Site-Specific Radio Channel Representation for 5G and 6G
A site-specific radio channel representation (SSCR) takes the surroundings of the communication system into account by considering the environment geometry, including buildings, vegetation, and mobile objects with their material and surface properties. We present methods for an SSCR that is spatiall...
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Zusammenfassung: | A site-specific radio channel representation (SSCR) takes the surroundings of
the communication system into account by considering the environment geometry,
including buildings, vegetation, and mobile objects with their material and
surface properties. We present methods for an SSCR that is spatially
consistent, such that mobile transmitter and receiver cause a correlated
time-varying channel impulse response and closely spaced antennas are correctly
correlated. An SSCR is composed of a dynamically varying number of multipath
components solely defined by the environment geometry and the material of the
environmental objects. Hence, the environment geometry is the only natural
scenario parameterization and specific calibration procedures shall be avoided.
5G and 6G physical layer technologies are increasingly able to exploit the
properties of a wide range of environments from dense urban areas to railways,
road transportation, industrial automation, and unmanned aerial vehicles. The
channel impulse response in this wide range of scenarios has generally
non-stationary statistical properties, i.e., the Doppler spectrum, power delay
profile, K-factor and spatial correlation are all spatially variant (or
time-variant for mobile receivers). SSCRs will enable research and development
of emerging 5G and 6G technologies such as distributed multiple-input
multiple-output systems, reconfigurable intelligent surfaces, multi-band
communication, and joint communication and sensing. We highlight the state of
the art and summarize research directions for future work towards an SSCR. |
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DOI: | 10.48550/arxiv.2406.09025 |