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Travel Range (mm): XY axis: 90 x 250, Z axis: 50
Processable Area (mm): 90 x 250
Motion Accuracy/Repeatability (µm): XY axis: 5/< 0.5, Z axis: 60/15
Min Incremental Movement (µm): 0.8
Process Speed Max/Min (mm/s): XY axis: 750/0.61, Max Z axis: 2.4
Material Viscosity (cP): 10 to 60 000
Line width (µm): EHD mode < 1, DIW mode > 10
Operating pressure (bar): -1 to 6
Maximum HV voltage (kV): 4.5
Dimensions (cm) LxWxH: 100x76x66
Power consumption: 100/240V, 50/60Hz, 6A
Push the boundaries of your production processes. Contact us to discuss the possibilities regarding our products and services—both current and future.
EHD/DIW Printer Systems
The electrohydrodynamic (EHD) printing system is a material deposition platform that enables the creation of structures and patterns with a resolution significantly higher than that of conventional printing technologies. It allows for the localized and controlled deposition of extremely small quantities of material onto a wide variety of substrates. The equipment is designed for research and development, as well as for the fabrication of prototypes and functional devices.
What can be researched and manufactured?
Beyond device fabrication, the system serves as a research tool for developing new processes and materials, including:
-. Structures for printed electronics.
-. Multilayer patterns and structures formed using various materials.
-. Prototypes of electronic devices, sensors, and functional systems.
-. Optimization of resolution, precision, and repeatability.
-. Development of new optical and electronic devices and architectures.
-. Rapid prototyping of new solutions prior to industrial scaling.
Key areas of application
This technology can be applied across various fields of research and advanced manufacturing, including: Microelectronics and printed electronics:
-. Fabrication of high-resolution conductors, electrodes, interconnects, and other electronic elements.
-. Sensors: Development of miniaturized sensors and functional structures.
-. Optoelectronics: Fabrication of patterns and components for optical and optoelectronic devices.
One platform, multiple possibilities.
The value of the system lies not only in its ability to print high-resolution structures but also in providing a flexible manufacturing platform for transforming experimental materials and designs into physical structures and functional devices. This allows the user to transition from researching materials and processes to prototyping devices, all using a single platform.