For many applications, nanoparticles from the gas phase are of interest due to their physical properties. Especially for electronic or optoelectronic applications, the transfer from their random distribution in the gas phase onto flat. substrate surfaces has to be controlled because the particles are needed in exactly defined areas on the substrate. We demonstrate a parallel process for the transfer of charge patterns on oxidized silicon surfaces followed by the deposition of mono-disperse singly charged nanoparticles, which allows the creation of particle arrangements reaching from 100 nm resolution up to structures in the upper micrometer range. The charge patterns are transferred using a polydimethylsiloxane (PDMS) stamp, which is covere...
Nanoscale lithography on silicon is of interest for applications ranging from computer chip design t...
A fast and high throughput technique has been proposed for the preparation of ordered nanopatterns. ...
The objective of this work is to obtain self-organised growth of magnetic and metallic nanostructure...
The deposition process in a homogeneous electric field, and the subsequent microscopic arrangement o...
A method has been developed to transfer complex charge patterns to flat substrate surfaces, allowing...
Arrangements of nanometer-sized particles were obtained on plane oxidized silicon substrates by dire...
We present a novel additive process, which allows the spatially controlled integration of nanopartic...
We investigate the fabrication of nanometric patterns on silicon surfaces by using the parallel-loca...
The deposition process in a homogeneous electric field, and the subsequent microscopic arrangement o...
The confinement of the modern day semiconductor devices is fast propelling the growth of nanoparticl...
In spite the high level of complexity reached by micromachining in silicon technology, the integrati...
The photo electrochemical preparation of nanostructures on single crystalline Si surfaces is descr...
Nanoscale lithography on silicon is of interest for applications ranging from computer chip design t...
A nanoscale fabrication process compatible with present Si technology is reported. Preimplanted cont...
Periodic, well-defined, features in the nano-scale (dots, pillars, pores etc) are essential in sever...
Nanoscale lithography on silicon is of interest for applications ranging from computer chip design t...
A fast and high throughput technique has been proposed for the preparation of ordered nanopatterns. ...
The objective of this work is to obtain self-organised growth of magnetic and metallic nanostructure...
The deposition process in a homogeneous electric field, and the subsequent microscopic arrangement o...
A method has been developed to transfer complex charge patterns to flat substrate surfaces, allowing...
Arrangements of nanometer-sized particles were obtained on plane oxidized silicon substrates by dire...
We present a novel additive process, which allows the spatially controlled integration of nanopartic...
We investigate the fabrication of nanometric patterns on silicon surfaces by using the parallel-loca...
The deposition process in a homogeneous electric field, and the subsequent microscopic arrangement o...
The confinement of the modern day semiconductor devices is fast propelling the growth of nanoparticl...
In spite the high level of complexity reached by micromachining in silicon technology, the integrati...
The photo electrochemical preparation of nanostructures on single crystalline Si surfaces is descr...
Nanoscale lithography on silicon is of interest for applications ranging from computer chip design t...
A nanoscale fabrication process compatible with present Si technology is reported. Preimplanted cont...
Periodic, well-defined, features in the nano-scale (dots, pillars, pores etc) are essential in sever...
Nanoscale lithography on silicon is of interest for applications ranging from computer chip design t...
A fast and high throughput technique has been proposed for the preparation of ordered nanopatterns. ...
The objective of this work is to obtain self-organised growth of magnetic and metallic nanostructure...