Intensified decontamination of amoxicillin drug wastewater assisted by liquid-phase micro extraction method

Abbasi, Ali; Rahbar-Kelishami, Ahmad; Seifollahi, Zahra; Ghasemi, M.

doi:10.1080/09593330.2020.1841830

Cited by 11 publications

(2 citation statements)

References 43 publications

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“…The charge density of the soft layer was evaluated as a function of pH, and eqs and were utilized to compute it. , ρ PEL , normalP = ρ PEL , 0 ( [ H + ] K α , P + false[ normalH + false] ) ρ PEL , normalN = ρ PEL , 0 ( K α , N K α , N + false[ normalH + false] ) In these equations, ρ PEL,P , ρ PEL,N , K α,P , and K α,N correspond to the charge density of the positive soft layer, the charge density of the negative soft layer, and the dissociation constants of the positively and negatively charged soft layers, respectively. ρ PEL,0 is the volume charge density of the soft layer, which is derived from the equation ρ PEL,0 = e Z PEL N PEL , where N PEL , Z PEL , and e represent the charge density of functional groups in the soft layer, the fixed charged species of the soft layer, and the electron charge, respectively …”

Section: Methodsmentioning

confidence: 99%

Enhanced Ionic Current Rectification through Innovative Integration of Polyelectrolyte Bilayers and Charged-Wall Smart Nanochannels

2022

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The tools utilized by humans continue to shrink and speed up. Lab-on-a-chip (LOC) is one of the most recent techniques for decreasing the size of chemical systems. Today, LOCs have made substantial strides in developing nanomaterial fabrication techniques. Controlling and regulating the fluid and ion mobility in these systems is crucial. Layer-by-layer (LBL) soft layers are one of the most effective strategies for controlling fluid flow in channels. In light of the present constraints for developing these systems and the high expense of experimental investigations, it is vital to employ modeling to minimize costs and comprehend their underlying ideas and operations. In this study, we examined the influence of the LBL soft layer's presence in the charged nanochannels on the ion transport parameters. To examine the effect of the coating length of the LBL soft layer, we first examined three lengths of coating: one with a length greater than half (type (I)), one with a length equal to half (type (II)), and one with a length less than half (type (III)) of the nanochannel length. Then, by solving Poisson−Nernst−Planck and Navier−Stokes equations, we determined the influences of pH, soft layer charge density (N PEL /N A ), bulk concentration (C 0 ), and hard surface charge density (σ) on the ionic current rectification (R f ) and selectivity (S) of the nanochannel. The maximum rectification of 30.65 was achieved using a nanochannel of type (III) and σ = +10 mC/m 2 . The current results demonstrate a promising hybrid architecture consisting of an LBL soft layer and a smart charged nanochannel for enhanced rectification.

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Section: Methodsmentioning

confidence: 99%

Enhanced Ionic Current Rectification through Innovative Integration of Polyelectrolyte Bilayers and Charged-Wall Smart Nanochannels

2022

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“…Abbasi, et al in a study extracted and removed color pollutants from industrial effluents [37]. In another study, they studied the removal of drug contaminants from effluents [51]. Recently, research has been conducted on the extraction of chromium from the aqueous phase by rotating microchannels.…”

Section: Microextractionmentioning

confidence: 99%