Multistatic LiDAR Sensors for Advancing Safety of Autonomous Vehicles
Multistatic LiDAR Sensors for Advancing Safety of Autonomous Vehicles
This research endeavour aims at exploring multistatic LiDAR sensors to better locate objects with the ultimate aim of improving safety of autonomous vehicles.
Improving road safety is not being achieved. There are still traffic accidents, mainly caused by human errors. The autonomous vehicles claim to reduce traffic accidents if they can ‘see’ like humans without making mistakes like humans. Arguably, if all vehicles are equipped with sensors suites, including LiDAR technology along with other sensors, human errors could be eliminated. However, this is not being achieved to date.
Multistatic considerations can be similarly applied to radar, sonar and LiDAR applications. Multistatic LiDAR is a system containing multiple monostatic or bistatic LiDARs with LiDAR components spatially diverse looking into a shared area of coverage.
The challenge in the race of autonomous vehicles achieving full autonomy is to improve the performance of sensors to reliably detect the surrounding environment at least as safely as with a competent human driver sat in the driver’s seat. This research is much needed and timely as there is a shift of focus of technologies in transport towards people rather than cars.
Limited literature review was found on multistatic LiDAR, however research on multistatic Radar concluded it can improve resolution. Radar and LiDAR are similar in techniques. Radar emits radio waves while LiDAR uses lasers with lower wavelength and higher accuracy allowing to detect smaller objects. The combination of multistatic radar with deep learning also showed good results. Deep Learning have become indispensable in the design and implementation of autonomous vehicles. Previous work showed it is possible using deep learning with lasers to access the hidden environment. Also, LiDAR sensors combined with a camera used deep learning and got significantly better reconstruction of image from fewer measurements. Additional work was conducted on the application and flexibility of deep learning techniques and how they can give better results for traffic signals if combined with LiDAR sensors. Some very recent work was conducted on the use of multistatic Radar for automotive applications. The work mentioned gap in the work of multistatic LiDAR for automotive industry. The combination with neural network could provide advanced results.
The novelty in this research is to explore how to improve object detection and position finding through experimental multistatic LiDAR hybrid solution using triangulation and deep learning.
Nazer, Zeina
1f81566d-fd03-4203-a5f3-52180e539f63
Muskens, Otto
2284101a-f9ef-4d79-8951-a6cda5bfc7f9
Waterson, Ben
60a59616-54f7-4c31-920d-975583953286
9 September 2022
Nazer, Zeina
1f81566d-fd03-4203-a5f3-52180e539f63
Muskens, Otto
2284101a-f9ef-4d79-8951-a6cda5bfc7f9
Waterson, Ben
60a59616-54f7-4c31-920d-975583953286
Nazer, Zeina, Muskens, Otto and Waterson, Ben
(2022)
Multistatic LiDAR Sensors for Advancing Safety of Autonomous Vehicles.
50th European Transport Conference 2022, Milan, Milan, Italy.
29 pp
.
Record type:
Conference or Workshop Item
(Paper)
Abstract
This research endeavour aims at exploring multistatic LiDAR sensors to better locate objects with the ultimate aim of improving safety of autonomous vehicles.
Improving road safety is not being achieved. There are still traffic accidents, mainly caused by human errors. The autonomous vehicles claim to reduce traffic accidents if they can ‘see’ like humans without making mistakes like humans. Arguably, if all vehicles are equipped with sensors suites, including LiDAR technology along with other sensors, human errors could be eliminated. However, this is not being achieved to date.
Multistatic considerations can be similarly applied to radar, sonar and LiDAR applications. Multistatic LiDAR is a system containing multiple monostatic or bistatic LiDARs with LiDAR components spatially diverse looking into a shared area of coverage.
The challenge in the race of autonomous vehicles achieving full autonomy is to improve the performance of sensors to reliably detect the surrounding environment at least as safely as with a competent human driver sat in the driver’s seat. This research is much needed and timely as there is a shift of focus of technologies in transport towards people rather than cars.
Limited literature review was found on multistatic LiDAR, however research on multistatic Radar concluded it can improve resolution. Radar and LiDAR are similar in techniques. Radar emits radio waves while LiDAR uses lasers with lower wavelength and higher accuracy allowing to detect smaller objects. The combination of multistatic radar with deep learning also showed good results. Deep Learning have become indispensable in the design and implementation of autonomous vehicles. Previous work showed it is possible using deep learning with lasers to access the hidden environment. Also, LiDAR sensors combined with a camera used deep learning and got significantly better reconstruction of image from fewer measurements. Additional work was conducted on the application and flexibility of deep learning techniques and how they can give better results for traffic signals if combined with LiDAR sensors. Some very recent work was conducted on the use of multistatic Radar for automotive applications. The work mentioned gap in the work of multistatic LiDAR for automotive industry. The combination with neural network could provide advanced results.
The novelty in this research is to explore how to improve object detection and position finding through experimental multistatic LiDAR hybrid solution using triangulation and deep learning.
Text
ETC Presentation- Multistatic LiDAR for Autonomous Vehicles Appplications - 9 Sep 2022- v1
- Version of Record
More information
Published date: 9 September 2022
Venue - Dates:
50th European Transport Conference 2022, Milan, Milan, Italy, 2022-09-09
Identifiers
Local EPrints ID: 473649
URI: http://eprints.soton.ac.uk/id/eprint/473649
PURE UUID: 4c029008-42ee-4c1c-b55d-180cd8fb3125
Catalogue record
Date deposited: 26 Jan 2023 17:42
Last modified: 17 Mar 2024 03:54
Export record
Download statistics
Downloads from ePrints over the past year. Other digital versions may also be available to download e.g. from the publisher's website.
View more statistics