Journal of Analytical Methods in Chemistry

Research Article

Solidified Floating Organic Drop Microextraction for the Detection of Trace Amount of Lead in Various Samples by Electrothermal Atomic Absorption Spectrometry

Table 5

Comparison of the SFODM method with some recent studies on separation and preconcentration of Pb(II) ions reported in the literature.


Technique	Sample	E.F	LOD (µgL⁻¹)	Liner range (µgL⁻¹)	R

CPE-FAAS	Water and food samples	25	3.42	500–10000	[17]
Coprecipitation-FAAS	Water samples	40	9,7	—	[18]
HF-LPME-ETAAS	Environmental and biological samples	76	0.02	0,04–1	[19]
DLPME-GFAAS	Water and biological samples	78	0.039	0.004–0.03	[2]
SPE-FAAS	Environmental water and vegetable samples	125	0.61	10–600	[20]
SM-DLLME-FAAS	Food samples	—	0.4	1–500	[21]
SPE-FAAS	Water samples	20	5	1–12	[22]
SFODME-GFAAS	Water and rack samples	113	0,058	0,2–10	[23]
SFODME-GFAAS	Water and food samples	300	0.042	0.05–40	This study

CPE: cloud point extraction; DLPME: dispersive liquid phase microextraction; HF-LPME: hollow fiber based-liquid phase microextraction; SPE: solid phase extraction; SFODME: solidified floating organic drop microextraction; ETAAS: electrothermal atomic absorption spectrometry; GFAAS: graphite furnace atomic absorption spectrometry; FAAS: flame atomic absorption spectrometry; LOD: limit of detection; E.F: enrichment factor; SM: supramolecular microextraction; R: reference.