] The diameter of the BCNs ranges from 2 to 4 nm, whereas the length is less than 100 nm.…”

Section: Preparation Of Mofs Cellulose Derivatives and Mof@cellulose Hybridsmentioning

confidence: 99%

Recent Progress in Metal‐Organic Frameworks@Cellulose Hybrids and Their Applications

et al. 2021

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In recent years, metal‐organic frameworks (MOFs) are attracting increasing attention due to their charming properties. However, the intrinsic fragility, powdered crystalline state, and poor processibility of MOFs hinder their further application. By this, the designs of MOF‐based aerogels, hydrogels, membranes are effective ways to solve this problem. Graphene, silica, synthetic polymer and cellulose are the commonly used raw materials for fabricating MOF‐based aerogels, hydrogels, and membranes. Among them, cellulose and its derivatives are the best candidates to support the powdered MOFs from the perspectives of economy, environmental protection and property. This review focuses on discussing the advantages of MOF@cellulose hybrids in applications such as water treatment, antibacterial, gas separation and adsorption, energy storage, drug delivery, catalysis, and other smart composites. MOF@cellulose‐based aerogels, hydrogels and membranes can provide valuable guidance for investigating the practical application of MOFs in terms of processability, reusability, stability and easiness in handling.

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“…For example, synthetic biopolymers include polylactic acid (PLA), polycaprolactone (PCL), and polyvinyl alcohol (PVA). On the other hand, natural biopolymers are sourced from natural sources [5,6]. These naturally sourced biopolymers include cellulose, starch, chitosan [5][6][7], collagen, fibrinogen [5,6], chitin, alginate, and carrageenan, among others [7].…”

Section: Biopolymers: Properties and Applicationsmentioning

confidence: 99%

“…On the other hand, natural biopolymers are sourced from natural sources [5,6]. These naturally sourced biopolymers include cellulose, starch, chitosan [5][6][7], collagen, fibrinogen [5,6], chitin, alginate, and carrageenan, among others [7]. Among these, chitosan and cellulose are the most readily available biopolymers in nature.…”

Section: Biopolymers: Properties and Applicationsmentioning

confidence: 99%

Recent Advances in Biopolymeric Membranes towards the Removal of Emerging Organic Pollutants from Water

2021

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Herein, this paper details a comprehensive review on the biopolymeric membrane applications in micropollutants’ removal from wastewater. As such, the implications of utilising non-biodegradable membrane materials are outlined. In comparison, considerations on the concept of utilising nanostructured biodegradable polymeric membranes are also outlined. Such biodegradable polymers under considerations include biopolymers-derived cellulose and carrageenan. The advantages of these biopolymer materials include renewability, biocompatibility, biodegradability, and cost-effectiveness when compared to non-biodegradable polymers. The modifications of the biopolymeric membranes were also deliberated in detail. This included the utilisation of cellulose as matrix support for nanomaterials. Furthermore, attention towards the recent advances on using nanofillers towards the stabilisation and enhancement of biopolymeric membrane performances towards organic contaminants removal. It was noted that most of the biopolymeric membrane applications focused on organic dyes (methyl blue, Congo red, azo dyes), crude oil, hexane, and pharmaceutical chemicals such as tetracycline. However, more studies should be dedicated towards emerging pollutants such as micropollutants. The biopolymeric membrane performances such as rejection capabilities, fouling resistance, and water permeability properties were also outlined.

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A review on the fabrication of several carbohydrate polymers into nanofibrous structures using electrospinning for removal of metal ions and dyes

Cited by 98 publications

References 193 publications

Fabrication of Poly(Ethylene-glycol 1,4-Cyclohexane Dimethylene-Isosorbide-Terephthalate) Electrospun Nanofiber Mats for Potential Infiltration of Fibroblast Cells

Fabrication of Poly(Ethylene-glycol 1,4-Cyclohexane Dimethylene-Isosorbide-Terephthalate) Electrospun Nanofiber Mats for Potential Infiltration of Fibroblast Cells

Recent Progress in Metal‐Organic Frameworks@Cellulose Hybrids and Their Applications

Recent Advances in Biopolymeric Membranes towards the Removal of Emerging Organic Pollutants from Water

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