34 indoor location systems from 31 teams have registered to participate to the competition. Given the type and number of submissions we received, we had to classify all teams in two categories similarly to the previous years: Infrastructure-Free (12 submissions) and Infrastructure-Based (22 submissions) systems. A list of all the teams in each of the categories is provided below.
All teams that have been assigned an evaluation time slot have at least one member officially registered. Teams that have not been assigned an evaluation time slot will not be allowed to compete during the competition. The data in the table below reflects registrations as of March 20th 2018.
Infrastructure-Free (2D Localization)
| Authors | Affiliation | Title | Evaluation Time Slot |
| Qu et al. | China – Tongji University/Naviguy | Inertial Sensing Approach for Indoor Localization | 8:30-8:45 |
| Qu et al.. | China – Tongji University/Naviguy | Precise Indoor Localization Fusion System | 8:45-9:00 |
| Ben-Moshe et al. | Israel – Ariel University | GoIn – An Accurate InDoor Navigation Framework for Mobile Devices | 10-10:15 |
| Ben-Moshe et al.. | Israel – Ariel University | Steps – An Accurate Relative Positioning Method for First-Responders | 10:15-10:30 |
| Martinez et al. | Spain – Universidad de Castilla-La Mancha | An Indoor Localization System Based on Particle Filters and Real-Time Range-Free Estimation Method | N/A |
| Zhang et al.. | China – Tianjin University | Implementation of Real-Time Pedestrian Navigation System using Foot-Mounted IMU | N/A |
| Joshi et al. | India – IIT Delhi | PDR-RSS Based Indoor Localization | N/A |
| Rea et al.. | Spain – IMDEA Networks Institute | TWINS: Time-of-Flight Based Wireless Indoor Navigation System | 9-9:15 |
| Xu et al. | China – Nokia/Tongji university/Naviguy/Ruijie Networks | Indoor Localization Based on CSI and Mobile Sensors | 9:15-9:30 |
| Fineway et al.. | China – Beijing Fineway Technology Ltd. Co. | An Inertial Sensor-based Indoor Location Tracking Solution | 9:30-9:45 |
| Ali et al. | South Korea – Yeungnam University | Infrastructure-free Indoor Positioning System Using Smart Phone Sensors | 9:45-10 |
| Jia et al.. | China – Center for Indoor Positioning Studies | Geomagnetism and WiFi Fingerprint Fusion Based Indoor Location | N/A |
Infrastructure-Based (3D Localization)
| Authors | Affiliation | Title | Eval. Time Slot |
| Lin et al. | China – China Academy of Electronics and Information Tech./Beijing Institute of Technology | VL-Loc: An Indoor Localization System Based on Mobile Phone and Illumination Facility | 15:30-15:45 |
| Li et al.. | China – ElegenTech Co./Nanjing University of Aeronautics and Astronautics | A Low Cost 3D Positioning Solution of High Accuracy and High Refresh Rate for Robot Control | 10:30-10:45 |
| Kukovyakina et al. | Russia – National Research University MPEI | SKM: low-cost precise positioning based on TDoA UWB and MEMS IMU | 10:45-11 |
| Huang et al. | China – Zhejiang University | AALOC: An Accurate Acoustic Indoor Localization System | 11-11:15 |
| Chen et al.. | China/U.K. – Zhejiang University/University of West London | AIDLOC: An Accurate Acoustic 3D Indoor Localization System | 11:15-11:30 |
| Zhang et al. | China/U.K. – Zhejiang University/University of West London | MAIDLOC: A Modified Accurate Acoustic Indoor Localization System | 11:30-11:45 |
| Schroder et al.. | Germany – TU Braunschweig | InPhase: No-Cost Phase-Based Ranging and Localization | 11:45-12 |
| Ansell et al. | U.K. – RaceLogic | Indoor Positioning System for Highly Dynamic Applications | 12-12:15 |
| Zhang et al.. | China/U.K. – Zhejiang University/ University of West London | RA2LOC: A Robust Accurate Acoustic Indoor Localization System | 12:15-12:30 |
| Tiemann et al. | Germany – TU Dortmund University | ATLAS: TDOA-based UWB Localization | 14-14:15 |
| Gunes et al.. | Germany – Quantitec GmbH | IntraNav – Low-cost Indoor Localization System and IoT Platform | N/A |
| Gao et al. | China – SND Smart Ltd. Com./ATE Electronics Ltd. Com. | NavInThings – An Indoor Localization and Navigation System based on UWB | 14:15-14:30 |
| Collier et al.. | France – INTELLIDOM | UWB-Based Indoor Localization System | 15:45-16:00 |
| Sardar et al. | India/South Africa – IIT Hyderabad/University of Cape Town | Indoor Localization System Based on Commensal Radar Principle | N/A |
| Chen et al.. | Saudi Arabia – King Abdullah University of Science and Technology | KAUST Acoustic Positioning System | N/A |
| De et al.. | USA – UIUC | Finding by Counting – A Packet Count Based Indoor Localization Technique Using BLE Sensors | N/A |
| Li et al.. | Canada – McMaster University | 3D Indoor Localization with Commercial-off-the-shelf UWB Radios | 14:30-14:45 |
| Strachen et al.. | USA – University of Wisconsin-Madison | Accurate Indoor Navigation with Spinning Magnets | N/A |
| Iqbal et al.. | Pakistan – National University of Sciences and Technology | RSSI Based Indoor Localization Using RF Beacons | N/A |
| Lazik et al.. | USA – CMU | ALPS: The Acoustic Location Processing System | 15:15-15:30 |
| Miller et al.. | USA – CMU | Realty and Reality: Where Location Matters | 14:45-15 |
| Schmitz et al.. | Germany – RWTH Aachen University/Roboter Club Aachen e.V. | Ultrasound-based Cooperative Indoor Localization for Robotic Applications | 15-15:15 |