Åpplied-Science & Matrixial-Analog Computing Lab

“Can machines think? Alan Turing proposed such an amazing question to all over the world when in that era (~1942) televisions were not even popular. Without doubt, human civilization has been moving towards the era of rapid development of "artificial intelligence" because of his cleaver insight; afterward, Turing proposed the idea of "​​Turing Machine" and "Turing Test", also establish an appropriate foundation for the development of the modern artificial intelligence technology...

“Can machines think? 當艾倫 圖靈 (Alan Turing) 在那個連電視機都還不普及的年代，向世界拋出如此舉世震驚的問題時，人類文明就注定會走向”人工智慧”高速發展的時代；隨後Turing提出的圖靈機(Turing machine)與圖靈測試(Turing test)的想法，也為現今各式各樣的人工智能發展奠下良好的基礎... 

Since silicon based technology is facing the phase of end of Moore's law, finding a new ground is the inevitable way to keep the chip-scaling journey going farther. In order to break through the limitations of Moore's law, various two-dimensional (2D) materials, e.g. graphene/2D semiconductors, have attracted attentions of scientists who are dedicated to integration circuits and attempt to achieving ultra-high density of  transistors on a limited wafer area to improve the electronics performance. Without a doubt, the idea coming up with ​​vertical electronic components stack is inevitable. As the result, 2D material with atomically thin nature is considered as the best way for 3D-stacking to meet the demands for monolithic three-dimensional integrated circuits (3D-ICs).

為了突破摩爾定律 (Moore’s law) 的限制，以石墨烯為起始的各式二維材料逐漸受到科學家們的關注，而想在有限的晶片面積上製造更多的電子元件以提升晶片的效能，將電子元件向上堆疊的想法油然而生，所以二維材料厚度幾乎為零的特點，儼然成為想將元件向上堆疊製作更精密複雜、效能更強的三維積體電路 (3D-ICs) 的最佳人選...