低VOC内墙乳胶漆的研制

分析乳胶漆中VOC的主要来源，论述了低VOC内墙乳胶漆的配方设计，经过对原材料的筛选和实验，研制出性能优异的低VOC内墙乳胶漆。     

零VOC乳胶漆的研制

分析乳胶漆中VOC的主要来源 ,经过对原材料的筛选和实验 ,研制出性能优异的零VOC乳胶漆     

乳胶漆气味和VOC的探讨与研究

讨论了乳胶漆气味、VOC以及健康环保间的关系,并研究了乳胶漆中气味的来源以及消除VOC和气味的方法。     

超低VOC建筑内墙乳胶漆的配方设计

简单介绍了VOC的定义及其危害、乳胶漆中VOC的主要来源,着重论述了超低VOC内墙乳胶漆的配方设计,主要包括乳液的选用、水性助剂合理搭配及颜填料的选择等.     

低VOC净味内墙乳胶漆的探讨

通过对乳胶漆诸组分乳液、助剂、颜填料的分析,发现乳液、成膜助剂、pH调节剂既是乳胶漆气味的主要来源,又是VOC的主要来源。配制低VOC净味内墙乳胶漆时应考虑这些组分的影响,由此可制得综合性能优良的乳胶漆。     

低VOC净味内墙乳胶漆原料探析

内墙乳胶漆虽然是水性产品,但其使用过程中散发出大量危害人体健康的VOC气体。通过大量试验数据比较分析,发现乳胶漆组分中的成膜乳液、消泡剂、防霉剂等都是涂料气味和VOC的主要来源。     

零VOC内墙乳胶漆及专用乳液的研究

阐述了零VOC乳胶漆专用乳液的合成。讨论了影响乳液性能的主要因素。实验结果表明：该乳液配制的乳胶漆低温成膜性优异、冻融稳定性好、VOC几乎为零。     

对乳胶漆VOC的再认识

介绍了各国(地区)对VOC的不同定义，以及对乳胶漆中VOC限量的不同的标准及检测方法。     

低气味除醛环境友好型乳胶漆的研究

主要研究了乳胶漆中气味产生的原因,讨论了材料选用及搭配,通过试验,总结了乳胶漆生产、使用过程中产生的VOC、甲醛以及各种有害物质的去除方法,从而制造出真正环境友好的乳胶漆产品。     

自由体积和零VOC乳胶漆

讨论了乳胶漆的成膜性与自由体积的关系,并介绍了制备零VOC乳胶漆的几种方法。     

涂料涂装行业VOC减排浅析

VOC排放问题引起政府的关注,以VOC为代表的特征和毒性污染物已经成为我国大气污染防治的重点。分析了涂料涂装行业VOC减排面临的形势,对比了世界各地区的环保（大气净化）法规,总结了降低VOC的技术措施,提出了削减涂料涂装行业VOC排放量的建议。     

浅谈零VOC丙烯酸酯涂料的研究进展

文章分析了水性涂料中VOC的几种主要来源,介绍了零VOC水性丙烯酸酯类涂料的检测标准和实现途径,并从乳液合成、成膜助剂、消泡剂、增稠剂、杀菌剂等助剂选择方面阐述了消除VOC的技术手段,最后对零VOC丙烯酸酯涂料的进一步发展提出了展望。     

VOC与涂料配方及性能的关系

通过对TVOC和VOC计算公式对比 ,指出强制性国标和环境标志认证关于有机挥发物限量的差异 ,提出为满足限量要求应采取的方法。     

欧洲装饰涂料市场对VOC限制及对策分析

欧洲装饰涂料的零售商有 15万家 ,水性涂料的市场份额为 70 %。按目前欧洲现有涂料产品的水平 ,每年VOC释放量约为 5 8万t。介绍装饰涂料的VOC水平 ,并对如何降低和认识VOC提出了建议。     

汽车涂装车间VOC减排技术探讨

介绍了汽车涂装车间的VOC排放控制指标,并结合国内现状和VOC减排措施,针对不同类型的涂装车间提出了不同的VOC减排方案。     

水性涂料VOG的气相色谱-质谱检测前处理方法研究

对水性涂料挥发性有机化合物（VOC）检测的前处理方法进行了研究.分别采用搅拌萃取法和超声波萃取法对水性涂料中28种VOC进行提取,采用离心方法提取清液,采用气相色谱-质谱法测定并计算回收率.通过比较,确定以二氯甲烷为萃取溶剂、搅拌时间为40 min的搅拌萃取法提取效率更高,采用该方法对28种VOC的加标回收率在94％～116％之间.     

大气污染治理政策给防腐涂料行业带来的机遇和挑战

简要介绍了我国大气污染状况和有关大气污染治理的政策及相关研究工作,汇总了国内外关于VOC排放限值的规范标准,并描述了当前VOC治理技术和涂料系统VOC排放现状。     

焦化厂化产回收工段VOC气体回收工艺改造及优化

针对迁安中化公司化产回收工段洗净塔回收VOC气体工艺设备问题频发,工段内VOC气体回收不完全及洗净塔尾气排放不达标等问题,进行了原因分析。在此基础上,把洗净塔回收VOC气体工艺改造为VOC气体负压回收工艺,同时针对负压回收工艺运行中出现的问题,进行了焦油罐脱水加热温度调整、澄清槽设备改造、VOC管道清扫方式优化等一系列技改,实现了化产回收工段VOC气体的全面回收及无害化、效益化的处理。     

Development of a test method using a VOC analyzer to measure VOC emission from adhesives for building materials

A volatile organic compound (VOC) analyzer is a portable device to measure the four main aromatic hydrocarbon gases: toluene, ethylbenzene, xylene and styrene. With the VOC analyzer, a semiconductor gas sensor eliminates the need for the carrier gas which is required for conventional gas chromatography. In addition, since the semiconductor gas sensor is supersensitive to gas components, it is not necessary to use a conventional gas concentrator or other complicated equipment. Compared with other measurement methods, the VOC analyzer is useful for measuring toluene, ethylbenzene, xylene and styrene in new buildings because of its ease in obtaining field results and repeating the test. For easy, fast and economic testing of total (TVOC) emission from adhesives used for building materials, we developed a test method using the VOC analyzer and compared its measurement of VOC emissions from building materials such as adhesives, paints and wood-based panels with that of the 20-l chamber method, which is the standardized test method in Korea. There was a good correlation between the TVOC emission concentrations determined by the VOC analyzer and the TVOC emission factor (EF) by the 20-l chamber. Based on this good correlation, the VOC analyzer is expected to gain widespread use in the manufacturing field application where a quick and easy test for VOC emission from adhesives for building materials is required. Furthermore, the VOC analyzer offers the potential to become an easier, faster and more economical technique than the currently used standard methods.     

Vapour permeation of VOC emitted from petroleum activities: Application for low concentrations

This study deals with the application of vapour permeation on the abatement of air polluted with VOC, from low to medium concentrations. Toluene, butadiene and propylene were chosen as model compounds. On a first part of the study, the permeation of single VOC, binary and ternary VOC/air mixtures was performed at different flow rates and VOC concentrations. The permeate flux, permeance, enrichment factor, separation efficiency and the recovery were determined. The experimental results were compared to those obtained with a mathematical model, allowing the calculation of the membrane area required to eliminate 95% of the feed VOC content.