This paper presents millimeter wave (mmWave) measurements in an indoor environment.
The high demands for the future applications in the 5G system require more capacity. In the …

The use of the Millimeter Wave (mm-wave) frequency band brings various scattering, fading,
atmospheric absorption and penetration losses issues. These issues can be mitigated easily …

The millimeter-wave (mmWave) is expected to deliver a huge bandwidth to address the
future demands for higher data rate transmissions. However, one of the major challenges in …

Millimeter wave path loss modeling is essential for reliable system design and accurate link
budget calculations. The motivation for this research is that channel modeling in 5G …

Although the deployment of 5G networks has already started, there are still open questions
regarding propagation at millimeter-wave frequency bands. Several propagation campaigns …

The current propagation models used for frequency bands less than 6 GHz are not
appropriate and cannot be applied for path loss modeling and channel characteristics for …

The increasing requirement for the mobile data traffic accelerates the research of
millimeterwave (mm-wave) for future wireless systems. Accurate characterization of the mm …

This paper presents the propagation characteristics at 60 GHz for fifth generation (5G)
millimeter-wave (mmWave) wireless communication systems. The propagation …

Accurate propagation characteristics are essential for future indoor millimeter-wave
(mmWave) small cell network planning. This paper presents propagation measurements at …

Millimeter-wave indoor propagation characteristics including path loss models and multipath
delay spread values for systems using directional and omnidirectional antennas are …