1) coagulating tank
凝固浴槽
2) coagulation bath
凝固浴
1.
Effect of temperature of coagulation bath on structure and properties of lyocell fibers from bamboo pulp;
凝固浴温度对有机溶剂法再生竹纤维素纤维结构与性能的影响
2.
The paper studied the effect of coagulation bath condition on the structure and property of the nascent fibers and the PAN fibers.
利用元素分析仪、X射线衍射仪、电子探针等手段,研究了温度、浓度等凝固浴参数对聚丙烯腈初生纤维及最终原丝结构和性能的影响,得到了湿法纺丝中制备高性能原丝的最优凝固工艺条件。
3.
To improve the tenacity of polyimide(PI)fiber prepared by two-step process 1,4-benzenediamine,a rigid mono- mer,was introduced into the system of pyromellitic dianhydride and 4,4'-diamino dipheuyl and ternary copolymerized with N- methylpyrrolidone to yield polyamic acid(PAA)which was spun into PAA fiber by dry-wet spinning using the mixture solution of water and alcohol as coagulation bath.
针对均苯四甲酸二酐和4,4′-二氨基二苯醚体系两步法制备的聚酰亚胺(PI)纤维强度比较偏低的问题,加入刚性单体对苯二胺,在N-甲基吡咯烷酮中进行三元共聚得到聚酰胺酸(PAA),选用水和乙醇的混合溶液为凝固浴通过干湿法纺制出PAA纤维。
3) coagulating bath
凝固浴
1.
Effect of mass fraction of DMAc in coagulating bath on permeative performance of adsorber/PES hybrid membranes;
凝固浴DMAc质量分数对吸附剂/聚醚砜杂化膜通透性能的影响
2.
Compound coagulating bath of bicomponent or tricomponent were found having better molding effect.
凝固浴以双组分及三组分效果较好。
3.
Precursor used in this experiment was spun in coagulating bath in different temperature, while the concentration in the bath maintained 60%.
在凝固浴中浓度为60％的情况下,在不同温度下的凝固浴中纺出原丝,用原丝凝固丝条的孔隙率和碘吸附量方法以及密度分析和电镜分析的方法对原丝的微观结构及最终碳纤维的性能影响进行了探讨。
4) dual-bath coagulation
双凝固浴
1.
The dual-bath coagulation method resolves the problem well.
双凝固浴(dual-bath coag-ulation method)成膜方法可以很好地解决这一难题。
2.
Flat-sheet type polyethersulfone(PES) membranes are prepared by dual-bath coagulation method.
采用双凝固浴法制备聚醚砜(PES)平板膜,通过改变第一凝固浴的组成,调控膜表面及内部的结构,研究了凝固浴条件对膜结构与渗透性能的影响。
5) bath-fed tube
凝固浴管
6) the second gelation
第二凝固浴
1.
The experience was studied on the effect of the second gelation temperature and concentration on water flux and rate of clearance of PES membrane.
采用双凝固浴法制备聚醚砜膜,主要研究了第二凝固浴温度、浓度对膜的水通量、肌肝和尿素去除率的影响。
补充资料：凝固
| 凝固 solidification 物质由液相转变为固相的相变过程。在一定压强下，晶体熔液冷却到一定温度（凝固点）时才能凝固，在凝固过程中温度不变，释放热量（凝固热）。对于同一晶体，在一定压强下，其凝固点与熔点相同，凝固热与熔解热相等。凝固点随压强变化，若凝固时体积膨胀（或缩小），则凝固点随压强增大而降低（或升高）。非晶体物质的凝固并不在一定的温度下进行，无凝固点可言。 |
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条