Difference between revisions of "Projects:2021s1-13113 Miniaturised metasurface antennas"
| Line 4: | Line 4: | ||
Abstract here | Abstract here | ||
== Introduction == | == Introduction == | ||
| − | In this modern age, there is an ever growing demand for wireless communication, resulting to an increasing use of antennas. In portable devices, integrated antennas are becoming more common, as their compact size and nature proves ideal to have a compact and elegant solution, removing the need for traditional, external antennas. There is also an evergrowing number of wireless connection protocols, requiring unique antennas to support each protocol. A typical phone will include at minimum, 3G, Wifi, Bluetooth and GPS antennas. | + | *In this modern age, there is an ever growing demand for wireless communication, resulting to an increasing use of antennas. In portable devices, integrated antennas are becoming more common, as their compact size and nature proves ideal to have a compact and elegant solution, removing the need for traditional, external antennas. There is also an evergrowing number of wireless connection protocols, requiring unique antennas to support each protocol. A typical phone will include at minimum, 3G, Wifi, Bluetooth and GPS antennas. |
| − | With many designs in technology, there is a reoccuring theme of attempting to shrink designs, whilst maintaining or improving upon performance. Antennas are not neglected from this, with a particular interest in integrated antennas. Antenna design has physical limitations, as the size of the antenna is dependent on the operating frequency. For lower frequency operations, this proves problematic, as there are greater wavelengths, resulting in larger antennas. This is where a technique known as 'metasurfacing' can be used to miniaturise lower frequency integrated antennas, whilst complying with the physical limitations. This technique involves the periodic arrangement of small elements above the dielectric material, which affects the reflection and transmission of electromagnetic waves. | + | *With many designs in technology, there is a reoccuring theme of attempting to shrink designs, whilst maintaining or improving upon performance. Antennas are not neglected from this, with a particular interest in integrated antennas. Antenna design has physical limitations, as the size of the antenna is dependent on the operating frequency. For lower frequency operations, this proves problematic, as there are greater wavelengths, resulting in larger antennas. This is where a technique known as 'metasurfacing' can be used to miniaturise lower frequency integrated antennas, whilst complying with the physical limitations. This technique involves the periodic arrangement of small elements above the dielectric material, which affects the reflection and transmission of electromagnetic waves. |
| − | The use of this metasurfacing technique will be explored, and attempted to be utilised to miniaturise a patch antenna, whilst maintaining or improving antenna performance such as bandwidth, and directive gain. | + | *The use of this metasurfacing technique will be explored, and attempted to be utilised to miniaturise a patch antenna, whilst maintaining or improving antenna performance such as bandwidth, and directive gain. |
=== Project team === | === Project team === | ||
==== Project students ==== | ==== Project students ==== | ||
Revision as of 02:57, 13 April 2021
Abstract here
Contents
Introduction
- In this modern age, there is an ever growing demand for wireless communication, resulting to an increasing use of antennas. In portable devices, integrated antennas are becoming more common, as their compact size and nature proves ideal to have a compact and elegant solution, removing the need for traditional, external antennas. There is also an evergrowing number of wireless connection protocols, requiring unique antennas to support each protocol. A typical phone will include at minimum, 3G, Wifi, Bluetooth and GPS antennas.
- With many designs in technology, there is a reoccuring theme of attempting to shrink designs, whilst maintaining or improving upon performance. Antennas are not neglected from this, with a particular interest in integrated antennas. Antenna design has physical limitations, as the size of the antenna is dependent on the operating frequency. For lower frequency operations, this proves problematic, as there are greater wavelengths, resulting in larger antennas. This is where a technique known as 'metasurfacing' can be used to miniaturise lower frequency integrated antennas, whilst complying with the physical limitations. This technique involves the periodic arrangement of small elements above the dielectric material, which affects the reflection and transmission of electromagnetic waves.
- The use of this metasurfacing technique will be explored, and attempted to be utilised to miniaturise a patch antenna, whilst maintaining or improving antenna performance such as bandwidth, and directive gain.
Project team
Project students
- Galvin Chuong
- Isaac Do
Supervisors
- Dr Christophe Fumeaux
- Dr Shengjian Chen (Jammy)
- David de Haaij (Black Arts Technology)
Advisors
Objectives
Set of objectives
Background
Topic 1
Method
Results
Conclusion
References
[1] a, b, c, "Simple page", In Proceedings of the Conference of Simpleness, 2010.
[2] ...
