Materials Research Society Symposia Proceedings, Volume 511 |
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Page 34
Figure 2 shows the mechanical properties of the same HSSQ SOG as a function
of curing temperature. Modulus and hardness increased with increasing curing
temperature, again indicating the tendency to the fully-bonded Si02 structure.
Figure 2 shows the mechanical properties of the same HSSQ SOG as a function
of curing temperature. Modulus and hardness increased with increasing curing
temperature, again indicating the tendency to the fully-bonded Si02 structure.
Page 44
and above, this "symmetric" peak continues to decrease, disappearing
completely upon curing at 410 °C, while the intensity ... This structure is
maintained with little change until the cure temperature is increased to 450 °C.
However, for curing ...
and above, this "symmetric" peak continues to decrease, disappearing
completely upon curing at 410 °C, while the intensity ... This structure is
maintained with little change until the cure temperature is increased to 450 °C.
However, for curing ...
Page 175
Plot of crack velocity vs crack driving force for SSQ SOG materials cured with
different time-temperature conditions: longer curing times and greater curing
temperatures lead to films with increased crack driving forces but decreased
crack ...
Plot of crack velocity vs crack driving force for SSQ SOG materials cured with
different time-temperature conditions: longer curing times and greater curing
temperatures lead to films with increased crack driving forces but decreased
crack ...
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Contents
Overview of Process Integration Issues for LowK Dielectrics | 3 |
Fundamental Aspects of Polymer Metallization | 15 |
LiquidPhase Deposition of LowK Organic | 27 |
Copyright | |
42 other sections not shown
Other editions - View all
Low-Dielectric Constant Materials II: H. Treichel,A. C. Jones,A. Lagendijk,K. Uram Snippet view - 1997 |
Common terms and phrases
1998 Materials Research a-C:F films a-C:F ILD adhesion aluminum annealing atoms birefringence bonds capacitance capacitors carbon chemical chemical vapor deposition coefficient concentration copper curing temperature damascene decrease density dielectric constant diffusion electrical electromigration electron ellipsometry energy etch rate F1AC film thickness fluorine fluorocarbon FTIR function hard mask hydrogen in-plane increase integration interconnect interface joule heating layer low dielectric constant low k materials low-k lower Materials Research Society measured mechanical metal lines Microelectronics modulus moisture molecular nanoporous oxide oxygen PECVD Phys planarization plasma etching plasma treatment polyimide polymer polymer films polymerization porosity porous silica xerogel precursors Proc properties pulse ratio reaction refractive index resistance samples Semiconductor shown in Figure shows Si-F silica silicon silicon oxide silsesquioxane spectra spin-coating spin-on stress structure substrate surface Symp technique thermal stability thin films ULSI wafer wiring xerogel