Application of ultrashort voltage pulses to a tiny tool electrode under suitable electrochemical conditions enables precise three-dimensional machining of stainless steel. In order to reach submicrometer precision and high processing speed, the formation of a passive layer on the workpiece surface during the machining process has to be prevented by proper choice of the electrolyte. Mixtures of concentrated hydrofluoric and hydrochloric acid are well suited in this respect and allow the automated machining of complicated three-dimensional microelements. The dependence of the machining precision on pulse duration and pulse amplitude was investigated in detail
Maskless electrochemical micromachining (EMM) is a prominent technique for producing the array of mi...
The electrochemical micromachining appears to be a promising candidate as a future micromachining te...
The work is devoted to the justification of the choice of a rational range of voltage pulses duratio...
Application of ultrashort voltage pulses to a tiny tool electrode under suitable electrochemical con...
An electrochemical pulse technique enables the fabrication of three-dimensional microelements from s...
Upon the application of ultrashort voltage pulses electrochemical reactions can be spatially confine...
The fabrication of microstructures is one of today's key technologies. Applications of microdevices ...
We show that complex patterns including three-dimensional structures, lines, curved features, and ar...
AbstractThis paper describes Electrochemical Micromachining (EMM) of stainless steel with acidified ...
Micro electrochemical machining is becoming increasingly important in the microfabrication of metal ...
The machining technology of electrochemical micromachining with ultra short voltage pulses (μPECM) i...
AbstractThe accuracy of the electrochemical machining is determined by the value of the interelectro...
In this research, the main purpose was to study the applicability of a machining method on microscal...
Electrochemical machining is a relatively new technique, only being introduced as a commercial techn...
Sensorial surfaces are a new generation of sensors for the use in condition monitoring. In contrast ...
Maskless electrochemical micromachining (EMM) is a prominent technique for producing the array of mi...
The electrochemical micromachining appears to be a promising candidate as a future micromachining te...
The work is devoted to the justification of the choice of a rational range of voltage pulses duratio...
Application of ultrashort voltage pulses to a tiny tool electrode under suitable electrochemical con...
An electrochemical pulse technique enables the fabrication of three-dimensional microelements from s...
Upon the application of ultrashort voltage pulses electrochemical reactions can be spatially confine...
The fabrication of microstructures is one of today's key technologies. Applications of microdevices ...
We show that complex patterns including three-dimensional structures, lines, curved features, and ar...
AbstractThis paper describes Electrochemical Micromachining (EMM) of stainless steel with acidified ...
Micro electrochemical machining is becoming increasingly important in the microfabrication of metal ...
The machining technology of electrochemical micromachining with ultra short voltage pulses (μPECM) i...
AbstractThe accuracy of the electrochemical machining is determined by the value of the interelectro...
In this research, the main purpose was to study the applicability of a machining method on microscal...
Electrochemical machining is a relatively new technique, only being introduced as a commercial techn...
Sensorial surfaces are a new generation of sensors for the use in condition monitoring. In contrast ...
Maskless electrochemical micromachining (EMM) is a prominent technique for producing the array of mi...
The electrochemical micromachining appears to be a promising candidate as a future micromachining te...
The work is devoted to the justification of the choice of a rational range of voltage pulses duratio...