Local mechanical stresses in semiconductor devices, introduced e.g. by dicing, are an important manufacturing concern. Raman spectroscopy can measure stress in silicon directly, non-destructively and quantitatively. Here, we used Raman spectroscopy to analyse the stress along die sidewalls formed by mechanical and laser dicing, demonstrating that micro-Raman spectroscopy is a feasible sensing method for measuring stress in silicon die sidewalls during manufacture. We found that laser dicing introduces stresses that are significantly lower than those induced by mechanical dicing (typically 170MPa c.f. 70MPa). In addition, for mechanical diced chips different metaphases of silicon were found
In this research, micro-Raman spectroscopy is employed to examine, and characterize the residual str...
Stress in silicon structures plays an essential role in modern semiconductor technology. This stress...
The mechanical stress in nanosized silicon architectures is studied in shallow trench isolation syst...
Laser micro-machining has proven to be a very powerful and successful tool for precision machining a...
Due to assembly processes in microelectronics packaging, semiconductor materials are under undesired...
Micromachining can result in residual stress in a wafer. This paper puts forward an online measuring...
The growing interest in improving optoelectronic devices requires continuous research of the materia...
Micron-scale characterization of mechanical stresses is essential for the successful design and oper...
Micro-Raman spectroscopy has been widely used to measure local stresses in silicon and other cubic m...
textThree-dimensional (3-D) integration as an effective method to overcome the wiring limit imposed ...
Simultaneous and locally resolved determination of the mechanical stress variation and the free hole...
Mechanical stress is developed in the materials during and after manufacturing of devices. In microe...
Three-dimensional (3D) micro-Raman spectroscopy mapping of mechanical stress induced by Cu through-S...
Confocal micro-Raman spectroscopy allows for spatially resolved measurements of the phonon energy in...
In this research, micro-Raman spectroscopy is employed to examine, and characterize the residual str...
Stress in silicon structures plays an essential role in modern semiconductor technology. This stress...
The mechanical stress in nanosized silicon architectures is studied in shallow trench isolation syst...
Laser micro-machining has proven to be a very powerful and successful tool for precision machining a...
Due to assembly processes in microelectronics packaging, semiconductor materials are under undesired...
Micromachining can result in residual stress in a wafer. This paper puts forward an online measuring...
The growing interest in improving optoelectronic devices requires continuous research of the materia...
Micron-scale characterization of mechanical stresses is essential for the successful design and oper...
Micro-Raman spectroscopy has been widely used to measure local stresses in silicon and other cubic m...
textThree-dimensional (3-D) integration as an effective method to overcome the wiring limit imposed ...
Simultaneous and locally resolved determination of the mechanical stress variation and the free hole...
Mechanical stress is developed in the materials during and after manufacturing of devices. In microe...
Three-dimensional (3D) micro-Raman spectroscopy mapping of mechanical stress induced by Cu through-S...
Confocal micro-Raman spectroscopy allows for spatially resolved measurements of the phonon energy in...
In this research, micro-Raman spectroscopy is employed to examine, and characterize the residual str...
Stress in silicon structures plays an essential role in modern semiconductor technology. This stress...
The mechanical stress in nanosized silicon architectures is studied in shallow trench isolation syst...