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Laureando: Muhammad Umar Riaz
Matricola: 80929
Texture Classification Methods
For Human Detection
Relatore: Dott. Sergio Benini
Correlatore: Ing. Michele Svanera
Scenario
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Human detection:
❖ visual content management
❖ video surveillance
❖ autonomous vehicles, for
pedestrian detection
Scenario
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Human detection -> Major limitation:
❖ incapability to perform when the
only available information is
human hair
Objectives
hair detection and segmentation in the wild
(with pure texture analysis)
(with no a-priori knowledge of face/head location)
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
System
processing
Figaro database
❖ It contains 840 unconstrained view images, subdivided into seven different hair
texture classes
Straight Wavy Curly Kinky Braids Dreadlocks Short-men
Description Ground-truth
http://projects.i-ctm.eu/en/project/figaro
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
All images in the database contain the corresponding manually labelled ground truth
Ground truth
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Description Ground-truth
Proposed pipeline
Feature
extraction
Patch-based
classification
Pixel-level
segmentation
System
processing
Workflow Feature extraction Patch-based classification Pixel-level classification
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Feature extraction
Workflow Feature extraction Patch-based classification Pixel-level classification
Feature
extraction
Pixel-level
segment.
Feature vector
Patch
class.
Workflow HOG LTP DeCAF
HOG
LTP
DeCAF
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Histogram of Oriented Gradients (HOG)
Workflow Feature extraction Patch-based classification Pixel-level classification
histogram of gradients
Workflow HOG LTP DeCAF
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Local Ternary Patterns (LTP)
Workflow Feature extraction Patch-based classification Pixel-level classification
Workflow HOG LTP DeCAF
En =
8
><
>:
1, Vn  V0 + t
0, |Vn V0| < t
+1, Vn V0 + t
n = 1, 2, .., 8
Vn
V0
t
neighbouring pixel index
intensity value of neighbouring pixel
central pixel intensity
threshold value
n = 1, 2, .., 8
Vn
V0
t
n = 1, 2, .., 8
Vn
V0
t
n = 1, 2, .., 8
Vn
V0
t
histogram of TU numbers
. . . .Neighbourhood
63 28 30
88 40 35
67 40 21
1 -1 0
1 0
1 0 -1
1 0 0
1 0
1 0 0
Thresholded
neighbourhood
0 1 0
0 0
0 0 1
41
1 0 0
8 0
32 0 0
0 2 0
0 0
0 0 128
1 2 4
8 16
32 64 128
Upper pattern
Lower pattern
Pixel weights
Upper texture unit
Lower texture unit
130
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Upper TU
number
Lower TU
number
Deep Convolutional Activation Feature (DeCAF)
Workflow Feature extraction Patch-based classification Pixel-level classification
❖ CaffeNet
❖ Input image:
227x227x3
❖ conv1: 55x55x96
❖ conv2: 27x27x256
❖ conv3: 13x13x384
❖ conv4: 13x13x384
❖ conv5: 13x13x256
❖ fc6: 4096
❖ fc7: 4096
❖ Output: 1000
Workflow HOG LTP DeCAF
N.B. Input constraint of 227x227
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Patch-based classification
Workflow Feature extraction Patch-based classification Pixel-level classification
Workflow Results
Random Forest
Learning
Feature
extract.
Training set Training gt
Learnt
Random Forest
Classifier
evaluation
Feature
extract.
Testing set Testing gtTesting results
Feature
extraction
Pixel-level
segment.
Patch
class.
Testing
Training
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Results
Workflow Feature extraction Patch-based classification Pixel-level classification
Workflow Results
Features Parameters Precision(%) Recall(%) Accuracy(%) F1-score(%)
HOG Patch = 35x35, Cell = 35x35, Bins= 12 65.7 87.4 81.4 75.0
LTP Patch = 35x35, LTP_thr = 0.05 75.3 83.2 85.9 79.0
HOG + LTP Patch = 35x35, Cell = 35x35, Bins= 12, LTP_thr = 0.02 74.6 84.4 85.9 79.2
DeCAF Patch = 227x227, Step size = 32, fc7 43.3 98.8 58.3 60.2
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
LTP Class.
DeCAF Class.
Ground truth
High Precision Pixel-level classificationLTP Class.
DeCAF Class.
Ground truth
Pixel-level classification
Workflow Feature extraction Patch-based classification Pixel-level classification
FH-based segmentation Super-pixel-based segmentation
Workflow Results
I
I(P)
...
. . .
Isegm(P)
. . .
. . .
...
...
...
a) multiple FH-based
segmentations b) segment images
c) match step
Isegm(P)
i
Is it the best
match?
Ipatch
Feature extraction Patch classification
yes
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Results
Workflow Feature extraction Patch-based classification Pixel-level classification
FH-based segmentation Super-pixel-based segmentation
Workflow Results
Features Parameters for patch-based classification Precision(%) Recall(%) Accuracy(%) F1-score(%)
LTP Patch = 35x35, LTP_thr = 0.02 80.8 75.4 86.2 77.5
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
High Precision
High Recall
LTP Class.
DeCAF Class.
Ground truth
Probability map
+
Overlapping patches (227x227)
Step size 32
“Greedy” classifier
Pixel-level classification
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Workflow Feature extraction Patch-based classification Pixel-level classification
Workflow Results
FH-based segmentation Super-pixel-based segmentation
SLIC0 - segmentation
Feature
extraction
Patch class.
Background
removal
Probability map (DeCAF)
227
227
Super-pixel
classif.
with DeCAF
Using “greedy”
nature of the
classifier
Results
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Workflow Feature extraction Patch-based classification Pixel-level classification
Workflow Results
Segmentation method Precision(%) Recall(%) Accuracy(%) F1-score(%)
Super-pixel method
(SLIC0)
87.5 73.1 88.1 79.6
FH-based segmentation Super-pixel-based segmentation
Overall Results
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Hair patch classification Hair segmentation
Accuracy(%) F1-score(%) Accuracy(%) F1-score(%)
HOG 81.4 75.0
FH-method
84.0 75.4
LTP 85.9 79.0 86.2 77.5
HOG+LTP 85.9 79.2 86.2 75.7
DeCAF 58.3 60.2
Super-pixel
method
88.1 79.6
Pixel Class.
(DeCAF)
Ground truth
Patch Class.
(LTP)
Conclusion & future developments
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
Conclusion:
❖ Figaro database , first multi-class image database for
hair detection in the wild
❖ Novel hair detection and segmentation approach,
based on pure texture analysis
Future developments:
❖ use of other texture features
❖ application of cross-validation
❖ vary and increase non-hair data
❖ hair type classification
(1) http://projects.i-ctm.eu/en/project/figaro
1
Straight Wavy Curly Kinky Braids Dreads Shaved Prec.
Straight 27 5 1 0 1 1 5 0.79
Wavy 4 32 3 0 0 0 1 0.74
Curly 0 2 34 3 0 1 0 0.77
Kinky 0 0 3 36 1 0 0 0.82
Braids 2 3 3 4 28 1 0 0.90
Dreads 1 0 0 1 1 37 0 0.90
Shaved 0 1 0 1 0 1 37 0.86
Pred.
Label
Conclusion & future developments
Hair type classification
Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
This work has been submitted to IEEE International Conference on Image Processing (ICIP) 2016
Thank you for your attention

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Presentation-Umar

  • 1. Laureando: Muhammad Umar Riaz Matricola: 80929 Texture Classification Methods For Human Detection Relatore: Dott. Sergio Benini Correlatore: Ing. Michele Svanera
  • 2. Scenario Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Human detection: ❖ visual content management ❖ video surveillance ❖ autonomous vehicles, for pedestrian detection
  • 3. Scenario Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Human detection -> Major limitation: ❖ incapability to perform when the only available information is human hair
  • 4. Objectives hair detection and segmentation in the wild (with pure texture analysis) (with no a-priori knowledge of face/head location) Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments System processing
  • 5. Figaro database ❖ It contains 840 unconstrained view images, subdivided into seven different hair texture classes Straight Wavy Curly Kinky Braids Dreadlocks Short-men Description Ground-truth http://projects.i-ctm.eu/en/project/figaro Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 6. All images in the database contain the corresponding manually labelled ground truth Ground truth Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Description Ground-truth
  • 7. Proposed pipeline Feature extraction Patch-based classification Pixel-level segmentation System processing Workflow Feature extraction Patch-based classification Pixel-level classification Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 8. Feature extraction Workflow Feature extraction Patch-based classification Pixel-level classification Feature extraction Pixel-level segment. Feature vector Patch class. Workflow HOG LTP DeCAF HOG LTP DeCAF Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 9. Histogram of Oriented Gradients (HOG) Workflow Feature extraction Patch-based classification Pixel-level classification histogram of gradients Workflow HOG LTP DeCAF Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 10. Local Ternary Patterns (LTP) Workflow Feature extraction Patch-based classification Pixel-level classification Workflow HOG LTP DeCAF En = 8 >< >: 1, Vn  V0 + t 0, |Vn V0| < t +1, Vn V0 + t n = 1, 2, .., 8 Vn V0 t neighbouring pixel index intensity value of neighbouring pixel central pixel intensity threshold value n = 1, 2, .., 8 Vn V0 t n = 1, 2, .., 8 Vn V0 t n = 1, 2, .., 8 Vn V0 t histogram of TU numbers . . . .Neighbourhood 63 28 30 88 40 35 67 40 21 1 -1 0 1 0 1 0 -1 1 0 0 1 0 1 0 0 Thresholded neighbourhood 0 1 0 0 0 0 0 1 41 1 0 0 8 0 32 0 0 0 2 0 0 0 0 0 128 1 2 4 8 16 32 64 128 Upper pattern Lower pattern Pixel weights Upper texture unit Lower texture unit 130 Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Upper TU number Lower TU number
  • 11. Deep Convolutional Activation Feature (DeCAF) Workflow Feature extraction Patch-based classification Pixel-level classification ❖ CaffeNet ❖ Input image: 227x227x3 ❖ conv1: 55x55x96 ❖ conv2: 27x27x256 ❖ conv3: 13x13x384 ❖ conv4: 13x13x384 ❖ conv5: 13x13x256 ❖ fc6: 4096 ❖ fc7: 4096 ❖ Output: 1000 Workflow HOG LTP DeCAF N.B. Input constraint of 227x227 Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 12. Patch-based classification Workflow Feature extraction Patch-based classification Pixel-level classification Workflow Results Random Forest Learning Feature extract. Training set Training gt Learnt Random Forest Classifier evaluation Feature extract. Testing set Testing gtTesting results Feature extraction Pixel-level segment. Patch class. Testing Training Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 13. Results Workflow Feature extraction Patch-based classification Pixel-level classification Workflow Results Features Parameters Precision(%) Recall(%) Accuracy(%) F1-score(%) HOG Patch = 35x35, Cell = 35x35, Bins= 12 65.7 87.4 81.4 75.0 LTP Patch = 35x35, LTP_thr = 0.05 75.3 83.2 85.9 79.0 HOG + LTP Patch = 35x35, Cell = 35x35, Bins= 12, LTP_thr = 0.02 74.6 84.4 85.9 79.2 DeCAF Patch = 227x227, Step size = 32, fc7 43.3 98.8 58.3 60.2 Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 15. High Precision Pixel-level classificationLTP Class. DeCAF Class. Ground truth
  • 16. Pixel-level classification Workflow Feature extraction Patch-based classification Pixel-level classification FH-based segmentation Super-pixel-based segmentation Workflow Results I I(P) ... . . . Isegm(P) . . . . . . ... ... ... a) multiple FH-based segmentations b) segment images c) match step Isegm(P) i Is it the best match? Ipatch Feature extraction Patch classification yes Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 17. Results Workflow Feature extraction Patch-based classification Pixel-level classification FH-based segmentation Super-pixel-based segmentation Workflow Results Features Parameters for patch-based classification Precision(%) Recall(%) Accuracy(%) F1-score(%) LTP Patch = 35x35, LTP_thr = 0.02 80.8 75.4 86.2 77.5 Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 18. High Precision High Recall LTP Class. DeCAF Class. Ground truth Probability map + Overlapping patches (227x227) Step size 32 “Greedy” classifier
  • 19. Pixel-level classification Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Workflow Feature extraction Patch-based classification Pixel-level classification Workflow Results FH-based segmentation Super-pixel-based segmentation SLIC0 - segmentation Feature extraction Patch class. Background removal Probability map (DeCAF) 227 227 Super-pixel classif. with DeCAF Using “greedy” nature of the classifier
  • 20. Results Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Workflow Feature extraction Patch-based classification Pixel-level classification Workflow Results Segmentation method Precision(%) Recall(%) Accuracy(%) F1-score(%) Super-pixel method (SLIC0) 87.5 73.1 88.1 79.6 FH-based segmentation Super-pixel-based segmentation
  • 21. Overall Results Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Hair patch classification Hair segmentation Accuracy(%) F1-score(%) Accuracy(%) F1-score(%) HOG 81.4 75.0 FH-method 84.0 75.4 LTP 85.9 79.0 86.2 77.5 HOG+LTP 85.9 79.2 86.2 75.7 DeCAF 58.3 60.2 Super-pixel method 88.1 79.6
  • 23. Conclusion & future developments Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments Conclusion: ❖ Figaro database , first multi-class image database for hair detection in the wild ❖ Novel hair detection and segmentation approach, based on pure texture analysis Future developments: ❖ use of other texture features ❖ application of cross-validation ❖ vary and increase non-hair data ❖ hair type classification (1) http://projects.i-ctm.eu/en/project/figaro 1
  • 24. Straight Wavy Curly Kinky Braids Dreads Shaved Prec. Straight 27 5 1 0 1 1 5 0.79 Wavy 4 32 3 0 0 0 1 0.74 Curly 0 2 34 3 0 1 0 0.77 Kinky 0 0 3 36 1 0 0 0.82 Braids 2 3 3 4 28 1 0 0.90 Dreads 1 0 0 1 1 37 0 0.90 Shaved 0 1 0 1 0 1 37 0.86 Pred. Label Conclusion & future developments Hair type classification Scenario Objectives Figaro-database Proposed pipeline Results Conclusion & future developments
  • 25. This work has been submitted to IEEE International Conference on Image Processing (ICIP) 2016 Thank you for your attention