balamani
Member level 1
Millimeter and terahertz waves suffer from attenuation caused by rain and resonant absorption in oxygen and water molecules, so they are unsuitable for long-range radio communications. However, their short wavelengths prove to be an advantage in the transmission of large amounts of data at one time.
1. Substrate Integrated Waveguide components are designed for millimeter wave applications. Most of the applications are for RADAR and IEEE 802.11ad. Then, how are they suitable for long-range radio communications?
Millimeter and terahertz waves also provide high spatial resolution in imaging applications, enabling high-definition images to be obtained, in contrast to the low definition of microwave imaging.
2. How do Millimeter and terahertz waves provide high spatial resolution in imaging applications? which property supports high spatial resolution in imaging applications?
Please clarify.
1. Substrate Integrated Waveguide components are designed for millimeter wave applications. Most of the applications are for RADAR and IEEE 802.11ad. Then, how are they suitable for long-range radio communications?
Millimeter and terahertz waves also provide high spatial resolution in imaging applications, enabling high-definition images to be obtained, in contrast to the low definition of microwave imaging.
2. How do Millimeter and terahertz waves provide high spatial resolution in imaging applications? which property supports high spatial resolution in imaging applications?
Please clarify.