基于树枝状结构的核壳型纳米反应器研究进展

doi:10.11949/0438-1157.20251319

摘要/Abstract

摘要：

核壳型纳米反应器由内层核芯材料和另一种外壳材料复合而成。当树枝状介孔材料作为其中之一时，基于树枝状结构的核壳型纳米反应器应运而生，包括磁性核@树枝状壳、非磁性核@树枝状壳、树枝状核@介孔壳等多种类型。这些复合体兼备构成材料的物理化学特性，在重金属吸附、催化合成、分子检测、生物酶固定、药物递送等领域具有广泛的应用前景和优势。截至目前，还未出现介绍该类纳米材料的综述文章。因此，本文主要归纳分析树枝状核壳结构纳米反应器的分类，每种类型的结构特征、制备方法及应用领域，分析展望该学科今后的研究重点及发展前景。期望本综述能够给予材料和化学科学家一些参考，加速树枝状核壳结构纳米反应器的蓬勃发展。

关键词: 化学反应器, 复合材料, 纳米粒子, 纳米结构, 二氧化硅

Abstract:

Core-shell nanoreactors are composed of an inner core material and an outer shell one. When the dendritic mesoporous material serves as one component, dendritic-based core-shell nanoreactors can be developed, covering magnetic core@dendritic shell, non-magnetic core@dendritic shell, dendritic core@mesoporous shell, and so on. These composites combine physicochemical properties of the constituent entities and possess broad application prospects and advantages in multiple fields, like chemical adsorption of heavy metal, catalytic synthesis, molecular detection, enzyme immobilization, drug delivery, and so forth. Up to date, no review has been officially published with respect to this type of nanomaterial. This paper not only systematically categorizes dendritic core-shell nanoreactors and analyzes their structural characteristics, preparation methods, as well as application domains, but also outlines future research priorities and development prospects in this field. It is expected that this review could serve as a reference for material and chemical scientists, accelerating the vigorous development of dendritic-based core-shell nanoreactors.

Key words: chemical reactors, composites, nanoparticles, nanostructure, silica

中图分类号:

TB33

王亚斌, 黄亮珠, 赵文廷, 丁秀萍. 基于树枝状结构的核壳型纳米反应器研究进展[J]. 化工学报, DOI: 10.11949/0438-1157.20251319.

Yabin WANG, Liangzhu HUANG, Wenting ZHAO, Xiuping DING. Research progress in core-shell nanoreactors on the basis of dendritic architectures[J]. CIESC Journal, DOI: 10.11949/0438-1157.20251319.

图/表 6

图1 （a）自然界具有“树枝状”结构的树木分支实物图（a1）；（a2）树木分支实物的环状结构；（a3）带有功能基团的树枝状大分子示意图；（b）本文作者课题组制得DMSNs的透射电镜（b1）和次级电子（SE，b2）图像；（c）本文作者课题组制得具有小孔（c1）；中孔（c2）；大孔（c3）和极大孔（c4）的DMSNs；（d）树枝状磁性单一材料核壳型M@DMNs（d1）；磁性多样材料核壳型M@barrier@DMNs（d2）；磁性蛋黄-蛋壳型M@void@DMNs（d3）；非磁性核壳型NM@DMNs（d4）；非磁性蛋黄-蛋壳型NM@void@DMNs（d5）和非磁性核壳型DMNs@NM（d6）纳米粒子结构模型

Fig.1 (a) A photograph of a tree branch in nature with “dendritic” architecture (a1); the loop of the above tree branches (a2); and a branched organic macromolecule with functional groups (a3); (b) TEM (b1) and secondary electron (SE, b2) images of a single DMSNs synthesized by our team; (c) DMSNs with small (c1); medium (c2); large (c3); and extra-large (c4) pores in our laboratory; (d) Structural models of simple dendritic magnetic core-shell M@DMNs (d1); composite dendritic magnetic core-shell M@barrier@DMNs (d2); dendritic magnetic yolk-shell M@void@DMNs (d3); as well as dendritic non-magnetic core-shell NM@DMNs (d4); non-magnetic yolk-shell NM@void@DMNs (c5); and non-magnetic core-shell DMNs@NM (d6)

图2 （a-c）链状（a）；盘状（b）；球状小孔（c1）；球状中孔（c2）和球状大孔（c3）树枝状磁性核壳型纳米反应器的透射电镜图[22]；（d）本文作者课题组制得Fe3O4@SiO2@DMSNs的透射电镜-元素分布图；（e）本文作者课题组制得Fe3O4@DMSNs的透射电镜-元素分布图；（f）由作者课题组制得Fe3O4@DMSNs的扫描和透射电镜图像衍生的三维模型示意图

Fig.2 (a) TEM images of magnetic core-shell DMSNs with chainlike (a); disclike (b); and spherical (c) cores; but in forms of small (c1); medium (c2); and large (c3) pores[22]; (d) TEM mapping images of a Fe3O4@SiO2@DMSNs in our laboratory; (e) TEM mapping images of a Fe3O4@DMSNs in our laboratory; (f) A three-dimensional model of a Fe3O4@DMSNs extracted by its SEM and TEM images

图3 （a）功能化树枝状磁性核壳型纳米反应器的常用硅烷偶联剂；包括3-巯基丙基三甲氧基硅烷MPTMS（a1）；3-氨基丙基三乙氧基硅烷APTES（a2）；3-氰基丙基三甲氧基硅烷CyPTMS（a3）；正己基三甲氧基硅烷HTMS（a4）；乙烯基三乙氧基硅烷VTES（a5）；3-氯丙基三乙氧基硅烷CPTES（a6）和3-缩水甘油丙氧基三甲氧基硅烷GPTMS（a7）；（b）含8-氨基喹啉官能团的新型硅烷分子合成路线；（c）含罗丹明B官能团的新型硅烷分子合成路线；（d）纳米反应器Fe3O4@SiO2@DMSNs-IL-Au(I)催化系列炔丙胺化合物和二氧化碳生成2-唑烷酮类物质；（e）纳米反应器Fe3O4@SiO2@DMSNs-IG催化CO2；α-氨基酸和环氧乙烷生成N-[(2-羟乙氧基)羰基]甘氨酸

Fig.3 (a) Normal silane coupling agents for functionalization of dendritic magnetic core-shell nanoreactors; including 3-mercaptopropyltrimethoxysilane (a1); 3-aminopropyltriethoxysilane (a2); 3-cyanopropyltrimethoxysilane (a3); hexyltrimethoxysilane (a4); vinyltriethoxysilane (a5); 3-chloropropyltriethoxysilane (a6); and 3-glycidoxypropyltriethoxysilane (a7); (b) The synthesis route of a novel silane molecule containing 8-aminoquinoline functional group; (c) The synthesis route of a novel silane molecule containing rhodamine B functional group; (d) Synthesis of 2-oxazolidinone with propargylic amines and CO2 catalyzed by Fe3O4@SiO2@DMSNs-IL-Au(I) nanoreactor; (e) Synthesis of N-[(2-hydroxyethoxy)carbonyl]glycine with CO2; α-amino acid, and ethylene oxide catalyzed by Fe3O4@SiO2@DMSNs-IG nanoreactor

图4 （a）椭圆形树枝状核壳结构的透射和扫描电镜图；包括Fe2O3@DMSNs（a1）和Fe3O4@DMSNs（a2）[65]；（b）通过调节TEOS添加量制得不同粒径和孔密度SPION@DMSNs的透射电镜图[66]；（c）本文作者课题组制得具有10、25和60 nm孔径Fe3O4@DMSNs-OTES的透射和扫描电镜图；（d）蛋黄-蛋壳结构Fe3O4@SiO2@void@DMSNs的透射电镜图[17]；（e）一锅自模板界面扩散法制得核壳、蛋黄-蛋壳和空心结构DMSNs的透射电镜图[71]；（f）蛋黄-蛋壳型MONs@void@DMONs的合成示意图及其透射电镜图[73]；（g） DMSNs为中心核制备得 (DMSNs-APTES-Au)@void@MSNs的透射电镜图[74]

Fig.4 (a) TEM and inserted SEM images of elliptical magnetic core-shell architectures; being Fe2O3@DMSNs (a1) and Fe3O4@DMSNs (a2) [65]; (b) TEM images of SPION@DMSNs with various diameters and pore densities adjusted by TEOS dosage[66]; (c) TEM and inserted SEM images of superhydrophobic Fe3O4@DMSNs-OTES with 10, 25, and 60 nm pores prepared in our laboratory; (d) TEM image of yolk-shell Fe3O4@SiO2@void@DMSNs[17]; (e) TEM images of core-shell, yolk-shell, and hollow DMSNs prepared by a one-pot self-templated interfacial diffusion method[71]; (f) Schematic illustration of the synthesis process of MONs@void@DMONs and its TEM image[73]; (g) TEM image of a (DMSNs-APTES-Au)@void@MSNs nanoreactor[74]

图5 （a）具有不同相行为和微结构的水-表面活性剂-油三相系统[76]；（b）扰动界面形成SiO2@DMSNs机制示意图[77]；（c）DMSNs；（d）DMSNs@DMSNs和（e）DMSNs@DMSNs@DMSNs；纳米颗粒的透射（c1-e1）；扫描（c2-e2）电镜图及三维模型图[79]；（f）双相分层法合成DMSNs的界面增长机制[79]；（g） ZeoA@DMSNs 的透射（g1）和扫描（g2）电镜图。ZeoA （g3）以及ZeoA核-DMSNs 壳交汇界面（g4）的透射电镜图[98]

Fig.5 (a) Water-surfactant-oil ternary systems with various phase behaviors and substructures[76]; (b) Schematic illustration of formation mechanism of SiO2@DMSNs from the disturbed interface[77]; (c-d) TEM (c1-e1); SEM (c2-e2); and inserted 3D model images of DMSNs (c); DMSNs@DMSNs (d); and DMSNs@DMSNs@DMSNs (e)[79]; (f) Synthesis mechanism of DMSNs by interfacial growth from biphase stratification approach[79]; (g) TEM (g1) and SEM (g2) images of ZeoA@DMSNs; TEM images of ZeoA (g3) and the boundary between ZeoA core and DMSNs shell (g4) [98]

图6 （a）椭球状Bi2S3@DMSNs-CeO2-PEG合成路线及TEM图[117]；（b）纳米反应器UCNPs@(SiO2&MB)@DMSNs-LYZ@HP的合成过程示意图[125]；（c）本文作者课题组改变TBOT添加量制得系列DMSNs-TiO2复合物的TEM和SEM图；（d）合成DMSNs-void@C 过程涉及纳米粒子的TEM和示意图；包括DMSNs (d1)； DMSNs-RF@RF (d2)；DMSNs-RF@RF@SiO2 (d3)和DMSNs-void@C (d4) [130]

Fig.6 (a) Schematic illustration of synthetic procedure for ellipsoidal Bi2S3@DMSNs-CeO2-PEG[117]; (b) Schematic illustration of synthetic route for UCNPs@(SiO2&MB)@DMSNs-LYZ@HP[125]; (c) TEM and SEM images of various DMSNs-TiO2 composites in our laboratory by adjusting TBOT dosage from 0 to 3 mL; (d) TEM and inserted illustration images of involved nanoparticles towards DMSNs-void@C; including DMSNs (d1); DMSNs-RF@RF (d2); DMSNs-RF@RF@SiO2 (d3) and DMSNs-void@C (d4) [130]

参考文献 141

[1]	Kalambate P K, Dhanjai, Huang Z M, et al. Core@shell nanomaterials based sensing devices: a review[J]. TrAC Trends in Analytical Chemistry, 2019, 115: 147-161.[LinkOut]
[2]	Gawande M B, Goswami A, Asefa T, et al. Core–shell nanoparticles: synthesis and applications in catalysis and electrocatalysis[J]. Chemical Society Reviews, 2015, 44(21): 7540-7590.
	Gawande M B, Goswami A, Asefa T, et al. Core-shell nanoparticles: synthesis and applications in catalysis and electrocatalysis[J]. Chemical Society Reviews, 2015, 44(21): 7540-7590.[LinkOut]
[3]	Ghosh Chaudhuri R, Paria S, Core/Shell Nanoparticles: Classes, Properties, Synthesis Mechanisms, Characterization, and Applications[J]. Chemical Reviews, 2012, 112(4): 2373-2433.
	Ghosh Chaudhuri R, Paria S. Core/shell nanoparticles: classes, properties, synthesis mechanisms, characterization, and applications[J]. Chemical Reviews, 2012, 112(4): 2373-2433.[LinkOut]
[4]	Zou Y, Sun Z, Wang Q, et al. Core–Shell Magnetic Particles: Tailored Synthesis and Applications[J]. Chemical Reviews, 2025, 125(2): 972-1048.
	Zou Y D, Sun Z K, Wang Q Y, et al. Core-shell magnetic particles: tailored synthesis and applications[J]. Chemical Reviews, 2025, 125(2): 972-1048.[LinkOut]
[5]	Yue Q, Sun J, Kang Y, et al. Advances in the interfacial assembly of mesoporous silica on magnetic particles. Angewandte Chemie International Edition, 2020, 59(36): 15804–15817. Yue Q, Sun J G, Kang Y J,et al. Advances in the interfacial assembly of mesoporous silica on magnetite particles[J]. Angewandte Chemie International Edition, 2020, 59(37): 15804-15817.[LinkOut]
[6]	Shafiee A, Rabiee N, Ahmadi S, et al. Core–Shell Nanophotocatalysts: Review of Materials and Applications. ACS Applied Nano Materials, 2022, 5(1): 55–86. Shafiee A, Rabiee N, Ahmadi S,et al. Core-shell nanophotocatalysts: review of materials and applications[J]. ACS Applied Nano Materials, 2022, 5(1): 55-86.[LinkOut]
[7]	Newkome G R, Moorefield C N, Vögtle F. Dendrimers and Dendrons: Concepts, Syntheses, Applications[M]. In Dendrimers and Dendrons, Wiley‐VCH Verlag GmbH & Co. KGaA, 2001: pp 1-118.
	Newkome G R, Moorefield C N, Vögtle F. Dendrimers and Dendrons: Concepts, Syntheses, Applications[M]. Wiley, 2001.[LinkOut]
[8]	Fréchet J M J, Tomalia D A. Dendrimers and Other Dendritic Polymers[M]. John Wiley & Sons, 2002: 3-40.
	Fréchet J M J, Tomalia D A. Dendrimers and Other Dendritic Polymers[M]. Wiley, 2001.[LinkOut]
[9]	Polshettiwar V, Cha D, Zhang X, et al. High‐surface‐area silica nanospheres (KCC-1) with a fibrous morphology[J]. Angewandte Chemie International Edition, 2010, 49(50): 9652-9656.
	Polshettiwar V, Cha D, Zhang X X, et al. High-surface-area silica nanospheres (KCC-1) with a fibrous morphology[J]. Angewandte Chemie International Edition, 2010, 49(50): 9652-9656.[LinkOut]
[10]	Xu C, Lei C, Wang Y, et al. Dendritic mesoporous nanoparticles: Structure, synthesis and properties[J]. Angewandte Chemie International Edition, 2022, 61: e202112752.
	Xu C, Lei C, Wang Y, et al. Dendritic mesoporous nanoparticles: structure, synthesis and properties[J]. Angewandte Chemie International Edition, 2022, 61(12): e202112752.[LinkOut]
[11]	Wang Y, Du X, Liu Z, et al. Dendritic fibrous nano-particles (DFNPs): Rising stars of mesoporous materials[J]. Journal of Materials Chemistry A, 2019, 7(10): 5111-5152.
	Wang Y B, Du X, Liu Z, et al. Dendritic fibrous nano-particles (DFNPs): rising stars of mesoporous materials[J]. Journal of Materials Chemistry A, 2019, 7(10): 5111-5152.[LinkOut]
[12]	Wang Y, Zhang B, Ding X, et al. Dendritic mesoporous organosilica nanoparticles (DMONs): Chemical composition, structural architecture, and promising applications[J]. Nano Today, 2021, 39: 101231.
	Wang Y B, Zhang B L, Ding X P, et al. Dendritic mesoporous organosilica nanoparticles (DMONs): chemical composition, structural architecture, and promising applications[J]. Nano Today, 2021, 39: 101231.[LinkOut]
[13]	Wang Y, Huang L, Li S, et al. The capture and catalytic conversion of CO₂ by dendritic mesoporous silica-based nanoparticles[J]. Energy & Environmental Materials, 2024, 7(2): e12593.
	Wang Y B, Huang L Z, Li S W, et al. The capture and catalytic conversion of CO₂ by dendritic mesoporous silica-based nanoparticles[J]. Energy & Environmental Materials, 2024, 7(2): e12593.[LinkOut]
[14]	Maity A, Belgamwar R, Polshettiwar V. Facile synthesis to tune size, textural properties and fiber density of dendritic fibrous nanosilica for applications in catalysis and CO₂ capture[J]. Nature protocols, 2019, 14: 2177–2204.
	Maity A, Belgamwar R, Polshettiwar V. Facile synthesis to tune size, textural properties and fiber density of dendritic fibrous nanosilica for applications in catalysis and CO₂ capture[J]. Nature Protocols, 2019, 14(7): 2177-2204.[LinkOut]
[15]	Wang Z, Brown A T, Tan K, et al. Selective Extraction of Thorium from Rare Earth Elements Using Wrinkled Mesoporous Carbon[J]. Journal of the American Chemical Society, 2018, 140: 14735-14739.
	Wang Z J, Brown A T, Tan K, et al. Selective extraction of thorium from rare earth elements using wrinkled mesoporous carbon[J]. Journal of the American Chemical Society, 2018, 140(44): 14735-14739.[LinkOut]
[16]	Shao D, Li M, Wang Z, et al. Bioinspired Diselenide-Bridged Mesoporous Silica Nanoparticles for Dual-Responsive Protein Delivery[J]. Advanced Materials, 2018, 30(29): 1801198.
	Shao D, Li M Q, Wang Z, et al. Bioinspired diselenide-bridged mesoporous silica nanoparticles for dual-responsive protein delivery[J]. Advanced Materials, 2018, 30(29): 1801198.[LinkOut]
[17]	Yue Q, Li J, Luo W, et al. An Interface coassembly in biliquid phase: toward core-shell magnetic mesoporous silica microspheres with tunable pore size[J]. Journal of the American Chemical Society, 2015, 137(41): 13282-13289.
	Yue Q, Li J L, Luo W, et al. An interface coassembly in biliquid phase: toward core-shell magnetic mesoporous silica microspheres with tunable pore size[J]. Journal of the American Chemical Society, 2015, 137(41): 13282-13289.[LinkOut]
[18]	Abbaraju P L, Meka A K, Song H, et al. Asymmetric silica nanoparticles with tunable head–tail structures enhance hemocompatibility and maturation of immune cells[J]. Journal of the American Chemical Society, 2017, 139(18): 6321-6328.
	Abbaraju P L, Meka A K, Song H, et al. Asymmetric silica nanoparticles with tunable head-tail structures enhance hemocompatibility and maturation of immune cells[J]. Journal of the American Chemical Society, 2017, 139(18): 6321-6328.[LinkOut]
[19]	Xing Y, Pan Q, Du X, et al. Dendritic Janus Nanomotors with Precisely Modulated Coverages and Their Effects on Propulsion[J]. ACS Applied Materials & Interfaces, 2019, 11(10): 10426-10433.
	Xing Y, Pan Q, Du X, et al. Dendritic Janus nanomotors with precisely modulated coverages and their effects on propulsion[J]. ACS Applied Materials & Interfaces, 2019, 11(10): 10426-10433.[LinkOut]
[20]	Bayal N, Singh B, Singh R, et al. Size and Fiber Density Controlled Synthesis of Fibrous Nanosilica Spheres (KCC-1) [J]. Scientific Reports, 2016, 6: 24888.
	Bayal N, Singh B, Singh R, et al. Size and fiber density controlled synthesis of fibrous nanosilica spheres (KCC-1)[J]. Scientific Reports, 2016, 6: 24888.[LinkOut]
[21]	Yu K, Zhang X, Tong H, et al. Synthesis of fibrous monodisperse core–shell Fe₃O₄/SiO₂/KCC-1[J]. Materials Letters, 2013, 106(9): 151-154.
	Yu K J, Zhang X B, Tong H W, et al. Synthesis of fibrous monodisperse core-shell Fe₃O₄/SiO₂/KCC-1[J]. Materials Letters, 2013, 106: 151-154.[LinkOut]
[22]	Nemec S, Kralj S. A versatile interfacial coassembly method for fabrication of tunable silica shells with radially aligned dual mesopores on diverse magnetic core nanoparticles[J]. ACS Applied Materials & Interfaces, 2021, 13(1): 1883-1894.
	Nemec S, Kralj S. A versatile interfacial coassembly method for fabrication of tunable silica shells with radially aligned dual mesopores on diverse magnetic core nanoparticles[J]. ACS Applied Materials & Interfaces, 2021, 13(1): 1883-1894.[LinkOut]
[23]	Emrani S, Ebrahimi M, Zhiani R, et al. Magnetic fibrous silica mesoporous as a selective and efficient system for removal of Cd(II) ions with a focus on optimization by response surface methodology[J]. International Journal of Environmental Analytical Chemistry, 2021, 103(4): 849–867.
	Emrani S, Ebrahimi M, Zhiani R, et al. Magnetic fibrous silica mesoporous as a selective and efficient system for removal of Cd(II) ions with a focus on optimization by response surface methodology[J]. International Journal of Environmental Analytical Chemistry, 2023, 103(4): 849-867.[LinkOut]
[24]	Salari Goharrizi F, Ebrahimipour S Y, Ebrahimnejad H, et al. Novel magnetic adsorbents based on mesoporous KCC-1 for the removal of heavy metal ions and antibacterial applications[J]. Journal of Inorganic and Organometallic Polymers and Materials, 2024, 34(11): 5425-5441.
	Salari Goharrizi F, Ebrahimipour S Y, Ebrahimnejad H, et al. Novel magnetic adsorbents based on mesoporous KCC-1 for the removal of heavy metal ions and antibacterial applications[J]. Journal of Inorganic and Organometallic Polymers and Materials, 2024, 34(11): 5425-5441.[LinkOut]
[25]	Goharrizi F S, Ebrahimipour S Y, Ebrahimnejad H, et al. Magnetic mesoporous silica functionalized with amine groups for efficient removal of heavy metals and bacterial inhibition[J]. Journal of Cluster Science, 2024, 35(7): 2419-2435.
	Goharrizi F S, Ebrahimipour S Y, Ebrahimnejad H, et al. Magnetic mesoporous silica functionalized with amine groups for efficient removal of heavy metals and bacterial inhibition[J]. Journal of Cluster Science, 2024, 35(7): 2419-2435.[LinkOut]
[26]	Wang F, Li T, Liao Y, et al. The synthesis of core-shell magnetic dendritic fibrous nano-silica for the fast and selective capture of U(VI) [J]. Applied Surface Science, 2023, 638: 157969.
	Wang F, Li T T, Liao Y, et al. The synthesis of core-shell magnetic dendritic fibrous nano-silica for the fast and selective capture of U(VI)[J]. Applied Surface Science, 2023, 638: 157969.[LinkOut]
[27]	Wang F, Chen Z, Wu Y, et al. The amidoxime-functionalized magnetic dendritic fibrous nano-silica with a core–shell structure for the efficient capture of U(VI) [J]. Applied Surface Science, 2025, 680: 161491.
	Wang F, Chen Z, Wu Y, et al. The amidoxime-functionalized magnetic dendritic fibrous nano-silica with a core-shell structure for the efficient capture of U(VI)[J]. Applied Surface Science, 2025, 680: 161491.[LinkOut]
[28]	Lyu J, Zhang F, Li R, et al. Magnetic core supported ethyl acetate microdrops for organic contaminants removal from water[J]. npj Clean Water, 2024, 7(1): 96.
	Lyu J, Zhang F M, Li R, et al. Magnetic core supported ethyl acetate microdrops for organic contaminants removal from water[J]. npj Clean Water, 2024, 7: 96.[LinkOut]
[29]	Zhang W, Li S, Zhang J, et al. Synthesis and adsorption behavior study of magnetic fibrous mesoporous silica[J]. Microporous and Mesoporous Materials, 2019, 282: 15-21.
	Zhang W, Li S M, Zhang J, et al. Synthesis and adsorption behavior study of magnetic fibrous mesoporous silica[J]. Microporous and Mesoporous Materials, 2019, 282: 15-21.[LinkOut]
[30]	Yang J, Shen D, Wei Y, et al. Monodisperse core-shell structured magnetic mesoporous aluminosilicate nanospheres with large dendritic mesochannels[J]. Nano Research, 2015, 8(8): 2503-2514.
	Yang J P, Shen D K, Wei Y, et al. Monodisperse core-shell structured magnetic mesoporous aluminosilicate nanospheres with large dendritic mesochannels[J]. Nano Research, 2015, 8(8): 2503-2514.[LinkOut]
[31]	Gao J, Kong W, Zhou L, et al. Monodisperse core-shell magnetic organosilica nanoflowers with radial wrinkle for lipase immobilization[J]. Chemical Engineering Journal, 2017, 309: 70-79.
	Gao J, Kong W X, Zhou L Y, et al. Monodisperse core-shell magnetic organosilica nanoflowers with radial wrinkle for lipase immobilization[J]. Chemical Engineering Journal, 2017, 309: 70-79.[LinkOut]
[32]	Goharrizi F S, Ebrahimipour S Y, Mahani M T, et al. Enhanced stability and activity of diaphorase enzyme immobilized on magnetic mesoporous silica[J]. Journal of Porous Materials, 2025, 32(4): 1607-1625.
	Goharrizi F S, Ebrahimipour S Y, Mahani M T, et al. Enhanced stability and activity of diaphorase enzyme immobilized on magnetic mesoporous silica[J]. Journal of Porous Materials, 2025, 32(4): 1607-1625.[LinkOut]
[33]	Ali Z, Tian L, Zhang B, et al. Synthesis of paramagnetic dendritic silica nanomaterials with fibrous pore structure (Fe₃O₄@KCC-1) and their application in immobilization of lipase from Candida rugosa with enhanced catalytic activity and stability[J]. New Journal of Chemistry, 2017, 41(16): 8222-8231.
	Ali Z, Tian L, Zhang B L, et al. Synthesis of paramagnetic dendritic silica nanomaterials with fibrous pore structure (Fe₃O₄@KCC-1) and their application in immobilization of lipase from Candida rugosa with enhanced catalytic activity and stability[J]. New Journal of Chemistry, 2017, 41(16): 8222-8231.[LinkOut]
[34]	Liu D, Wang X, Jiang Y. Design of enzyme nanoreactor by phase-transitioned lysozyme modified magnetic dendritic silica nanoparticle for efficient catalytic performance at harsh reaction condition[J]. Materials Science and Engineering: B, 2023, 292: 116442.
	Liu D Q, Wang X, Jiang Y C. Design of enzyme nanoreactor by phase-transitioned lysozyme modified magnetic dendritic silica nanoparticle for efficient catalytic performance at harsh reaction condition[J]. Materials Science and Engineering: B, 2023, 292: 116442.[LinkOut]
[35]	Asghari E, Saraji M. Preparation of a magnetic molecularly imprinted polymer on fibrous silica nanosphere via self-polycondensation for micro solid-phase extraction of chlorpyrifos[J]. Journal of Chromatography B, 2024, 1232: 123961.
	Asghari E, Saraji M. Preparation of a magnetic molecularly imprinted polymer on fibrous silica nanosphere via self-polycondensation for micro solid-phase extraction of chlorpyrifos[J]. Journal of Chromatography B, 2024, 1232: 123961.[LinkOut]
[36]	Sun Z, Li H, Guo D, et al. A multifunctional magnetic core-shell fibrous silica sensing probe for highly sensitive detection and removal of Zn²⁺ from aqueous solution[J]. Journal of Materials Chemistry C, 2015, 3(18): 4713-4722.
	Sun Z B, Li H Z, Guo D, et al. A multifunctional magnetic core-shell fibrous silica sensing probe for highly sensitive detection and removal of Zn²⁺ from aqueous solution[J]. Journal of Materials Chemistry C, 2015, 3(18): 4713-4722.[LinkOut]
[37]	Radhakrishnan K, Panneerselvam P, Ravikumar A. A hybrid magnetic core-shell fibrous silica nanocomposite for a chemosensor-based highly effective fluorescent detection of Cu(II)[J]. RSC Advances, 2017, 7(72): 45824-45833.
	Radhakrishnan K, Panneerselvam P, Ravikumar A. A hybrid magnetic core-shell fibrous silica nanocomposite for a chemosensor-based highly effective fluorescent detection of Cu(II)[J]. RSC Advances, 2017, 7(72): 45824-45833.[LinkOut]
[38]	Radhakrishnan K, Panneerselvam P, Ravikumar A, et al. Magnetic core-shell fibrous silica functionalized with pyrene derivative for highly sensitive and selective detection of Hg (II) ion[J]. Journal of Dispersion Science and Technology, 2019, 40(9): 1368-1377.
	Radhakrishnan K, Panneerselvam P, Ravikumar A, et al. Magnetic core-shell fibrous silica functionalized with pyrene derivative for highly sensitive and selective detection of Hg (II) ion[J]. Journal of Dispersion Science and Technology, 2019, 40(9): 1368-1377.[LinkOut]
[39]	Zhao X, Dong J, Zhang Y, et al. Magnetic dendritic mesoporous silica nanoparticles based integrated platform for rapid and efficient analysis of saccharides[J]. Analytica Chimica Acta, 2024, 1288: 342166.
	Zhao X L, Dong J C, Zhang Y Q, et al. Magnetic dendritic mesoporous silica nanoparticles based integrated platform for rapid and efficient analysis of saccharides[J]. Analytica Chimica Acta, 2024, 1288: 342166.[LinkOut]
[40]	Cao G, Gao J, Zhou L, et al. Fabrication of Ni²⁺-nitrilotriacetic acid functionalized magnetic mesoporous silica nanoflowers for one pot purification and immobilization of His-tagged ω-transaminase[J]. Biochemical Engineering Journal, 2017, 128: 116-125.
	Cao G X, Gao J, Zhou L Y, et al. Fabrication of Ni²⁺-nitrilotriacetic acid functionalized magnetic mesoporous silica nanoflowers for one pot purification and immobilization of His-tagged ω-transaminase[J]. Biochemical Engineering Journal, 2017, 128: 116-125.[LinkOut]
[41]	Hong Y, Zhan Q, Zheng Y, et al., Hydrophilic phytic acid-functionalized magnetic dendritic mesoporous silica nanospheres with immobilized Ti⁴⁺: A dual-purpose affinity material for highly efficient enrichment of glycopeptides/phosphopeptides[J]. Talanta, 2019, 197: 77-85.
	Hong Y Y, Zhan Q L, Zheng Y, et al. Hydrophilic phytic acid-functionalized magnetic dendritic mesoporous silica nanospheres with immobilized Ti⁴⁺: a dual-purpose affinity material for highly efficient enrichment of glycopeptides/phosphopeptides[J]. Talanta, 2019, 197: 77-85.[LinkOut]
[42]	Jin P, Zhu F, Zhou W, et al. Developing magnetic functionalized dendritic fibrous mesoporous silica as advanced adsorbent for quaternary ammonium alkaloids[J]. Microchimica Acta, 2023, 190(12): 481.
	Jin P, Zhu F C, Zhou W, et al. Developing magnetic functionalized dendritic fibrous mesoporous silica as advanced adsorbent for quaternary ammonium alkaloids[J]. Microchimica Acta, 2023, 190(12): 481.[LinkOut]
[43]	Dong Z, Yu G, Le X. Gold nanoparticle modified magnetic fibrous silica microspheres as a highly efficient and recyclable catalyst for the reduction of 4-nitrophenol[J]. New Journal of Chemistry, 2015, 39(11): 8623-8629.
	Dong Z P, Yu G Q, Le X. Gold nanoparticle modified magnetic fibrous silica microspheres as a highly efficient and recyclable catalyst for the reduction of 4-nitrophenol[J]. New Journal of Chemistry, 2015, 39(11): 8623-8629.[LinkOut]
[44]	Sun Z, Li H, Cui G, et al. Multifunctional magnetic core–shell dendritic mesoporous silica nanospheres decorated with tiny Ag nanoparticles as a highly active heterogeneous catalyst[J]. Applied Surface Science, 2016, 360: 252-262.
	Sun Z B, Li H Z, Cui G J, et al. Multifunctional magnetic core-shell dendritic mesoporous silica nanospheres decorated with tiny Ag nanoparticles as a highly active heterogeneous catalyst[J]. Applied Surface Science, 2016, 360: 252-262.[LinkOut]
[45]	Sadeghzadeh S. M. A green approach for the synthesis of 2-oxazolidinones using gold(I) complex immobilized on KCC-1 as nanocatalyst at room temperature[J]. Applied Organometallic Chemistry, 2016, 30(10): 835-842.
	Sadeghzadeh S M. A green approach for the synthesis of 2-oxazolidinones using gold(I) complex immobilized on KCC-1 as nanocatalyst at room temperature[J]. Applied Organometallic Chemistry, 2016, 30(10): 835-842.[LinkOut]
[46]	Sadeghzadeh S M. A heteropolyacid-based ionic liquid immobilized onto magnetic fibrous nano-silica as robust and recyclable heterogeneous catalysts for the synthesis of tetrahydrodipyrazolopyridines in water[J]. RSC Advances, 2016, 6(79): 75973-75980.
	Sadeghzadeh S M. A heteropolyacid-based ionic liquid immobilized onto magnetic fibrous nano-silica as robust and recyclable heterogeneous catalysts for the synthesis of tetrahydrodipyrazolopyridines in water[J]. RSC Advances, 2016, 6(79): 75973-75980.[LinkOut]
[47]	Sadeghzadeh S M. Bis(4-pyridylamino)triazine-stabilized magnetite KCC-1: a chemoselective, efficient, green and reusable nanocatalyst for the synthesis of N-substituted 1,4-dihydropyridines[J]. RSC Advances, 2016, 6(101): 99586-99594.
	Sadeghzadeh S M. Bis(4-pyridylamino)triazine-stabilized magnetite KCC-1: a chemoselective, efficient, green and reusable nanocatalyst for the synthesis of N-substituted 1, 4-dihydropyridines[J]. RSC Advances, 2016, 6(101): 99586-99594.[LinkOut]
[48]	Zhao Y, Tang J J, Motavalizadehkakhky A, et al. Synthesis and characterization of a novel CNT-FeNi3/DFNS/Cu(ii) magnetic nanocomposite for the photocatalytic degradation of tetracycline in wastewater[J]. RSC Advances, 2019, 9(60): 35022-35032.
	Zhao Y H, Tang J J, Motavalizadehkakhky A, et al. Synthesis and characterization of a novel CNT-FeNi₃/DFNS/Cu(II) magnetic nanocomposite for the photocatalytic degradation of tetracycline in wastewater[J]. RSC Advances, 2019, 9(60): 35022-35032.[LinkOut]
[49]	Hassankhani A, Sadeghzadeh S M, Zhiani R. C-C and C-H coupling reactions by Fe₃O₄/KCC-1/APTPOSS supported palladium-salen-bridged ionic networks as a reusable catalyst[J]. RSC Advances, 2018, 8(16): 8761-8769.
	Hassankhani A, Sadeghzadeh S M, Zhiani R. C-C and C-H coupling reactions by Fe₃O₄/KCC-1/APTPOSS supported palladium-salen-bridged ionic networks as a reusable catalyst[J]. RSC Advances, 2018, 8(16): 8761-8769.[LinkOut]
[50]	Saadati S M, Zhiani R, Zahedifar M, et al. Synthesis of tetramethylquinoline-2,4-diamine using FeNi3/KCC-1/APTPOSS-supported copper cyclam and salen complex as a reusable catalyst[J]. Applied Organometallic Chemistry, 2018, 32(12): e4560.
	Saadati S M, Zhiani R, Zahedifar M, et al. Synthesis of tetramethylquinoline-2, 4-diamine using FeNi₃/KCC-1/APTPOSS-supported copper cyclam and salen complex as a reusable catalyst[J]. Applied Organometallic Chemistry, 2018, 32(12): e4560.[LinkOut]
[51]	Qiu J, Yu L, Ni J . et al. Palladium–salen-bridged ionic networks immobilized on magnetic dendritic silica fibers for the synthesis of cyclic carbonates by oxidative carboxylation[J]. New Journal of Chemistry, 2020, 44(4): 1269-1277.
	Qiu J P, Yu L, Ni J G, et al. Palladium-salen-bridged ionic networks immobilized on magnetic dendritic silica fibers for the synthesis of cyclic carbonates by oxidative carboxylation[J]. New Journal of Chemistry, 2020, 44(4): 1269-1277.[LinkOut]
[52]	Fei Z Chen F, Zhong M, et al. Synthesis and characterization of a novel ruthenium(ii) trisbipyridine complex magnetic nanocomposite for the selective oxidation of phenols[J]. RSC Advances, 2019, 9(48): 28078-28088.
	Fei Z X, Chen F, Zhong M Q, et al. Synthesis and characterization of a novel ruthenium(II) trisbipyridine complex magnetic nanocomposite for the selective oxidation of phenols[J]. RSC Advances, 2019, 9(48): 28078-28088.[PubMed]
[53]	Zhiani R, Es-haghi A, Saadati S M, et al. A new class of organocobaloximes based FeNi3/DFNS for reduction of 4-nitrophenol and 2-nitroaniline[J]. Journal of Organometallic Chemistry, 2018, 877: 21-31.
	Zhiani R, Es-haghi A, Saadati S M, et al. A new class of organocobaloximes based FeNi₃/DFNS for reduction of 4-nitrophenol and 2-nitroaniline[J]. Journal of Organometallic Chemistry, 2018, 877: 21-31.[LinkOut]
[54]	Zhang Q, Wu Y, Wang M, et al. Synthesis and photocatalytic performance of recyclable core-shell mesoporous Fe₃O₄@Bi₂WO₆ nanoparticles. Materials Research Bulletin, 2019, 113: 223-230. Zhang Q, Wu Y H, Wang M Z,et al. Synthesis and photocatalytic performance of recyclable core-shell mesoporous Fe3O4@Bi2WO6 nanoparticles[J]. Materials Research Bulletin, 2019, 113: 223-230.[LinkOut]
[55]	Zhiani R, Khoobi M, Sadeghzadeh S M, Synthesis of N-[(2-hydroxyethoxy)carbonyl]glycine from carbon dioxide, ethylene oxide, and α-amino acid by ionic gelation of sodium tripolyphosphate (TPP) and spirulina supported on magnetic KCC-1 in aqueous solution[J]. New Journal of Chemistry, 2018, 42(12): 10153-10160.
	Zhiani R, Khoobi M, Sadeghzadeh S M. Synthesis of N-[(2-hydroxyethoxy)carbonyl] glycine from carbon dioxide, ethylene oxide, and α-amino acid by ionic gelation of sodium tripolyphosphate (TPP) and spirulina supported on magnetic KCC-1 in aqueous solution[J]. New Journal of Chemistry, 2018, 42(12): 10153-10160.[LinkOut]
[56]	Asadi Zeydabadi H, Mehrzad J, Motavalizadehkakhky A, et al. Fixing CO₂ into β-Oxopropylcarbamatesin by Palladium NPs Supported on Magnetic Fibrous Silica Ionic Gelation[J]. Catalysis Letters, 2021, 151(2): 582-592.
	Asadi Zeydabadi H, Mehrzad J, Motavalizadehkakhky A, et al. Fixing CO₂ into β-oxopropylcarbamatesin by palladium NPs supported on magnetic fibrous silica ionic gelation[J]. Catalysis Letters, 2021, 151(2): 582-592.[LinkOut]
[57]	Hasanpour Galehban M, Zeynizadeh B, Mousavi H. Diverse and efficient catalytic applications of new cockscomb flower-like Fe₃O₄@SiO₂@KCC-1@MPTMS@CuII mesoporous nanocomposite in the environmentally benign reduction and reductive acetylation of nitroarenes and one-pot synthesis of some coumarin compounds[J]. RSC Advances, 2022, 12(18): 11164-11189.
	Hasanpour Galehban M, Zeynizadeh B, Mousavi H. Diverse and efficient catalytic applications of new cockscomb flower-like Fe₃O₄@SiO₂@KCC-1@MPTMS@Cu^II mesoporous nanocomposite in the environmentally benign reduction and reductive acetylation of nitroarenes and one-pot synthesis of some coumarin compounds[J]. RSC Advances, 2022, 12(18): 11164-11189.[LinkOut]
[58]	Galehban M H, Zeynizadeh B, Mousavi H. Introducing Fe₃O₄@SiO₂@KCC-1@MPTMS@CuII catalytic applications for the green one-pot syntheses of 2-aryl (or heteroaryl)-2,3-dihydroquinazolin-4(1H)-ones and 9-aryl-3,3,6,6-tetramethyl-3,4,5,6,7,9-hexahydro-1H-xanthene-1,8(2H)-diones[J]. Journal of Molecular Structure, 2023, 1271: 134017.
	Galehban M H, Zeynizadeh B, Mousavi H. Introducing Fe₃O₄@SiO₂@KCC-1@MPTMS@Cu^II catalytic applications for the green one-pot syntheses of 2-aryl(or heteroaryl)-2, 3-dihydroquinazolin-4(1H)-ones and 9-aryl-3, 3, 6, 6-tetramethyl-3, 4, 5, 6, 7, 9-hexahydro-1H-xanthene-1, 8(2H)-diones[J]. Journal of Molecular Structure, 2023, 1271: 134017.[LinkOut]
[59]	Saberi S, Zhiani R, Mehrzad J . et al. Synthesis and characterization of a novel TEMPO@FeNi3/DFNS–laccase magnetic nanocomposite for the reduction of nitro compounds[J]. RSC Advances, 2020, 10(46): 27297-27304.
	Saberi S, Zhiani R, Mehrzad J, et al. Synthesis and characterization of a novel TEMPO@FeNi₃/DFNS-laccase magnetic nanocomposite for the reduction of nitro compounds[J]. RSC Advances, 2020, 10(46): 27297-27304.[LinkOut]
[60]	Seo B, Lee C, Yoo D, et al. A magnetically recoverable photocatalyst prepared by supporting TiO₂ nanoparticles on a superparamagnetic iron oxide nanocluster core@fibrous silica shell nanocomposite[J]. RSC Advances, 2017, 7(16): 9587-9595.
	Seo B, Lee C, Yoo D, et al. A magnetically recoverable photocatalyst prepared by supporting TiO₂ nanoparticles on a superparamagnetic iron oxide nanocluster core@fibrous silica shell nanocomposite[J]. RSC Advances, 2017, 7(16): 9587-9595.[LinkOut]
[61]	Wei J, Zou L, Li Y, et al. Synthesis of core–shell-structured mesoporous silica nanospheres with dual-pores for biphasic catalysis[J]. New Journal of Chemistry, 2019, 43(15): 5833-5838.
	Wei J, Zou L K, Li Y L, et al. Synthesis of core-shell-structured mesoporous silica nanospheres with dual-pores for biphasic catalysis[J]. New Journal of Chemistry, 2019, 43(15): 5833-5838.[LinkOut]
[62]	Qiu P, Zhao T, Khim J, et al. Ordered mesoporous carbon-silica frameworks confined magnetic mesoporous TiO₂ as an efficient catalyst under acoustic cavitation energy[J]. Journal of Materiomics, 2020, 6(1): 45-53.
	Qiu P P, Zhao T, Khim J, et al. Ordered mesoporous carbon-silica frameworks confined magnetic mesoporous TiO₂ as an efficient catalyst under acoustic cavitation energy[J]. Journal of Materiomics, 2020, 6(1): 45-53.[LinkOut]
[63]	Gu Z, Liu T, Tang J, et al. Mechanism of iron oxide-induced macrophage activation: The impact of composition and the underlying signaling pathway[J]. Journal of the American Chemical Society, 2019, 141(15): 6122-6126.
	Gu Z Y, Liu T Q, Tang J, et al. Mechanism of iron oxide-induced macrophage activation: the impact of composition and the underlying signaling pathway[J]. Journal of the American Chemical Society, 2019, 141(15): 6122-6126.[PubMed]
[1]	Kalambate P K, Dhanjai, Huang Z, et al. Core@shell nanomaterials based sensing devices: A review[J]. TrAC Trends in Analytical Chemistry, 2019, 115: 147-161.
[64]	Tsh A, Lee J H, Lee J J, et al. Mesoporous silica with fibrous morphology: a multifunctional core-shell platform for biomedical applications[J]. Nanotechnology, 2013, 24(34): 345603.
	Atabaev T S, Lee J H, Lee J J, et al. Mesoporous silica with fibrous morphology: a multifunctional core-shell platform for biomedical applications[J]. Nanotechnology, 2013, 24(34): 345603.[LinkOut]
[65]	Chen J, Lei S, Zeng K, et al. Catalase-imprinted Fe₃O₄/Fe@fibrous SiO₂/polydopamine nanoparticles: An integrated nanoplatform of magnetic targeting, magnetic resonance imaging, and dual-mode cancer therapy[J]. Nano Research, 2017, 10 (7): 2351-2363.
	Chen J X, Lei S, Zeng K, et al. Catalase-imprinted Fe₃O₄/Fe@fibrous SiO₂/polydopamine nanoparticles: an integrated nanoplatform of magnetic targeting, magnetic resonance imaging, and dual-mode cancer therapy[J]. Nano Research, 2017, 10(7): 2351-2363.[LinkOut]
[66]	Fiedler R, Sivakumaran G, Mallén J, et al. Superparamagnetic core–mesoporous silica shell nanoparticles with tunable extra- and intracellular dissolution rates[J]. Chemistry of Materials, 2024, 36(6): 2790-2798.
	Fiedler R, Sivakumaran G, Mallén J, et al. Superparamagnetic core-mesoporous silica shell nanoparticles with tunable extra- and intracellular dissolution rates[J]. Chemistry of Materials, 2024, 36(6): 2790-2798.[LinkOut]
[67]	Alamri H, Al-Shahrani A, Bovero E, et al. Self-cleaning superhydrophobic epoxy coating based on fibrous silica-coated iron oxide magnetic nanoparticles[J]. Journal of Colloid and Interface Science, 2018, 513: 349-356.
	Alamri H, Al-Shahrani A, Bovero E, et al. Self-cleaning superhydrophobic epoxy coating based on fibrous silica-coated iron oxide magnetic nanoparticles[J]. Journal of Colloid and Interface Science, 2018, 513: 349-356.[LinkOut]
[68]	Wang Y, Wu P, Wang Y, et al. Controllable pore size of super-hydrophobic magnetic core-shell nanospheres with dendritic architecture and their pore-dependent performances in oil/water separation[J]. Separation and Purification Technology, 2023, 323: 124434.
	Wang Y B, Wu P, Wang Y N, et al. Controllable pore size of super-hydrophobic magnetic core-shell nanospheres with dendritic architecture and their pore-dependent performances in oil/water separation[J]. Separation and Purification Technology, 2023, 323: 124434.[LinkOut]
[69]	Wang B, Wei Y, Wang Q, et al. Superhydrophobic magnetic core–shell mesoporous organosilica nanoparticles with dendritic architecture for oil–water separation[J]. Materials Chemistry Frontiers, 2020, 4: 2184-2191
	Wang B X, Wei Y Z, Wang Q F, et al. Superhydrophobic magnetic core-shell mesoporous organosilica nanoparticles with dendritic architecture for oil-water separation[J]. Materials Chemistry Frontiers, 2020, 4(7): 2184-2191.[LinkOut]
[70]	Ali Z, Tian L, Zhang B, et al. Synthesis of fibrous and non-fibrous mesoporous silica magnetic yolk–shell microspheres as recyclable supports for immobilization of Candida rugosa lipase[J]. Enzyme and Microbial Technology, 2017, 103: 42-52.
	Ali Z, Tian L, Zhang B L, et al. Synthesis of fibrous and non-fibrous mesoporous silica magnetic yolk-shell microspheres as recyclable supports for immobilization of Candida rugosa lipase[J]. Enzyme and Microbial Technology, 2017, 103: 42-52.[LinkOut]
[71]	Bian L, Deng W, Xie D, et al. Dendritic Mesoporous Silica Hollow Spheres with One-Pot Self-Templated Interfacial Diffusion Method[J]. Chemistry of Materials, 2024, 36(1): 482-491.
	Bian L, Deng W J, Xie D, et al. Dendritic mesoporous silica hollow spheres with one-pot self-templated interfacial diffusion method[J]. Chemistry of Materials, 2024, 36(1): 482-491.[LinkOut]
[72]	Yang Y, Bernardi S, Song H, et al. Anion Assisted Synthesis of Large Pore Hollow Dendritic Mesoporous Organosilica Nanoparticles: Understanding the Composition Gradient[J]. Chemistry of Materials, 2016, 28(3): 704-707.
	Yang Y N, Bernardi S, Song H, et al. Anion assisted synthesis of large pore hollow dendritic mesoporous organosilica nanoparticles: understanding the composition gradient[J]. Chemistry of Materials, 2016, 28(3): 704-707.[LinkOut]
[73]	Yang Y, Lu Y, Abbaraju P L, et al. Stepwise Degradable Nanocarriers Enabled Cascade Delivery for Synergistic Cancer Therapy[J]. Advanced Functional Materials, 2018, 28(28): 1800706.
	Yang Y N, Lu Y, Abbaraju P L, et al. Stepwise degradable nanocarriers enabled cascade delivery for synergistic cancer therapy[J]. Advanced Functional Materials, 2018, 28(28): 1800706.[LinkOut]
[74]	Du X, Zhao C, Luan Y, et al. Dendritic porous yolk@ordered mesoporous shell structured heterogeneous nanocatalysts with enhanced stability[J]. Journal of Materials Chemistry A, 2017, 5(40): 21560-21569.
	Du X, Zhao C X, Luan Y, et al. Dendritic porous yolk@ordered mesoporous shell structured heterogeneous nanocatalysts with enhanced stability[J]. Journal of Materials Chemistry A, 2017, 5(40): 21560-21569.[LinkOut]
[75]	Du X, Zhao C, Li X, et al. Novel yolk-shell polymer/carbon@Au nanocomposites by using dendrimer-like mesoporous silica nanoparticles as hard template[J]. Journal of Alloys and Compounds, 2017, 700: 83-91.
	Du X, Zhao C X, Li X Y, et al. Novel yolk-shell polymer/carbon@Au nanocomposites by using dendrimer-like mesoporous silica nanoparticles as hard template[J]. Journal of Alloys and Compounds, 2017, 700: 83-91.[LinkOut]
[76]	Moon D S, Lee J K. Formation of wrinkled silica mesostructures based on the phase behavior of pseudoternary systems[J]. Langmuir, 2014, 30(51): 15574-15580.
	Moon D S, Lee J K. Formation of wrinkled silica mesostructures based on the phase behavior of pseudoternary systems[J]. Langmuir, 2014, 30(51): 15574-15580.[LinkOut]
[77]	Qu Q, Li W, Wu Q. Formation Mechanism of Silica Particles with Dendritic Structure[J]. ChemistrySelect, 2019, 4(21): 6656-6661.
	Qu Q S, Li W Y, Wu Q. Formation mechanism of silica particles with dendritic structure[J]. ChemistrySelect, 2019, 4(21): 6656-6661.[LinkOut]
[78]	Dai Y, Yang D, Yu D, et al. Engineering of monodisperse core–shell up-conversion dendritic mesoporous silica nanocomposites with a tunable pore size[J]. Nanoscale, 2020, 12(8): 5075-5083.
	Dai Y, Yang D P, Yu D P, et al. Engineering of monodisperse core-shell up-conversion dendritic mesoporous silica nanocomposites with a tunable pore size[J]. Nanoscale, 2020, 12(8): 5075-5083.[LinkOut]
[79]	Shen D, Yang J, Li X, et al. Biphase stratification approach to three-dimensional dendritic biodegradable mesoporous silica nanospheres[J]. Nano Letters, 2014, 14(2): 923-932.
	Shen D K, Yang J P, Li X M, et al. Biphase stratification approach to three-dimensional dendritic biodegradable mesoporous silica nanospheres[J]. Nano Letters, 2014, 14(2): 923-932.[PubMed]
[80]	Firmansyah M L, Jalil A A, Triwahyono S, et al. Synthesis and Characterization of Fibrous Silica ZSM-5 for Cumene Hydrocracking[J]. Catalysis Science & Technology, 2016, 2016(6): 5178-5182
	Firmansyah M L, Jalil A A, Triwahyono S, et al. Synthesis and characterization of fibrous silica ZSM-5 for cumene hydrocracking[J]. Catalysis Science & Technology, 2016, 6(13): 5178-5182.[LinkOut]
[81]	Abdul Jalil A, Zolkifli A S, Triwahyono S, et al. Altering Dendrimer Structure of Fibrous-Silica-HZSM5 for Enhanced Product Selectivity of Benzene Methylation[J]. Industrial & Engineering Chemistry Research, 2019, 58(2): 553-562.
	Abdul Jalil A, Zolkifli A S, Triwahyono S, et al. Altering dendrimer structure of fibrous-silica-HZSM5 for enhanced product selectivity of benzene methylation[J]. Industrial & Engineering Chemistry Research, 2019, 58(2): 553-562.[LinkOut]
[82]	Rahman A F A, Jalil A A, Siang T J, et al. Mechanistic insight into low temperature toluene production via benzene methylation over mesopore-rich fibrous silica HZSM-5 zeolite[J]. Journal of Porous Materials, 2021, 28(6): 1765-1777.
	Rahman A F A, Jalil A A, Siang T J, et al. Mechanistic insight into low temperature toluene production via benzene methylation over mesopore-rich fibrous silica HZSM-5 zeolite[J]. Journal of Porous Materials, 2021, 28(6): 1765-1777.[LinkOut]
[83]	Hussain I, Jalil A A, Mamat C R, et al. New insights on the effect of the H₂/CO ratio for enhancement of CO methanation over metal-free fibrous silica ZSM-5: Thermodynamic and mechanistic studies[J]. Energy Conversion and Management, 2019, 199: 112056.
	Hussain I, Jalil A A, Mamat C R, et al. New insights on the effect of the H₂/CO ratio for enhancement of CO methanation over metal-free fibrous silica ZSM-5: thermodynamic and mechanistic studies[J]. Energy Conversion and Management, 2019, 199: 112056.[LinkOut]
[84]	Teh L P, Triwahyono S, Jalil A A, et al. Fibrous silica mesoporous ZSM-5 for carbon monoxide methanation[J]. Applied Catalysis A General, 2016, 523: 200-208.
	Teh L P, Triwahyono S, Jalil A A, et al. Fibrous silica mesoporous ZSM-5 for carbon monoxide methanation[J]. Applied Catalysis A: General, 2016, 523: 200-208.[LinkOut]
[85]	Aziz F F A, Jalil A A, Triwahyono S, et al. Controllable structure of fibrous SiO₂–ZSM-5 support decorated with TiO₂ catalysts for enhanced photodegradation of paracetamol[J]. Applied Surface Science, 2018, 455: 84-95.
	Aziz F F A, Jalil A A, Triwahyono S, et al. Controllable structure of fibrous SiO₂-ZSM-5 support decorated with TiO₂ catalysts for enhanced photodegradation of paracetamol[J]. Applied Surface Science, 2018, 455: 84-95.[LinkOut]
[86]	Hambali H U, Jalil A A, Abdulrasheed A A, et al. Fibrous spherical Ni-M/ZSM-5 (M: Mg, Ca, Ta, Ga) catalysts for methane dry reforming: The interplay between surface acidity-basicity and coking resistance[J]. International Journal of Energy Research, 2020, 44(7): 5696-5712.
	Hambali H U, Jalil A A, Abdulrasheed A A, et al. Fibrous spherical Ni-M/ZSM-5 (M: Mg, Ca, Ta, Ga) catalysts for methane dry reforming: the interplay between surface acidity-basicity and coking resistance[J]. International Journal of Energy Research, 2020, 44(7): 5696-5712.[LinkOut]
[87]	Hussain I, Jalil A A, Fatah N A A, et al. A highly competitive system for CO methanation over an active metal-free fibrous silica mordenite via in-situ ESR and FTIR studies[J]. Energy Conversion and Management, 2020, 211: 112754.
	Hussain I, Jalil A A, Fatah N A A, et al. A highly competitive system for CO methanation over an active metal-free fibrous silica mordenite via in-situ ESR and FTIR studies[J]. Energy Conversion and Management, 2020, 211: 112754.[LinkOut]
[88]	Hussain I, Jalil A A, Hassan N S, et al. Fabrication and characterization of highly active fibrous silica-mordenite (FS@SiO₂-MOR) cockscomb shaped catalyst for enhanced CO₂ methanation[J]. Chemical Engineering Science, 2020, 228: 115978.
	Hussain I, Jalil A A, Hassan N S, et al. Fabrication and characterization of highly active fibrous silica-mordenite (FS@SiO₂-MOR) cockscomb shaped catalyst for enhanced CO₂ methanation[J]. Chemical Engineering Science, 2020, 228: 115978.[LinkOut]
[89]	Izan S M, Triwahyono S, Jalil A A, et al. Additional Lewis acid sites of protonated fibrous silica@BEA zeolite (HSi@BEA) improving the generation of protonic acid sites in the isomerization of C6 alkane and cycloalkanes[J]. Applied Catalysis A: General, 2019, 570: 228-237.
	Izan S M, Triwahyono S, Jalil A A, et al. Additional Lewis acid sites of protonated fibrous silica@BEA zeolite (HSi@BEA) improving the generation of protonic acid sites in the isomerization of C₆ alkane and cycloalkanes[J]. Applied Catalysis A: General, 2019, 570: 228-237.[LinkOut]
[90]	Ghani N N M, Jalil A A, Triwahyono S, et al. Tailored mesoporosity and acidity of shape-selective fibrous silica beta zeolite for enhanced toluene co-reaction with methanol[J]. Chemical Engineering Science, 2019, 193: 217-229.
	Ghani N N M, Jalil A A, Triwahyono S, et al. Tailored mesoporosity and acidity of shape-selective fibrous silica beta zeolite for enhanced toluene co-reaction with methanol[J]. Chemical Engineering Science, 2019, 193: 217-229.[LinkOut]
[91]	Hussain I, Jalil A A, Hamid M Y S, et al. Substituted natural gas (SNG) production using an environment-friendly, metal-free modified beta zeolite (@BEA) catalyst with a dandelion flower-like structure[J]. Molecular Catalysis, 2022, 523: 112140.
	Hussain I, Jalil A A, Hamid M, et al. Substituted natural gas (SNG) production using an environment-friendly, metal-free modified beta zeolite (@BEA) catalyst with a dandelion flower-like structure[J]. Molecular Catalysis, 2022, 523: 112140.[LinkOut]
[92]	Jalil A A, Gambo Y, Ibrahim M, et al. Platinum-promoted fibrous silica Y zeolite with enhanced mass transfer as a highly selective catalyst for n-dodecane hydroisomerization[J]. International Journal of Energy Research, 2019, 0 (0): 1-16.
	Jalil A A, Gambo Y, Ibrahim M, et al. Platinum-promoted fibrous silica Y zeolite with enhanced mass transfer as a highly selective catalyst for n-dodecane hydroisomerization[J]. International Journal of Energy Research, 2019, 43(9): 4201-4216.[LinkOut]
[93]	Triwahyono S, Jalil A A, Izan S M, et al. Isomerization of linear C5–C7 over pt loaded on protonated fibrous silica@Y zeolite (Pt/HSi@Y) [J]. Journal of Energy Chemistry, 2019, 37: 163-171.
	Triwahyono S, Jalil A A, Izan S M, et al. Isomerization of linear C₅-C₇ over Pt loaded on protonated fibrous silica@Y zeolite (Pt/HSi@Y)[J]. Journal of Energy Chemistry, 2019, 37: 163-171.[LinkOut]
[94]	Chong C C, Bukhari S N, Cheng Y W, et al. Facile synthesis of tunable dendritic fibrous SBA-15 (DFSBA-15) with radial wrinkle structure[J]. Microporous and Mesoporous Materials, 2020, 294: 109872.
	Chong C C, Bukhari S N, Cheng Y W, et al. Facile synthesis of tunable dendritic fibrous SBA-15 (DFSBA-15) with radial wrinkle structure[J]. Microporous and Mesoporous Materials, 2020, 294: 109872.[LinkOut]
[95]	Chong C C, Setiabudi H D, Jalil A A. Dendritic fibrous SBA-15 supported nickel (Ni/DFSBA-15): A sustainable catalyst for hydrogen production[J]. International Journal of Hydrogen Energy, 2020, 45(36): 18533-18548.
	Chong C C, Setiabudi H D, Jalil A A. Dendritic fibrous SBA-15 supported nickel (Ni/DFSBA-15): a sustainable catalyst for hydrogen production[J]. International Journal of Hydrogen Energy, 2020, 45(36): 18533-18548.[LinkOut]
[96]	Chong C C, Cheng Y W, Setiabudi H D, et al. Dry reforming of methane over Ni/dendritic fibrous SBA-15 (Ni/DFSBA-15): Optimization, mechanism, and regeneration studies[J]. International Journal of Hydrogen Energy, 2020, 45 (15): 8507-8525.
	Chong C C, Cheng Y W, Setiabudi H D, et al. Dry reforming of methane over Ni/dendritic fibrous SBA-15 (Ni/DFSBA-15): optimization, mechanism, and regeneration studies[J]. International Journal of Hydrogen Energy, 2020, 45(15): 8507-8525.[LinkOut]
[97]	Abubakar Abdulkadir B, Mohd Zaki R S R, Abd Jalil A, et al. Synergistic effects of Fe₂O₃ supported on dendritic fibrous SBA-15 for superior photocatalytic degradation of methylene blue[J]. Materials Science in Semiconductor Processing, 2025, 185: 108859.
	Abubakar Abdulkadir B, Mohd Zaki R S R, Abd Jalil A, et al. Synergistic effects of Fe₂O₃ supported on dendritic fibrous SBA-15 for superior photocatalytic degradation of methylene blue[J]. Materials Science in Semiconductor Processing, 2025, 185: 108859.[LinkOut]
[98]	Hung C T, Duan L, Zhao T, et al. Gradient Hierarchically Porous Structure for Rapid Capillary-Assisted Catalysis[J]. Journal of the American Chemical Society, 2022, 144(13): 6091-6099.
	Hung C T, Duan L L, Zhao T C, et al. Gradient hierarchically porous structure for rapid capillary-assisted catalysis[J]. Journal of the American Chemical Society, 2022, 144(13): 6091-6099.[PubMed]
[99]	Peng H, Xu L, Wu H, et al. One-pot synthesis of benzamide over a robust tandem catalyst based on center radially fibrous silica encapsulated TS-1[J]. Chemical Communications, 2013, 49(26): 2709-2711.
	Peng H G, Xu L, Wu H H, et al. One-pot synthesis of benzamide over a robust tandem catalyst based on center radially fibrous silica encapsulated TS-1[J]. Chemical Communications, 2013, 49(26): 2709-2711.[LinkOut]
[100]	Peng H, Wang D, Xu L, et al. One-pot synthesis of primary amides on bifunctional Rh(OH)x/TS-1@KCC-1 catalysts[J]. Chinese Journal of Catalysis, 2013, 34(11): 2057–2065.
	Peng H G, Wang D R, Xu L, et al. One-pot synthesis of primary amides on bifunctional Rh(OH)_x/TS-1@KCC-1 catalysts[J]. Chinese Journal of Catalysis, 2013, 34(11): 2057-2065.[LinkOut]
[101]	Mosaad Awad M, Hussain I, Ahmed Taialla O, et al. Unveiling the catalytic performance of unique core-fibrous shell silica-lanthanum oxide with different nickel loadings for dry reforming of methane[J]. Energy Conversion and Management, 2024, 311: 118508.
	Mosaad Awad M, Hussain I, Ahmed Taialla O, et al. Unveiling the catalytic performance of unique core-fibrous shell silica-lanthanum oxide with different nickel loadings for dry reforming of methane[J]. Energy Conversion and Management, 2024, 311: 118508.[LinkOut]
[102]	Shabir J, Rani S, Sharma M, et al. Synthesis of dendritic fibrous nanosilica over a cubic core (cSiO₂@DFNS) with catalytically efficient silver nanoparticles for reduction of nitroarenes and degradation of organic dyes[J]. RSC Advances, 2020, 10(14): 8140-8151.
	Shabir J, Rani S, Sharma M, et al. Synthesis of dendritic fibrous nanosilica over a cubic core (cSiO₂@DFNS) with catalytically efficient silver nanoparticles for reduction of nitroarenes and degradation of organic dyes[J]. RSC Advances, 2020, 10(14): 8140-8151.[LinkOut]
[103]	Qu Q, Min Y, Zhang L, et al. Silica Microspheres with Fibrous Shells: Synthesis and Application in HPLC[J]. Analytical Chemistry, 2015, 87(19): 9631-9638.
	Qu Q S, Min Y, Zhang L H, et al. Silica microspheres with fibrous shells: synthesis and application in HPLC[J]. Analytical Chemistry, 2015, 87(19): 9631-9638.[LinkOut]
[104]	Qu Q, Si Y, Xuan H, et al. Synthesis of core-shell silica spheres with tunable pore diameters for HPLC[J]. Materials Letters, 2018, 211: 40-42.
	Qu Q S, Si Y, Xuan H, et al. Synthesis of core-shell silica spheres with tunable pore diameters for HPLC[J]. Materials Letters, 2018, 211: 40-42.[LinkOut]
[105]	Qu Q, Si Y, Xuan H, et al. Dendritic core-shell silica spheres with large pore size for separation of biomolecules[J]. Journal of Chromatography A, 2018, 1540: 31-37.
	Qu Q S, Si Y, Xuan H, et al. Dendritic core-shell silica spheres with large pore size for separation of biomolecules[J]. Journal of Chromatography A, 2018, 1540: 31-37.[LinkOut]
[106]	Qu Q, Xuan H, Zhang K, et al. Core-shell silica particles with dendritic pore channels impregnated with zeolite imidazolate framework-8 for high performance liquid chromatography separation[J]. Journal of Chromatography A, 2017, 1505: 63-68.
	Qu Q S, Xuan H, Zhang K H, et al. Core-shell silica particles with dendritic pore channels impregnated with zeolite imidazolate framework-8 for high performance liquid chromatography separation[J]. Journal of Chromatography A, 2017, 1505: 63-68.[LinkOut]
[107]	Irfan A, Feng W, Liu K, et al. TiO₂-modified fibrous core-shell mesoporous material to selectively enrich endogenous phosphopeptides with proteins exclusion prior to CE-MS analysis[J]. Talanta, 2021, 235: 122737.
	Irfan A, Feng W X, Liu K X, et al. TiO₂-modified fibrous core-shell mesoporous material to selectively enrich endogenous phosphopeptides with proteins exclusion prior to CE-MS analysis[J]. Talanta, 2021, 235: 122737.[LinkOut]
[108]	Liu J, Feng W, Tian M, et al. Titanium dioxide-coated core-shell silica microspheres-based solid-phase extraction combined with sheathless capillary electrophoresis-mass spectrometry for analysis of glyphosate, glufosinate and their metabolites in baby foods[J]. Journal of Chromatography A, 2021, 1659: 462519.
	Liu J N, Feng W X, Tian M M, et al. Titanium dioxide-coated core-shell silica microspheres-based solid-phase extraction combined with sheathless capillary electrophoresis-mass spectrometry for analysis of glyphosate, glufosinate and their metabolites in baby foods[J]. Journal of Chromatography A, 2021, 1659: 462519.[LinkOut]
[109]	Wang A, Hu L, Liu J, et al. Polyaniline-coated core-shell silica microspheres-based dispersive-solid phase extraction for detection of benzophenone-type UV filters in environmental water samples[J]. Environmental Advances, 2021, 3: 100037.
	Wang A P, Hu L H, Liu J N, et al. Polyaniline-coated core-shell silica microspheres-based dispersive-solid phase extraction for detection of benzophenone-type UV filters in environmental water samples[J]. Environmental Advances, 2021, 3: 100037.[LinkOut]
[110]	Zhang W, Li S M, Zhang J. Preparation and Chromatographic Features of Fibrous Core–Shell HPLC Packing Material[J]. Chromatographia, 2018, 81(9): 1249-1256.
	Zhang W, Li S M, Zhang J. Preparation and chromatographic features of fibrous core-shell HPLC packing material[J]. Chromatographia, 2018, 81(9): 1249-1256.[LinkOut]
[111]	Siddiki A K M N A, Lin J, Balkus K J. Encapsulation of ZnO and Ho:ZnO Nanoparticles in the Core of Wrinkled Mesoporous Silica[J]. Langmuir, 2023, 39(36): 12956-12965.
	Siddiki A K M N A, Lin J, Balkus K J. Encapsulation of ZnO and Ho: ZnO nanoparticles in the core of wrinkled mesoporous silica[J]. Langmuir, 2023, 39(36): 12956-12965.[LinkOut]
[112]	Wang C, Guo T, Tang R, et al. Facile Fabrication of Monodisperse Vinyl Hybrid Core–Shell Silica Microsphere with Short Range Radial Channel in bi-phase System[J]. Small, 2025, 21(8): 2409640.
	Wang C Y, Guo T T, Tang R Z, et al. Facile fabrication of monodisperse vinyl hybrid core-shell silica microsphere with short range radial channel in bi-phase system[J]. Small, 2025, 21(8): 2409640.[LinkOut]
[113]	Sun J, Zhang P, Yan K, et al. High-performance nanothermometry system with controlled sensitivity based on dual-emission CsPbBr₃/CdTe@SiO₂ core/shell nanocomposites[J]. Journal of Colloid and Interface Science, 2025, 693: 137607.
	Sun J N, Zhang P, Yan K, et al. High-performance nanothermometry system with controlled sensitivity based on dual-emission CsPbBr₃/CdTe@SiO₂ core/shell nanocomposites[J]. Journal of Colloid and Interface Science, 2025, 693: 137607.[LinkOut]
[114]	Liu S, Li W, Dong S, et al. An all-in-one theranostic nanoplatform based on upconversion dendritic mesoporous silica nanocomposites for synergistic chemodynamic/photodynamic/gas therapy[J]. Nanoscale, 2020, 12(47): 24146-24161.
	Liu S K, Li W T, Dong S M, et al. An all-in-one theranostic nanoplatform based on upconversion dendritic mesoporous silica nanocomposites for synergistic chemodynamic/photodynamic/gas therapy[J]. Nanoscale, 2020, 12(47): 24146-24161.[LinkOut]
[115]	Dong Y, Dong S, Wang Z, et al. Multimode Imaging-Guided Photothermal/Chemodynamic Synergistic Therapy Nanoagent with a Tumor Microenvironment Responded Effect[J]. ACS Applied Materials & Interfaces, 2020, 12(47): 52479-52491.
	Dong Y S, Dong S M, Wang Z, et al. Multimode imaging-guided photothermal/chemodynamic synergistic therapy nanoagent with a tumor microenvironment responded effect[J]. ACS Applied Materials & Interfaces, 2020, 12(47): 52479-52491.[PubMed]
[116]	Xu Y, Liang H, Zeng Q, et al. A bubble-enhanced lanthanide-doped up/down-conversion platform with tumor microenvironment response for dual-modal photoacoustic and near-infrared-II fluorescence imaging[J]. Journal of Colloid and Interface Science, 2024, 659: 149-159.
	Xu Y N, Liang H R, Zeng Q T, et al. A bubble-enhanced lanthanide-doped up/down-conversion platform with tumor microenvironment response for dual-modal photoacoustic and near-infrared-II fluorescence imaging[J]. Journal of Colloid and Interface Science, 2024, 659: 149-159.[LinkOut]
[117]	Dong S, Dong Y, Jia T, et al. GSH-Depleted Nanozymes with Hyperthermia-Enhanced Dual Enzyme-Mimic Activities for Tumor Nanocatalytic Therapy[J]. Advanced Materials, 2020, 32(42): 2002439.
	Dong S M, Dong Y S, Jia T, et al. GSH-depleted nanozymes with hyperthermia-enhanced dual enzyme-mimic activities for tumor nanocatalytic therapy[J]. Advanced Materials, 2020, 32(42): e2002439.[PubMed]
[118]	Abbaraju P L, Yang Y, Yu M, et al. Core–Shell‐structured Dendritic Mesoporous Silica Nanoparticles for Combined Photodynamic Therapy and Antibody Delivery[J]. Chemistry - An Asian Journal, 2017, 12(13): 1465-1469.
	Abbaraju P L, Yang Y N, Yu M H, et al. Core-shell-structured dendritic mesoporous silica nanoparticles for combined photodynamic therapy and antibody delivery[J]. Chemistry-An Asian Journal, 2017, 12(13): 1465-1469.[LinkOut]
[119]	Wan M M, Wang Q, Wang R L, et al. Platelet-derived porous nanomotor for thrombus therapy[J]. Science Advances, 2020, 6(22): eaaz9014.
	Wan M M, Wang Q, Wang R L, et al. Platelet-derived porous nanomotor for thrombus therapy[J]. Science Advances, 2020, 6(22): eaaz9014.[PubMed]
[120]	Wan M, Wang Q, Li X, et al. Systematic Research and Evaluation Models of Nanomotors for Cancer Combined Therapy[J]. Angewandte Chemie International Edition, 2020, 59: 14458.
	Wan M M, Wang Q, Li X Y, et al. Systematic research and evaluation models of nanomotors for cancer combined therapy[J]. Angewandte Chemie International Edition, 2020, 59(34): 14458-14465.[LinkOut]
[121]	Liu S, Zhao Y, Shen M, et al. Hyaluronic acid targeted and pH-responsive multifunctional nanoparticles for chemo-photothermal synergistic therapy of atherosclerosis[J]. Journal of Materials Chemistry B, 2021, 10: 562.
	Liu S, Zhao Y, Shen M L, et al. Hyaluronic acid targeted and pH-responsive multifunctional nanoparticles for chemo-photothermal synergistic therapy of atherosclerosis[J]. Journal of Materials Chemistry B, 2022, 10(4): 562-570.[LinkOut]
[122]	Xu C, Chen F, Valdovinos H F, et al. Bacteria-like mesoporous silica-coated gold nanorods for positron emission tomography and photoacoustic imaging-guided chemo-photothermal combined therapy[J]. Biomaterials, 2018, 165: 56-65.
	Xu C, Chen F, Valdovinos H F, et al. Bacteria-like mesoporous silica-coated gold nanorods for positron emission tomography and photoacoustic imaging-guided chemo-photothermal combined therapy[J]. Biomaterials, 2018, 165: 56-65.[LinkOut]
[123]	Wang Z, Fu X, Dai C, et al. NIR II-triggered core-shell upconversion nanocomposites for peroxynitrite-boosted anti-infection against diabetic wound[J]. Chemical Engineering Journal, 2024, 480: 148271.
	Wang Z K, Fu X Y, Dai C X, et al. NIR II-triggered core-shell upconversion nanocomposites for peroxynitrite-boosted anti-infection against diabetic wound[J]. Chemical Engineering Journal, 2024, 480: 148271.[LinkOut]
[124]	Kashfi-Sadabad R, Gonzalez-Fajardo L, Hargrove D, et al. Engineering Multifunctional Gold Decorated Dendritic Mesoporous Silica/Tantalum Oxide Nanoparticles for Intraperitoneal Tumor-Specific Delivery[J]. Particle & Particle Systems Characterization, 2019, 36(4): 1900058.
	Kashfi-Sadabad R, Gonzalez-Fajardo L, Hargrove D, et al. Engineering multifunctional gold decorated dendritic mesoporous silica/tantalum oxide nanoparticles for intraperitoneal tumor-specific delivery[J]. Particle & Particle Systems Characterization, 2019, 36(4): 1900058.[LinkOut]
[125]	Li Z, Lu S, Liu W, et al. Synergistic lysozyme-photodynamic therapy against resistant bacteria based on an intelligent upconversion nanoplatform[J]. Angewandte Chemie International Edition, 2021, 60(35): 19201-19206.
	Li Z, Lu S, Liu W Z, et al. Synergistic lysozyme-photodynamic therapy against resistant bacteria based on an intelligent upconversion nanoplatform[J]. Angewandte Chemie International Edition, 2021, 60(35): 19201-19206.[LinkOut]
[126]	Chen Y, Zuo C, Ma X, et al. Solid-silica core/mesoporous-silica shell composite abrasives: synthesis, characterization, and the effect of mesoporous shell structures on CMP[J]. Journal of Materials Science: Materials in Electronics, 2018, 29(5): 3817-3828.
	Chen Y, Zuo C Z, Ma X Y, et al. Solid-silica core/mesoporous-silica shell composite abrasives: synthesis, characterization, and the effect of mesoporous shell structures on CMP[J]. Journal of Materials Science: Materials in Electronics, 2018, 29(5): 3817-3828.[LinkOut]
[127]	Chen A, Mu H, Zuo C, et al. Fabrication, characterization, and CMP performance of dendritic mesoporous-silica composite particles with tunable pore sizes[J]. Journal of Alloys and Compounds, 2019, 770: 335-344.
	Chen A L, Mu H L, Zuo C Z, et al. Fabrication, characterization, and CMP performance of dendritic mesoporous-silica composite particles with tunable pore sizes[J]. Journal of Alloys and Compounds, 2019, 770: 335-344.[LinkOut]
[128]	Chen A, Ma X, Cai W, et al. Polystyrene-supported dendritic mesoporous silica hybrid core/shell particles: controlled synthesis and their pore size-dependent polishing behavior[J]. Journal of Materials Science, 2020, 55(2): 577-590.
	Chen A L, Ma X Y, Cai W J, et al. Polystyrene-supported dendritic mesoporous silica hybrid core/shell particles: controlled synthesis and their pore size-dependent polishing behavior[J]. Journal of Materials Science, 2020, 55(2): 577-590.[LinkOut]
[129]	Wang Y, He J, Shi Y, et al. Structure-dependent adsorptive or photocatalytic performances of solid and hollow dendritic mesoporous silica&titania nanospheres[J]. Microporous and Mesoporous Materials, 2020, 305: 110326.
	Wang Y B, He J, Shi Y M, et al. Structure-dependent adsorptive or photocatalytic performances of solid and hollow dendritic mesoporous silica & titania nanospheres[J]. Microporous and Mesoporous Materials, 2020, 305: 110326.[LinkOut]
[130]	Yu H, Zhang Q, Dahl M, et al. Dual-pore Carbon Shells for Efficient Removal of Humic Acid from Water[J]. Chemistry - A European Journal, 2017, 23: 16249-16256.
	Yu H X, Zhang Q, Dahl M, et al. Dual-pore carbon shells for efficient removal of humic acid from water[J]. Chemistry-A European Journal, 2017, 23(64): 16249-16256.[LinkOut]
[131]	Jingru Z, Hongtao C, Jiaqi C, et al. Preparation and application of KCC-1@ZIF-8 for the solid extraction of tetracycline with high adsorption capacity[J]. Analytical Methods, 2024, 16(35): 5959-5970.
	Zhang J R, Chu H T, Chen J Q, et al. Preparation and application of KCC-1@ZIF-8 for the solid extraction of tetracycline with high adsorption capacity[J]. Analytical Methods, 2024, 16(35): 5959-5970.[PubMed]
[132]	Tran N M, Jung S, Yoo H. "Nanospace engineering" by the growth of nano metal-organic framework on dendritic fibrous nanosilica (DFNS) and DFNS/gold hybrids[J]. Nano Research, 2020, 13(3): 775-784.
	Tran N M, Jung S, Yoo H. "Nanospace engineering" by the growth of nano metal-organic framework on dendritic fibrous nanosilica (DFNS) and DFNS/gold hybrids[J]. Nano Research, 2020, 13(3): 775-784.[LinkOut]
[133]	Zhang S, Wen L, Yang J, et al. Facile Fabrication of Dendritic Mesoporous SiO₂@CdTe@SiO₂ Fluorescent Nanoparticles for Bioimaging[J]. Particle and Particle Systems Characterization, 2016, 33(5): 261–270.
	Zhang S H, Wen L, Yang J P, et al. Facile fabrication of dendritic mesoporous SiO₂@CdTe@SiO₂ fluorescent nanoparticles for bioimaging[J]. Particle & Particle Systems Characterization, 2016, 33(5): 261-270.[LinkOut]
[134]	Huang L, Liao T, Wang J, et al. Brilliant Pitaya-Type Silica Colloids with Central–Radial and High‐Density Quantum Dots Incorporation for Ultrasensitive Fluorescence Immunoassays[J]. Advanced Functional Materials, 2018, 28(4): 1705380.
	Huang L, Liao T, Wang J, et al. Brilliant pitaya-type silica colloids with central-radial and high-density quantum dots incorporation for ultrasensitive fluorescence immunoassays[J]. Advanced Functional Materials, 2018, 28(4): 1705380.[LinkOut]
[135]	Leng Y, Wang X, Li W, et al. Enabling ultrahigh loading of AIEgens through alkyne-amine click reactions for highly sensitive colorimetric-fluorescent dual-readout lateral flow immunoassay[J]. Sensors and Actuators B: Chemical, 2025, 432: 137473.
	Leng Y K, Wang X L, Li W J, et al. Enabling ultrahigh loading of AIEgens through alkyne-amine click reactions for highly sensitive colorimetric-fluorescent dual-readout lateral flow immunoassay[J]. Sensors and Actuators B: Chemical, 2025, 432: 137473.[LinkOut]
[136]	Wu Q, Huang F, Jiang Y, et al. Firefly lantern-inspired AIE-enhanced gold nanocluster microspheres for ultrasensitive detection of foodborne pathogenic bacteria[J]. Sensors and Actuators B: Chemical, 2025, 422: 136584.
	Wu Q L, Huang F Y, Jiang Y Y, et al. Firefly lantern-inspired AIE-enhanced gold nanocluster microspheres for ultrasensitive detection of foodborne pathogenic bacteria[J]. Sensors and Actuators B: Chemical, 2025, 422: 136584.[LinkOut]
[137]	Wang Y, Tao J, Wang Y, et al. Remarkable reduction ability towards p-nitrophenol by a synergistic effect against the aggregation and leaching of palladium nanoparticles in dendritic supported catalysts[J]. Applied Surface Science, 2022, 574: 151702.
	Wang Y B, Tao J H, Wang Y N, et al. Remarkable reduction ability towards p-nitrophenol by a synergistic effect against the aggregation and leaching of palladium nanoparticles in dendritic supported catalysts[J]. Applied Surface Science, 2022, 574: 151702.[LinkOut]
[138]	Wang Y, He J, Li X, et al. Dendritic mesoporous silica&titania nanospheres (DMSTNs) coupled with amorphous carbon nitride (ACN) for improved visible-light-driven hydrogen production[J]. Applied Surface Science, 2021, 538: 148147.
	Wang Y B, He J, Li X L, et al. Dendritic mesoporous silica&titania nanospheres (DMSTNs) coupled with amorphous carbon nitride (ACN) for improved visible-light-driven hydrogen production[J]. Applied Surface Science, 2021, 538: 148147.[LinkOut]
[139]	Azizi S, Shadjou N, Soleymani J. CuI/Fe₃O₄ NPs@Biimidazole IL-KCC-1 as a leach proof nanocatalyst for the synthesis of imidazo[1,2-a]pyridines in aqueous medium[J]. Applied Organometallic Chemistry, 2021, 35(1): e6031.
	Azizi S, Shadjou N, Soleymani J. CuI/Fe₃O₄ NPs@Biimidazole IL-KCC-1 as a leach proof nanocatalyst for the synthesis of imidazo [1, 2-α] pyridines in aqueous medium[J]. Applied Organometallic Chemistry, 2021, 35(1): e6031.[LinkOut]
[140]	Yang Y, Lu Y, Abbaraju P L, et al. Multi-shelled dendritic mesoporous organosilica hollow spheres: Roles of composition and architecture in cancer immunotherapy[J]. Angewandte Chemie International Edition, 2017, 56(29): 8446-8450.
	Yang Y N, Lu Y, Abbaraju P L, et al. Multi-shelled dendritic mesoporous organosilica hollow spheres: roles of composition and architecture in cancer immunotherapy[J]. Angewandte Chemie International Edition, 2017, 56(29): 8446-8450.[LinkOut]
[141]	Munaweera I, Trinh M, Hong J, et al. Chemically powered nanomotor as a delivery vehicle for biologically relevant payloads[J]. Journal of Nanoscience and Nanotechnology, 2016, 16(9): 9063-9071.
	Munaweera I, Trinh M, Hong J, et al. Chemically powered nanomotor as a delivery vehicle for biologically relevant payloads[J]. Journal of Nanoscience and Nanotechnology, 2016, 16(9): 9063-9071.[LinkOut]