金属诱导横向结晶(MILC)和高温退火法制备非晶硅SOI

S. Jagar, M. Chan, K. C. Poon, Hongmei Wang, M. Qin, S. Shivani, P. Ko, Yangyuan Wang
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引用次数: 4

摘要

在目前的SOI技术中,电路元件的形成需要使用一些特殊的起始材料,如SIMOX, BESOI或Unibond晶圆,这些材料通常无法在内部制造。因此,它导致了SOI技术和散装技术之间的分歧,并且在初始材料成本的合理性方面存在争论。在多晶硅中形成的tft具有与SOI相似的结构,并已被用作SRAM中的负载元件。比较TFT和SOI晶体管,TFT在起始材料和与批量工艺的兼容性方面更容易制造。然而,它的性能通常是非常差的高性能电路。TFT结构由大量的小尺寸硅晶组成。希望有一个非常大的晶粒尺寸,这样一个晶体管就可以完全放在一个晶粒上。在这种情况下,TFT变成SOI MOSFET。金属诱导横向结晶(MILC)被用于扩大多晶硅TFT晶粒尺寸。然而,由于低温形成的限制,晶粒尺寸仍然不理想。MILC后在900/spl℃以上的温度下进行高温退火,我们发现可以形成10 /spl mu/m量级的更大的晶体。对于器件缩放带来的先进技术,可以单独再结晶每个晶体管的有源区域,使TFTs(形成)具有SOI MOSFET性能。
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SOI formation from amorphous silicon by metal-induced-lateral-crystallization (MILC) and subsequent high temperature annealing
In current SOI technology, the formation of circuit elements requires the use of some special starting material like SIMOX, BESOI or Unibond wafers, which usually cannot be made in-house. As such, it leads to a divergence between SOI technology and bulk technology, and there are debates on justification on the initial material cost. TFTs formed in polysilicon have similar structures to SOI, and have been used as the load element in SRAM. Comparing TFT and SOI transistors, the TFT is easier to fabricate in term of starting material and compatibility with bulk processes. However, its performance is usually very poor for high performance circuits. The TFT structure consists of a large number of small size crystallized silicon grains. It is desirable to have a very large grain size so that a single transistor can lie entirely on a single grain. In this case, the TFT becomes an SOI MOSFET. Metal-induced-lateral-crystallization (MILC) has been used to enlarge the polysilicon TFT grain size. However, due to the limitation in low temperature formation, the grain size is still not desirable. With the use of high temperature annealing at a temperature above 900/spl deg/C after MILC, we found that much larger crystals of the order of 10 /spl mu/m can be formed. For the advanced technology which comes with device scaling, it is possible to individually recrystallize the active region of each transistor, giving TFTs (as formed) with SOI MOSFET performance.
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