← Search

Data · dataset · 2026

A Multi-Stage Machine Learning and Post-Processing Pipeline for Indoor Ranging and Localization Using Bluetooth 6.0 Channel Sounding

Listed in ZivaHub and Deakin Research Online and DMU Figshare — shown once because both records carry DOI 10.6084/m9.figshare.34033824.v1

<p dir="ltr">Indoor localization remains a challenging problem due to the lack of a universal standard and the limitations of existing technologies such as RSSI, UWB, and classical Bluetooth.

Description

This paper presents a multi-stage hybrid system combining Bluetooth 6.0 Channel Sounding (BCS) with machine learning and a post-processing pipeline for high-precision indoor ranging and localiza tion. The BCS technology provides two complementary distance measurements: Round-Trip Timing (RTT) and Phase-Based Ranging (PBR).

We first characterize the behavior of these measurements across multiple experi mental scenarios, including Line-of-Sight (LOS) and Non Line-of-Sight (NLOS) conditions, both indoors and out doors, and in an anechoic chamber. A Kalman filter is then applied to reduce noise and detect outliers, fol lowed by an XGBoost regression model that predicts the real distance from the RTT and PBR features. A post processing consensus algorithm is designed to stabilize predictions and converge toward the real distance.

Read the rest (2 more)

The system is deployed on a 1D positioning testbed, achiev ing a mean absolute error (MAE) of 6.25cm in LOS and 3.40cm in NLOS after post-processing. A compara tive study with Ultra-Wideband (UWB) shows that the hybrid BCS+AI system approaches UWB accuracy in NLOS scenarios, with an MAE of 7.33cm versus 5.42cm for UWB. Finally, two 2D localization methods—Min Max and a trigonometric approach—are implemented and compared.

The results confirm the potential of BCS com bined with AI as a cost-effective alternative to UWB for indoor localization.</p>

Links

Where it is published

Catalogue records · 1

Topics

Provenance · 3 source records, 14 field assertions
SourceKeyLast seenRaw
ZivaHuboai:figshare.com:article/3403382412 d agoJSON v1
Deakin Research Onlineoai:figshare.com:article/3403382412 d agoJSON v1
DMU Figshareoai:figshare.com:article/3403382412 d agoJSON v1
FieldAssertionExtractorEvidence
access_levelsource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
concepts[field].anzsrc:group:4611mapping · figshare dmu ac ukvocabulary-mapper@1.0.0keywords['Machine learning']
concepts[field].anzsrc:group:4611mapping · zivahub uct ac zavocabulary-mapper@1.0.0keywords['Machine learning']
concepts[field].anzsrc:group:4611mapping · dro deakin edu auvocabulary-mapper@1.0.0keywords['Machine learning']
concepts[field].local:field:computer-science-aimapping · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
concepts[field].local:field:computer-science-aimapping · figshare dmu ac ukconnector:figshare_dmu_ac_uk@1.0.0
concepts[field].local:field:computer-science-aimapping · dro deakin edu auconnector:dro_deakin_edu_au@1.0.0
concepts[field].local:field:earth-environmentalmapping · figshare dmu ac ukconnector:figshare_dmu_ac_uk@1.0.0
concepts[field].local:field:earth-environmentalmapping · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
concepts[field].local:field:earth-environmentalmapping · dro deakin edu auconnector:dro_deakin_edu_au@1.0.0
descriptionsource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/description
licensesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/rights
publication_datesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0
titlesource · zivahub uct ac zaconnector:zivahub_uct_ac_za@1.0.0/metadata/dc/title