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Principles of Lithography Fourth Edition [Kõva köide]

  • Formaat: Hardback, 630 pages, kaal: 1420 g
  • Sari: Press Monographs
  • Ilmumisaeg: 30-Jul-2019
  • Kirjastus: SPIE Press
  • ISBN-10: 151062760X
  • ISBN-13: 9781510627604
Teised raamatud teemal:
  • Formaat: Hardback, 630 pages, kaal: 1420 g
  • Sari: Press Monographs
  • Ilmumisaeg: 30-Jul-2019
  • Kirjastus: SPIE Press
  • ISBN-10: 151062760X
  • ISBN-13: 9781510627604
Teised raamatud teemal:
"This text is intended to serve as an introduction to the science of microlithography, but also covers several subjects in depth, making it useful to the experienced lithographer as well. Topics directly related to manufacturing tools are addressed, including overlay, the stages of exposure, tools, and light sources. This updated edition reflects recent advances in technology, including the shift of immersion lithography from development into volume manufacturing, and the movement of EUV lithography fromthe lab to development pilot lines. New references and homework problems are included. It is expected that the reader of this book will have a foundation in basic physics and chemistry. No topics will require knowledge of mathematics beyond elementary calculus"--

This introduction to the science of microlithography focuses on the tools used to manufacture integrated circuits and explains each step in the lithographic process. Pattern formation is of central importance because the great functionality of modern microelectronics has been enabled by the ability to pack large numbers of individual transistors in a unit area of silicon. The fourth edition reflects developments in extreme ultraviolet lithography, line-edge roughness, multi-beam mask writers, and immersion lithography. Black and white photographs and micrographs are provided. Annotation ©2019 Ringgold, Inc., Portland, OR (protoview.com)
Chapter 1 Overview of Lithography
Problems
Chapter 2 Optical Pattern Formation
2.1 The Problem of Imaging
2.2 Aerial Images
2.3 The Contributions of Physics and Chemistry
2.4 Focus
Problems
References
Chapter 3 Photoresists
3.1 Positive and Negative Resists
3.2 Adhesion Promotion
3.3 Resist Spin Coating, Softbake, and Hardbake
3.4 Photochemistry of Novolak/DNQ g- and i-line Resists
3.5 Acid-Catalyzed DUV Resists
3.6 Development and Post-Exposure Bakes
3.7 Operational Characterization
3.8 Line-Edge Roughness
3.9 Multilayer Resist Processes
Problems
References
Chapter 4 Modeling and Thin-Film Effects
4.1 Models of Optical Imaging
4.2 Aberrations
4.3 Modeling Photochemical Reactions
4.4 Thin-Film Optical Effects
4.5 Post-Exposure Bakes
4.6 Methods for Addressing the Problems of Reflective Substrates
4.7 Development
4.8 Quantum Effects and Modeling
4.9 Summary of Modeling
Problems
References
Chapter 5 Wafer Steppers and Scanners
5.1 Overview
5.2 Light Sources
5.3 Illumination Systems
5.4 Reduction Lenses
5.5 Autofocus Systems
5.6 The Wafer Stage
5.7 Scanning
5.8 Dual-Stage Exposure Tools
5.9 Lithography Exposure Tools before Steppers
Problems
References
Chapter 6 Overlay
6.1 Alignment Systems
6.1.1 Classification of alignment systems
6.1.2 Optical methods for alignment and wafer-to-reticle referencing
6.1.3 Number of alignment marks
6.2 Overlay Models
6.3 Matching
6.4 Process-Dependent Overlay Effects
Problems
References
Chapter 7 Masks and Reticles
7.1 Overview
7.2 Mask Blanks
7.3 Mechanical Optical-Pattern Generators
7.4 Electron-Beam Lithography and Single-Beam Mask Writers
7.5 Multi-Electron-Beam Mask Writers
7.6 Optical Mask Writers
7.7 Resists for Mask Making
7.8 Etching
7.9 Pellicles
7.10 Mask-Defect Inspection and Repair
Problems
References
Chapter 8 Confronting the Diffraction Limit
8.1 Off-Axis Illumination
8.2 Optical Proximity Effects
8.3 The Mask-Error Enhancement Factor (MEEF)
8.4 Phase-Shifting Masks
8.5 Putting It All Together
Problems
References
Chapter 9 Metrology
9.1 Linewidth Measurement
9.1.1 Linewidth measurement using scanning electron microscopes
9.1.2 Scatterometry
9.1.3 Electrical linewidth measurement
9.2 Measurement of Overlay
Problems
References
Chapter 10 Immersion Lithography and the Limits of Optical Lithography
10.1 Immersion Lithography
10.2 The Diffraction Limit
10.3 Improvements in Optics
10.4 Maximum Numerical Aperture
10.5 The Shortest Wavelength
10.6 Improved Photoresists
10.7 Flatter Wafers
10.8 How Low Can k1 Go?
10.9 How Far Can Optical Lithography Be Extended?
10.10 Multiple Patterning
10.11 Interferometric Lithography
Problems
References
Chapter 11 Lithography Costs
11.1 Cost-of-Ownership
11.1.1 Capital costs
11.1.2 Consumables
11.1.3 Mask costs
11.1.4 Rework
11.1.5 Metrology
11.1.6 Maintenance costs
11.1.7 Labor costs
11.1.8 Facilities costs
11.2 Mix-and-Match Strategies
Problems
References
Chapter 12 Extreme Ultraviolet Lithography
12.1 Background and Multilayer Reflectors
12.2 EUV Lithography System Overview
12.3 EUV Masks
12.4 Sources and Illuminators
12.5 EUV Optics
12.6 EUV Resists
Problems
References
Chapter 13 Alternative Lithography Techniques
13.1 Proximity X-ray Lithography
13.2 Electron-Beam Direct-Write Lithography
13.2.1 Single-beam direct-write systems
13.2.2 Multiple-electron-beam direct-write systems
13.2.3 Cell-projection lithography
13.2.4 Scattering-mask electron-projection lithography
13.3 Ion-Projection Lithography
13.4 Imprint Lithography
13.5 Directed Self-Assembly
Problems
References
Appendix A Coherence
Problems
References