Acceptor concentration dependent Förster resonance energy transfer in nanocrystal-molecule complexes revealed by spectral analysis

Rongxin Zhang , Zixiang Zhou , Lei Wang , Xin Zhang , Ying Liang , Guijie Liang

Optoelectronics Letters ›› 2026, Vol. 22 ›› Issue (3) : 150 -153.

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Optoelectronics Letters ›› 2026, Vol. 22 ›› Issue (3) :150 -153. DOI: 10.1007/s11801-026-4257-3
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Acceptor concentration dependent Förster resonance energy transfer in nanocrystal-molecule complexes revealed by spectral analysis
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Abstract

A nanocrystal-molecule complex composed of CdSe donor and Rhodamine B (RhB) acceptor is prepared to investigate the effect of accepter-donor ratio on the Förster resonance energy transfer (FRET) process. To highlight the FRET process, the energy level alignment between CdSe and RhB is purposefully designed and CdSe nanocrystal is coated with a wide band gap ZnS shell. The carrier dynamics is observed via combined spectral analysis. The results reveal clear FRET process between the CdSe donor and RhB acceptor. The FRET is enhanced by increasing RhB/CdSe ratio and a gradual saturation will be present at high RhB concentration.

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Rongxin Zhang, Zixiang Zhou, Lei Wang, Xin Zhang, Ying Liang, Guijie Liang. Acceptor concentration dependent Förster resonance energy transfer in nanocrystal-molecule complexes revealed by spectral analysis. Optoelectronics Letters, 2026, 22(3): 150-153 DOI:10.1007/s11801-026-4257-3

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References

[1]

Zheng Y, Arkin K, Bei Yet al. . Synergistic lifetime extension strategy based on Förster resonance energy transfer and TADF for carbon-dot-based room temperature afterglow. Matter. 2023, 6(12): 4339-4356. J]

[2]

Jiang X, Hu M, Cao Get al. . Im-SCC-FRET: improved single-cell-based calibration of a FRET system. Optics express. 2023, 31(26): 43764-43770. J]

[3]

Wu L, Huang C, Emery B Pet al. . Förster resonance energy transfer (FRET)-based small-molecule sensors and imaging agents. Chemical society reviews. 2020, 49(15): 5110-5139. J]

[4]

Boivin L, Schlachter A, Fortin Det al. . Truxene-to-fluorenone energy transfer in a robust mesoporous Zn-MOF. Inorganic chemistry. 2023, 63(1): 141-150. J]

[5]

Andrew P, Barnes W L. Forster energy transfer in an optical microcavity. Science. 2000, 290(5492): 785-788. J]

[6]

Fan X, Wang S, Yang Xet al. . Brightened bicomponent perovskite nanocomposite based on Förster resonance energy transfer for micro-LED displays. Advanced materials. 2023, 35(30): 2300834. J]

[7]

Ma X B, Mao M C, Liu Z Yet al. . AND-gate logic Förster resonance energy transfer/magnetic resonance tuning nanoprobe for programmable antitumor immunity imaging. Journal of the American Chemical Society. 2024, 1464631873-31884. J]

[8]

Wang H, Yang D, Ding Pet al. . Dual Förster resonance energy transfer effects enables high photocurrent density and high fill factor in ternary organic solar cells. Chemical engineering journal. 2023, 474: 145395. J]

[9]

Li W, Wang Y, Wang Bet al. . Enhanced light-harvesting and energy transfer in carbon dots embedded thylakoids for photonic hybrid capacitor applications. Angewandte chemie. 2024, 136(4): e202308951. J]

[10]

Duan M, Zhao Y, Liu Yet al. . A low-background and wash-free signal amplification F-CRISPR biosensor for sensitive quantitative and visible qualitative detection of salmonella typhimurium. Science of the total environment. 2024, 912168905. J]

[11]

Lei S, Jiang K, Zhang Cet al. . A FRET-based ratiometric H2S sensor for sensitive optical molecular imaging in second near-infrared window. Research. 2023, 60286. J]

[12]

Martyanov T P, Tovstun S A, Vasilev S Get al. . Adsorption of meso-tetra (3-pyridyl) porphyrin on InP/ZnS colloidal quantum dots. Journal of nanoparticle research. 2022, 247129. J]

[13]

Qin H, Wang C, Xu Jet al. . High perovskite-to-manganese energy transfer efficiency in single-component white-emitting Mn-doped halide perovskite quantum dots. Journal of materials science. 2020, 5572984-2993. J]

[14]

Li Z, Robinson Z L, Elvati Pet al. . Distance-dependent resonance energy transfer in alkyl-terminated Si nanocrystal solids. The journal of chemical physics. 2022, 15612124705. J]

[15]

Blondot V, Arnold C, Delteil Aet al. . Fluorescence decay enhancement and FRET inhibition in self-assembled hybrid gold CdSe/CdS/CdZnS colloidal nanocrystal supraparticles. Optics express. 2023, 3134454-4464. J]

[16]

Yang G, Shi S, Zhang Xet al. . Ultrafast photophysical process of bi-exciton Auger recombination in CuInS2 quantum dots studied by transient-absorption spectroscopy. Optics express. 2021, 29(6): 9012-9020. J]

[17]

Saad A M, Nadi S, Ibraheem Fet al. . Bright photoluminescence from CdSe quantum dots conjugated with metal phthalocyanines. Optical materials. 2024, 147: 114736. J]

[18]

Yang C, Li Y, Hou Xet al. . Conversion of photoluminescence blinking types in single colloidal quantum dots. Small. 2024, 20(23): 2309134. J]

[19]

Boulesbaa A, Huang Z, Wu Det al. . Competition between energy and electron transfer from CdSe QDs to adsorbed Rhodamine B. The journal of physical chemistry C. 2010, 1142962-969. J]

[20]

Boulesbaa A, Issac A, Stockwell Det al. . Ultrafast charge separation at CdS quantum dot/Rhodamine B molecule interface. Journal of the American Chemical Society. 2007, 1294915132-15133. J]

[21]

Zhu H, Song N, Lian T. Controlling charge separation and recombination rates in CdSe/ZnS type I core-shell quantum dots by shell thicknesses. Journal of the American Chemical Society. 2010, 132(42): 15038-15045. J]

[22]

Lin X, Chen Z, Han Yet al. . ZnSe/ZnS core/shell quantum dots as triplet sensitizers toward visible-to-ultraviolet B photon upconversion. ACS energy letters. 2022, 7(3): 914-919. J]

[23]

Jasieniak J, Smith L, Van Embden Jet al. . Re-examination of the size-dependent absorption properties of CdSe quantum dots. The journal of physical chemistry C. 2009, 113(45): 19468-19474. J]

[24]

Luo X, Han Y, Chen Zet al. . Mechanisms of triplet energy transfer across the inorganic nanocrystal/organic molecule interface. Nature communications. 2020, 11(1): 28. J]

[25]

Zhang J, Yang G, He Bet al. . Electron transfer kinetics in CdS/Pt heterojunction photocatalyst during water splitting. Chinese journal of catalysis. 2022, 43102530-2538. J]

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