With the rapid advancement of smartphones and other mobile devices, an ever-increasing
desire for wireless indoor localization has emerged. This technology is capable of …

Appropriate data rate selection at the physical layer is crucial for Wi-Fi network performance:
too high rates lead to loss of data frames, while too low rates cause increased latency and …

WiFi has become the most widely used indoor positioning technology. The Fine Time
Measurement (FTM) protocol introduced in the IEEE 802.11-2016 standard uses radio …

Global Navigation Satellite System (GNSS) is extensively utilized for outdoor positioning and
navigation. However, achieving high-precision indoor positioning is challenging due to the …

Wi-Fi round-trip time (RTT) ranging has proven successful in indoor localization. Here, it is
shown to be useful outdoors as well—and more accurate than smartphone code-based …

The wide availability of the Wi-Fi infrastructure together with the recent integration of the
IEEE 802.11 mc capability in common-off-the-shelf (COTS) devices, have contributed to …

Future generation wireless systems are rapidly evolving to support positioning as a native
feature using their communication infrastructure. Notwithstanding the dependence on a …

In numerous WiFi sensing applications, such as passive human localization, the precision of
sensing is often influenced by the estimation accuracy of multipath parameters. Several …

The challenge of providing low-cost, easy-to-use, sufficiently precise and available, radio-
based, standardized indoor positioning with wide-scale hardware and software support has …

Wi-Fi's fine-time measurement (FTM) protocol supports indoor localization with 1-2 m
accuracy by allowing two devices to cooperatively measure their signal round-trip-time …