1)  nanofluids
米流体
1.
An experimental study was performed to investigate the natural convective boiling characteristics and critical heat flux(CHF) of water and water-based CuO nanoparticle-suspensions(nanofluids) in vertical tubes.
对大气压下纳米流体在竖直细小圆管内自然对流沸腾特性和临界热通量(CHF)进行了试验研究。
2)  nanofluid
纳米流体
1.
Prediction of effective thermal conductivity of nanofluids;
米流体有效热导率预测
2.
The investigations and applications of nanofluids;
新型传热工质纳米流体的研究与应用
3.
Experimental study on characteristics of low-temperature phase change cool storage for nanofluids;
低温相变纳米流体蓄冷特性研究
3)  nanofluids
纳米流体
1.
Preparation of controllable nanofluids and research on thermal conductivity;
可控纳米流体的制备及热导率研究
2.
Influence factors on suspension stability of nanofluids;
米流体悬浮稳定性影响因素
3.
Formation process of HFC134a gas hydrate in nanofluids;
米流体中HFC134a水合物的生成过程
4)  nano-fluids
纳米流体
1.
Measurement of specific heat of TiO_2-BaCl_2-H_2O nano-fluids with DSC;
DSC法测量低温相变蓄冷纳米流体的比热容
2.
Investigation on Structure and Energy Transport of Nano-fluids;
米流体结构与能量输运机理研究
3.
The pool boiling heat transfer mechanism of nanofluids is analyzed and an experimental study on pool boiling heat transfer for water-Fe and water-Al_2O_3nano-fluids with three different volumetric densities is conducted.
研究了添加不同性质、不同体积浓度的纳米颗粒后对液体池内泡状沸腾换热的影响和相应的物理机制,并对3种不同体积浓度的Fe及A l2O3纳米流体进行了池内沸腾的实验研究。
5)  nano-fluid
纳米流体
1.
The pool nucleate boiling heat transfer experiments of water based and alcohol based nano-fluids on the plain heated copper surface were carried out.
对纳米流体池内核态沸腾进行了研究。
2.
The thermal conductivity of Al2O3-H2O nano-fluid was measured using a Hotdisk thermophysical analyser,and the effects of pH value,dispersant concentration and nano-particle content(mass fraction) on the thermal conductivity were investigated.
采用Hotdisk热物性分析仪测量了Al2O3-H2O纳米流体的导热系数,探讨了pH值、分散剂加入量和纳米粒子含量对导热性能的影响。
3.
Phase equilibrium model of refrigerant hydrate in nano-fluids was developed to study the effects of nano-particles on formation conditions of refrigerant hydrate.
为了研究纳米粒子对制冷剂水合物热力学生成条件的影响,建立了新型纳米流体中制冷剂水合物相平衡热力学模型,理论研究了HFC134a(R134a)气体水合物的热力学生成条件,并用实验验证了模拟结果。
6)  nanofluids
奈米流体
1.
In this study, the Al2O3-water nanofluids produced from direct synthesis method was used as the experimental samples into three types of the mass fractions (0.
本研究使用以直接混合法制备之三氧化二铝奈米流体为实验样本,目的为探讨三氧化二铝奈米流体在不同浓度(0%,0。
参考词条
补充资料:盐酸米托蒽醌 ,米托蒽醌,能减瘤, 二羟基蒽醌, 丝裂蒽醌, 米西宁,米妥蒽醌
药物名称:丝裂蒽醌

英文名:Mitoxantrone

别名:盐酸米托蒽醌 ,米托蒽醌,能减瘤, 二羟基蒽醌, 丝裂蒽醌, 米西宁,米妥蒽醌
外文名:Mitoxantrone HCI ,Militant
适应症: 恶性淋巴瘤、乳腺癌、急性白血病、前列腺癌、肝细胞癌、卵巢癌、肺癌。
用量用法:
单剂量 12-14mg/m2静脉滴注,3-4周后重复使用,急性白血病:2-5mg/m2/日,连用5日,间隔2-3周重复给药一次,恶性淋巴瘤、乳腺癌:5mg/m2/日,连用3日,每隔3周给药一次,肝癌及其它实体瘤:6-12/mg/m2/日,连用3日,3-4周后重复使用。联合用药 5-10mg/m2/次。
禁忌: 有骨髓抑制或肝功能不全者禁用。
不良反应: 骨髓抑制,少数患者可有早搏及心电图异常。可有恶心、呕吐,偶见脱发、口腔炎。
注意事项: 一般情况差,有并发症及心、肺功能不全的病人慎用。
药物相互作用: 与其它抗癌药物联用可发挥协同作用。
规格: 注射液 2mgx5安瓿。5mgx2安瓿。10mgx10ml。




类别:其他抗肿瘤药及辅助治疗药
说明:补充资料仅用于学习参考,请勿用于其它任何用途。