Page 32 - 《精细化工》2020年第2期
P. 32

第 38 卷第 2 期                             精   细   化   工                                  Vol.38, No.2
             202 1 年 2 月                             FINE CHEMICALS                                 Feb.  2021


              综论
                              防晒剂在乳化体系中结晶规律及其


                                          抑制机制的研究进展



                                                                 3
                                                                              4
                           张倩洁       1,2 ,沈兴亮      1,2 ,畅绍念 ,朱海洋 ,张婉萍                     1,2*
                 (1.  上海应用技术大学  香料香精技术与工程学院,上海   201418;2.  香料香精及化妆品教育部工程研究
                 中心,上海   201418;3.  广东三好科技有限公司,广东  清远  511853;4.  上海儒溪生物科技有限公司,
                 上海  201100)

                 摘要:随着经济水平的发展和人民生活质量的提高,防晒产品已经成为人们日常生活中不可或缺的部分,而防
                 晒剂结晶析出作为防晒产品的主要失稳现象越来越引起人们的重视。目前,国内对于乳液体系中防晒剂结晶现
                 象的研究主要集中在如何开发新型包覆载体技术或优化配方体系以避免结晶的出现,而对防晒剂在乳液体系中
                 结晶机制的研究报道十分匮乏。该文概述了防晒剂的种类和作用机理,并从晶体学的角度重点剖析了防晒剂在
                 乳化体系中的结晶过程和抑制机制,展望了防晒产品的开发和研究的趋势,利用防晒剂结晶的抑制机制来提高
                 防晒产品稳定性和功效性具有重要的科学意义。
                 关键词:防晒产品;防晒剂;乳化体系;结晶过程;结晶抑制
                 中图分类号:O781      文献标识码:A      文章编号:1003-5214 (2021) 02-0234-07



                          Research progress of the crystallization rule and inhibition
                                 mechanism of sun-screening agent in emulsion


                                                                                    4
                                1,2
                                                  1,2
                                                                     3
                 ZHANG Qianjie , SHEN Xingliang , CHANG Shaonian , ZHU Haiyang , ZHANG Wanping       1,2*
                 (1. College of Perfume and Aroma Technology, Shanghai Institute of Technology, Shanghai 201418, China; 2. Engineering
                 Research Center of Perfume & Aroma and Cosmetics, Ministry of Education, Shanghai 201418, China; 3. Guangdong
                 3INS Technology Co., Ltd., Qingyuan 511853, Guangdong, China; 4. Shanghai Ruxi Bio-Tech Co., Ltd., Shanghai 201100, China)
                 Abstract: With the development of economic level and the improvement of people's life quality, sunscreen
                 products  have become an indispensable part of people's  daily life. And the crystallization  of sunscreen
                 products as the main phenomenon of instability has  attracted great  attention. At  present, domestic
                 researches on the crystallization of sun-screening agent in emulsion are mainly focus on how to develop
                 new coating carrier technology or optimize the formulation system to avoid the occurrence of crystallization,
                 while studies  on the crystallization  mechanism of  sun-screening agent in emulsion are scarce. The
                 crystallization process and inhibition mechanism of sun-screening agent in emulsion are firstly summarized.
                 The crystallization process and inhibition mechanism of sun-screening agent in the emulsion system are
                 analyzed from the perspective of crystallography. The development and research trend of sunscreen
                 products are  prospected.  It is of  great scientific significance to improve the stability and efficacy of
                 sunscreen products by using the inhibition mechanism of sunscreen crystallization.
                 Key words:  sunscreen  products; sun-screening agent; emulsion; crystallization process; inhibition  of
                 crystallization


                 适当照射太阳光可以预防维生素 D 的缺乏,但                        可能会对皮肤、眼睛和免疫系统造成急性和慢性伤
            是长期暴露于太阳紫外线辐射(UVR,280~400 nm)                      害。皮肤晒伤(红斑)是过度紫外线照射的急性效应,


                 收稿日期:2020-07-15;  定用日期:2020-09-11; DOI: 10.13550/j.jxhg.20200645
                 作者简介:张倩洁(1987—),女,讲师,博士,E-mail:zhangqj_sit@126.com。联系人:张婉萍(1970—),博士,教授, E-mail:
                 zhangwanp@126.com。
   27   28   29   30   31   32   33   34   35   36   37