摘要:
A nanometer-sized porous metallic glass and a method for manufacturing the same are provided. The porous metallic glass includes Ti (titanium) at 50.0 at % to 70.0 at %, Y (yttrium) at 0.5 at % to 10.0 at %, Al (aluminum) at 10.0 at % to 30.0 at %, Co (cobalt) at 10. at % to 30.0 at %, and impurities. Ti+Y+Al+Co+the impurities=100.0 at %.
摘要翻译:提供了一种纳米尺寸的多孔金属玻璃及其制造方法。 多孔金属玻璃包括在50.0at%至70.0at%的Ti(钛),在0.5at%至10.0at%的Y(钇),10.0at%至30.0at%的Al(铝),10 %至30.0原子%,杂质。 Ti + Y + Al + Co +杂质= 100.0原子%。
摘要:
A nanometer-sized porous metallic glass and a method for manufacturing the same are provided. The porous metallic glass includes Ti (titanium) at 50.0 at % to 70.0 at %, Y (yttrium) at 0.5 at % to 10.0 at %, Al (aluminum) at 10.0 at % to 30.0 at %, Co (cobalt) at 10.0 at % to 30.0 at %, and impurities. Ti+Y+Al+Co+the impurities=100.0 at %.
摘要翻译:提供了一种纳米尺寸的多孔金属玻璃及其制造方法。 多孔金属玻璃包括在50.0at%至70.0at%的Ti(钛),在0.5at%至10.0at%的Y(钇),10.0at%至30.0at%的Al(铝),10.0 %至30.0at%,和杂质。 Ti + Y + Al + Co +杂质= 100.0原子%。
摘要:
A nanometer-sized porous metallic glass and a method for manufacturing the same are provided. The porous metallic glass includes Ti (titanium) at 50.0 at % to 70.0 at %, Y (yttrium) at 0.5 at % to 10.0 at %, Al (aluminum) at 10.0 at % to 30.0 at %, Co (cobalt) at 10.0 at % to 30.0 at %, and impurities. Ti+Y+Al+Co+the impurities=100.0 at %.
摘要翻译:提供了一种纳米尺寸的多孔金属玻璃及其制造方法。 多孔金属玻璃包括在50.0at%至70.0at%的Ti(钛),在0.5at%至10.0at%的Y(钇),10.0at%至30.0at%的Al(铝),10.0 %至30.0at%,和杂质。 Ti + Y + Al + Co +杂质= 100.0原子%。
摘要:
A nanometer-sized porous metallic glass and a method for manufacturing the same are provided. The porous metallic glass includes Ti (titanium) at 50.0 at % to 70.0 at %, Y (yttrium) at 0.5 at % to 10.0 at %, Al (aluminum) at 10.0 at % to 30.0 at %, Co (cobalt) at 10.0 at % to 30.0 at %, and impurities. Ti +Y+Al+Co+the impurities=100.0 at %.
摘要翻译:提供了一种纳米尺寸的多孔金属玻璃及其制造方法。 多孔金属玻璃包括在50.0at%至70.0at%的Ti(钛),在0.5at%至10.0at%的Y(钇),10.0at%至30.0at%的Al(铝),10.0 %至30.0at%,和杂质。 Ti + Y + Al + Co +杂质= 100.0原子%。
摘要:
Embodiments of the invention provide a semiconductor wafer cleaning apparatus and a related method. In one embodiment, the invention provides a semiconductor wafer cleaning apparatus comprising a wafer stage adapted to support a wafer; a first cleaning unit adapted to spray a first cleaning solution onto the wafer to remove particles from the wafer, wherein the first cleaning solution prevents static electricity from being generated on the surface of the wafer; and a second cleaning unit adapted to provide a second cleaning solution onto the wafer and oscillate a quartz rod to remove particles from the wafer, wherein the second cleaning solution makes a surface of the wafer hydrophilic.
摘要:
A method for fabricating a mixed signal semiconductor device is disclosed. This method includes a step for dividing a semiconductor substrate into an active region and a field region, step for forming a gate oxide film on an upper surface of the semiconductor substrate, a step for forming a first polysilicon film on an upper surface of the gate oxide film, a step for forming a silicon nitride film on an upper surface of the gate oxide film, a step for patterning the silicon nitride film and exposing a first polysilicon corresponding to the upper portion of the field region, a step for implanting an impurity ion into the first polysilicon film, a step for forming a capacitor oxide film on an upper and lateral surface of the patterned silicon nitride film and on an upper surface of the exposed first polysilicon film, a step for forming a second polysilicon film on an upper surface of the capacitor oxide film, a step for removing the second polysilicon film and the capacitor oxide film formed on the upper surface of the silicon nitride film and planerizing the remaining second polysilicon film, capacitor oxide film and silicon nitride film, a step for patterning the silicon nitride film, first polysilicon film and second polysilicon film, a step for etching the silicon nitride film, and a step for forming a LDD(Lightly Doped Drain) in the active region, for thereby implementing a simpler fabrication process and decreasing a failed product.