Filaments of chemically modified cellulose fibers and webs and products formed therefrom

• 1. 包含微原纤纤维素的纤丝、纤维无纺纤网以及其制备方法 [P] . 中国专利： CN104736749B . 2017.10.31
• 2. 包含微原纤纤维素的纤丝、纤维无纺纤网以及其制备方法 [P] . 中国专利： CN104736749A . 2015-06-24
• 3. FILAMENTS OF CHEMICALLY MODIFIED CELLULOSE FIBERS, METHOD OF MAKING SUCH FILAMENTS AND WEBS AND PRODUCTS FORMED THEREFROM [P] . CA1047750A . 1979-02-06

  机译： 化学改性的纤维素纤维的长丝，制造这种长丝和纤维网的方法以及由其制成的产品

• 4. FILAMENTS OF CHEMICALLY MODIFIED CELLULOSE FIBERS, METHOD OF MAKING SUCH FILAMENTS AND WEBS AND PRODUCTS FORMED THEREFROM [P] . ZA744801B . 1975-08-27

  机译： 化学改性的纤维素纤维的长丝，制造这种长丝和纤维网的方法以及由其制成的产品

• 5. Filaments of chemically modified cellulose fibers and webs and products formed therefrom [P] . 美国专利： US4256111A . 1981-03-17

  机译： 化学改性纤维素纤维的纤丝和由其制成的纤网和产品

• 1. Immobilization of organophosphorus hydrolase enzyme by covalent attachment on modified cellulose microfibers using different chemical activation strategies: Characterization and stability studies [J] . Meisam Sharifi, Seyed-Mortaza Robatjazi, Minoo Sadri, 中国化学工程学报（英文版） . 2019,第001期
• 2. Improving Electrochemical Performance of Cellulose Fiber-based Supercapacitor Electrode Using Polypyrrole-wrapped Iron Oxyhydroxide [J] . Youngchu Kang, Hailan Jin, Xianhui An, 造纸与生物质材料：英文版 . 2021,第003期
• 3. Biomimetic Apatite Formation on Chemically Modified Cellulose Templates [C] . Frank A. Muller, LertKa Johasova, Peter Cromme, International Symposium on Ceramics in Medicine . 2004
• 4. Fundamental Evaluation of The Impact of Cellulosic Fiber Features and Manufacturing Technologies on The Performance and Value of Tissue Paper Products [D] . de Assis, Tiago. 2019
• 5. High-Performance Styrene-Butadiene Rubber NanocompositesReinforced by Surface-Modified Cellulose Nanofibers [O] . Alex Sinclair, Xiaoyi Zhou, Siwakorn Tangpong, 2019
• 6. Stone Matrix Asphalt (SMA) is a gap-graded mix that is gaining popularity worldwide. Generally, gap graded mixes are thought to be weak in fatigue resistance. In this study, cellulose fibers were pre-blended in PG64-22 binder with fiber proportions of 0.2%, 0.4%, 0.6%, 0.8% and 1.0% by weight of aggregates. The fiber-modified binder showed improved rheological properties and showed that the PG64-22 binder can be modified and raised to PG70-22 grade. The cellulose oil palm fiber (COPF) was found to improve the diameteral fatigue performance of SMA design mix. The fatigue life increased to a maximum at a fiber content of about 0.6%, whilst the tensile stress and stiffness also showed a similar trend in performance. The initial strains of the mix were lowest at a fiber content of 0.6%. [O] . Ratnasamy Muniandy, Bujang B.K.  Huat 2006

• 1. Physical and Morphological Structure of Chicken Feathers (Keratin Biofiber) in Natural, Chemically and Thermally Modified Forms [J] . Débora D.Belarmino ,Rasiah Ladchumananandasivam ,Loilde D.Belarmino . 材料科学与应用期刊（英文） . 2012,第12期
• 2. Improving Electrochemical Performance of Cellulose Fiber-based Supercapacitor Electrode Using Polypyrrole-wrapped Iron Oxyhydroxide [J] . Youngchu Kang ,Hailan Jin ,Xianhui An . 国际造纸 . 2021,第003期
• 3. Filament weaving industry:Appreciating the development of the product and speeding up the pace of transformation and upgrading Interview with Xu Wenying,president of China Filament Weaving Association [J] . Liang Ruili ,Xu Yuanyuan . 中国纺织：英文版 . 2016,第1期
• 4. 氨基甲酰乙基微纤化纤维素的制备及其改性研究 [C] . CHEN Jing-huan ,陈京环 ,LIU Jin-gang . 2018全国特种纸技术交流会暨特种纸委员会第十三届年会 . -1
• 5. 微纤化纤维素氨基硫脲改性及其吸附性能的研究 [A] . 江嘉灏 . 2019