1) solid-state reaction at low temperature
低温固态反应
1.
Synthesis of SrTiO_3 nanopowder by solid-state reaction at low temperature
低温固态反应制备纳米钛酸锶粉体
2.
07 MnyTi1-yO3 solid solutions were synthesized by solid-state reaction at low temperature.
以TiCl4为钛源,通过低温固态反应合成了一系列掺杂Ba0。
3.
2%,) solid solutions were synthesized by solid-state reaction at low temperature.
采用低温固态反应合成了一系列(Ba0。
2) Low temperature solid state reaction
低温固相反应
1.
The results show that the NiFe2O4 nano-sized crystal can be obtained easily and uniformly by microwave radiated low temperature solid state reaction.
结果表明:采用微波辐射低温固相反应法能够快速且均匀地制备出结构单一的NiFe2O4尖晶石纳米晶,当微波辐射功率为700 W、辐射时间为16 min、研磨时间为20 min时,所制备的NiFe2O4尖晶石纳米晶,其晶粒呈圆片状,晶粒尺寸约为30 nm,颗粒均匀性最好,且粉体不易团聚。
3) solid-state reaction at low temperature
低温固相反应
1.
A series of doped BaTiO3-based PTC ceramic powders were synthesized by solid-state reaction at low temperature.
采用低温固相反应法(800℃)合成了一系列纳米掺杂BaTiO3基PTC瓷粉。
2.
In the research, composite oxide ofnickel and manganese was prepared by calcination of composite oxalatesynthesised by solid-state reaction at low temperature firstly,LiNi_(0.
低温固相反应制备镍锰复合草酸盐时，反应进行迅速，2-5分钟即可完成。
4) Solid-state synthesis at low-heating temperature
低热温固相反应
5) solid state reaction at low temperature
低温固相反应
1.
The most characteristic of solid state reaction at low temperature is that reaction is in progress at room temperature or near room temperature.
采用低温固相反应合成了4种苯乙酸稀土配合物:RE(L)3。
2.
Single phase spinel type composite oxide Zn_2SnO_4 nanocrystals were prepared by solid state reaction at low temperature using SnCl_4·5H_2O, Zn (NO_3)_2·6H_2O and NaOH as raw materials.
以SnCl4·5H2O,Zn(NO3)2·6H2O和NaOH为原料,用低温固相反应法合成尖晶石型复合氧化物Zn2SnO4纳米晶体。
6) low-temperature solid state reaction
低温固相反应
1.
Mg_2Si_(1-x)Sn_x(0≤x≤1) Solid Solutions have been fabricated by the low-temperature solid state reaction and spark plasma sintering,and the influence of tin concentration on thermoelectric properties was investigated.
采用低温固相反应法结合放电等离子体烧结法(SPS)合成了Mg2Si1-xSnx(0≤x≤1)三元化合物,研究了Sn固溶量对化合物热电性能的影响。
补充资料：反应素性变态反应
反应素性变态反应
见"I型变态反应"。
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