Advances in construction of triazine-based porous organic polymers and their applications in solid phase microextraction

doi:10.3724/SP.J.1123.2020.07036

Abstract

Abstract:

The large surface area, adjustable pore structure, good thermal and chemical stabilities, and abundant π-electron systems make triazine-based porous organic polymers (TPOPs) as promising porous materials for gas storage, catalysis, energy conversion and adsorption. Recently, TPOPs have aroused ever-increasing interest and are considered as one of the research highlights in solid phase microextraction (SPME) and other sample pretreatment techniques. This minireview summarizes the recent advancements in the synthesis of TPOPs and their applications in SPME. The application prospects of the TPOPs in SPME and other sample pretreatment techniques are also presented.

Key words: solid phase microextraction (SPME), construction, triazine-based porous organic polymers (TPOPs)

CLC Number:

O658

WANG Zhuo, WANG Wenjin, ZHANG Shuaihua, WANG Chun, WANG Zhi. Advances in construction of triazine-based porous organic polymers and their applications in solid phase microextraction[J]. Chinese Journal of Chromatography, 2021, 39(2): 125-129.

Figures/Tables 1

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Coating	Samples	Analytes	Analytical method	LOD	Linear range	Ref.
TPT-COF	juice	PAEs	GC-FID	5-95 ng/L	0.01-100 μg/L	[27]
PAF	cosmetics	antioxidants	GC-FID	0.12-0.22 μg/L	0.02-500 mg/L	[28]
		preservatives		0.19-0.30 μg/L
PAF-6	water	PAHs	GC-MS	0.8-4.2 ng/L	1.6-4000 ng/L	[29]
COF-F-1	water	PFASs	nanoESI-MS	0.02-0.8 ng/L	1-5000 ng/L	[30]
PAF-56P	fruits and vegetables	triazole fungicides	GC-MS	0.15-1.70 ng/g	2.50-250 ng/g	[31]
TOPs@SiO₂	water	PAHs	HPLC	0.003-0.010 μg/L	0.010-20 μg/L	[32]
SNW-1	tea leaf, tobacco	VFAs	GC-MS	0.014-0.026 μg/L	0.05-10 μg/L	[33]
	honey	phenols	GC-MS	0.06-0.2 ng/g	0.1-100 ng/g	[34]
CC-TPA	apple, peach and pear	organochlorine pesticides	GC-ECD	0.032-0.090 ng/g	0.11-20 ng/g	[35]
CC-QP	honey	PAHs	GC-MS	0.03-0.19 ng/g	0.10-100 ng/g	[36]
PAF-6-NPC	water	n-alkanes	GC-FID	0.8-6 ng/L	5-2000 ng/L	[38]
	soil			0.01-0.05 ng/g	0.05-20 ng/g

Coating	Samples	Analytes	Analytical method	LOD	Linear range	Ref.
TPT-COF	juice	PAEs	GC-FID	5-95 ng/L	0.01-100 μg/L	[27]
PAF	cosmetics	antioxidants	GC-FID	0.12-0.22 μg/L	0.02-500 mg/L	[28]
		preservatives		0.19-0.30 μg/L
PAF-6	water	PAHs	GC-MS	0.8-4.2 ng/L	1.6-4000 ng/L	[29]
COF-F-1	water	PFASs	nanoESI-MS	0.02-0.8 ng/L	1-5000 ng/L	[30]
PAF-56P	fruits and vegetables	triazole fungicides	GC-MS	0.15-1.70 ng/g	2.50-250 ng/g	[31]
TOPs@SiO₂	water	PAHs	HPLC	0.003-0.010 μg/L	0.010-20 μg/L	[32]
SNW-1	tea leaf, tobacco	VFAs	GC-MS	0.014-0.026 μg/L	0.05-10 μg/L	[33]
	honey	phenols	GC-MS	0.06-0.2 ng/g	0.1-100 ng/g	[34]
CC-TPA	apple, peach and pear	organochlorine pesticides	GC-ECD	0.032-0.090 ng/g	0.11-20 ng/g	[35]
CC-QP	honey	PAHs	GC-MS	0.03-0.19 ng/g	0.10-100 ng/g	[36]
PAF-6-NPC	water	n-alkanes	GC-FID	0.8-6 ng/L	5-2000 ng/L	[38]
	soil			0.01-0.05 ng/g	0.05-20 ng/g