scw

Degradation of plastic and rubber in SCW is feasible on technique .

研究表明，超临界水降解塑料和橡胶技术，从工艺方面讲是可行的。

The properties of SCW and its solution , the characteristic of SCW were introduced in detail .

本文全面介绍了超临界水及其溶液性质和超临界水化学反应的特点；

Development and Application of New Tissue Paper Softener SCW and SCS

新型生活用纸柔软剂SCW和SCS的开发与应用

A number of research works on conversion and reforming of fossil fuel with supercritical water ( SCW ) were reviewed .

综述了近年来矿物燃料和烃的模型化合物在超临界水（SCW）作用下的转化和改质。

Compares the pumping and recharging well ( PRW ) with the standing column well ( SCW ) .

柱温为25℃。比较了抽灌同井与单井循环系统的异同点。

Based on the research trends in international field , status of catalysis gasification hydrogen production method using supercritical water ( SCW ) reaction were summarily reviewed .

基于目前国际上的最新研究动向，重点就超临界水催化汽化生物质制氢技术的研究现状进行了归纳和综述。

The homogeneous and heterogeneous catalyzed oxidation of organic pollutants in SCW were studied under the different pH and with activated carbon as catalyst .

根据催化超临界水氧化技术的原理，从均相催化氧化和非均相催化氧化两个方面，研究了进水pH值和活性炭对超临界水降解有机物的影响。

The experimental results showed that naphthol is easily oxidized in SCW and its main aromatic residues are o phthalic acid and benzoic acid .

实验表明：萘酚在实验条件下极易氧化分解，其主要芳环残留物为邻苯二甲酸和苯甲酸；

Gases and many organic compounds are miscible in SCW , so reaction between oxygen or other oxidant and waste is carried out without interface transport constraints .

气体和许多有机物能溶于超临界水中，溶于其中的氧或其它氧化剂与污物反应没有传质阻力。

There is a local property of SCW in Anning valley which XSLS lies at that it was developed from north to south .

并且在场区所处的安宁河谷内，强对流天气有自北向南发展的特点。

Therefore , it is a vital significance for us to clone the genes related to SCW synthesis and study its molecular mechanism to improve the yield and quality of cotton fibers .

因此，克隆棉纤维次生壁合成相关基因，研究棉纤维发育分子机制，对棉纤维品质改良具有重要意义。

Among the most widely used models of RA are the streptococcal cell wall ( SCW ) arthritis model and the collagen-induced arthritis ( CIA ) .

RA动物模型中使用最广泛的是链球菌细胞壁（SCW）关节炎模型和胶原诱导的关节炎（CIA）模型。

Cotton fiber cell wall is usually divided into two categories : the primary cell wall ( PCW ) and the secondary cell wall ( SCW ) during cotton fiber development .

在棉纤维发育过程中，纤维细胞壁发育通常可分为初生壁和次生壁两个阶段。

Secondly , the energy conversion and exergy flow analysis of biomass gasification process in SCW is conducted , based on actual methanol combining complete gasification process with pressure swing adsorption process .

其次，对完全气化与变压吸附相结合的甲醇气化制氢过程的能量转化和（火用）流分布进行了分析，揭示了影响这一转化过程的关键因素和主要环节；

A series of complex regulations in PCW stage finally affect fiber cell intensity and length . Cellulose synthesis and SCW deposition in later phase determine cotton fiber yield and quality at last .

初生壁阶段一系列复杂的调控影响棉纤维细胞密度和长度，纤维素合成与次生壁沉积最终影响棉纤维的产量和品质。

The unique physical-chemical properties of water above its critical point ( 374.2 ° C and 22.1 MPa ) makes supercritical water ( SCW ) an effective reaction medium for oxidation of organic pollutants .

超临界水（SCW）具有独特的物理化学性能，是氧化有机污染物的有效介质。

The models of groundwater flow and heat transfer for non-backfill PRW , gravel-backfill PRW and SCW were established , respectively . The methods of numerical solution were provided .

分别建立了无回填抽灌同井、砾石回填抽灌同井和单井循环系统的地下水流动和换热数学模型，并给出了数值求解方法。

In this system , cold gas efficiency and thermal efficiency are 54.1 % and 74 . 7 % , respectively . This process might also be an economically viable option in conversion of coal to hydrogen in SCW .

SCW制氢-联产活性炭方案冷煤气效率为54.1%，热效率达74.7%，实现了产品多元化，也是提高过程经济性的选择之一。

As coal was transported homogeneously at high pressure by adding the sodium carboxymethylcellulose ( CMC ), the hydrogen production from catalytic gasification of coal / CMC in supercritical water ( SCW ) was investigated .

在向水煤浆中添加CMC（羧甲基纤维素钠），成功实现水煤浆高压均匀输送基础上，对超临界水中煤/CMC催化气化制氢性能进行了进一步研究。

It was shown that the conversion and reforming of fossil fuel such as coals , oil shales and heavy oils with SCW would lead to a simple , environmental friendly and promising method of obtaining clear synthetic liquid fuel from these resources .

用超临界水对诸如煤、重质油及油页岩等矿物燃料的转化和改质，可生产出轻质清洁的液体燃料，该法是轻质化矿物燃料非常有前途的方法。