[1] Guozhong WU. Radiation technology and advanced materials(2016).

[2] Zhicheng ZHANG. Polymer radiation chemistry(2000).

[3] Wanxi ZHANG, Jiazhen SUN, Baogong QIAN. The structure effects on the fracture density in radiation induced crosslinking of polymers — The relationship between sol fraction and radiation dose. Journal of Radiation Research and Radiation Processing, 2, 1-10(1984).

[4] L B Li. In situ synchrotron radiation techniques: watching deformation-induced structural evolutions of polymers. Chinese Journal of Polymer Science, 36, 1093-1102(2018).

[5] T A Ezquerra, M C García-Gutiérrez, A Nogales et al. Introduction to the special issue on“Applications of synchrotron radiation in polymers science”. European Polymer Journal, 81, 413-414(2016).

[6] W Chen, D Liu, L B Li. Multiscale characterization of semicrystalline polymeric materials by synchrotron radiation X-ray and neutron scattering. Polymer Crystallization, 2, 10043(2019).

[7] T T Wang, D Liu, X B Du. Recent progress in elastic and inelastic neutron scattering for chemical,polymeric,and biological investigations. Current Opinion in Solid State and Materials Science, 31, 101175(2024).

[8] T T Wang, J Chen, X B Du et al. How neutron scattering techniques benefit investigating structures and dynamics of monoclonal antibody. Biochimica et Biophysica Acta (BBA) - General Subjects, 1866, 130206(2022).

[9] D Liu, K Song, W Chen et al. Review: current progresses of small-angle neutron scattering on soft-matters investigation. Nuclear Analysis, 1, 100011(2022).

[10] Zhiyong WEI, Lihui ZANG, Wo FAN et al. Study of biological materials by neutron scattering. Nuclear Techniques, 29, 713-720(2006).

[11] Taisen ZUO, Changli MA, Zehua HAN et al. The basic principle of small angle neutron scattering and its application in macromolecules. Acta Polymerica Sinica, 52, 1192-1205(2021).

[12] H Menhofer, J Zluticky, H Heusinger. The influence of irradiation temperature and oxygen on crosslink formation and segment mobility in gamma-irradiated polydimethylsiloxanes. International Journal of Radiation Applications and Instrumentation Part C Radiation Physics and Chemistry, 33, 561-566(1989).

[13] Shiwen LI, Jian CHENG, Yafei AN et al. Research progress on modification of ethylene ainyl acetate copolymers. Chinese Polymer Bulletin, 37, 593-602(2024).

[14] Qiangqing XIE, Chuqing YAO, Kaikai WANG et al. Research on γ-ray irradiation modification of silicone rubber-based composite materials. Shandong Chemical Industry, 52, 33-35(2023).

[15] Lifan YU, Zepeng LIU, Ziqiang WANG et al. Radiation grafting of cotton fabric for“green”dyeing with acid dyes. Journal of Radiation Research and Radiation Processing, 40, 030202(2022).

[16] Ling XU, Hongwei LI, Xiao XU. Domestic development on radiation-crosslinked hydrogels in biomedical applications. Journal of Radiation Research and Radiation Processing, 38, 060101(2020).

[17] Feng YE, Yu GU, Fei HAN et al. Preparation of sodium alginate-based super absorbent polymer by radiation grafting and crosslinking. Nuclear Techniques, 43, 120301(2020).

[18] S D Gehman, I Auerbach. Gamma-ray vulcanization of rubber. The International Journal of Applied Radiation and Isotopes, 1, 102-114(1956).

[19] D Liu, N Tian, K P Cui et al. Correlation between flow-induced nucleation morphologies and strain in polyethylene: from uncorrelated oriented point-nuclei,scaffold-network,and microshish to shish. Macromolecules, 46, 3435-3443(2013).

[20] D Liu, N Tian, N D Huang et al. Extension-induced nucleation under near-equilibrium conditions: the mechanism on the transition from point nucleus to shish. Macromolecules, 47, 6813-6823(2014).

[21] D Liu, K P Cui, N D Huang et al. The thermodynamic properties of flow-induced precursor of polyethylene. Science China Chemistry, 58, 1570-1578(2015).

[22] H R Yang, D Liu, J Z Ju et al. Chain deformation on the formation of shish nuclei under extension flow: an in situ SANS and SAXS study. Macromolecules, 49, 9080-9088(2016).

[23] K P Cui, Z Ma, N Tian et al. Multiscale and multistep ordering of flow-induced nucleation of polymers. Chemical Reviews, 118, 1840-1886(2018).

[24] T T Wang, N Tian, J Chen et al. Revisiting flow-induced crystallization of polyethylene inversely: an in situ swelling SANS study. Polymer, 184, 121934(2019).

[25] Z Wang, C N Lam, W R Chen et al. Fingerprinting molecular relaxation in deformed polymers. Physical Review X, 7, 031003(2017).

[26] K Song, L F Wu, D Liu et al. Revealing the detailed structure in flow-induced crystallization of semicrystalline polymers. Physical Chemistry Chemical Physics, 22, 25206-25214(2020).

[27] Z Y Wang, D J Kong, L C Yang et al. Analysis of small-angle neutron scattering spectra from deformed polymers with the spherical harmonic expansion method and a network model. Macromolecules, 51, 9011-9018(2018).

[28] K Song, L F Wu, D Liu et al. Flow-induced shish nucleation in lightly crosslinked polyethylene: connecting polymer properties and strain to the final shish–kebab structure. Macromolecules, 55, 6866-6875(2022).

[29] K Song, L F Wu, D Liu et al. Effect of free chain conformation on flow-induced shish nucleation in lightly cross-linked polyethylene. Macromolecules, 56, 9189-9195(2023).

[30] K Song, D Liu, L F Wu et al. Multiple kinetic processes of lamellar growth in crystallization of stretched lightly crosslinked polyethylene. Polymer, 265, 125586(2023).

[31] Y Shui, L Z Huang, C S Wei et al. Intrinsic properties of the matrix and interface of filler reinforced silicone rubber: an in situ Rheo-SANS and constitutive model study. Composites Communications, 23, 100547(2021).

[32] T T Yang, Y Shui, C S Wei et al. Effect of cyclic straining with various rates on stress softening/hysteresis and structural evolution of filled rubber: a time-resolved SANS study. Composites Part B: Engineering, 242, 110100(2022).

[33] J J Han, T T Yang, C W Yang et al. The maximum-strain and strain-interval dependences of microstructural evolution underneath the Mullins effect. Composites Part A: Applied Science and Manufacturing, 172, 107586(2023).

[34] J J Han, C S Wei, A Lu et al. Visualizing filler network to reveal structural mechanisms on energy dissipation of Mullins effect in silicone rubber. Polymer, 301, 127044(2024).

[35] L Z Huang, K Song, C W Yang et al. Elongation induced demonstration of the fraction dependent filler network structures in silicone rubber: an in situ SAXS study. Polymer, 274, 125926(2023).

[36] Y Shui, L Z Huang, C S Wei et al. How the silica determines properties of filled silicone rubber by the formation of filler networking and bound rubber. Composites Science and Technology, 215, 109024(2021).

[37] L Z Huang, Y Shui, W Chen et al. How the aggregates determine bound rubber models in silicone rubber? A contrast matching neutron scattering study. Chinese Journal of Polymer Science, 39, 365-376(2021).

[38] L Z Huang, C W Yang, K Song et al. Effects of various filler surfaces on tuning the hierarchical structures and reinforcement of silicone rubbers. Surfaces and Interfaces, 41, 103254(2023).

[39] D Liu, L X Song, H T Song et al. Correlation between mechanical properties and microscopic structures of an optimized silica fraction in silicone rubber. Composites Science and Technology, 165, 373-379(2018).

[40] W G Bouwman, W Stam, T V Krouglov et al. SESANS with a monochromatic beam or with time-of-flight applied on colloidal systems. Nuclear Instruments and Methods in Physics Research Section A: Accelerators,Spectrometers,Detectors and Associated Equipment, 529, 16-21(2004).

[41] W G Bouwman. Spin-echo small-angle neutron scattering for multiscale structure analysis of food materials. Food Structure, 30, 100235(2021).

[42] E G Iashina, W G Bouwman, C P Duif et al. Time-of-flight spin-echo small-angle neutron scattering applied to biological cell nuclei. Journal of Applied Crystallography, 56, 1512-1521(2023).