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SCI和EI论文

(Selected Publications)

SCI收录论文

EI收录论文

How to Write a Scientific Paper

by Prof. George M. Whitesides @ Harvard University

Guide to Good Paper Writing

by Prof. David A. Weitz @ Harvard University

SCI收录论文

[1] Liu Z., Wang W., Xie R.^*, Ju X.J., Chu L.Y.^*, 2016. Stimuli-responsive smart gating membranes. Chemical Society Reviews, 45(3): 460-475. (2022 IF = 46.2)

This work has been featured as the Inside Front Cover

[2] Xie R., Chu L.Y.^*, Deng J.G., 2008. Membranes and membrane processes for chiral resolution. Chemical Society Reviews, 37(6): 1243-1263. (2022 IF = 46.2)

[3] Wang W., Zhang M.J., Chu L.Y.^*, 2014. Functional polymeric microparticles engineered from controllable microfluidic emulsions. Accounts of Chemical Research, 47(2): 373-384. (2022 IF = 18.3)

[4] Shah R.K., Shum H.C., Rowat A.C., Lee D., Agresti J.J., Utada A.S., Chu L.Y., Kim J.W., Fernandez-Nieves A., Martinez C.J., Weitz D.A., 2008. Designer emulsions using microfluidics. Materials Today, 11(4): 18-27. (2022 IF = 24.2)

Cover Story;

Invited Review;

Ranked No.11 in Top 25 Hottest Articles during 04/2008-06/2008

[5] Wang W., Li P.F., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2022. Designable Micro-/Nano-Structured Smart Polymeric Materials. Advanced Materials, 34(46): 2107877. (2022 IF = 29.4)

Invited Paper

This work has been featured in the Inside Back Cover

[6] Chu L.Y., Yamaguchi T., Nakao S., 2002. A molecular recognition microcapsule for environmental stimuli-responsive controlled-release. Advanced Materials, 14(5): 386-389. (2022 IF = 29.4)

This work was featured in the Front Cover

[7] Liu Z.^*, Zhai Y.M., Zhou K.G., Chu L.Y.^*, 2021. Advanced membranes with responsive two-dimensional nanochannels. Advanced Membranes, 1(1): 100012.

Invited Paper

This work has been featured in the Back Cover

[8] Xia L.W., Xie R., Ju X.J., Wang W., Chen Q.M., Chu L.Y.^*, 2013. Nano-structured smart hydrogels with rapid response and high elasticity. Nature Communications, 4: 2226, doi: 10.1038/ncomms3226. (2022 IF = 16.6)

Most-Read Articles of Nature Communications, ranked No.18 in the Top Content of Most-Read Articles on August 6, 2013; No.16 on August 7, 2013; No.14 on August 8, 2013; No.10 on August 9, 2013; No.8 on August 10, 2013; No.8 on August 11, 2013; No.8 on August 12, 2013; No.8 on August 14, 2013; No.5 on August 15, 2013.

[9] Zhao H., Guo X., He S., Zeng X., Zhou X., Zhang C., Hu J., Wu X., Xing Z., Chu L.Y., He Y., Chen Q.M., 2014. Complex self-assembly of pyrimido[4,5-d]pyrimidine nucleoside supramolecular structures. Nature Communications, 5: 3108, doi: 10.1038/ncomms4108. (2022 IF = 16.6)

[10] Zhou X.L., Shen Z., Ma B.B., Xia Z.Q., Chai Y.Y., Ju X.J., Chu L.Y., Huang R.D., Chen H., Li W.M.^*, He Y.^*, 2019, Acyclic Janus-AT Nucleoside Host Channels Precisely Lock Water into Single-File Wires with Local Rotational Flexibility. Angewandte Chemie International Edition (2022 IF = 16.6), 58(28): 9601-9610.

[11] Wang W., Zhang M.J., Xie R., Ju X.J., Yang C., Mou C.L., Weitz D.A., Chu L.Y.^*, 2013. Hole-shell microparticles from controllably evolved double emulsions. Angewandte Chemie International Edition, 52(31): 8084-8087. (2022 IF = 16.6)

Front Cover Story

[12] Chu L.Y.^*, Utada A.S., Shah R.K., Kim J.W., Weitz D.A.^*, 2007. Controllable monodisperse multiple emulsions. Angewandte Chemie International Edition, 46(47): 8970-8974. (2022 IF = 16.6)

This work has been featured in the Frontispiece;

Materials Today;

今日材料;

Chemical & Engineering News;

SEAS (School of Engineering and Applied Science) Soft Matter Wiki of Harvard University;

Poster for “New Concept in Microfluidics: Theory and Application (April 20, 2007, Harvard)”;

Poster (background image) for “32nd New England Complex Fluids Meeting (September 28, 2007, University of Connecticut)”;

“Complex Fluids” T-Shirt (image on the back) for “32nd New England Complex Fluids Meeting (September 28, 2007, University of Connecticut)”;

Flyer (optical micrographs for New England States fill) for “33rd New England Complex Fluids Meeting” (Harvard University, November 30, 2007);

Flyer (optical micrographs for New England States fill) for “37th New England Complex Fluids Meeting” (Harvard University, December 5, 2008);

Flyer (optical micrographs for New England States fill) for “49th New England Complex Fluids Meeting” (Harvard University, December 2, 2011);

Flyer (optical micrographs for New England States fill) for “53th New England Complex Fluids Workshop” (Harvard University, November 30, 2012);

Flyer (optical micrographs for New England States fill) for “61st New England Complex Fluids Meeting” (Harvard University, December 5, 2014);

Flyer (optical micrographs for New England States fill) for “69th New England Complex Fluids Workshop” (Harvard University, December 2, 2016);

Flyer (optical micrographs for New England States fill) for “73rd New England Complex Fluids Workshop” (Harvard University, December 1, 2017);

Flyer (optical micrographs for New England States fill) for “77th New England Complex Fluids Workshop” (Harvard University, November 30, 2018);

Flyer (optical micrographs for New England States fill) for “93rd New England Complex Fluids Workshop” (Harvard University, December 2, 2022)

[13] Chu L.Y.^*, Li Y., Zhu J.H., Chen W.M., 2005. Negatively thermoresponsive membranes with functional gates driven by zipper-type hydrogen-bonding interactions. Angewandte Chemie International Edition, 44(14): 2124-2127. (2022 IF = 16.6)

[14] Yao C., Liu Z.^*, Yang C., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2015. Poly(N-isopropylacrylamide)-clay nanocomposite hydrogels with responsive bending property as temperature-controlled manipulators. Advanced Functional Materials, 25(20): 2980-2991. (2022 IF = 19.0)

This work has been featured in the Back Cover

[15] Wei J., Ju X.J.^*, Zou X.Y., Xie R., Wang W.,Liu Y.M., Chu L.Y.^*, 2014. Multi-stimuli-responsive microcapsules for adjustable controlled-release. Advanced Functional Materials, 24(22): 3312-3323. (2022 IF = 19.0)

This work has been featured in the Inside Front Cover

[16] Liu Z., Luo F., Ju X.J.^*, Xie R., Luo T., Sun Y.M., Chu L.Y.^*, 2012. Positively K⁺-responsive membranes with functional gates driven by host-guest molecular recognition. Advanced Functional Materials, 22(22): 4742-4750. (2022 IF = 19.0)

This work has been featured in the Frontispiece

[17] Yang M., Chu L.Y.^*, Wang H.D., Xie R., Song H., Niu C.H., 2008. A thermo-responsive membrane for chiral resolution. Advanced Functional Materials, 18(4): 652-663. (2022 IF = 19.0)

[18] Chu L.Y.^*, Kim J.W., Shah R.K., Weitz D.A.^*, 2007. Monodisperse thermo-responsive microgels with tunable volume-phase transition kinetics. Advanced Functional Materials, 17(17): 3499-3504. (2022 IF = 19.0)

This work has been featured in the Front Cover

[19] Qu J.B., Chu L.Y.^*, Yang M., Xie R., Hu L., Chen W.M., 2006. A pH-responsive gating membrane system with pumping effects for improved controlled-release. Advanced Functional Materials, 16(14): 1865-1872. (2022 IF = 19.0)

This work has been featured in the Front Cover; and

High-Tech Materials Alert

[20] Xiao X.C., Chu L.Y.^*, Chen W.M., Wang S., Li Y., 2003. Positively thermo-sensitive monodisperse core-shell microspheres. Advanced Functional Materials, 13(11): 847-852. (2022 IF = 19.0)

This work was featured in the Front Cover

[21] Mou C.L., Wang W.^*, Li Z.L., Ju X.J., Xie R., Deng N.N., Wei J., Liu Z., Chu L.Y.^*, 2018. Trojan-Horse-Like Stimuli-Responsive Microcapsules. Advanced Science, 5(6): 1700960. (2022 IF = 15.1)

[22] Li J.C., Xu W.J., Huang W.H., Long J., Liu J., Luo H., Zhang Y.P.^*, Chu L.Y., 2021. Stable covalent cross-linked polyfluoro sulfonated polyimide membranes with high proton conductance and vanadium resistance for application in vanadium redox flow batteries. Journal of Materials Chemistry A, 9(43): 24704-24711. (2022 IF = 11.9)

[23] Liu Z., Luo F., Ju X.J.^*, Xie R., Sun Y.M., Wang W., Chu L.Y.^*, 2013. Gating membranes for water treatment: Detection and removal of trace Pb²⁺ ions based on molecular recognition and polymer phase transition. Journal of Materials Chemistry A, 1(34): 9659-9671. (2022 IF = 11.9)

This work has been featured as Inside Front Cover Story

[24] Chen C., Cai Q.W., Zhan C.Z., Wang B.C., Li P.F., Xie R., Ju X.J., Liu Z., Wang W.^*, Chu L.Y.^*, 2023. Controllable Fabrication of Highly Uniform Sub-10 nm Nanoparticles from Spontaneous Confined Nanoemulsification. Small, 19(34): 2300801. (2022 IF = 13.3)

This work has been featured in the Inside Back Cover

[25] Xie R., Luo F., Zhang L., Guo S.F., Liu Z.^*, Ju X.J., Wang W., Chu L.Y.^*, 2018. A Novel Thermo-responsive Catalytic Membrane with Multi-scale Pores Prepared via Vapor-induced Phase Separation. Small, 14(18): 1703650. (2022 IF = 13.3)

Invited Paper for the Special Issue of “Multi-Scale Pores and Channels”

[26] Lin S., Wang W.^*, Ju X.J., Xie R., Liu Z., Yu H.R., Zhang C., Chu L.Y.^*, 2016. Ultrasensitive microchip based on smart microgel for real-time on-line detection of trace threat analytes. Proceedings of the National Academy of Sciences of the United States of America (PNAS), 113(8): 2023-2028. (2022 IF = 11.1)

入选《美国科学院学报》（PNAS）重要新闻发布摘要

[27] Wen G.Y., Zhou X.L., Tian X.Y., Xie R., Ju X.J., Liu Z., Faraj Y., Wang W.^*, Chu L.Y.^*, 2022. Smart Hydrogels with Wide-Visible-Color Tunability. NPG Asia Materials, 14: 29. (2022 IF = 9.7)

[28] Wen G.Y., Zhou X.L., Tian X.Y., Hu T.Y., Xie R., Ju X.J., Liu Z., Pan D.W., Wang W.^*, Chu L.Y.^*, 2022. Real-Time Quantitative Detection of UV Radiation Dose Based on Photochromic Hydrogel and Photo-Resistance. Chemistry of Materials, 34(17): 7947-7958. (2022 IF = 8.6)

[29] Wang W., Li B.Y., Zhang M.J., Su Y.Y., Pan D.W., Liu Z., Ju X.J., Xie R., Faraj Y., Chu L.Y.^*, 2023. Microfluidic Emulsification Techniques for Controllable Emulsion Production and Functional Microparticle Synthesis. Chemical Engineering Journal, 452: 139277. (2022 IF = 15.1)

Invited Paper for the Special Issue on Mechanisms and Control of Mesoscales in Chemical Engineering

[30] Li J.C., Liu J., Xu W.J., Long J., Huang W.H., Zhang Y.P.^*, Chu L.Y., 2022. Highly ion-selective sulfonated polyimide membranes with covalent self-crosslinking and branching structures for vanadium redox flow battery. Chemical Engineering Journal, 437: 135414. (2022 IF = 15.1)

[31] Zhang T.X., Tao C., Ge S.X., Pan D.W.^*, Li B., Huang W.X., Wang W., Chu L.Y., 2022. Interfaces coupling deformation mechanisms of liquid-liquid-liquid three-phase flow in a confined microchannel. Chemical Engineering Journal, 434: 134769. (2022 IF = 15.1)

[32] Xu W.J., Long J., Liu J., Luo H., Duan H.R., Zhang Y.P.^*, Li J.C.^*, Qi X.J., Chu L.Y., 2022. A novel porous polyimide membrane with ultrahigh chemical stability for application in vanadium redox flow battery. Chemical Engineering Journal, 428: 131203. (2022 IF = 15.1)

[33] Peng J.^#, Zhao N.^#, Lin S., Wang W.^*, Zhang M.J., Su Y.Y., Xie R., Ju X.J., Liu Z., Chu L.Y., 2021. Smart microfluidic analogue of Wheatstone-bridge for real-time continuous detection with ultrasensitivity and wide dynamic range. Chemical Engineering Journal, 407: 127138. (^#Contributed equally) (2022 IF = 15.1)

[34] Cai Q.W., Ju X.J.^*, Chen C., Faraj Y., Jia Z.H., Hu J.Q., Xie R., Wang W., Liu Z., Chu L.Y.^*, 2019. Fabrication and flow characteristics of monodisperse bullet-shaped microparticles with controllable structures. Chemical Engineering Journal, 370: 925-937. (2022 IF = 15.1)

[35] Zhang L., Liu Z.^*, Wang Y., Xie R., Ju X.J., Wang W., Lin L.G., Chu L.Y.^*, 2017. Facile immobilization of Ag nanoparticles on microchannel walls in microreactors for catalytic applications. Chemical Engineering Journal, 309: 691-699. (2022 IF = 15.1)

[36] Mei L., Xie R.^*, Yang C., Ju X.J., Wang W., Wang J.Y., Chu L.Y.^*, 2013. pH-responsive Ca-alginate-based capsule membranes with grafted poly(methacrylic acid) brushes for controllable enzyme reaction. Chemical Engineering Journal, 232: 573-581. (2022 IF = 15.1)

[37] Mou C.L., He X.H., Ju X.J.^*, Xie R., Liu Z., Liu L., Zhang Z., Chu L.Y.^*, 2012. Change in size and structure of monodisperse poly(N-isopropylacrylamide) microcapsules in response to varying temperature and ethyl gallate concentration. Chemical Engineering Journal, 210: 212-219. (2022 IF = 15.1)

[38] Wang Z.B., Chu L.Y.^*, Chen W.M., Wang S.G., 2008. Experimental investigation of the motion trajectory of solid particles inside the hydrocyclone by a Lagrange method. Chemical Engineering Journal, 138(1-3): 1-9. (2022 IF = 15.1)

[39] Dai G.Q., Chen W.M., Li J.M., Chu L.Y., 1999. Experimental study of solid-liquid two-phase flow in a hydrocyclone. Chemical Engineering Journal, 74(3): 211-216. (2022 IF = 15.1)

[40] Chu L.Y.^*, Li Y., Zhu J.H., Wang H.D., Liang Y.J., 2004. Control of pore size and permeability of a glucose-responsive gating membrane for insulin delivery. Journal of Controlled Release, 97(1): 43-53. (2022 IF = 10.8)

[41] Pu X.Q., Ju X.J.^*, Zhang L., Cai Q.W., Liu Y.Q., Peng H.Y., Xie R., Wang W., Liu Z., Chu L.Y.^*, 2021. Novel multifunctional stimuli-responsive nanoparticles for synergetic chemo-photothermal therapy of tumors. ACS Applied Materials & Interfaces, 13(24): 28802-28817. (2022 IF = 9.5)

[42] Mu X.T., Li Y., Ju X.J.^*, Yang X.L., Xie R., Wang W., Liu Z., Chu L.Y., 2020. Microfluidic Fabrication of Structure-controlled Chitosan Microcapsules via Interfacial Crosslinking of Droplet Templates. ACS Applied Materials & Interfaces, 12(51): 57514-57525. (2022 IF = 9.5)

[43] Lv X.B., Xie R.^*, Ji J.Y.^*, Liu Z., Wen X.Y., Liu L.Y., Hu J.Q., Ju X.J., Wang W., Chu L.Y., 2020. A Novel Strategy to Fabricate Cation-Cross-linked Graphene Oxide Membrane with High Aqueous Stability and High Separation Performance. ACS Applied Materials & Interfaces, 12(50): 56269-56280. (2022 IF = 9.5)

[44] Chen L., Zhang M.J.,^* Zhang S.-Y., Shi L., Yang Y.-M., Liu Z., Ju X.J., Xie R., Wang W.^*, Chu L.Y., 2020. Simple and continuous fabrication of self-propelled micromotors with photocatalytic MOF for enhanced synergistic environmental remediation. ACS Applied Materials & Interfaces, 12(31): 35120-35131. (2022 IF = 9.5)

[45] Cai Q.W., Ju X.J.^*, Zhang S.Y., Chen Z.H., Hu J.Q., Zhang L.P., Xie R., Wang W., Liu Z., Chu L.Y.^*, 2019. Controllable Fabrication of Functional Microhelices with Droplet Microfluidics. ACS Applied Materials & Interfaces, 11(49): 46241-46250. (2022 IF = 9.5)

[46] Wen X.Y., Liu Z.^*, Wang J., Tang X.Y., Wang W., Ju X.J., Xie R., Chu L.Y., 2019. Nanocomposite hydrogels with optic-sonic transparency and hydroacoustic-sensitive conductivity for potential anti-scouting sonar. ACS Applied Materials & Interfaces, 11(22): 20386-20393. (2022 IF = 9.5)

[47] Zhang L., Liu Z.^*, Liu L.Y., Pan J.L., Luo F., Yang C., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2018. Nanostructured Thermo-responsive Surfaces Engineered via Stable Immobilization of Smart Nanogels with Assistance of Polydopamine. ACS Applied Materials & Interfaces, 10(50): 44092-44101. (2022 IF = 9.5)

[48] Yan P.J., He F., Wang W.^*, Zhang S.Y., Zhang L., Li M., Liu Z., Ju X.J., Xie R., Chu L.Y.^*, 2018. A Novel Membrane Detector Based on Smart Nanogels for Ultrasensitive Detection of Trace Threat Substances. ACS Applied Materials & Interfaces, 10(42): 36425-36434. (2022 IF = 9.5)

[49] Zhang L., Liu Z.^*, Liu L.Y., Ju X.J., Wang W., Xie R., Chu L.Y.^*, 2017. Novel Smart Microreactors Equipped with Responsive Catalytic Nanoparticles on Microchannels. ACS Applied Materials & Interfaces, 9(38): 33137-33148. (2022 IF = 9.5)

[50] Shi K., Liu Z.^*, Yang C., Li X.Y., Sun Y.M., Deng Y., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2017. Novel Biocompatible Thermoresponsive Poly(N-vinyl Caprolactam)/Clay Nanocomposite Hydrogels with Macroporous Structure and Improved Mechanical Characteristics. ACS Applied Materials & Interfaces, 9(26): 21979-21990. (2022 IF = 9.5)

[51] You X.R., Ju X.J.,^*, He F., Wang Y., Liu Z., Wang W., Xie R., Chu L.Y., 2017. Polymersomes with Rapid K⁺-Triggered Drug Release Behaviors. ACS Applied Materials & Interfaces, 9(22): 19258-19268. (2022 IF = 9.5)

[52] Yang C., Liu Z.^*, Chen C., Shi K., Zhang L., Ju X.J., Wang W., Xie R., Chu L.Y.^*, 2017. Reduced Graphene Oxide-Containing Smart Hydrogels with Excellent Electro-Response and Mechanical Property for Soft Actuators. ACS Applied Materials & Interfaces, 9(18): 15758-15767. (2022 IF = 9.5)

[53] Ma B., Ju X.J.^*, Luo F., Liu Y.Q., Wang Y., Liu Z., Wang W., Xie R., Chu L.Y.^*, 2017. Facile Fabrication of Composite Membranes with Dual Thermo- and pH-Responsive Characteristics. ACS Applied Materials & Interfaces, 9(16): 14409-14421. (2022 IF = 9.5)

[54] Yao C., Liu Z.^*, Yang C., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2016. Smart hydrogels with inhomogeneous structures assembled using nanoclay-crosslinked hydrogel subunits as building blocks. ACS Applied Materials & Interfaces, 8(33): 21721-21730. (2022 IF = 9.5)

[55] Xi Y.H.^#, Hu J.Q.^#, Liu Z.^*, Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2016. Graphene oxide membranes with strong stability in aqueous solutions and controllable lamellar spacing. ACS Applied Materials & Interfaces, 8(24): 15557-15566. (^#Contributed equally) (2022 IF = 9.5)

[56] Yang X.L., Ju X.J.^*, Mu X.T., Wang W., Xie R., Liu Z., Chu L.Y., 2016. Core-shell chitosan microcapsules for programmed sequential drug release. ACS Applied Materials & Interfaces, 8(16): 10524-10534. (2022 IF = 9.5)

[57] He F., Wang W.^*, He X.H., Yang X.L., Li M., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2016. Controllable multi-compartmental capsules with distinct cores and shells for synergistic release. ACS Applied Materials & Interfaces, 8(13): 8743-8754. (2022 IF = 9.5)

[58] Shi K., Liu Z.,^* Wei Y.Y., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2015, Near-infrared light-responsive poly(N-isopropylacrylamide)/graphene oxide nanocomposite hydrogels with ultrahigh tensibility. ACS Applied Materials & Interfaces, 7(49): 27289-27298. (2022 IF = 9.5)

[59] He X.H., Wang W.^*, Liu Y.M., Jiang M.., Wu F., Deng K., Liu Z., Ju X.J., Xie R., Chu L.Y.^*, 2015. Microfluidic fabrication of bio-inspired microfibers with controllable magnetic spindle-knots for 3D assembly and water collection. ACS Applied Materials & Interfaces, 7(31): 17471-17481. (2022 IF = 9.5)

[60] Zhang M.J., Wang W.^*, Yang X.L., Ma B., Liu Y.M., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2015. Uniform microparticles with controllable highly-interconnected hierarchical porous structures. ACS Applied Materials & Interfaces, 7(25): 13758-13767. (2022 IF = 9.5)

This work has been featured as the Cover Story

[61] Jiang M.Y., Ju X.J.^*, Fang L., Liu Z., Yu H.R., Jiang L., Wang W., Xie R., Chen Q.M., Chu L.Y.^*, 2014. A novel smart microsphere with K⁺-induced shrinking and aggregating property based on responsive host-guest system. ACS Applied Materials & Interfaces, 6(21): 19405-19415. (2022 IF = 9.5)

[62] Liu Y.M., Ju X.J.^*, Xin Y., Zheng W.C., Wang W., Wei J., Xie R., Liu Z., Chu L.Y.^*, 2014. A novel smart microsphere with magnetic core and ion-recognizable shell for Pb²⁺ adsorption and separation. ACS Applied Materials & Interfaces, 6(12): 9530-9542. (2022 IF = 9.5)

[63] Mei L., He F., Zhou R.Q., Wu C.D., Liang R., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2014. A novel intestinal-targeted Ca-alginate-based carrier for pH-responsive protection and release of Lactic acid bacteria. ACS Applied Materials & Interfaces, 6(8): 5962-5970. (2022 IF = 9.5)

[64] Deng N.N., Sun J., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2014. Wetting-induced coalescence of nanoliter drops as microreactors in microfluidics. ACS Applied Materials & Interfaces, 6(6): 3817-3821. (2022 IF = 9.5)

[65] Liu Y.M., Wang W.^*, Zheng W.C., Ju X.J., Xie R., Zerrouki D., Deng N.N., Chu L.Y.^*, 2013. Hydrogel-based micro-actuators with remote-controlled locomotion and fast Pb²⁺-response for micromanipulation. ACS Applied Materials & Interfaces, 5(15): 7219-7226. (2022 IF = 9.5)

[66] Xu W.J., Long J., Liu J., Wang Y.L., Luo H., Zhang Y.P.^*, Li J.C.^*, Chu L.Y., Duan H., 2021, Novel highly efficient branched polyfluoro sulfonated polyimide membranes for application in vanadium redox flow battery. Journal of Power Sources, 485: 229354. (2022 IF = 9.2)

[67] Wen S., Ju X.J.^*, Liu W.Y., Liu Y.Q., Pu X.Q., Liu Z., Wang W., Xie R., Faraja Y., Chu L.Y., 2023. Ca-alginate-based Janus capsules with pumping effect for intestinal-targeted controlled-release. Engineering, in press. (2022 IF = 12.8)

[68] Liu W.Y., Ju X.J.^*, Pu X.Q., Cai Q.W. , Liu Y.Q., Liu Z., Wang W., Xie R., Chu L.Y.^*, 2021. Functional Capsules Encapsulating Molecular-Recognizable Nanogels for Facile Removal of Organic Micro-Pollutants from Water. Engineering, 7(5): 636-646. (2022 IF = 12.8)

Invited Paper for the Special Issue on “Soft Materials for Green Chemical Engineering”

This work has been featured in the Back Cover

[69] Jiang Q.R., Pu X.Q., Deng C.F., Wang W., Liu Z., Xie R., Pan D.W., Zhang W.J.^*, Ju X.J.^*, Chu L.Y., 2023. Microfluidic controllable preparation of iodine-131-labeled microspheres for radioembolization therapy of liver tumors. Advanced Healthcare Materials, in press. (2022 IF = 10.0)

[70] Li D.Y., Wang W., Chu L.Y., Deng N.N.^*, 2023. Tunable Structural Coloration in Eccentric Water-in-Oil-in-Water Droplets. Nano Letters, in press. (2022 IF = 10.8)

[71] Li X.J.^#, Li Y.^#, Meng Y, Pu X.Q., Qin J.W., Xie R., Wang W., Liu Z., Jiang L.^*, Ju X.J.^*, Chu L.Y., 2022. Composite dissolvable microneedle patch for therapy of oral mucosal diseases. Biomaterials Advances, 139: 213001. (^#Contributed equally)

[72] Liu Z., Liu L., Ju X.J.^*, Xie R., Zhang B., Chu L.Y.^*, 2011. K⁺-recognition capsules with squirting release mechanisms. Chemical Communications, 47(45): 12283-12285. (2022 IF = 4.9)

This work has been featured in Back Cover;

Chemistry World;

Nano News Net; and

ChemRar

[73] Zhao H., He S.L., Yang M.L., Guo X.R., Xin G., Zhang C.Y., Ye L., Chu L.Y., Xing Z.H., Huang W., Chen Q.M., He Y., 2013. Micro-flowers changing to nano-bundle aggregates by translocation of the sugar moiety in Janus TA nucleosides. Chemical Communications, 49(36): 3742-3744. (2022 IF = 4.9)

[74] Yu H.R., Ju X.J.^*, Xie R., Wang W., Zhang B., Chu L.Y.^*, 2013. Portable diagnosis method of hyperkalemia using potassium-recognizable poly(N-isopropylacrylamide-co-benzo-15-crown-5-acrylamide) copolymers. Analytical Chemistry, 85(13): 6477-6484. (2022 IF = 7.4)

[75] Deng C.F., Su Y.Y., Yang S.H., Jiang Q.R., Xie R., Ju X.J., Liu Z., Pan D.W., Wang W.^*, Chu L.Y.^*, 2022. Designable microfluidic ladder networks from backstepping microflow analysis for mass production of monodisperse microdroplets. Lab on a Chip (2022 IF = 6.1), 22(24): 4962-4973.

[76] Deng N.N., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2016. Spontaneous transfer of droplets across microfluidic laminar interfaces. Lab on a Chip, 16(22): 4326-4332. (2022 IF = 6.1)

This work has been featured as Front Cover Story

[77] Meng Z.J., Wang W.^*, Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2016. Microfluidic generation of hollow Ca-alginate microfibers. Lab on a Chip, 16(14): 2673-2681. (2022 IF = 6.1)

[78] Meng Z.J., Wang W.^*, Liang X., Zheng W. C., Deng N.N., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2015. Plug-n-play microfluidic systems from flexible assembly of glass-based flow-control modules. Lab on a Chip, 15(8): 1869-1878.. (2022 IF = 6.1)

[79] Sun Y.M., Wang W.^*, Wei Y.Y., Deng N.N., Liu Z., Ju X.J., Xie R., Chu L.Y.^*, 2014. In situ fabrication of temperature- and ethanol-responsive smart membrane in microchip. Lab on a Chip, 14(14): 2418-2427. (2022 IF = 6.1)

This paper has been featured as “HOT Article” in Lab on a Chip Blog

[80] Lin S., Wang W.^*, Ju X.J., Xie R., Chu L.Y.^*, 2014. A simple strategy for in situ fabrication of smart hydrogel microvalve within microchannels for thermostatic control. Lab on a Chip, 14(15): 2626-2634. (2022 IF = 6.1)

This paper has been featured in Inside Front Cover; and as

“HOT Article” in Lab on a Chip Blog

[81] Deng N.N., Wang W., Ju X.J., Xie R., Weitz D.A., Chu L.Y.^*, 2013. Wetting-induced formation of controllable monodisperse multiple emulsions in microfluidics. Lab on a Chip, 13(20): 4047-4052. (2022 IF = 6.1)

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[82] Deng N.N., Sun S.X., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2013. A novel surgery-like strategy for droplet coalescence in microchannels. Lab on a Chip, 13(18): 3653-3657. (2022 IF = 6.1)

[83] Wang W., Xie R.^*, Ju X.J., Luo T., Liu L., Weitz D.A., Chu L.Y.^*, 2011. Controllable microfluidic production of multicomponent multiple emulsions. Lab on a Chip, 11(9): 1587-1592. (2022 IF = 6.1)

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[84] Deng N.N., Meng Z.J., Xie R.^*, Ju X.J., Mou C.L., Wang W., Chu L.Y.^*, 2011. Simple and cheap microfluidic devices for preparation of monodisperse emulsions. Lab on a Chip, 11(23): 3963-3969. (2022 IF = 6.1)

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[85] Wang F., Liu Z.^*, Zou L.B., Xie R., Ju X.J., Wang W., Pan D.W., Chu L.Y.^*, 2023. A universal model for describing responsive performances of both positively and negatively responsive smart gating membranes. Journal of Membrane Science, 668: 121235. (2022 IF = 9.5)

[86] Zhang C., Xie R.^*, Liu Z., Ju X.J., Wang W., Chu L.Y.^*, 2022. 3D Helical Membranes for Process Intensification of Membrane Separation via Generation of Dean Vortices. Journal of Membrane Science, 662: 120969. (2022 IF = 9.5)

[87] Long J., Xu W.J., Xu S.B., Liu J., Wang Y.L., Luo H., Zhang Y.P.^*, Li J.C.^*, Chu L.Y., 2021. A novel double branched sulfonated polyimide membrane with ultra-high proton selectivity for vanadium redox flow battery. Journal of Membrane Science, 628: 119259. (2022 IF = 9.5)

[88] Liu W.Y., Ju X.J.^*, Yousef F., He F., Peng H.Y., Liu Y.Q., Liu Z., Wang W., Xie R., Chu L.Y.^*, 2020. Capsule membranes encapsulated with smart nanogels for facile detection of trace lead(II) ions in water. Journal of Membrane Science, 613: 118523. (2022 IF = 9.5)

[89] Xu M.H., Xie R.^*, Ju X.J., Wang W., Liu Z., Chu L.Y.^*, 2020. Antifouling membranes with bi-continuous porous structures and high fluxes prepared by vapor-induced phase separation. Journal of Membrane Science, 611: 118256. (2022 IF = 9.5)

[90] Chen Z.H., Liu Z.^*, Hu J.Q., Cai Q.W., Li X.Y., Wang W., Faraj Y., Ju X.J., Xie R., Chu L.Y.^*, 2020. β-Cyclodextrin-modified graphene oxide membranes with large adsorption capacity and high flux for efficient removal of bisphenol A from water. Journal of Membrane Science, 595: 117510. (2022 IF = 9.5)

[91] Hu J.Q., Liu Z.^*, Deng K., Chen Z.H., Cai Q.W., Faraj Y., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2019. A novel membrane with ion-recognizable copolymers in graphene-based nanochannels for facilitated transport of potassium ions. Journal of Membrane Science, 591: 117345. (2022 IF = 9.5)

[92] Mu X. T., Ju X. J.^*, Zhang L., Huang X. B., Faraj Y., Liu Z., Wang W., Xie R., Deng Y., Chu L.Y., 2019. Chitosan Microcapsule Membranes with Nanoscale Thickness for Controlled Release of Drugs. Journal of Membrane Science, 590: 117275. (2022 IF = 9.5)

[93] Li X.Y., Xie R.^*, Zhang C., Chen Z.H., Hu J. Q., Ju X.J., Wang W., Liu Z., Chu L.Y., 2019. Effects of hydrophilicity of blended submicrogels on the microstructure and performance of thermo-responsive membranes. Journal of Membrane Science, 584: 202-215. (2022 IF = 9.5)

[94] Wang Y., Liu Z.^*, Luo F., Peng H.Y., Zhang S.G., Xie R., Ju X.J., Wang W., Faraj Y., Chu L.Y.^*, 2019. A novel smart membrane with ion-recognizable nanogels as gates on interconnected pores for simple and rapid detection of trace lead(II) ions in water. Journal of Membrane Science, 575: 28-37. (2022 IF = 9.5)

[95] Zhang L.P., Liu Z.^*, Faraj Y., Zhao Y., Zhuang R., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2019. High-flux efficient catalytic membranes incorporated with iron-based Fenton-like catalysts for degradation of organic pollutants. Journal of Membrane Science, 573: 493-503. (2022 IF = 9.5)

[96] Fan X.X., Xie R.^*, Zhao Q., Li X.Y., Ju X.J., Wang W., Liu Z., Chu L.Y.^*, 2018. Dual pH-Responsive Smart Gating Membranes. Journal of Membrane Science, 555: 20-29. (2022 IF = 9.5)

[97] Xi Y.H., Liu Z.^*, Ji J.Y., Wang Y., Faraj Y., Zhu Y.D., Xie R., Ju X.J., Wang W., Lu X.H., Chu L.Y.^*, 2018. Graphene-based membranes with uniform 2D nanochannels for precise sieving of mono-/multi-valent metal ions. Journal of Membrane Science, 550: 208-218. (2022 IF = 9.5)

[98] Zhao Q., Xie R.^*, Luo F., Faraj Y., Liu Z., Ju X.J., Wang W., Chu L.Y., 2018. Preparation of high strength poly(vinylidene fluoride) porous membranes with cellular structure via vapor-induced phase separation. Journal of Membrane Science, 549: 151-164. (2022 IF = 9.5)

[99] Yang B.X., Yang X., Liu B.C.^*, Chen Z.Q.^*, Chen C., Liang S.M., Chu L.Y., Crittenden J., 2017. PVDF blended PVDF-g-PMAA pH-responsive membrane: Effect of additives and solvents on membrane properties and performance. Journal of Membrane Science, 541: 558-566. (2022 IF = 9.5)

[100] Deng K., Liu Z.^*, Luo F., Xie R., He X.H., Jiang M.Y., Ju X.J., Wang W., Chu L.Y.^*, 2017. Controllable fabrication of polyethersulfone hollow fiber membranes with a facile double co-axial microfluidic device. Journal of Membrane Science, 526: 9-17. (2022 IF = 9.5)

[101] Luo F., Zhao Q., Xie R.,^*, Cao Y., Ju X.J., Wang W., Liu Z., Chu L.Y.^*, 2016. Effects of fabrication conditions on the microstructures and performances of smart gating membranes with in situ assembled nanogels as gates. Journal of Membrane Science, 519: 32-44. (2022 IF = 9.5)

[102] Liu Z., Ju X.J., Huang Y.H., Xie R., Wang W., Lee K.R., Chu L.Y.^*, 2016. Diffusional permeability characteristics of positively K⁺-responsive membranes caused by spontaneously changing membrane pore size and surface wettability. Journal of Membrane Science, 497: 328-338. (2022 IF = 9.5)

[103] He F., Mei L., Ju X.J.^*, Xie R., Wang W., Liu Z., Wu F., Chu L.Y.^*, 2014. pH-Responsive controlled release characteristics of solutes with different molecular weights diffusing across membranes of Ca-alginate/protamine/silica hybrid capsules. Journal of Membrane Science, 474: 233-243. (2022 IF = 9.5)

[104] Luo T., Lin S., Xie R.^*, Ju X.J., Liu Z., Wang W, Mou C.L., Zhao C.S., Chen Q.M., Chu L.Y.^*, 2014. pH-Responsive poly(ether sulfone) composite membranes blended with amphiphilic polystyrene-block-poly(acrylic acid) copolymers. Journal of Membrane Science, 450: 162-173. (2022 IF = 9.5)

[105] Chen Y.C., Xie R., Chu L.Y.^*, 2013. Stimuli-responsive gating membranes responding to temperature, pH, salt concentration and anion species. Journal of Membrane Science, 442: 206-215. (2022 IF = 9.5)

[106] Mei L., Xie R.^*, Yang C., Ju X.J., Wang J.Y., Zhang Z., Chu L.Y.^*, 2013. Bio-inspired mini-eggs with pH-responsive membrane for enzyme immobilization. Journal of Membrane Science, 429: 313-322. (2022 IF = 9.5)

[107] Meng T., Xie R.^*, Ju X.J., Cheng C. J., Wang S., Li P.F., Liang B., Chu L.Y.^*, 2013. Nano-structure construction of porous membranes by depositing nanoparticles for enhanced surface wettability. Journal of Membrane Science, 427: 63-72. (2022 IF = 9.5)

[108] Yang M., Xie R., Wang J.Y. Ju X.J., Yang L., Chu L.Y.^*, 2010. Gating characteristics of thermo-responsive and molecular- recognizable membranes based on poly(N-isopropylacrylamide) and β-cyclodextrin. Journal of Membrane Science, 355(1-2): 142-150. (2022 IF = 9.5)

[109] Meng T., Xie R., Chen Y.C., Cheng C.J., Li P.F., Ju X.J., Chu L.Y.^*, 2010. A thermo-responsive affinity membrane with nano-structured pores and grafted poly(N-isopropylacrylamide) surface layer for hydrophobic adsorption. Journal of Membrane Science, 349(1-2): 258-267. (2022 IF = 9.5)

[110] Li P.F., Xie R., Jiang J.C., Meng T., Yang M., Ju X.J., Yang L., Chu L.Y.^*, 2009. Thermo-responsive gating membranes with controllable length and density of poly(N-isopropylacrylamide) chains grafted by ATRP method. Journal of Membrane Science, 337(1-2): 310-317. (2022 IF = 9.5)

[111] Xie R., Zhang S.B., Wang H.D., Yang M., Li P.F., Zhu X.L., Chu L.Y.^*, 2009. Temperature-dependent molecular-recognizable membranes based on poly(N-isopropylacrylamide) and β-cyclodextrin. Journal of Membrane Science, 326(2): 618-626. (2022 IF = 9.5)

[112] Yang W.C., Xie R., Pang X.Q., Ju X.J., Chu L.Y.^*, 2008. Preparation and characterization of dual stimuli-responsive microcapsules with a superparamagnetic porous membrane and thermo-responsive gates. Journal of Membrane Science, 321(2): 324-330. (2022 IF = 9.5)

[113] Xie R., Li Y., Chu L.Y.^*, 2007. Preparation of thermo-responsive gating membranes with controllable response temperature. Journal of Membrane Science, 289(1-2): 76-85. (2022 IF = 9.5)

[114] Wang H.D., Chu L.Y.^*, Song H., Yang J.P., Xie R., Yang M., 2007. Preparation and enantiomer separation characteristics of chitosan/β-cyclodextrin composite membranes. Journal of Membrane Science, 297(1-2): 262-270. (2022 IF = 9.5)

[115] Wang G.J., Chu L.Y.^*, Zhou M.Y., Chen W.M., 2006. Effects of preparation conditions on the microstructure of porous microcapsule membranes with straight open pores. Journal of Membrane Science, 284(1-2): 301-312. (2022 IF = 9.5)

[116] Wang G.J., Chu L.Y.^*, Chen W.M., Zhou M.Y., 2005. A porous microcapsule membrane with straight pores for the immobilization of microbial cells. Journal of Membrane Science, 252(1-2): 279-284. (2022 IF = 9.5)

[117] Xie R., Chu L.Y.^*, Chen W.M., Xiao W., Wang H.D., Qu J.B., 2005. Characterization of microstructure of poly(N-isopropylacrylamide)-grafted polycarbonate track-etched membranes prepared by plasma-graft pore-filling polymerization. Journal of Membrane Science, 258(1-2): 157-166. (2022 IF = 9.5)

[118] Chu L.Y.^*, Park S.H., Yamaguchi T., Nakao S., 2001. Preparation of thermo-responsive core-shell microcapsules with a porous membrane and poly(N-isopropylacrylamide) gates. Journal of Membrane Science, 192(1-2): 27-39. (2022 IF = 9.5)

[119] Zhou X.L., Zhou C.H., Gong J.Y., Yu Q.W., He Y.^*, Ju X.J.^*, Chu L.Y., 2023. Novel Thermo and Ion-responsive Copolymers Based on Metallo-Base Pair Directed Host-Guest Complexation for Highly Selective Recognition of Hg²⁺ in Aqueous Solution. Journal of Hazardous Materials, 445: 130610. (2022 IF = 13.6)

[120] Tian X.Y., Sun M.W., Wen G.Y., Cao M., Pan D.W., Xie R., Ju X.J., Liu Z., Wang W.^*, Chu L.Y.^*, 2023. Ultrasensitive Hydrogel Grating Detector for Real-Time Continuous-Flow Detection of Trace Threat Pb²⁺. Journal of Hazardous Materials, 443: 130289. (2022 IF = 13.6)

[121] Liu Y.Q., Ju X.J.^*, Zhou X.L., Mu X.T., Tian X.Y., Zhang L., Liu Z., Wang W., Xie R., Chu L.Y., 2022. A novel chemosensor for sensitive and facile detection of strontium ions based on ion-imprinted hydrogels modified with guanosine derivatives. Journal of Hazardous Materials, 421: 126801. (2022 IF = 13.6)

[122] Liu Y.Q., Ju X.J.^*, Pu X.Q., Wen S., Liu W.Y., Liu Z., Wang W., Xie R., Chu L.Y., 2021. Visual detection of trace lead(II) using a forward osmosis-driven device loaded with ion-responsive nanogels. Journal of Hazardous Materials, 404: 124157. (2022 IF = 13.6)

[123] Yu H.R., Hu J.Q., Liu Z.^*, Ju X.J., Xie R., Wang W., Chu L.Y.^*, 2017. Ion-recognizable hydrogels for efficient removal of cesium ions from aqueous environment. Journal of Hazardous Materials, 323: 632-640. (2022 IF = 13.6)

[124] Ju X.J., Zhang S.B., Zhou M.Y., Xie R., Yang L., Chu L.Y.^*, 2009. Novel heavy-metal adsorption material: Ion-recognition P(NIPAM-co-BCAm) hydrogels for removal of lead(II) ions. Journal of Hazardous Materials, 167(1-3): 114-118. (2022 IF = 13.6)

[125] Peng H.Y., Wang W.^*, Gao F.H., Lin S., Liu L.Y., Pu X.Q., Liu Z., Ju X.J., Xie R., Chu L.Y.^*, 2018. Ultrasensitive diffraction gratings based on smart hydrogel for high-selective and rapid detection of trace heavy metal ions. Journal of Materials Chemistry C, 6(42): 11356-11367. (2022 IF = 6.4)

[126] Liu L., Wu F., Ju X.J., Xie R., Wang W., Niu C.H., Chu L.Y.^*, 2013. Preparation of monodisperse calcium alginate microcapsules via internal gelation in microfluidic-generated double emulsions. Journal of Colloid and Interface Science, 404: 85-90. (2022 IF = 9.9)

[127] Yue L.L., Xie R.^*, Wei J., Ju X.J., Wang W., Chu L.Y.^*, 2012. Nano-gel containing thermo-responsive microspheres with fast response rate owing to hierarchical phase-transition mechanism. Journal of Colloid and Interface Science, 377(1): 137-144. (2022 IF = 9.9)

[128] Yu Y.L., Zhang M.J., Xie R.^*, Ju X.J., Wang J.Y., Pi S.W., Chu L.Y.^*, 2012. Thermo-responsive monodisperse core-shell microspheres with PNIPAM core and biocompatible porous ethyl cellulose shell embedded with PNIPAM gates. Journal of Colloid and Interface Science, 376(1): 97-106. (2022 IF = 9.9)

[129] Wei J., Ju X.J.^*, Xie R., Mou C.L., Lin X., Chu L.Y.^*, 2011. Novel cationic pH-responsive poly(N,N-dimethylaminoethyl methacrylate) microcapsules prepared by a microfluidic technique. Journal of Colloid and Interface Science, 357(1): 101-108. (2022 IF = 9.9)

[130] Wang J.Y., Jin Y., Xie R.^*, Liu J.Y., Ju X.J., Meng T., Chu L.Y.^*, 2011. Novel calcium-alginate capsules with aqueous core and thermo-responsive membrane. Journal of Colloid and Interface Science, 353(1): 61-68. (2022 IF = 9.9)

[131] Pi S.W., Ju X.J.^*, Wu H.G., Xie R., Chu L.Y.^*, 2010. Smart responsive microcapsules capable of recognizing heavy metal ions. Journal of Colloid and Interface Science, 349(2): 512-518. (2022 IF = 9.9)

[132] Xia L.W., Ju X.J., Liu J.J., Xie R., Chu L.Y.^*, 2010. Responsive hydrogels with poly(N-isopropylacrylamide-co-acrylic acid) colloidal spheres as building blocks. Journal of Colloid and Interface Science, 349(1): 106-113. (2022 IF = 9.9)

[133] Yu Y.L., Xie R.^*, Zhang M.J., Li P.F., Yang L., Ju X.J., Chu L.Y.^*, 2010. Monodisperse microspheres with poly(N-isopropylacrylamide) core and poly(2-hydroxyethyl methacrylate) shell. Journal of Colloid and Interface Science, 346(2): 361-369. (2022 IF = 9.9)

[134] Chen G., Niu C.H., Zhou M.Y., Ju X.J., Xie R., Chu L.Y.^*, 2010. Phase transition behaviors of poly(N-isopropylacrylamide) microgels induced by tannic acid. Journal of Colloid and Interface Science, 343(1): 168-175. (2022 IF = 9.9)

[135] Ren P.W., Ju X.J., Xie R., Chu L.Y.^*, 2010. Monodisperse alginate microcapsules with oil core generated from a microfluidic device. Journal of Colloid and Interface Science, 343(1): 392-395. (2022 IF = 9.9)

[136] Zhang H., Ju X.J., Xie R., Cheng C.J., Ren P.W., Chu L.Y.^*, 2009. A microfluidic approach to fabricate monodisperse hollow or porous poly(HEMA-MMA) microspheres using single emulsions as templates. Journal of Colloid and Interface Science, 336(1): 235-243. (2022 IF = 9.9)

[137] Zhou M.Y., Xie R., Yu Y.L., Chen G., Ju X.J., Yang L., Liang B., Chu L.Y.^*, 2009. Effects of surface wettability and roughness of microchannel on flow behaviors of thermo-responsive microspheres therein during the phase transition. Journal of Colloid and Interface Science, 336(1): 162-170. (2022 IF = 9.9)

[138] Liu L., Yang J.P., Ju X.J., Xie R., Yang L., Liang B., Chu L.Y.^*, 2009. Microfluidic preparation of monodisperse ethyl cellulose hollow microcapsules with non-toxic solvent. Journal of Colloid and Interface Science, 336(1): 100-106. (2022 IF = 9.9)

[139] Cheng C.J., Chu L.Y.^*, Ren P.W., Zhang J., Hu L., 2007. Preparation of monodisperse thermo-sensitive poly(N-isopropylacrylamide) hollow microcapsules. Journal of Colloid and Interface Science, 313(2): 383-388. (2022 IF = 9.9)

[140] Hu L., Chu L.Y.^*, Yang M., Wang H.D., Niu C.H., 2007. Preparation and characterization of novel cationic pH-responsive poly(N,N'-dimethylamino ethyl methacrylate) microgels. Journal of Colloid and Interface Science, 311(1): 110-117. (2022 IF = 9.9)

[141] Cheng C.J., Chu L.Y.^*, Xie R., 2006. Preparation of highly monodisperse W/O emulsions with hydrophobically modified SPG membranes. Journal of Colloid and Interface Science, 300(1): 375-382. (2022 IF = 9.9)

[142] Chu L.Y.^*, Xie R, Zhu J.H., Chen W.M., Yamaguchi T, Nakao S, 2003. Study on SPG Membrane Emulsification Processes for the Preparation of Monodispersed Core-Shell Microcapsules. Journal of Colloid and Interface Science, 265(1): 187-196. (2022 IF = 9.9)

[143] Cheng C.J., Chu L.Y.^*, Zhang J., Zhou M.Y., Xie R., 2008. Preparation of monodisperse poly(N-isopropylacrylamide) microspheres and microcapsules via Shirasu-porous-glass membrane emulsification. Desalination, 234(1-3): 184-194. (2022 IF = 9.9)

[144] Sun M.W.^#, Li Z.^#, Wang Q.Y.^#, Zhang N.^*, Xie R., Ju X.J., Wang W., Liu Z.^*, Chu L.Y., 2023. MoS₂ laminate membranes with structural-phase-dependent permeation for molecular separation. Cell Reports Physical Science, 4(2): 101239. (^#Contributed equally) (2022 IF = 8.9)

[145] Utada A.S., Chu L.Y., Fernandez-Nieves A., Link D.R., Holtze C., Weitz D.A., 2007. Dripping, jetting, drops and wetting: The magic of microfluidics. MRS Bulletin, 32(9): 702-708. (2022 IF = 5.0)

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[146] Wahrmund J., Kim J.W., Chu L.Y., Wang C., Li Y., Fernandez-Nieves A., Weitz D.A., Krokhin A., Hu Z., 2009. Swelling kinetics of a microgel shell. Macromolecules, 42(23): 9357-9365. (2022 IF = 5.5)

[147] Wan L.Y., Yuan W.F., Ai W.B., Ai Y.W., Wang J.J., Chu L.Y., Zhang Y.Q.^*, Wu J.F.^*, 2019, An exploration of aptamer internalization mechanisms and their applications in drug delivery. Expert Opinion on Drug Delivery, 16(3): 207-218. (2022 IF = 6.6)

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[149] Chen T., Wang S., He F., Guo Z.J., Hu P., Zhao R., Huang Y.D., Chen Q.M., Ji P., Chu L.Y.^*, Zou S.J.^*, 2018. Promotion of Osseointegration Using Protamine/Alginate/Bone Morphogenic Protein 2 Biofunctionalized Composite Coating on Nanopolymorphic Titanium Surfaces. Journal of Biomedical Nanotechnology, 14(5): 933-945. (2022 IF = 2.9)

[150] He F., Zhang M.J., Wang W.^*, Cai Q.W., Su Y.Y., Liu Z., Faraj Y., Ju X.J., Xie R., Chu L.Y.^*, 2019. Designable Polymeric Microparticles from Droplet Microfluidics for Controlled Drug Release. Advanced Materials Technologies, 4: 1800687. (2022 IF = 6.8)

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[151] Luo F., Xie R.^*, Liu Z., Ju X.J., Wang W., Lin S., Chu L.Y.^*, 2015. Smart gating membranes with in situ self-assembled responsive nanogels as functional gates. Scientific Reports, 5: 14708; doi: 10.1038/srep14708. (2022 IF = 4.6)

[152] Yang C., Wang W.^*, Yao C., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2015. Hydrogel walkers with electro-driven motility for cargo transport . Scientific Reports, 5: 13622; doi: 10.1038/srep13622. (2022 IF = 4.6)

[153] Qiu Y., Wang F., Liu Y.M., Wang W., Chu L.Y., Wang H.L., 2015. Microfluidic-based fabrication, characterization and magnetic functionalization of microparticles with novel internal anisotropic structure . Scientific Reports, 5: 13060; doi:10.1038/srep13060. (2022 IF = 4.6)

[154] Jia Z.H., Xie R.^*, Hu Y.Q., Ju X.J., Wang W., Liu Z., Chu L.Y., 2023. Thermochromic photonic crystal microspheres with uniform color display and wide coloration range. Macromolecular Rapid Communications, 44(5): 2200800. (2022 IF = 4.6)

[155] Qin H.Y., Liu Z.^*, Yang X.D., Liu Y.Q., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2022. Pseudo Polyampholytes with Sensitively Ion-Responsive Conformational Transition Based on Positively Charged Host-Guest Complexes. Macromolecular Rapid Communications, 43(11): 2200127. (2022 IF = 4.6)

[156] Jia Z.H., Xie R.^*, Qiu Y., Lv X.B., Ju X.J., Wang W., Liu Z., Chu L.Y., 2021. Magnetically Assembled Photonic Crystal Gels with Wide Thermochromic Range and High Sensitivity . Macromolecular Rapid Communications, 42(15): 2100200. (2022 IF = 4.6)

[157] Wang W., He X.H., Zhang M.J., Tang M.J., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2017. Controllable microfluidic fabrication of microstructured materials from nonspherical particles to helices. Macromolecular Rapid Communications, 38(23): 1700429. (2022 IF = 4.6)

Invited Paper for the Sichuan University Special Issue

[158] Wang Y.M., Ju X.J.^*, Liu Z., Xie R., Wang W., Wu J.F., Zhang Y.Q., Chu L.Y., 2014. Competitively molecular-/ion-recognition responsive characteristics of poly(N-isopropylacrylamide-co-benzo-12-crown-4-acrylamide) copolymers with benzo-12-crown-4 as both guest and host units. Macromolecular Rapid Communications, 35(14): 1280-1286. (2022 IF = 4.6)

This work has been featured in the Back Cover

[159] Mi P., Chu L.Y.^*, Ju X.J., Niu C.H., 2008. A smart polymer with ion-induced negative shift of the lower critical solution temperature for phase-transition. Macromolecular Rapid Communications, 29(1): 27-32. (2022 IF = 4.6)

Front Cover;

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[160] Ju X.J., Chu L.Y.^*, Mi P., Song H., Lee Y.M., 2006. Synthesis and characterization of a novel thermo-sensitive copolymer of N-isopropylacrylamide and dibenzo-18-crown-6-diacrylamide. Macromolecular Rapid Communications, 27(24): 2072-2077. (2022 IF = 4.6)

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[161] Jiang M.Y., Ju X.J.^*, Deng K., Fan X.X., He X.H., Wu F., He F., Liu Z., Wang W., Xie R., Chu L.Y.^*, 2016. Microfluidic synthesis of composite hollow microfibers for K⁺-responsive controlled release based on host-guest system. Journal of Materials Chemistry B, 4(22): 3925-3935. (2022 IF = 7.0)

[162] Wu F., Ju X.J.^*, He X.H., Jiang M.Y., Wang W., Liu Z., Xie R., He B.^*, Chu L.Y.^*, 2016. A novel synthetic microfiber with controllable size for cell encapsulation and culture. Journal of Materials Chemistry B, 4(14): 2455-2465. (2022 IF = 7.0)

[163] Wu F., Wang W.^*, Liu L., Ju X.J., Xie R., Liu Z., Chu L.Y.^*, 2015. Monodisperse hybrid microcapsules with ultrathin shell of submicron thickness for rapid enzyme reaction. Journal of Materials Chemistry B, 3(5): 796-803. (2022 IF = 7.0)

[164] Wang W., Zhang M.J., Chu L.Y.^*, 2014. Microfluidic approach for encapsulation via double emulsions. Current Opinion in Pharmacology (Special Issue on “New Technologies for Encapsulation”), 18: 35-41. (2022 IF = 4.0)

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[165] Mou C.L., Wang W.^*, Ju X.J., Xie R., Liu Z., Chu L.Y.^*, 2019. Dual-Responsive Microcarriers with Sphere-in-Capsule Structures for Co-Encapsulation and Sequential Release. Journal of the Taiwan Institute of Chemical Engineers, 98: 63-69. (2022 IF = 5.7)

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[166] Li X.Y., Xie R.^*, Luo F., Jia Z.H., Shi K., Ju X.J., Wang W., Liu Z., Chu L.Y., 2019. CO₂-Responsive Poly(N,N-dimethylaminoethyl methacrylate) Hydrogels with Fast Responsive Rate. Journal of the Taiwan Institute of Chemical Engineers, 94: 135-142. (2022 IF = 5.7)

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[167] Ju X.J., Xie R., Yang L., Chu L.Y.^*, 2009. Biodegradable “intelligent” materials in response to physical stimuli for biomedical applications. Expert Opinion on Therapeutic Patents, 19(4): 493-507. (2022 IF = 6.6)

Invited Review

[168] Ju X.J., Xie R., Yang L., Chu L.Y.^*, 2009. Biodegradable “intelligent” materials in response to chemical stimuli for biomedical applications. Expert Opinion on Therapeutic Patents, 19(5): 683-696. (2022 IF = 6.6)

Invited Review

[169] Chu L.Y.^*, 2005. Controlled release systems for insulin delivery. Expert Opinion on Therapeutic Patents, 15(9): 1147-1155. (2022 IF = 6.6)

Invited Review

[170] Yang X.D., Chen W.^*, Ren Y.^*, Chu L.Y.^*, 2022. Exploration of the adsorption kinetics of surfactants at the water-oil interface via Grand-canonical molecular dynamics simulations. Langmuir, 38(3): 1277-1286. (2022 IF = 3.9)

[171] Mou C.L., Ju X.J.^*, Zhang L., Xie R., Wang W., Deng N.N., Wei J., Chen Q.M., Chu L.Y.^*, 2014. Monodisperse and fast-responsive poly(N-isopropylacrylamide) microgels with open-celled porous structure. Langmuir, 30(5): 1455-1464. (2022 IF = 3.9)

[172] Xiao X.C., Chu L.Y.^*, Chen W.M., Wang S., Xie R., 2004. Preparation of submicron-sized monodispersed thermoresponsive core-shell hydrogel microspheres. Langmuir, 20(13): 5247-5253. (2022 IF = 3.9)

[173] Chu L.Y., Park S.H., Yamaguchi T., Nakao S., 2002. Preparation of micron-sized monodispersed thermo-responsive core-shell microcapsules. Langmuir, 18(5): 1856-1864. (2022 IF = 3.9)

[174] Jgamadze D., Liu L., Vogler S., Chu L.Y., Pautot S.^*, 2015. Thermo-switching microgel carriers improve neuronal cell growth and cell release for cell transplantation, Tissue Engineering Part C: Methods, 21(1): 65-76. (2022 IF = 3.0)

[175] Yin W.H., Zhou C.H., Ju X.J.*, Deng Y., Zhang L., Xie R., Wang W., Liu Z., Chu L.Y., 2022. Dual-functional polyetheretherketone surface with programmed sequential drug release coating. Colloids and Surfaces B: Biointerfaces, 219: 112806. (2022 IF = 5.8)

[176] Chu L.Y.^*, Liang Y.J., Chen W.M., Ju X.J., Wang H.D., 2004. Preparation of glucose-sensitive microcapsules with a porous membrane and functional gates. Colloids and Surfaces B: Biointerfaces, 37(1-2): 9-14. (2022 IF = 5.8)

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[177] Zhang M.J., Chen T., Zhang P., Li Z.L., Chen L., Su Y.Y., Qiu L.D., Peng G., Wang W.^*, Chu L.Y., 2020. Magnetic hierarchical porous SiO₂ microparticles from droplet microfluidics for water decontamination. Soft Matter, 16(10): 2581-2593. (2022 IF = 3.4)

[178] Zhang M.J., Wang W.^*, Xie R., Ju X.J., Liu L., Gu Y.Y., Chu L.Y.^*, 2013. Microfluidic fabrication of monodisperse microcapsules for glucose-response at physiological temperature. Soft Matter, 9(16): 4150-4159. (2022 IF = 3.4)

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[179] Liu L., Yang J.P., Ju X.J., Xie R., Liu Y.M., Wang W., Zhang J.J., Niu C.H., Chu L.Y.^*, 2011. Monodisperse core-shell chitosan microcapsules for pH-responsive burst release of hydrophobic drugs. Soft Matter, 7(10): 4821-4827. (2022 IF = 3.4)

[180] Liu L., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2010. Smart thermo-triggered squirting capsules for nanoparticle delivery. Soft Matter, 6(16): 3759-3763. (2022 IF = 3.4)

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[181] Bremond N., Santanach-Carreras E., Chu L.Y., Bibette J., 2010. Formation of liquid-core capsules having a thin hydrogel membrane: liquid pearls. Soft Matter, 6(11): 2484-2488. (2022 IF = 3.4)

[182] Shah R.K., Kim J.W., Agresti J.J., Weitz D.A.^*, Chu L.Y.^*, 2008. Fabrication of monodisperse thermosensitive microgels and gel capsules in microfluidic devices. Soft Matter, 4(12): 2303-2309. (2022 IF = 3.4)

Invited “Highlight" paper

[183] Jiang Z.Y., Chu L.Y., Wu X.M., Wang Z., Jiang X.B., Ju X.J., Ruan X.H., He G.H.^*, 2020. Membrane-based separation technologies: from polymeric materials to novel process: an outlook from China. Reviews in Chemical Engineering, 36(1): 67-105. (2022 IF = 4.7)

Invited Paper for the Special Issue of “Chemical Engineering in China”

[184] Yan S., Wan L.Y., Ju X.J.^*, Wu J.F.^*, Zhang L., Li M., Liu Z., Wang W., Xie R., Chu L.Y., 2017. K⁺-Responsive Block Copolymer Micelles for Targeted Intracellular Drug Delivery. Macromolecular Bioscience, 17, 1700143. (2022 IF = 4.6)

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[185] Mi P., Ju X.J., Xie R., Wu H.G., Ma J., Chu L.Y.^*, 2010. A novel stimuli-responsive hydrogel for K⁺-induced controlled-release. Polymer, 51(7): 1648-1653. (2022 IF = 4.6)

[186] Zhang J., Xie R., Zhang S.B., Cheng C.J., Ju X.J., Chu L.Y.^*, 2009. Rapid pH/temperature-responsive cationic hydrogels with dual stimuli-sensitive grafted side chains. Polymer, 50(11): 2516-2525. (2022 IF = 4.6)

[187] Ju X.J., Liu L., Xie R., Niu C.H., Chu L.Y.^*, 2009. Dual thermo-responsive and ion-recognizable monodisperse microspheres. Polymer, 50(3): 922-929. (2022 IF = 4.6)

[188] Zhang J., Chu L.Y.^*, Cheng C.J., Mi D.F., Zhou M.Y., Ju X.J., 2008. Graft-type poly(N-isopropylacrylamide-co-acrylic acid) microgels exhibiting rapid thermo- and pH-responsive properties. Polymer, 49(10): 2595-2603. (2022 IF = 4.6)

[189] Zhang J., Chu L.Y.^*, Li Y.K., Lee Y. M. 2007. Dual thermo- and pH-sensitive poly(N-isopropylacrylamide-co-acrylic acid) hydrogels with rapid response behaviors. Polymer, 48(6): 1718-1728. (2022 IF = 4.6)

[190] Xiao X.C., Chu L.Y.^*, Chen W.M., Zhu J.H., 2005. Monodispersed thermoresponsive hydrogel microspheres with a volume phase transition driven by hydrogen bonding. Polymer, 46(9): 3199-3209. (2022 IF = 4.6)

[191] Liu L.Y., Liu Z.^*, Wang Q.Y., Wang F., Li J., Xie R., Ju X.J., Wang W., Pan D.W., Chu L.Y.^*, 2023. Porous functional materials with excellent solar-thermal and electro-thermal properties for desalination of saline water. Separation and Purification Technology, 310: 123184. (2022 IF = 8.6)

[192] Zhang L.P., Liu Z.^*, Zhou X.L., Zhang C., Cai Q.W., Xie R., Ju X.J., Wang W., Faraj Y., Chu L.Y.^*, 2020, Novel composite membranes for simultaneous catalytic degradation of organic contaminants and adsorption of heavy metal ions. Separation and Purification Technology, 237: 116364. (2022 IF = 8.6)

[193] He M.B., Li T., Hu M.L., Chen C., Liu B.C.^*, Crittenden J., Chu L.Y., Ng H.Y., 2020, Performance improvement for thin-film composite nanofiltration membranes prepared on PSf/PSf-g-PEG blended substrates. Separation and Purification Technology, 230: 115855. (2022 IF = 8.6)

[194] Chu L.Y., Geng P., Wang H., 2019, Editorial of SI: Sep.& Fil. APCChE 2017. Separation and Purification Technology, 214: 1. (2022 IF = 8.6)

[195] Chu L.Y.^*, Chen W.M., Lee X.Z., 2002. Effects of geometric and operating parameters and feed characters on the motion of solid particles in hydrocyclones. Separation and Purification Technology, 26 (2-3): 237-246. (2022 IF = 8.6)

[196] Chu L.Y.^*, Chen W.M., Lee X.Z., 2000. Effect of structural modification on hydrocyclone performance. Separation and Purification Technology, 21 (1-2): 71-86. (2022 IF = 8.6)

[197] Ding S.Y., Faraj Y.^*, Wei J., Wang W., Xie R., Liu Z., Ju X.J., Chu L.Y., 2020. Antimicrobial peptide-functionalized magnetic nanoparticles for rapid capture and removal of pathogenic bacteria. Microchemical Journal, 159: 105493. (2022 IF = 4.8)

[198] Zhao Q., Faraj Y.^*, Liu L.Y., Wang W., Xie R., Liu Z., Ju X.J., Wei J., Chu L.Y., 2020. Simultaneous determination of dopamine, uric acid and estriol in maternal urine samples based on the synergetic effect of reduced graphene oxide, silver nanowires and silver nanoparticles in their ternary 3D nanocomposite. Microchemical Journal, 158: 105185. (2022 IF = 4.8)

[199] Zhao Y., Ju X.J.^*, Zhang L.P., Wang W., Faraj Y., Zou L.B., Xie R., Liu Z., Chu L.Y., 2019. Transparent Thermo-Responsive Poly(N-isopropylacrylamide)-l-poly(ethylene glycol)acrylamide Conetwork Hydrogels with Rapid Deswelling Response. New Journal of Chemistry, 43(24): 9507-9515. (2022 IF = 3.3)

[200] Sun J., Wang W.^*, He F., Chen Z.H., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2016. On-chip thermo-triggered coalescence of controllable Pickering emulsion droplet pairs. RSC Advances, 6(69): 64182-64192. (2022 IF = 3.9)

[201] Wu C.J., Xie R.,^* Wei B., Xu T.T., Liu Z., Wang W., Ju X.J., Chu L.Y., 2016. A thermo-responsive membrane with cross-linked smart gates via “grafting-to” method. RSC Advances, 6(51): 45428-45433. (2022 IF = 3.9)

[202] Wang X.X., Ju X.J.^*, Sun S.X., Xie R., Wang W., Liu Z., Chu L.Y., 2015. Monodisperse erythrocyte-sized and acid-soluble chitosan microspheres prepared via electrospraying. RSC Advances, 5(43): 34243-34250. (2022 IF = 3.9)

[203] Zhang L., Wang W., Ju X.J., Xie R., Liu Z., Chu L.Y.^*, 2015. Fabrication of glass-based microfluidic devices with dry film photoresist as pattern transfer mask for wet etching. RSC Advances, 5(8): 5638-5646. (2022 IF = 3.9)

[204] He X.H., Wang W.^*, Deng K., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2015. Microfluidic fabrication of chitosan microfibers with controllable internals from tubular to peapod-like structures. RSC Advances, 5(2): 928-936. (2022 IF = 3.9)

[205] Zou X.Y., Xie R.^*, Ju X.J., Wang W., Liu Z., Li X.Y., Chu L.Y.^*, 2014. Visual detection of methanol in alcoholic beverages using alcohol-responsive poly(N-isopropylacrylamide-co-N,N-dimethylacrylamide) copolymers as indicators. RSC Advances, 4(106): 61711-61721. (2022 IF = 3.9)

[206] Liu Y.M., Wu W., Ju X.J., Wang W., Xie R., Mou C.L., Zheng W.C., Liu Z., Chu L.Y.^*, 2014. Smart microcapsules for direction-specific burst release of hydrophobic drugs. RSC Advances, 4(87): 46568-46575. (2022 IF = 3.9)

[207] Chen A.L., Yu H.R., Ju X.J., Xie R., Wang W., Chu L.Y.^*, 2014. Visual detection of lead(II) using a simple device based on P(NIPAM-co-B18C6Am) hydrogel. RSC Advances, 4(50): 26030-26037. (2022 IF = 3.9)

[208] Wang Y., Liu Z.^*, Peng H.Y., He F., Zhang L., Faraj Y., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2018. A Simple Device Based on Smart Hollow Microgels for Facile Detection of Trace Lead(II) Ions. ChemPhysChem, 19(16): 2025-2036. (2022 IF = 2.9)

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[209] Wang W., Liu L., Ju X.J., Zerrouki D., Xie R., Yang L., Chu L.Y.*, 2009. A novel thermo-induced self-bursting microcapsule with magnetic-targeting property. ChemPhysChem, 10(14): 2405-2409. (2022 IF = 2.9)

[210] Yu H.R., Hu J.Q., Lu X.H., Ju X.J., Liu Z., Xie R., Wang. W., Chu L.Y.^*, 2015. Insights into the effects of 2:1 “sandwich-type” crown-ether/metal-ion complexes in responsive host-guest systems, The Journal of Physical Chemistry B, 119(4): 1696-1705. (2022 IF = 3.3)

[211] Zhang B., Ju X.J.^*, Xie R., Liu Z., Pi S.W., Chu L.Y.^*, 2012. Comprehensive effects of metal ions on responsive characteristics of P(NIPAM-co-B18C6Am). The Journal of Physical Chemistry B, 116(18): 5527-5536. (2022 IF = 3.3)

[212] Liu L., Song X.L., Ju X.J.^*, Xie R., Liu Z., Chu L.Y.^*, 2012. Conversion of alcoholic concentration variations into mechanical force via core-shell capsules. The Journal of Physical Chemistry B, 116(3): 974-979. (2022 IF = 3.3)

[213] Ju X.J., Chu L.Y.^*, Liu L., Mi P., Lee Y.M., 2008. A novel thermo-responsive hydrogel with ion-recognition property through supramolecular host-guest complexation. The Journal of Physical Chemistry B, 112(4): 1112-1118. (2022 IF = 3.3)

[214] Wen G.Q., Xie R.^*, Liang W.G. He X.H., Wang W., Ju, X.J., Chu L.Y., 2015. Microfluidic fabrication and thermal characteristics of core-shell phase change microfibers with high paraffin content. Applied Thermal Engineering, 87: 471-480. (2022 IF = 6.4)

[215] Liang W.G., Yang C., Wen G.Q., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2014. A facile and controllable method to encapsulate phase change materials with non-toxic and biocompatible chemicals. Applied Thermal Engineering, 70(1): 817-826. (2022 IF = 6.4)

[216] Li J., Gong C., Feng X., Zhou X., Xu X., Xie L., Wang R., Zhang D., Wang H., Deng P., Zhou M., Ji N., Zhou Y., Wang Y., Wang Z., Liao G., Geng N., Chu L.Y., Qian Z., Wang Z., Chen Q., 2012. Biodegradable thermosensitive hydrogel for SAHA and DDP delivery: Therapeutic effects on oral squamous cell carcinoma xenografts. PLoS ONE, 7(4): e33860. (2022 IF = 3.7)

[217] Wang J.Y., Yu H.R., Xie R.^*, Ju X.J., Yu Y.L., Zhang Z., Chu L.Y.^*, 2013. Alginate/protamine/silica hybrid capsules with ultrathin membranes for laccase immobilization. AIChE Journal, 59(2): 380-389. (2022 IF = 3.7)

[218] Zhou M.Y., Xie R., Ju X.J., Zhao Z.L, Chu L.Y.^*, 2009. Flow characteristics of thermo-responsive microspheres in microchannel during the phase transition. AIChE Journal, 55(6): 1559-1568. (2022 IF = 3.7)

[219] Chu L.Y., Niitsuma T, Yamaguchi T, Nakao S, 2003. Thermo-responsive transport through porous membranes with grafted PNIPAM gates. AIChE Journal, 49(4): 896-909. (2022 IF = 3.7)

[220] Liu Z., Ju X.J., Wang W., Xie R., Jiang L., Chen Q., Zhang Y.Q., Wu J.F.^*, Chu L.Y.^*, 2017, Stimuli-responsive capsule membranes for controlled release in pharmaceutical applications. Current Pharmaceutical Design (Special Issue on “Membranes Technologies for Pharmaceutical Applications”), 23(2): 295-301. (2022 IF = 3.1)

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[221] Zhang S.Y., Pan D.W.^*, Fan H.D., Shi L., Yang Y.M., Liu Z., Ju X.J., Xie R., Wang W.^*, Chu L.Y., 2023. Stretchable conductive Janus hydrogel with controllable porous structures for high-performance strain sensing. Journal of Polymer Science, in press. (2022 IF=3.4)

[222] Kim S.H., Chu L.Y., 2022. Microfluidics: Advanced platform for designing polymeric microparticles, microcapsules, and microfibers. Journal of Polymer Science, 60(11): 1651-1652. (2022 IF = 3.4)

Invited Editorial for the Special Issue on Functional Polymeric Materials by Microfluidics

[223] Liu Z., Faraj Y., Ju X.J., Wang W., Xie R., Chu L.Y.^*, 2018. Nanocomposite Smart Hydrogels with Improved Responsiveness and Mechanical Properties: a Mini Review. Journal of Polymer Science, Part B: Polymer Physics, 56(19): 1306-1313. (2022 IF = 3.4)

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[224] Tang X.H.^*, Xie P., Ding Y., Chu L.Y., Hou J.P., Yang J.L., Song X., Xie Y.M., 2010. Synthesis, characterization, and in vitro and in vivo evaluation of a novel pectin–adriamycin conjugate. Bioorganic & Medicinal Chemistry, 18(4): 1599-1609. (2022 IF = 3.5)

[225] Zhang M.J., Zhang P., Qiu L.D., Chen T., Wang W.^*, Chu L.Y., 2020. Controllable microfluidic fabrication of microstructured functional materials. Biomicrofluidics, 14(6): 061501. (2022 IF = 3.2)

[226] Zheng W.C., Xie R.^*, He L.Q.^*, Xi Y.H., Liu Y.M., Meng Z.J., Wang W., Ju X.J., Chen G., Chu L.Y., 2015. Enhanced H-filter based on Fåhræus-Lindqvist effect for efficient and robust dialysis without membrane. Biomicrofluidics, 9: 044112. (2022 IF = 3.2)

[227] Chen S.K., Ju X.J.^*, Wei J., Wang W., Chu L.Y., 2023. Controllable Preparation of Monodisperse Chitosan Microspheres Based on Microfluidic Technology. Journal of Chemical Education, in press. (2022 IF = 3.0)

[228] Deng N.N., Mou C.L., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2014. Multiple-emulsion formation from controllable drop pairs in microfluidics. Microfluidics and Nanofluidics, 17(5): 967-972. (2022 IF = 2.8)

[229] Liu W.Y., Wang W.^*, Ju X.J., Liu Z., Xie R., Chu L.Y.^*, 2021. Functional microparticles from multiscale regulation of multiphase emulsions for mass-transfer intensification. Chemical Engineering Science, 231: 116242. (2022 IF = 4.7)

[230] Wang H.D., Xie R., Niu C.H., Song H., Yang M., Liu S., Chu L.Y.^*, 2009. Chitosan chiral ligand exchange membranes for sorption resolution of amino acids. Chemical Engineering Science, 64(7): 1462-1473. (2022 IF = 4.7)

[231] Zhou M.Y., Chu L.Y.^*, Chen W.M., Ju X.J., 2006. Flow and aggregation characteristics of thermo-responsive poly(N-isopropylacrylamide) spheres during the phase transition. Chemical Engineering Science, 61(19): 6337-6347. (2022 IF = 4.7)

[232] Chu L.Y.^*, Chen W.M., Lee X.Z., 2002. Enhancement of hydrocyclone performance by controlling the inside turbulence structure. Chemical Engineering Science, 57 (1): 207-212. (2022 IF = 4.7)

[233] Zhang Y., Wang B.C., Wang P., Ju X.J., Zhang M.J.^*, Xie R., Liu Z., Wang W.^*, Chu L.Y., 2022. Microfluidic Fabrication of Hydrogel Microparticles with MOF-Armoured Multi-Enzymes for Cascade Biocatalytic Reactions. Reaction Chemistry & Engineering, 7(2): 275-283. (2022 IF = 3.9)

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[234] Cai Q.W., Pan D.W., Ju X.J.^*, Chen C., Zhang L.P., Yang S.H., Xie R., Wang W., Liu Z., Chu L.Y.^*, 2023. Controllable Monodisperse Amphiphilic Janus Microparticles. ACS Applied Polymer Materials, 5(7): 5525-5536. (2022 IF = 5.0)

[235] Tang X.Y., Liu Z.^*, Liu W.Y., Pu X.Q., Liu L.Y., Chen S.K., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2023. Moisture-Responsive Actuators Based on Hyaluronic Acid with Biocompatibility and Fast Response as Smart Breather Valves. ACS Applied Polymer Materials, 5(1): 815-827. (2022 IF = 5.0)

[236] Zhang P., Li Y.H., Chen L., Zhang M.J.^*, Ren Y., Chen Y.X., Hu Z., Wang Q., Wang W.^*, Chu L.Y., 2022. Hierarchical porous metal-organic framworks/polymer microparticles for enhanced catalytic degradation of organic contaminants. Frontiers of Chemical Science and Engineering, 16(6): 939-949. (2022 IF = 4.5)

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[237] Wang W., Yao C., Zhang M.J., Ju X.J., Xie R., Chu L.Y.^*, 2012. Thermo-driven microcrawlers fabricated via a microfluidic approach. Journal of Physics D: Applied Physics (Special Issue on Microfluidics), 46(11): 114007. (2022 IF = 3.4)

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[238] Zhang S.G., Ju X.J.^*, Zhou X.L., Pu X.Q., Peng H.Y., Wang W., Xie R., Liu Z., Chu L.Y., 2019. Preparation and characterization of novel low-temperature/pH dual-responsive poly(N-isopropylacrylamide-co-1H-benzimidazolyl-ethyl acrylate) copolymers. Macromolecular Chemistry and Physics (2022 IF = 2.5), 220: 1900123.

[239] Wei Y.Y., Liu Z.^*, Luo F., Zhang L., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2017. A novel poly(N-isopropylacrylamide-co-acryloylamidobenzo-12-crown-4) microgel with rapid stimuli-responsiveness for molecule-specific adsorption of gamma-cyclodextrin. Macromolecular Chemistry & Physics, 218(20): 1700216. (2022 IF = 2.5)

[240] Wei Y.Y., Liu Z., Ju X.J.^*, Shi K., Xie R., Wang W., Cheng Z.D., Chu L.Y.^*, 2017. Gamma-cyclodextrin-recognition responsive characteristics of poly(N-isopropylacrylamide)-based hydrogels with benzo-12-crown-4 units as signal receptors. Macromolecular Chemistry & Physics, 218, 1600386. (2022 IF = 2.5)

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[241] Yang M., Chu L.Y.^*, Xie R., Wang C., 2008. Molecular-recognition induced phase-transition of two thermo-responsive polymers with pendent beta-cyclodextrin groups. Macromolecular Chemistry & Physics, 209(2): 204-211. (2022 IF = 2.5)

[242] Chu L.Y.^*, Wang S., Chen W.M., 2005. Surface modification of ceramic-supported polyethersulfone membranes by interfacial polymerization for reduced membrane fouling. Macromolecular Chemistry & Physics, 206: 1934-1940. (2022 IF = 2.5)

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[252] Tang X.Y., Liu Z.^*, Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2022. Humidity-responsive Actuators Based on Firm Heterojunction of Glycerol-crosslinked Polyvinyl Alcohol and Porous Polyvinylidene Fluoride as Smart Gates for Anti-condensation. Industrial & Engineering Chemistry Research, 61(23): 8101-8111. (2022 IF = 4.2)

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[255] Fu G.B., Xie R.^*, Qin J.W., Deng X.B., Ju X.J., Wang W., Liu Z., Chu L.Y.^*, 2021. Facile Fabrication of Photocatalyst-immobilized Gel Beads with Interconnected Macropores for Efficient Removal of Pollutants in Water. Industrial & Engineering Chemistry Research, 60(24): 8762-8775. (2022 IF = 4.2)

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[258] Zhao J.J., Wang W.^*, Wang F., Zhao Y., Cai Q.W., Xie R., Ju X.J., Liu Z., Faraj Y., Chu L.Y.^*, 2020. Smart Hydrogel Grating Immunosensors for Highly Selective and Sensitive Detection of Human-IgG. Industrial & Engineering Chemistry Research, 59(22): 10469-10475. (2022 IF = 4.2)

This work has been featured in the Front Cover

[259] Peng H.Y., Wang W.^*, Gao F.H., Lin S., Ju X.J., Xie R., Liu Z., Faraj Y., Chu L.Y.^*, 2019. Smart Hydrogel Gratings for Sensitive, Facile and Rapid Detection of Ethanol Concentration. Industrial & Engineering Chemistry Research, 58(38): 17833-17841. (2022 IF = 4.2)

[260] Su Y.Y., Zhang M.J., Wang W.^*, Deng C.F., Peng J., Liu Z., Faraj Y., Ju X.J., Xie R., Chu L.Y., 2019. Bubble-Propelled Hierarchical Porous Micromotors from Evolved Double Emulsions. Industrial & Engineering Chemistry Research, 58(4): 1590-1600. (2022 IF = 4.2)

This work has been featured in the Front Cover

[261] Tang M.J., Wang W.^*, Li Z.L., Liu Z.M., Guo Z.Y., Tian H.Y., Liu Z., Ju X.J., Xie R., Chu L.Y., 2018. Controllable Microfluidic Fabrication of Magnetic Hybrid Microswimmers with Hollow Helical Structures. Industrial & Engineering Chemistry Research, 57(29): 9430-9438. (2022 IF = 4.2)

[262] Xi Y.H., Liu Z.^*, Liao Q.C., Xie R., Ju X.J., Wang W., Faraj Y., Chu L.Y.^*, 2018. Effect of oxidized-group-supported lamellar distance on stability of graphene-based membranes in aqueous solutions. Industrial & Engineering Chemistry Research, 57(29): 9439-9447. (2022 IF = 4.2)

[263] Li Z.L., Wang W.^*, Li M., Zhang M.J., Tang M.J., Su Y.Y., Liu Z., Ju X.J., Xie R., Chu L.Y., 2018. Facile Fabrication of Bubble-propelled Micromotors Carrying Nanocatalysts for Water Remediation. Industrial & Engineering Chemistry Research, 57(13): 4562-4570. (2022 IF = 4.2)

Invited Paper for the Special Issue of “9th Global Chinese Chemical Engineers Symposium”

[264] Li M., Wang W.^*, Zhang Z.G., He F., Yan S., Yan P.J., Xie R., Ju X.J., Liu Z., Chu L.Y.^*, 2017. Monodisperse Na₂SO₄·10H₂O@SiO₂ microparticles against super-cooling and phase separation during phase change for efficient energy storage. Industrial & Engineering Chemistry Research, 56(12): 3297-3308. (2022 IF = 4.2)

[265] Li P.F., Xie R.^*, Fan H., Ju X.J., Chen Y.C., Meng T., Chu L.Y.^*, 2012. Regulation of critical ethanol response concentrations of ethanol-responsive smart gating membranes. Industrial & Engineering Chemistry Research, 51(28): 9554-9563. (2022 IF = 4.2)

[266] Chen X., Lu H., Jiang W., Chu L.Y., Liang B.^*, 2010. De-emulsification of kerosene/water emulsions with plate-type microchannels. Industrial & Engineering Chemistry Research, 49(19): 9279-9288. (2022 IF = 4.2)

[267] Wang H.D., Chu L.Y.^*, Yu X.Q., Xie R., Yang M., Xu D., Zhang J., Hu L., 2007. Thermo-sensitive affinity behavior of poly(N-isopropylacrylamide) hydrogels with β-cyclodextrin moieties. Industrial & Engineering Chemistry Research, 46(5): 1511-1518. (2022 IF = 4.2)

[268] Li Y., Chu L.Y.^*, Zhu J.H., Wang H.D., Xia S.L., Chen W.M., 2004. Thermo-responsive gating characteristics of poly(N-isopropylacrylamide)-grafted porous polyvinylidene fluoride membranes. Industrial & Engineering Chemistry Research, 43(11): 2643-2649. (2022 IF = 4.2)

[269] Ju X.J., Chu L.Y.^*, Zhu X.L., Hu L., Song H., Chen W.M., 2006. Effects of internal microstructures of poly(N-isopropylacrylamide) hydrogels on thermo-responsive volume phase-transition and controlled-release characteristics. Smart Materials and Structures, 15(6): 1767-1774. (2022 IF = 4.1)

[270] Xie R.^*, Song X.L., Luo F., Liu Z., Wang W., Ju X.J., Chu L.Y., 2016. Ethanol-responsive polyvinylidene fluoride membranes with nanogels as functional gates by vapor-induced phase separation. Chemical Engineering & Technology, 39(5): 841-848. (2022 IF = 2.1)

Invited Paper

[271] Wang G., Xie R.^*, Ju X.J., Chu L.Y.^*, 2012. Thermo-responsive polyethersulfone composite membranes blended with poly(N-isopropylacrylamide) nanogels. Chemical Engineering and Technology, 35(11): 2015-2022. (2022 IF = 2.1)

[272] Chen Y.C., Xie R., Yang M., Li P.F., Zhu X.L., Chu L.Y.^*, 2009. Gating characteristics of thermo-responsive membranes with grafted linear and crosslinked poly(N-isopropylacrylamide) gates. Chemical Engineering and Technology, 32(4): 622-631. (2022 IF = 2.1)

[273] Cheng C.J., Chu L.Y.^*, Xie R., Wang X.W., 2008. Hydrophobic modification and regeneration of Shirasu porous glass membranes on the membrane emulsification performance. Chemical Engineering and Technology, 31(3): 377-383. (2022 IF = 2.1)

[274] Liu P.K., Chu L.Y.^*, Wang J., Yu Y.F., 2008. Enhancement of hydrocyclone classification efficiency for fine particles by introducing a volute chamber with pre-sedimentation function. Chemical Engineering and Technology, 31(3): 474-478. (2022 IF = 2.1)

[275] Hu L., Chu L.Y.^*, Yang M., Yu J., Wang H.D., 2007. A composite thermo-responsive membrane system for improved controlled-release. Chemical Engineering and Technology, 30(4): 523-529. (2022 IF = 2.1)

Ranked No.3 the Most-Accessed Articles in 12/2007, No.4 the Most-Accessed Articles during 11/2007-10/2008, and No.4 the Most-Accessed Articles during 12/2007-11/2008

[276] Yang M., Chu L.Y.^*, Li Y., Zhao X.-J., Song H., Chen W.-M., 2006. Thermo-responsive gating characteristics of poly(N-isopropylacrylamide)-grafted membranes. Chemical Engineering and Technology, 29(5): 631-636. (2022 IF = 2.1)

[277] Li P.F., Ju X.J., Chu L.Y.^*, Xie R., 2006. Thermo-responsive membranes with crosslinked poly(N-isopropylacrylamide) hydrogels inside porous substrates. Chemical Engineering and Technology, 29(11): 1333-1339. (2022 IF = 2.1)

Ranked No.4 the Most-Accessed Articles in 12/2007, No.5 the Most-Accessed Articles during 11/2007-10/2008, and No.5 the Most-Accessed Articles during 12/2007-11/2008

[278] Li P.F., Wang W., Xie R., Yang M., Ju X.J., Chu L.Y.^*, 2009. Lower critical solution temperatures of thermo-responsive poly(N-isopropylacrylamide) copolymers with racemate or single enantiomer groups. Polymer International, 58(2): 202-208. (2022 IF = 3.2)

[279] Zhang X., Xie R.^*, Hu W.X., Faraj Y., Zhao Q., Fan X.X., Wang W., Ju X.J., Liu Z., Chu L.Y., 2018. Microfluidic fabrication of core-sheath composite phase change microfibers with enhanced thermal conductive property. Journal of Materials Science, 53(23): 15769-15783. (2022 IF = 4.5)

[280] Sun S.X., Xie R.^*, Wang X.X., Wen G.Q., Liu Z., Wang W., Ju X.J., Chu L.Y., Fabrication of nanofibers with phase-change core and hydrophobic shell, via coaxial electrospinning using nontoxic solvent. Journal of Materials Science, 2015, 50(17): 5729-5738. (2022 IF = 4.5)

[281] Yang C., Xie R.^*, Liang W.G. Ju, X.J., Wang W., Zhang M.J., Liu Z., Chu L.Y., 2014. Beta-cyclodextrin-based molecular-recognizable smart microcapsules for controlled release. Journal of Materials Science, 49(20): 6862-6871. (2022 IF = 4.5)

[282] Wang F., Liu Z.^*, Xie R., Ju X.J., Wang W., Pan D.W., Chu L.Y.^*, 2023. Poly(N-isopropylmethacrylamide-co-4-acrylamidobenzo-18-crown-6) microgels with expanded networks for excellent adsorption of lead(II) ions. Particuology, 77: 105-115. (2022 IF = 3.5)

Invited Paper for the Special Issue of “2022 Emerging Investigators in Particuology”

[283] Yang N., Chu L.Y., 2020, Special Issue: Mesoscience in China Preface. Particuology, 48: 1. (2022 IF = 3.5)

[284] Peng H.Y., Wang W.^*, Xie R., Ju X.J., Liu Z., Faraj Y., Chu L.Y.^*, 2020. Mesoscale regulation of droplet templates to tailor microparticle structures and functions. Particuology, 48: 74-87. (2022 IF = 3.5)

Invited Paper for the Special Issue of “Meso-Science in China”

[285] Ju X.J.^*, Wang X.X., Liu Z., Xie R., Wang W., Chu L.Y., 2017. Red-blood-cell-shaped chitosan microparticles prepared via electrospraying. Particuology, 30: 151-157. (2022 IF = 3.5)

[286] Zhang M.J., Wang W., Xie R., Ju X.J., Liu Z., Jiang L., Chen Q., Chu L.Y.^*, 2016. Controllable microfluidic strategy for fabricating microparticles with emulsions as templates. Particuology, 24: 18-31. (2022 IF = 3.5)

Invited Paper

Highlighted in Editors' Choice

[287] Yuan M., Ju X.J.^*, Xie R., Wang W., Chu L.Y., 2015. Micromechanical properties of poly(N-isopropylacrylamide) hydrogel microspheres using a simple method. Particuology, 19: 164-172. (2022 IF = 3.5)

[288] Chu L.Y.^*, Yu W., Wang G.J., Zhou X.T., Chen W.M., Dai G.Q., 2004. Enhancement of hydrocyclone separation performance by eliminating the air core. Chemical Engineering and Processing, 43(12): 1441-1448. (2022 IF = 4.3)

[289] Murad S., Luo L., Chu L.Y., 2010. Anomalous flow behavior in nanochannels: A molecular dynamics study. Chemical Physics Letters, 492(4-6): 285-289. (2022 IF = 2.8)

[290] Cheng C.J., Chu L.Y.^*, Zhang J., Wang H.D., Wei G., 2008. Effect of freeze-drying and rehydrating treatment on the thermoresponsive characteristics of poly(N-isopropylacrylamide) microspheres. Colloid and Polymer Science, 286(5): 571-577. (2022 IF = 2.4)

[291] Zou X.Y., Luo F., Xie R.^*, Zhang L.P., Ju X.J., Wang W., Liu Z., Chu L.Y.^*, 2016. Online monitoring of ethanol concentration using a responsive microfluidic membrane device. Analytical Methods, 8(20): 4028-4036. (2022 IF = 3.1)

This work has been featured in the Inside Front Cover

[292] Wu H.G., Ju X.J., Xie R., Liu Y.M., Deng J.G., Niu C.H., Chu L.Y.^*, 2011. A novel ion-imprinted hydrogel for recognition of potassium ions with rapid response. Polymers for Advanced Technologies, 22(9): 1389-1394. (2022 IF = 3.4)

[293] Zhang S.B., Chu L.Y.^*, Xu D., Zhang J., Ju X.J., Xie R., 2008. Poly(N-isopropylacrylamide)-based comb-type grafted hydrogel with rapid response to blood glucose concentration change at physiological temperature. Polymers for Advanced Technologies, 19(8): 937-743. (2022 IF = 3.4)

This work has been featured in Materials Views

[294] Song X.L., Xie R.^*, Luo T., Ju X.J., Wang W., Chu L.Y., 2014. Ethanol-responsive characteristics of polyethersulfone composite membranes blended with poly(N-isopropylacrylamide) nanogels. Journal of Applied Polymer Science, 131(21): 41032. (2022 IF = 3.0)

[295] Kim S.Y., Cho S.H., Lee Y.M., Chu L.-Y., 2007. Biotin-conjugated block copolymeric nanoparticles as tumor-targeted drug delivery systems. Macromolecular Research, 15(7): 646-655. (2022 IF = 2.4)

[296] Wang W., Luo T., Ju X.J.^*, Xie R., Liu L., Chu L.Y.^*, 2012. Microfluidic preparation of multicompartment microcapsules for isolated co-encapsulation and controlled release of diverse components. International Journal of Nonlinear Sciences and Numerical Simulation (Special Issue on Microfluidics), 13(5): 325-332. (2022 IF = 1.5)

Invited Paper

[297] Chu L.Y.^*, Luo Q., Yu R.H., 1996. Concentration and classification characteristics in a modified air-sparged hydrocyclone (ASH), International Journal of Mineral Processing, 48(1/2): 73-93.

[298] Wei G., Liu X., Yuan L., Ju X.J., Chu L.Y., Yang L.^*, 2011. Lipid composition influences the membrane-disrupting activity of antimicrobial methacrylate copolymers. Journal of Biomaterials Science Polymer Edition, 22(15): 2041-2061. (2022 IF = 3.6)

[299] Zhang C., Xie R.^*, Liu Z., Ju X.J., Wang W., Chu L.Y.^*, 2023. Hollow Fiber Membranes with Knitted Braid-like Structures for Process Intensification via Generation of Dean Vortices. Separation Science and Technology, 58(6): 1072-1088. (2022 IF = 2.8)

Invited Paper for the Special Issue on Applications of Membrane Separation Technologies to address Global Separation Challenges

[300] Yang L., Chu L.Y.^*, Chen W.M., 2006. Study on the flow field inside the microfiltration separator with rotary tubular membrane. Separation Science and Technology, 41(7): 1513-1525. (2022 IF = 2.8)

[301] Chu L.Y.^*, Qin J.J., Chen W.M., Lee X.Z., 2000. Energy Consumption and Its Reduction in the Hydrocyclone Separation Process. Part II. Time-Averaged and Fluctuating Characteristics of the Turbulent Pressure in a Hydrocyclone. Separation Science and Technology, 35 (15): 2543-2560. (2022 IF = 2.8)

[302] Chu L.Y.^*, Qin J.J., Chen W.M., Lee X.Z., 2000. Energy Consumption and Its Reduction in the Hydrocyclone Separation Process. Part III. Effect of the Structure of Flow Field on Energy Consumption and Energy Saving Principles. Separation Science and Technology, 35 (16): 2679-2705. (2022 IF = 2.8)

[303] Chu L.Y.^*, Chen W.M., 1993. Research on the motion of solid particles in a hydrocyclone. Separation Science & Technology, 28(10): 1875-1886. (2022 IF = 2.8)

[304] Chu L.Y.^*, Chen W.M., Lee X.Z., Wu C.G., 1999. Numerical simulation of turbulence and its structure in a hydrocyclone. Transactions of Nonferrous Metals Society of China, 9 (1): 128-136. (2022 IF = 4.5)

[305] Chu L.Y.^*, Luo Q., Yu R.H., 1996. Controlling the overgrinding of valuable materials using modified air-sparged hydrocyclone (MASH). Transactions of Nonferrous Metals Society of China, 6(3): 16-21. (2022 IF = 4.5)

[306] Chu L.Y.^*, Chen W.M., Luo Q., 1996. Separation characteristics in the hydrocyclone with a central cone and annular teeth. Transactions of Nonferrous Metals Society of China, 6(4): 11-15. (2022 IF = 4.5)

[307] Zou L.B., Gong J.Y., Ju X.J.^*, Liu Z., Wang W., Xie R., Chu L.Y., 2022. Smart membranes for biomedical applications. Chinese Journal of Chemical Engineering, 49: 34-45. (2022 IF = 3.8)

Invited Paper for the Special Issue on Membranes for Life Science

This work has been featured in the Back Cover

[308] Liu L.Y., Liu Z.^*, Peng H.Y., Mu X.T., Zhao Q., Ju X.J., Wang W., Xie R., Chu L.Y.^*, 2022. Reduced Graphene Oxide Modified Melamine Sponges Filling with Paraffin for Efficient Solar-Thermal Conversion and Heat Management. Chinese Journal of Chemical Engineering, 41: 497-506. (2022 IF = 3.8)

Invited Paper for the Special Issue in memory of Professor Jiayong Chen

[309] Chen Z.H., Liu Z.^*, Zhang L., Cai Q.W., Hu J.Q., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2021. Functional Graphene Oxide Nanosheets Modified with Cyclodextrins for Removal of Bisphenol A from Water. Chinese Journal of Chemical Engineering, 39: 79-87. (2022 IF = 3.8)

[310] Deng K., Liu Z.^*, Hu J.Q., Liu W.Y., Zhang L., Xie R., Ju X.J., Wang W., Chu L.Y.^*, 2019. Composite bilayer films with organic compound-triggered bending properties. Chinese Journal of Chemical Engineering, 27(10): 2587-2595. (2022 IF = 3.8)

[311] Liu Z., Wang W., Ju X.J., Xie R., Chu L.Y.^*, 2017. Graphene-based membranes for molecular and ionic separations in aqueous environments. Chinese Journal of Chemical Engineering (2022 IF = 3.8), 25(11): 1598-1605.