Chem. J. Chinese Universities ›› 2020, Vol. 41 ›› Issue (4): 623.doi: 10.7503/cjcu20190686
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LING Yunyun1,2,LI Li1,LIANG Xiurong1,XIA Yunsheng1,*()
Received:
2019-12-18
Online:
2020-04-10
Published:
2020-02-17
Contact:
Yunsheng XIA
E-mail:xiayuns@mail.ahnu.edu.cn
Supported by:
CLC Number:
TrendMD:
LING Yunyun,LI Li,LIANG Xiurong,XIA Yunsheng. Glutathione Sensing: from Colorimetry to Single Particle Spectroscopy Based on Gold NP@MnO2 Nanosheets Supraparticles[J]. Chem. J. Chinese Universities, 2020, 41(4): 623.
Fig.1 Characterizations of the AMNS-SPs^SEM(A), TEM(B), HRTEM(C) and AFM(D, E) images of the AMNS-SPs. The curves a and b in Fig.1(E) represents the height profiles along the red and blue lines in Fig.1(D), respectively. (F) UV-Vis absorption spectra of AuNPs(a) and AMNS-SPs(b), and the insets are the corresponding photo images.
Fig.3 GSH sensing in bulk solution with AMNS-SPsTime-dependent absorption spectra of the AMNS-SPs in 10 (A), 50 (B), 100 (C) μmol/L of GSH, respectively. Time of curves a—p: 0—15 min. (D) Etching dynamics of the AMNS-SPs by 10(a), 50(b) and 100(c) μmol/L GSH. (E) c(GSH)/(μmol·L-1): a. 0; b. 0.2; c. 0.5; d. 1; e. 5; f. 10; g. 20; h. 50; i. 100; j. 200; k. 300. Absorption spectra of the AMNS-SPs in the presence of various concentrations of GSH. Dynamic range[0—300 μmol/L, (F)] and linear range [0.2—100 μmol/L, (G)] of the LSPR peak shift(Δλ) in different concentrations of GSH, respectively. (H) Linear range(0.2—100μmol/L) of ΔA380 in different concentrations of GSH. (I) a. PBS(pH=7.0); b. PBS(pH=7.4); c. Tris(pH=7.0); d. Tris(pH=7.4); e. KCl; f. K2CO3; g. NaCl; h. Na2SO4; i. MgSO4; j. MnSO4; k. alanine; l. arginine; m. lysine; n. serin; o. threonin; p. valine; q. histidine; r. glycine; s. leucine; t. glutamic acid; u. tyrosine; v. aspartic acid; w. tryptophan; x. cysteine; y. BSA; z. HSA; z1. fructose; z2 maltose; z3 glucose; z4 AA; z5 GSH. The responses of the AMNS-SPs to various biomolecules[the concentrations of various electrolytes(columns a—j) are 10 mmol/L. The concentrations of various amino acids(columns k—x) are 10, 10, 1.0, 10, 10, 10, 10, 10, 10, 0.25, 0.25, 0.25, 0.25 and 0.025 mmol/L, respectively. Both the concentrations of bovine serum albumin(BSA) and human serum albumin(HSA) are 1 mg/mL. The concentrations of fructose, maltose, glucose, AA and GSH(columns z1—z5) are 10, 10, 10, 0.025, and 0.025 mmol/L, respectively. (J) Photos of the AMNS-SPs etched by GSH. From left to right, the concentrations of GSH are 0, 0.5, 1, 5, 10, 20, 50, 100, 200, 300 μmol/L, respectively. The reaction time is 15 min.
Fig.4 Etching process of the AMNS-SPs by GSH molecules(0.3 μmol/L)Dark-field images of the AMNS-SPs before(A) and after(B) the etching process, respectively. (C) Scattering spectra of a single AMNS-SP before(a) and after(b) the etching process. (D) Time-dependent dark-field images of the AMNS-SPs. (E) TEM images of the AMNS-SPs during the etching process.
Fig.5 GSH sensing with single particle dark-field spectral imagingTypical single particle spectral images before(A) and after(B) adding GSH. (C) Distribution of λs-max after adding 0 pmol/L(C1), 1 pmol/L(C2), 10 pmol/L(C3), 100 pmol/L(C4), 1 nmol/L(C5), 10 nmol/L(C6), 100 nmol/L(C7) and 1 μmol/L(C8) GSH. 100 of the SPs are counted in each case. (D) Δλs-max vs. GSH concentration.
Fig.6 Characterizations of the TAMNS-SPs and their etching process by GSH molecules(0.3 μmol/L)TEM(A), HRTEM(B) and AFM(C, D) images of the TAMNS-SPs. The curves a and b in Fig.6(D) represents the height profiles along the red and blue lines in Fig.6(C), respectively. The time-dependent dark-field images of the TAMNS-SPs, time/min: (E) 0; (F) 5; (G) 10; (H) 15; (I) 20.
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