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Characterization of vehicle flow for intelligent
transportation systems
People’s Democratic Republic of Algeria
Ministry of Higher Education and Scientific Research
M’Hamed BOUGARA University – Boumerdes
Institute of Electrical and Electronic Engineering
Department of Electronics
MASTER
In Electrical and Electronic Engineering
Option: Telecommunications
Title
Presented by:
•Abdenour BOUAICHA
Supervisor:
Dr. Fatma KEROUH
Outline
Introduction
Intelligent Transportation Systems
 Problems of visual based systems
Proposed system
Results and discussions
Conclusion and perspectives
3
Introduction
Problem statement
The solution???
4
Intelligent Transportation
systemsWhat /why ITS?
5
The major categories of ITS?
Intelligent
Transportation
Systems
Advanced Traffic
Management
Systems
Advanced
Travelers
Information
Systems
Commercial
Vehicle
Operation
Advanced Public
Transportation
Systems
Advanced
Vehicle Control
Systems
Advanced Rural
Transportation
Systems
6
Intelligent Transportation
systems
ITS classes?
Radar Camera
GPS
GPRS
…
7
Intelligent Transportation
systems
Non visual
based systems
Intelligent
Transportation
Systems
Visual based
Systems
Video quality Software
Blur effect Complexity
Bad illumination Execution time
Illumination changing …..
Shadow
Noise
Multiple vehicle occlusion
…..
8
Problems of visual based systems
Problems of visual based systems
ITS needs Information
Information requires Data.
Data relies on smart video surveillance.
Fast Robust Reliable
9
Intelligent Transportation
Systems
Our purpose?
Why?
• Accumulating the statistics.
Identifying critical flow time periods.
Determining the influence of large vehicles or pedestrians
on vehicular traffic flow.
Knowing the reasons of traffic congestion, road
degradation, and air pollution.
…… 10
Surveillance
camera
Image processing
techniques
Vehicle
detection,
counting,
classification and
speed estimation
Proposed vision based ITS
11
-Vehicle detection
and counting.
-Vehicle
Classification.
- Vehicle speed
estimation.
Processing
Preprocessing
Video
Proposed ITS(preprocessing)
12
Color
conversion
Read the frame LBP Selecting ROI
Proposed ITS(preprocessing)
13
Middle
Best ROI Inside the lane
Neither greater nor Small
Selected best fixed location of ROI’s
14
Proposed ITS(preprocessing)
Proposed vision based ITS
15
Start
The camera is
activated
Preprocessing
The vehicle passing the
ROI
Vehicle detection, counting, classification,
and speed estimation
i++ Yes
No
Yes
End
No
Proposed ITS (Detection, counting, and
classification)
16
Proposed idea: Vehicle detected
Vehicle counted
and classified
Proposed ITS (Detection and
counting)
17
Start
Read ref
Preprocessing
Camera is
activated
Read rf
Preprocessing
Compute D
D >Th1
&&
D<=Th2
Count++End
Yes
No
Yes
No
Proposed ITS (Detection and counting)
18
Thresholds VS noise
number of rames
D
Proposed ITS (Classification)
19
Start
Read ref
Preprocessing
Camera is
activated
End
CCF++
Vehicle is
detected
Vehicle
is
counted
CCF >=
Th3
Big
Small
No
No
No
No
Yes
Yes
Yes
Yes
Proposed ITS (Speed estimation)
20
Proposed idea:
Proposed ITS (Speed estimation)
21
Start
Camera is
activated
End
Vehicle is
counted in
first ROI
Vehicle is
counted in
second
ROI
COUNT2
COUNT1
COUNT1 !
= COUNT2
Spd++
Calculate the
Speed
Yes Yes
Yes
Yes
No
No
No
No
Experiments, Results and
Discussions
Video1 Video2
Video3 Video4
22
Experiments, Results and
DiscussionsThe characteristics of the tested videos
The video
settings
Video1 Video2 Video3 Video4
Frame rate 14.999 25 30 30
Number of
frames
500 750 878 1071
Duration 33.34 30 29.70 36.13
Height 240 240 720 720
Width 320 320 1280 1280
23
24
Experiments, Results and Discussions
Bad
illumination
Blurring
occlusoion
Invariant
illumination
Strongest
shadow
Vibration of
camera
Noise Bad
illumination
Illumination
changing
shadow occlusion Blur Fixed
camera
Video1 Y Y N Y N Y N
Video2 Y N Y Y Y Y N
Video3 Y N N Y N Y Y
Video4 Y N N Y N Y Y
25
Experiments, Results and
Discussions
Experiments, Results and
DiscussionsVehicle detection and counting
ROI Video 1 Video 2 Video 3 Video 4
GT OR GT OR GT OR GT OR
ROI 1 13 13 13 13 5 6 4 4
ROI 2 6 6 9 9 9 9 17 14
ROI 3 12 12 8 8 15 14 20 15
ROI 4 13 13 13 13 16 16 22 26
Total 44 44 43 43 45 45 63 59
Accuracy 100% 100% 95.56% 93.65%
Runtime of
one
frames(sec)
0.0702 0.0467 0.1747 0.1713
26
Experiments, Results and
Discussions
Vehicle detection and classification
ROI Video 1 Video 2 Video 3 Video 4
S B RS RB S B RS RB S B RS RB S B RS RB
ROI 1 13 0 13 0 8 1 9 0 5 0 5 1 4 0 4 0
ROI 2 5 1 5 1 9 0 9 0 7 2 7 2 15 2 10 4
ROI 3 12 0 12 0 7 1 8 0 15 0 14 0 19 1 12 3
ROI 4 13 0 13 0 10 3 13 0 12 4 7 9 22 0 23 3
Accuracy
rate
100% 88.37% 88.88% 88.88%
Runtime
of one
frame
(sec)
0.0710 0.0463 0.1712 0.1737
2 27
Experiments, Results and
Discussions
Vehicle detection and speed estimation(Km/h)
The vehicle ROI1 ROI2 ROI3 ROI4
1 59.85 39.9 59.85 119.7
2 59.85 59.85 59.85 59.85
3 59.85 59.85 59.85 39.9
4 59.85 119.7 59.85 119.7
5 119.7 39.9 39.9 39.9
6 59.85 59.85 39.9 59.85
7 59.85 59.85 59.85 119.7
8 59.85 59.85 59.85 119.7
9 59.85 29.925 - 119.7
10 39.9 - - 119.7
11 39.9 - - 119.7
12 59.85 - - 119.7
13 59.85 - - 119.7
28
Experiments, Results and
Discussions
Vehicle detection and speed estimation (Km/h)
The
counte
r
ROI1 ROI2
1 39.91 39.9075
2 39.91 39.9075
3 53.21 35.4733
4 53.21 35.4733
5 53.21 35.4733
6 53.21 63.872
7 - 63.852
8 - 53.21
9 - 53.21
The
counter
ROI1
1 40.21
2 40.21
3 40.21
4 106.73
29
Video The task The
running
-time
Percentage
accuracy
Count Class Speed Coun
t
Class
Video 1 Y Y - 0.0782 100% 100%
Video 2 Y Y Y 0.0938 100% 90.91
%
Video 3 Y Y Y 0.1901 95.56
%
88.88
%
Video 4 Y Y Y 0.2031 93.85
%
88.88
%
Total - - - - 97.3% 92.42
%
30
Experiments, Results and Discussions
31
Final Project
Analyzing the proposed approach
The strengths
Real time
Simple
Robust against to bad and changing illumination
Robust against to the noise
Robust against to the blur effect
Robust against to the occlusion
Simple camera
32
The weaknesses
Vehicle passing through portion of ROI.
Fixed camera.
Vehicle congestion.
33
Analyzing the proposed approach
Conclusion and perspectives
 Introducing the concepts of ITS.
 Showing the problems on visual based systems.
 Developing a simple and real-time ITS that detects, counts, classifies
and estimates the speed of vehicles.
 Proposed ITS relies on selected best ROI which in middle and inside
of the lane with neither small length nor big.
 Separating the ROI solved problem of multiple vehicles occlusion.
 Using LBP have shown that our system is robust against bad and
changing illumination.
 Using adaptive thresholds solve the problem of noise and blur effect.
 The percentage accuracy of counting is: 97.3%.
 The percentage accuracy of classification is: 92.42%
34
Conclusion and perspectives
Perspectives:
-Test the proposed system on long videos that
contains more challenging problems.
-Consider more classes in the classification step
(small, medium, and big vehicles).
-Acquire videos with ground truth to test deeply the
speed estimation part.
-Plan to build android application.
35
36

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Characterization of vehicle flow for ITS

  • 1. 1
  • 2. Characterization of vehicle flow for intelligent transportation systems People’s Democratic Republic of Algeria Ministry of Higher Education and Scientific Research M’Hamed BOUGARA University – Boumerdes Institute of Electrical and Electronic Engineering Department of Electronics MASTER In Electrical and Electronic Engineering Option: Telecommunications Title Presented by: •Abdenour BOUAICHA Supervisor: Dr. Fatma KEROUH
  • 3. Outline Introduction Intelligent Transportation Systems  Problems of visual based systems Proposed system Results and discussions Conclusion and perspectives 3
  • 6. The major categories of ITS? Intelligent Transportation Systems Advanced Traffic Management Systems Advanced Travelers Information Systems Commercial Vehicle Operation Advanced Public Transportation Systems Advanced Vehicle Control Systems Advanced Rural Transportation Systems 6 Intelligent Transportation systems
  • 7. ITS classes? Radar Camera GPS GPRS … 7 Intelligent Transportation systems Non visual based systems Intelligent Transportation Systems Visual based Systems
  • 8. Video quality Software Blur effect Complexity Bad illumination Execution time Illumination changing ….. Shadow Noise Multiple vehicle occlusion ….. 8 Problems of visual based systems
  • 9. Problems of visual based systems ITS needs Information Information requires Data. Data relies on smart video surveillance. Fast Robust Reliable 9
  • 10. Intelligent Transportation Systems Our purpose? Why? • Accumulating the statistics. Identifying critical flow time periods. Determining the influence of large vehicles or pedestrians on vehicular traffic flow. Knowing the reasons of traffic congestion, road degradation, and air pollution. …… 10 Surveillance camera Image processing techniques Vehicle detection, counting, classification and speed estimation
  • 11. Proposed vision based ITS 11 -Vehicle detection and counting. -Vehicle Classification. - Vehicle speed estimation. Processing Preprocessing Video
  • 13. Proposed ITS(preprocessing) 13 Middle Best ROI Inside the lane Neither greater nor Small
  • 14. Selected best fixed location of ROI’s 14 Proposed ITS(preprocessing)
  • 15. Proposed vision based ITS 15 Start The camera is activated Preprocessing The vehicle passing the ROI Vehicle detection, counting, classification, and speed estimation i++ Yes No Yes End No
  • 16. Proposed ITS (Detection, counting, and classification) 16 Proposed idea: Vehicle detected Vehicle counted and classified
  • 17. Proposed ITS (Detection and counting) 17 Start Read ref Preprocessing Camera is activated Read rf Preprocessing Compute D D >Th1 && D<=Th2 Count++End Yes No Yes No
  • 18. Proposed ITS (Detection and counting) 18 Thresholds VS noise number of rames D
  • 19. Proposed ITS (Classification) 19 Start Read ref Preprocessing Camera is activated End CCF++ Vehicle is detected Vehicle is counted CCF >= Th3 Big Small No No No No Yes Yes Yes Yes
  • 20. Proposed ITS (Speed estimation) 20 Proposed idea:
  • 21. Proposed ITS (Speed estimation) 21 Start Camera is activated End Vehicle is counted in first ROI Vehicle is counted in second ROI COUNT2 COUNT1 COUNT1 ! = COUNT2 Spd++ Calculate the Speed Yes Yes Yes Yes No No No No
  • 23. Experiments, Results and DiscussionsThe characteristics of the tested videos The video settings Video1 Video2 Video3 Video4 Frame rate 14.999 25 30 30 Number of frames 500 750 878 1071 Duration 33.34 30 29.70 36.13 Height 240 240 720 720 Width 320 320 1280 1280 23
  • 24. 24 Experiments, Results and Discussions Bad illumination Blurring occlusoion Invariant illumination Strongest shadow Vibration of camera
  • 25. Noise Bad illumination Illumination changing shadow occlusion Blur Fixed camera Video1 Y Y N Y N Y N Video2 Y N Y Y Y Y N Video3 Y N N Y N Y Y Video4 Y N N Y N Y Y 25 Experiments, Results and Discussions
  • 26. Experiments, Results and DiscussionsVehicle detection and counting ROI Video 1 Video 2 Video 3 Video 4 GT OR GT OR GT OR GT OR ROI 1 13 13 13 13 5 6 4 4 ROI 2 6 6 9 9 9 9 17 14 ROI 3 12 12 8 8 15 14 20 15 ROI 4 13 13 13 13 16 16 22 26 Total 44 44 43 43 45 45 63 59 Accuracy 100% 100% 95.56% 93.65% Runtime of one frames(sec) 0.0702 0.0467 0.1747 0.1713 26
  • 27. Experiments, Results and Discussions Vehicle detection and classification ROI Video 1 Video 2 Video 3 Video 4 S B RS RB S B RS RB S B RS RB S B RS RB ROI 1 13 0 13 0 8 1 9 0 5 0 5 1 4 0 4 0 ROI 2 5 1 5 1 9 0 9 0 7 2 7 2 15 2 10 4 ROI 3 12 0 12 0 7 1 8 0 15 0 14 0 19 1 12 3 ROI 4 13 0 13 0 10 3 13 0 12 4 7 9 22 0 23 3 Accuracy rate 100% 88.37% 88.88% 88.88% Runtime of one frame (sec) 0.0710 0.0463 0.1712 0.1737 2 27
  • 28. Experiments, Results and Discussions Vehicle detection and speed estimation(Km/h) The vehicle ROI1 ROI2 ROI3 ROI4 1 59.85 39.9 59.85 119.7 2 59.85 59.85 59.85 59.85 3 59.85 59.85 59.85 39.9 4 59.85 119.7 59.85 119.7 5 119.7 39.9 39.9 39.9 6 59.85 59.85 39.9 59.85 7 59.85 59.85 59.85 119.7 8 59.85 59.85 59.85 119.7 9 59.85 29.925 - 119.7 10 39.9 - - 119.7 11 39.9 - - 119.7 12 59.85 - - 119.7 13 59.85 - - 119.7 28
  • 29. Experiments, Results and Discussions Vehicle detection and speed estimation (Km/h) The counte r ROI1 ROI2 1 39.91 39.9075 2 39.91 39.9075 3 53.21 35.4733 4 53.21 35.4733 5 53.21 35.4733 6 53.21 63.872 7 - 63.852 8 - 53.21 9 - 53.21 The counter ROI1 1 40.21 2 40.21 3 40.21 4 106.73 29
  • 30. Video The task The running -time Percentage accuracy Count Class Speed Coun t Class Video 1 Y Y - 0.0782 100% 100% Video 2 Y Y Y 0.0938 100% 90.91 % Video 3 Y Y Y 0.1901 95.56 % 88.88 % Video 4 Y Y Y 0.2031 93.85 % 88.88 % Total - - - - 97.3% 92.42 % 30 Experiments, Results and Discussions
  • 32. Analyzing the proposed approach The strengths Real time Simple Robust against to bad and changing illumination Robust against to the noise Robust against to the blur effect Robust against to the occlusion Simple camera 32
  • 33. The weaknesses Vehicle passing through portion of ROI. Fixed camera. Vehicle congestion. 33 Analyzing the proposed approach
  • 34. Conclusion and perspectives  Introducing the concepts of ITS.  Showing the problems on visual based systems.  Developing a simple and real-time ITS that detects, counts, classifies and estimates the speed of vehicles.  Proposed ITS relies on selected best ROI which in middle and inside of the lane with neither small length nor big.  Separating the ROI solved problem of multiple vehicles occlusion.  Using LBP have shown that our system is robust against bad and changing illumination.  Using adaptive thresholds solve the problem of noise and blur effect.  The percentage accuracy of counting is: 97.3%.  The percentage accuracy of classification is: 92.42% 34
  • 35. Conclusion and perspectives Perspectives: -Test the proposed system on long videos that contains more challenging problems. -Consider more classes in the classification step (small, medium, and big vehicles). -Acquire videos with ground truth to test deeply the speed estimation part. -Plan to build android application. 35
  • 36. 36