Use of multiple low level features to find interesting regions

Vehicle-based mobile mapping systems capture co-registered imagery and 3D point cloud information over hundreds of kilometres of transport corridor. Methods for extracting information from these large datasets are labour intensive and automatic methods are desired. In addition, such methods need to...

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Main Authors: Borck, M., West, Geoff, Tan, T.
Format: Conference Paper
Published: 2014
Online Access:http://hdl.handle.net/20.500.11937/8999
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author Borck, M.
West, Geoff
Tan, T.
author_facet Borck, M.
West, Geoff
Tan, T.
author_sort Borck, M.
building Curtin Institutional Repository
collection Online Access
description Vehicle-based mobile mapping systems capture co-registered imagery and 3D point cloud information over hundreds of kilometres of transport corridor. Methods for extracting information from these large datasets are labour intensive and automatic methods are desired. In addition, such methods need to be easily configured by non-expert users to detect and measure many classes of objects. This paper describes a workflow to take a large number of image and depth features, use machine learning to generate an object detection system that is fast to configure and run. The output is high detection of the objects of interest but with an acceptable number of false alarms. This is desirable as the output is fed into a more complex and hence more computationally expensive analysis system to reject the false alarms and measure the remaining objects. Image and depth features from bounding boxes around objects of interest and random background are used for training with some popular learning algorithms. The interface allows a non-expert user to observe the performance and make modifications to improve the performance. Copyright © 2014 SCITEPRESS.
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spelling curtin-20.500.11937-89992017-01-30T11:09:57Z Use of multiple low level features to find interesting regions Borck, M. West, Geoff Tan, T. Vehicle-based mobile mapping systems capture co-registered imagery and 3D point cloud information over hundreds of kilometres of transport corridor. Methods for extracting information from these large datasets are labour intensive and automatic methods are desired. In addition, such methods need to be easily configured by non-expert users to detect and measure many classes of objects. This paper describes a workflow to take a large number of image and depth features, use machine learning to generate an object detection system that is fast to configure and run. The output is high detection of the objects of interest but with an acceptable number of false alarms. This is desirable as the output is fed into a more complex and hence more computationally expensive analysis system to reject the false alarms and measure the remaining objects. Image and depth features from bounding boxes around objects of interest and random background are used for training with some popular learning algorithms. The interface allows a non-expert user to observe the performance and make modifications to improve the performance. Copyright © 2014 SCITEPRESS. 2014 Conference Paper http://hdl.handle.net/20.500.11937/8999 fulltext
spellingShingle Borck, M.
West, Geoff
Tan, T.
Use of multiple low level features to find interesting regions
title Use of multiple low level features to find interesting regions
title_full Use of multiple low level features to find interesting regions
title_fullStr Use of multiple low level features to find interesting regions
title_full_unstemmed Use of multiple low level features to find interesting regions
title_short Use of multiple low level features to find interesting regions
title_sort use of multiple low level features to find interesting regions
url http://hdl.handle.net/20.500.11937/8999