[1] Adomako-Bonsu A G, Jacobsen J, Maser E. Metabolic activation of 2,4,6-trinitrotoluene; a case for ROS-induced cell damage[J]. Redox Biology, 72, 103082(2024).

[2] Paul T, Roy Choudhury D, Ghosh D et al. Advancements in optical sensors for explosive materials identification: a comprehensive review[J]. Results in Chemistry, 8, 101602(2024).

[3] Ferreira C, Freire F, Ribeiro J. Life-cycle assessment of a civil explosive[J]. Journal of Cleaner Production, 89, 159-164(2015).

[4] Osán T M, Cerioni L M C, Forguez J et al. NQR: from imaging to explosives and drugs detection[J]. Physica B: Condensed Matter, 389, 45-50(2007).

[5] Harding G. X-ray diffraction imaging: a multi-generational perspective[J]. Applied Radiation and Isotopes, 67, 287-295(2009).

[6] Lahoda K G, Collin O L, Mathis J A et al. A survey of background levels of explosives and related compounds in the environment[J]. Journal of Forensic Sciences, 53, 802-806(2008).

[7] Yang Z, Dou X C. Emerging and future possible strategies for enhancing 1D inorganic nanomaterials-based electrical sensors towards explosives vapors detection[J]. Advanced Functional Materials, 26, 2406-2425(2016).

[8] Buryakov I A, Buryakov T I, Matsayev V T. Electrical, electrochemical, and thermometric sensors for the detection of explosives[J]. Journal of Analytical Chemistry, 71, 234-242(2016).

[9] Bolse N, Eckstein R, Schend M et al. A digitally printed optoelectronic nose for the selective trace detection of nitroaromatic explosive vapours using fluorescence quenching[J]. Flexible and Printed Electronics, 2, 024001(2017).

[10] Mary Celin S, Sharma B, Bhanot P et al. Trends in environmental monitoring of high explosives present in soil/sediment/groundwater using LC-MS/MS[J]. Mass Spectrometry Reviews, 42, 1727-1771(2023).

[11] Badjagbo K, Sauvé S. Mass spectrometry for trace analysis of explosives in water[J]. Critical Reviews in Analytical Chemistry, 42, 257-271(2012).

[12] Shriver-Lake L C, Breslin K A, Charles P T et al. Detection of TNT in water using an evanescent wave fiber-optic biosensor[J]. Analytical Chemistry, 67, 2431-2435(1995).

[13] Zu F L, Yan F Y, Bai Z J et al. The quenching of the fluorescence of carbon dots: a review on mechanisms and applications[J]. Microchimica Acta, 184, 1899-1914(2017).

[14] Sun X C, Wang Y, Lei Y. Fluorescence based explosive detection: from mechanisms to sensory materials[J]. Chemical Society Reviews, 44, 8019-8061(2015).

[15] Vauthey E. Elucidating the mechanism of bimolecular photoinduced electron transfer reactions[J]. The Journal of Physical Chemistry B, 126, 778-788(2022).

[16] Roy S, Baer M D, Mundy C J et al. Marcus theory of ion-pairing[J]. Journal of Chemical Theory and Computation, 13, 3470-3477(2017).

[17] Huang C B, Xu L, Zhu J L et al. Real-time monitoring the dynamics of coordination-driven self-assembly by fluorescence-resonance energy transfer[J]. Journal of the American Chemical Society, 139, 9459-9462(2017).

[18] Kaur A, Kaur P, Ahuja S. Förster resonance energy transfer (FRET) and applications thereof[J]. Analytical Methods, 12, 5532-5550(2020).

[19] Lix K, Krause K D, Kim H et al. Investigation of the energy transfer mechanism between semiconducting polymer dots and organic dyes[J]. The Journal of Physical Chemistry C, 124, 17387-17400(2020).

[20] Zhang Q Q, Zhang C K, Cao L Y et al. Förster energy transport in metal-organic frameworks is beyond step-by-step hopping[J]. Journal of the American Chemical Society, 138, 5308-5315(2016).

[21] Song Q, Wang L, Zhang X Y et al. Research progress of optical fiber sensors based on novel fluorescent materials: dissolved oxygen, pH, and carbon dioxide[J]. Laser & Optoelectronics Progress, 60, 1700004(2023).

[22] Sheinin V B, Kulikova O M, Koifman O I. Invertion and methylation of pyrrole ring in tetrasulfophenylporphyrin: basicity, aggregation properties, chirality[J]. Journal of Molecular Liquids, 277, 397-408(2019).

[23] Yang Y, Jiang J H, Shen G L et al. An optical sensor for mercury ion based on the fluorescence quenching of tetra (p-dimethylaminophenyl) porphyrin[J]. Analytica Chimica Acta, 636, 83-88(2009).

[24] Tao S Y, Li G T, Zhu H S. Metalloporphyrins as sensing elements for the rapid detection of trace TNT vapor[J]. Journal of Materials Chemistry, 16, 4521-4528(2006).

[25] Tao S Y, Li G T. Porphyrin-doped mesoporous silica films for rapid TNT detection[J]. Colloid and Polymer Science, 285, 721-728(2007).

[26] Rana A, Panda P K. Fluorescent turn-off based sensing of nitrated explosives using porphyrins and their Zn(Ⅱ)-derivatives[J]. RSC Advances, 2, 12164(2012).

[27] Gour A, Ramteke S, Jain N K. Pharmaceutical applications of quantum dots[J]. Journal of the American Association of Pharmaceutical Scientists, 22, 233(2021).

[28] Wu H, Yang Y, Zhou D C et al. Rb+ cations enable the change of luminescence properties in perovskite (RbxCs1-xPbBr3) quantum dots[J]. Nanoscale, 10, 3429-3437(2018).

[29] Tang Y Q, Tang S Z, Luo M et al. All-inorganic lead-free metal halide perovskite quantum dots: progress and prospects[J]. Chemical Communications, 57, 7465-7479(2021).

[30] Qian J, Hua M J, Wang C Q et al. Fabrication of l-cysteine-capped CdTe quantum dots based ratiometric fluorescence nanosensor for onsite visual determination of trace TNT explosive[J]. Analytica Chimica Acta, 946, 80-87(2016).

[31] Xu Z C, Yeh C L, Jiang Y J et al. Orientation-adjustable metal-organic framework nanorods for efficient oxygen evolution reaction[J]. ACS Applied Materials & Interfaces, 13, 28242-28251(2021).

[32] Jin J, Xue J J, Liu Y C et al. Recent progresses in luminescent metal-organic frameworks (LMOFs) as sensors for the detection of anions and cations in aqueous solution[J]. Dalton Transactions, 50, 1950-1972(2021).

[33] Awasthi G, Kumar P. Relative capability demonstration of luminescent Al-MOFs for ideal detection of nitroaromatic explosives[J]. Analytical Methods, 14, 3467-3473(2022).

[34] Kumar A, Sahoo S C, Mehta S K et al. A luminescent Zn-MOF for the detection of explosives and development of fingerprints[J]. Analytical Methods, 14, 700-707(2022).

[35] Liu J K, Zhang H K, Hu L R et al. Through-space interaction of tetraphenylethylene: what, where, and how[J]. Journal of the American Chemical Society, 144, 7901-7910(2022).

[36] Rafique S, Irshad H, Majeed S et al. AIEE active stilbene based fluorescent sensor with red-shifted emission for vapor phase detection of nitrobenzene and moisture sensing[J]. Journal of Photochemistry and Photobiology A: Chemistry, 437, 114459(2023).

[37] Lin H, Cheng X, Yin M J et al. Flexible porphyrin doped polymer optical fibers for rapid and remote detection of trace DNT vapor[J]. The Analyst, 145, 5307-5313(2020).

[38] Chu F H, Ye L, Yang J J. Experimental study of aromatic explosive sensor based on fluorescence quenching[J]. Chinese Journal of Lasers, 38, 0908004(2011).

[39] Chu F H, Tsiminis G, Spooner N A et al. Explosives detection by fluorescence quenching of conjugated polymers in suspended core optical fibers[J]. Sensors and Actuators B: Chemical, 199, 22-26(2014).

[40] Ruan S, Chen Y Z, Zhang P et al. Online remote monitoring of explosives by optical fibres[J]. RSC Advances, 6, 103324-103327(2016).

[41] Yang J C, Shen R, Yan P X et al. Fluorescence sensor for volatile trace explosives based on a hollow core photonic crystal fiber[J]. Sensors and Actuators B: Chemical, 306, 127585(2020).

[42] Li Y G, Sun Z W, Liu Y. Research progress of peroxide explosives[J]. Chemical Research and Application, 33, 985-995(2021).

[43] Fleischmann M, Hendra P J, McQuillan A J. Raman spectra of pyridine adsorbed at a silver electrode[J]. Chemical Physics Letters, 26, 163-166(1974).

[44] Jeanmaire D L, Vanduyne R P. Surface Raman spectroelectrochemistry: Part I. Heterocyclic, aromatic, and aliphatic amines adsorbed on the anodized silver electrode[J]. Journal of Electroanalytical Chemistry, 84, 1-20(1977).

[45] Albrecht M G, Creighton J A. Anomalously intense Raman spectra of pyridine at a silver electrode[J]. Journal of the American Chemical Society, 99, 5215-5217(1977).

[46] Xu H, Aizpurua J, Kall M et al. Electromagnetic contributions to single-molecule sensitivity in surface-enhanced Raman scattering[J]. Physical Review E, 62, 4318-4324(2000).

[47] Shegai T, Vaskevich A, Rubinstein I et al. Raman spectroelectrochemistry of molecules within individual electromagnetic hot spots[J]. Journal of the American Chemical Society, 131, 14390-14398(2009).

[48] Guerrini L, Graham D. Molecularly-mediated assemblies of plasmonic nanoparticles for surface-enhanced Raman spectroscopy applications[J]. Chemical Society Reviews, 41, 7085-7107(2012).

[49] Gangwar R K, Pathak A K, Chiavaioli F et al. Optical fiber SERS sensors: unveiling advances, challenges, and applications in a miniaturized technology[J]. Coordination Chemistry Reviews, 510, 215861(2024).

[50] Fan M K, Andrade G F S, Brolo A G. A review on the fabrication of substrates for surface enhanced Raman spectroscopy and their applications in analytical chemistry[J]. Analytica Chimica Acta, 693, 7-25(2011).

[51] Kleinman S L, Frontiera R R, Henry A I et al. Creating, characterizing, and controlling chemistry with SERS hot spots[J]. Physical Chemistry Chemical Physics, 15, 21-36(2013).

[52] Botti S, Cantarini L, Almaviva S et al. Assessment of SERS activity and enhancement factors for highly sensitive gold coated substrates probed with explosive molecules[J]. Chemical Physics Letters, 592, 277-281(2014).

[53] Dasary S S R, Singh A K, Senapati D et al. Gold nanoparticle based label-free SERS probe for ultrasensitive and selective detection of trinitrotoluene[J]. Journal of the American Chemical Society, 131, 13806-13812(2009).

[54] Glembocki O J, Gowda M, Geng S et al. Cysteamine coated Ag and Au nanorods for improved surface enhanced Raman scattering from dinitrotoluene and trinitrotoluene[J]. Proceedings of SPIE, 7757, 77570I(2010).

[55] Zhou H B, Zhang Z P, Jiang C L et al. Trinitrotoluene explosive lights up ultrahigh Raman scattering of nonresonant molecule on a top-closed silver nanotube array[J]. Analytical Chemistry, 83, 6913-6917(2011).

[56] Liu X J, Zhao L, Shen H et al. Ordered gold nanoparticle arrays as surface-enhanced Raman spectroscopy substrates for label-free detection of nitroexplosives[J]. Talanta, 83, 1023-1029(2011).

[57] Wu J J, Feng Y, Zhang L et al. Nanocellulose-based surface-enhanced Raman spectroscopy sensor for highly sensitive detection of TNT[J]. Carbohydrate Polymers, 248, 116766(2020).

[58] Gao W Y, Wang T R, Zhu C S et al. A ‘sandwich’ structure for highly sensitive detection of TNT based on surface-enhanced Raman scattering[J]. Talanta, 236, 122824(2022).

[59] Yu M, Tian Q H, He G Y et al. Surface-enhanced Raman scattering fiber probe based on silver nanocubes[J]. Advanced Fiber Materials, 3, 349-358(2021).

[60] Geng Y F, Yin Z, Tan X L et al. Femtosecond laser ablated polymer SERS fiber probe with photoreduced deposition of silver nanoparticles[J]. IEEE Photonics Journal, 8, 4502006(2016).

[61] Managò S, Quero G, Zito G et al. Tailoring lab-on-fiber SERS optrodes towards biological targets of different sizes[J]. Sensors and Actuators B: Chemical, 339, 129321(2021).

[62] Huang Y T, Liu W, Gong Z J et al. Detection of buried explosives using a surface-enhanced Raman scattering (SERS) substrate tailored for miniaturized spectrometers[J]. ACS Sensors, 5, 2933-2939(2020).

[63] Cennamo N, D’Agostino G, Galatus R et al. Sensors based on surface plasmon resonance in a plastic optical fiber for the detection of trinitrotoluene[J]. Sensors and Actuators B: Chemical, 188, 221-226(2013).

[64] Cennamo N, Pesavento M, Marchetti S et al. Molecularly imprinted polymers and optical fiber sensors for security applications[M]. Advanced materials for defense, 4, 17-24(2020).

[65] Demeritte T, Kanchanapally R, Fan Z et al. Highly efficient SERS substrate for direct detection of explosive TNT using popcorn-shaped gold nanoparticle-functionalized SWCNT hybrid[J]. Analyst, 137, 5041-5045(2012).

[66] Hatab N A, Rouleau C M, Retterer S T et al. An integrated portable Raman sensor with nanofabricated gold bowtie array substrates for energetics detection[J]. Analyst, 136, 1697-1702(2011).

[67] Bharadwaj R, Mukherji S. Gold nanoparticle coated U-bend fibre optic probe for localized surface plasmon resonance based detection of explosive vapours[J]. Sensors and Actuators B: Chemical, 192, 804-811(2014).

[68] Shree M D, Sangeetha A, Krishnan P. Design and analysis of FBG sensor for explosive detection applications[J]. Plasmonics, 15, 813-819(2020).

[69] Wei P, Lang H, Liu T L et al. Detonation velocity measurement with chirped fiber Bragg grating[J]. Sensors, 17, 2552(2017).

[70] Zhu Y L, Zhu G C, Wang N et al. Settlement monitoring of ultra-long GIS in substations based on weak fiber Bragg grating array[J]. Laser & Optoelectronics Progress, 62, 0128001(2025).

[71] Yang M H, Ye Y X, Nie Q L et al. Review on research progress of optical fiber sensing technology in energy storage battery performance monitoring[J]. Laser & Optoelectronics Progress, 60, 1106006(2023).

[72] Srivastava D, Yadav S, Mishra A C et al. Ultrasensitive photonic crystal fiber sensor for identifying various explosives[J]. Plasmonics, 18, 2295-2304(2023).

[73] Wang R L, Yang G, Zhang J Q et al. Rapid, on-site detection of residual explosives based on a lab-in-a-capillary and UV fiber sensor[J]. Analytical Methods, 6, 9628-9633(2014).