Novel 3D-Printing Enabled Antenna Design for Future Wireless Intra-chip Interconnect

被引:0
作者
Wu, Junqiang [1 ]
Xin, Hao [1 ]
机构
[1] Univ Arizona, Dept Elect & Comp Engn, Tucson, AZ 85721 USA
来源
2017 IEEE INTERNATIONAL SYMPOSIUM ON ANTENNAS AND PROPAGATION & USNC/URSI NATIONAL RADIO SCIENCE MEETING | 2017年
基金
美国国家科学基金会;
关键词
interconnect; intra-chip communication; monopole; multiprocessor interconnection; network on chip; 3D printing;
D O I
暂无
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
A novel antenna design that is enabled by 3D printing technology for future wireless intra-chip communications is proposed in this work. Vertical quarter-wavelength monopoles are used for intra-chip communication, which avoids substrate-caused low antenna radiation efficiency. The monopoles are surrounded by specially-designed dielectric distribution. This additional design degree of freedom allowed by 3D printing technology is used to tailor antenna radiation pattern that enhances the desired link and reduces the undesired crosstalk spatially. A 60 GHz prototype is designed, fabricated and measured. The measurement results agree well with the simulation results. The demonstrated path loss of the desired link at a distance of 17 mm is only 12 dB, which is more than 10 dB better than the theoretical value for 60 GHz monopoles based on Friis transmission equation and previously reported work.
引用
收藏
页码:1237 / 1238
页数:2
相关论文
共 50 条
[41]   An in vitro vascular chip using 3D printing-enabled hydrogel casting [J].
Yang, Liang ;
Shridhar, Shivkumar Vishnempet ;
Gerwitz, Melissa ;
Soman, Pranav .
BIOFABRICATION, 2016, 8 (03)
[42]   New method for the application of voxels in product design for multi-material 3D-printing [J].
Junk S. ;
Einloth H. .
Computer-Aided Design and Applications, 2020, 18 (03) :624-633
[43]   Design and 3D-printing of titanium bone implants: brief review of approach and clinical cases [J].
Popov V.V., Jr. ;
Muller-Kamskii G. ;
Kovalevsky A. ;
Dzhenzhera G. ;
Strokin E. ;
Kolomiets A. ;
Ramon J. .
Biomedical Engineering Letters, 2018, 8 (04) :337-344
[44]   Titanium Powder 3D-Printing Technology for a Novel Keratoprosthesis in Alkali-Burned Rabbits [J].
de Azevedo Magalhaes, Otavio ;
Alves de Alcantara, Rafael Jorge ;
Pereira Gomes, Jose Alvaro ;
de Castro Neto, Jarbas Caiado ;
Schor, Paulo .
TRANSLATIONAL VISION SCIENCE & TECHNOLOGY, 2022, 11 (08)
[45]   3D printing-enabled advanced electrode architecture design [J].
Chu, Tiankuo ;
Park, Soyeon ;
Fu, Kun .
CARBON ENERGY, 2021, 3 (03) :424-439
[46]   A Novel 3D-Printing-Enabled "Roller Coaster" Transmission Line [J].
Hester, Jimmy ;
Nguyen, Evan ;
Tice, Jesse ;
Radisic, Vesna .
2017 IEEE INTERNATIONAL SYMPOSIUM ON ANTENNAS AND PROPAGATION & USNC/URSI NATIONAL RADIO SCIENCE MEETING, 2017, :2639-2640
[47]   Lightweight Perforated Horn Antenna Enabled by 3-D Metal-Direct-Printing [J].
Huang, Guan-Long ;
Zhou, Shi-Gang ;
Chio, Tan-Huat .
2016 IEEE ANTENNAS AND PROPAGATION SOCIETY INTERNATIONAL SYMPOSIUM, 2016, :481-482
[48]   A novel 3D printing enabled method for fast and reliable construction of polymeric microneedles using experimental design [J].
Antonara, Lefkothea ;
Dallas, Paraskevas P. ;
Rekkas, Dimitrios M. .
JOURNAL OF DRUG DELIVERY SCIENCE AND TECHNOLOGY, 2022, 68
[49]   Fractal design of 3D-printing mechanical metamaterial undergoing tailorable zero Poisson's ratio [J].
Liu, Yuheng ;
Lu, Haibao ;
Lau, Denvid .
SMART MATERIALS AND STRUCTURES, 2024, 33 (01)
[50]   LEARNING ENGLISH THROUGH 3D-PRINTING: A CASE STUDY WITH ENGINEERING AND DESIGN STUDENTS IN HIGHER EDUCATION [J].
Gaspar, M. C. ;
Regio, M. ;
Morgado, M. .
EDULEARN16: 8TH INTERNATIONAL CONFERENCE ON EDUCATION AND NEW LEARNING TECHNOLOGIES, 2016, :5132-5138