A metallic 3-D printed E-band (60-90 GHz) radio front end is reported. It uses the Selective Laser Melting technology to melt the Cu-15Sn powder layer by layer. The front end is composed of two bandpass filters and a conical horn antenna, which are printed and tested individually as well. Differences between the designed and measured performance are caused by the fabrication tolerance. Methods to compensate the fabrication tolerance are proposed. The design procedures are summarized for reference. The metallic 3-D printing technology proves its great potential for millimeter-wave (mmWave) applications
In this letter, the design and the three-dimensional (3-D) printing of high-performance feed horns o...
Additive Manufacturing holds significant promise for microwave component design, enabling the produc...
International audienceThe goal of this manuscript is to show the potential of additive manufacturing...
A metallic 3-D printed E-band (60-90 GHz) radio front end is reported. It uses the Selective Laser M...
This paper presents a study to use the metallic three dimensional (3-D) printing technology for ante...
This paper explores the potential of metallic 3-D printing technology for millimeter-wave (mmWave) a...
International audience3D metallic printing technology is attempted to implement millimeter-wave (mmW...
Two iris bandpass filters implemented by three-dimensional (3D) printing technology for millimetre-w...
Additive manufacturing using 3-D printing is an emerging technology for the production of high perfo...
Additive manufacturing technologies are currently envisaged to boost the development of a next gener...
3D printing has garnered immense attention from many fields including in-office rapid prototyping of...
3D printing has garnered immense attention from many fields including in-office rapid prototyping of...
Three-dimensional-printing technologies have been receiving great attention for a wide variety of ap...
The performance of additive manufactured (AM) RF circuits and antennas is continuously improving, an...
A 3D printed horn antenna at ka-band is presented in this paper. The horn antenna is well known for ...
In this letter, the design and the three-dimensional (3-D) printing of high-performance feed horns o...
Additive Manufacturing holds significant promise for microwave component design, enabling the produc...
International audienceThe goal of this manuscript is to show the potential of additive manufacturing...
A metallic 3-D printed E-band (60-90 GHz) radio front end is reported. It uses the Selective Laser M...
This paper presents a study to use the metallic three dimensional (3-D) printing technology for ante...
This paper explores the potential of metallic 3-D printing technology for millimeter-wave (mmWave) a...
International audience3D metallic printing technology is attempted to implement millimeter-wave (mmW...
Two iris bandpass filters implemented by three-dimensional (3D) printing technology for millimetre-w...
Additive manufacturing using 3-D printing is an emerging technology for the production of high perfo...
Additive manufacturing technologies are currently envisaged to boost the development of a next gener...
3D printing has garnered immense attention from many fields including in-office rapid prototyping of...
3D printing has garnered immense attention from many fields including in-office rapid prototyping of...
Three-dimensional-printing technologies have been receiving great attention for a wide variety of ap...
The performance of additive manufactured (AM) RF circuits and antennas is continuously improving, an...
A 3D printed horn antenna at ka-band is presented in this paper. The horn antenna is well known for ...
In this letter, the design and the three-dimensional (3-D) printing of high-performance feed horns o...
Additive Manufacturing holds significant promise for microwave component design, enabling the produc...
International audienceThe goal of this manuscript is to show the potential of additive manufacturing...