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* [[Special_Sessions#ss7| SS7 Multi-Robot Systems and Mobile Sensor Networks]] | * [[Special_Sessions#ss7| SS7 Multi-Robot Systems and Mobile Sensor Networks]] | ||
* [[Special_Sessions#ss8| SS8 Multisensor Fusion Methods for Radiation Source Localization]] | * [[Special_Sessions#ss8| SS8 Multisensor Fusion Methods for Radiation Source Localization]] | ||
+ | * [[Special_Sessions#ss9| SS9 Multiple (Extended) Object Tracking]] | ||
</div> | </div> | ||
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'''Organizers:''' [mailto:john_mattingly@ncsu.edu John Mattingly] | '''Organizers:''' [mailto:john_mattingly@ncsu.edu John Mattingly] | ||
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+ | |} | ||
+ | | style="border:1px solid transparent;" |<br /> | ||
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+ | |||
+ | <!-- MFI 2016 Accepted Special Sessions --> | ||
+ | {| id="mp-upper" style="width: 100%; margin:4px 0 0 0; background:none; border-spacing: 0px;" | ||
+ | <div id="ss9"></div> | ||
+ | <!-- SS9 Multiple (Extended) Object Tracking --> | ||
+ | | class="MainPageBG" style="width:100%; border:1px solid #bdd6c6; background:#e7f7e7; vertical-align:top; color:#000;" | | ||
+ | {| id="mp-left" style="width:100%; vertical-align:top; background:#e7f7e76;" | ||
+ | | style="padding:2px;" | <h2 id="mp-tfa-h2" style="margin:3px; background:#d6efd6; font-family:inherit; font-size:120%; font-weight:bold; border:1px solid #bdd6c6; text-align:left; color:#000; padding:0.2em 0.4em;">SS9 Multiple (Extended) Object Tracking</h2> | ||
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+ | | style="color:#000;" | <div id="mp-tfa" style="padding:2px 5px"> | ||
+ | '''Description:''' Autonomous driver safety functions are standard in many modern cars, and semi-automated systems (e.g., traffic jam assist) are becoming more and more common. Construction of a driverless vehicle requires solutions to many different problems, among them multiple object tracking. The multiple object tracking problem is defined as keeping track of an unknown naumber of moving objects, and historically it has been focused on so called point objects which give at most one detection per time step. However, modern sensors have increasingly higher resolution, meaning that it is common to see multiple detections per object. For example, this is the case when automotive radar or lidar sensors are used. In order to be able to use point object algorithms for these sensors, heuristic clustering algorithms are applied to the raw measurements to obtain object hypotheses. In challenging scenarios, the hard decisions of the clustering algorithms affect the performance of the tracking algorithm due to the associated loss of information. | ||
+ | Consequently, so called extended object tracking algorithms which are capable of handling several measurements per object are required. This special session addresses recent results in the area of multiple object tracking for both point objects and especially extended objects. | ||
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+ | '''Organizers:''' [mailto:karl.granstrom@chalmers.se Karl Granström], [mailto:stephan.reuter@uni-ulm.de Stephan Reuter], [mailto:marcus.baum@cs.uni-goettingen.de Marcus Baum] | ||
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Revision as of 09:58, 23 May 2016
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