As silicon-integrated circuit technology enters the sub-100nm realm, continued progress will depend on a fundamental understanding of the physics of materials processing. The high cost of processing experimental lots and the speed at which new devices brought to the market have created a new emphasis on realistic physical models incorporated in technology CAD (TCAD) simulation tools. The book brings together researchers to review recent developments in the integrated-circuit community and to identify key issues for future research in this field. Results of research on the physical mechanisms involved in silicon device processing are presented both from experimental and theoretical viewpoints. The application of this research to TCAD process simulation models is also addressed. Topics include: shallow junctions and transient enhanced diffusion; extended defects and transient enhanced diffusion; impurities and point defects; implant technology, thin films and surfaces and point defects and diffusion in SiGe.

This volume contains the Proceedings of the International Conference on Simulation of Semiconductor Devices and Processes, SISPAD 01, held on September 5–7, 2001, in Athens. The conference provided an open forum for the presentation of the latest results and trends in process and device simulation. The trend towards shrinking device dimensions and increasing complexity in process technology demands the continuous development of advanced models describing basic physical phenomena involved. New simulation tools are developed to complete the hierarchy in the Technology Computer Aided Design simulation chain between microscopic and macroscopic approaches. The conference program featured 8 invited papers, 60 papers for oral presentation and 34 papers for poster presentation, selected from a total of 165 abstracts from 30 countries around the world. These papers disclose new and interesting concepts for simulating processes and devices.

This book contains the first comprehensive review of intrinsic point defects, impurities and their complexes in silicon. Besides compiling the structures, energetic properties, identified electrical levels and spectroscopic signatures, and the diffusion behaviour from investigations, it gives a comprehensive introduction into the relevant fundamental concepts.

In the future, because fundamental materials and process limits are being approached, continued transistor scaling will not be as straightforward. Future complementary metal-oxide semiconductor (MOS) transistors will require high-permittivity (high-k) gate dielectrics and metal gate electrodes, as well as low-resistance ultrashallow junctions, in order to meet the stringent specifications of the International Technology Roadmap for Semiconductors. Techniques to improve transconductance and drive current may also be required. Process integration issues must be solved, and reliability must be assured, before any new material or processing technique can be used in IC manufacture. A further complication is that the key challenges will differ according to application. This book reports research results from industry, government labs and academia covering a wide scope of front-end process issues for future CMOS technologies. Topics include: advanced materials and structures; high-k dielectrics; advanced gate stack materials; heterogeneous integration and strained Si technologies; ultrashallow junction technology; strained Si and source/drain technology; and laser annealing and silicide processes.