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Table 6. ( continued )
Average
Classification
Accuracy
(%)
TPR
(Recall)
(%)
PPR
(Precision)
(%)
Methods Name
The Proposed method with combination of
DTCWT (Level-4) and Zernike moment as a
feature
96.00
95.05
95.50
The Proposed method with combination of
DTCWT (Level-5) and Zernike moment as a
feature
97.00
97.00
97.00
The Proposed method with combination of
DTCWT (Level-6) and Zernike moment as a
feature
99.00
98.02
98.50
The Proposed method with combination of
DTCWT (Level-7) and Zernike moment as a
feature
100.00
98.04
99.00
DWT (Level-1) as a feature
85.00
73.91
77.50
DWT (Level-2) as a feature
85.00
73.91
77.50
DWT (Level-3) as a feature
89.00
76.92
81.00
DWT (Level-4) as a feature
91.00
81.25
85.00
DWT (Level-5) as a feature
93.00
82.30
86.60
DWT (Level-6) as a feature
95.00
89.62
92.00
DWT (Level-7) as a feature
95.00
89.62
92.00
Method Proposed by Dalal and Triggs [7]
96.00
92.31
94.00
Method Proposed by Lu and Zheng [9]
90.00
75.00
80.00
Method Proposed by Renno et al. [14]
89.00
74.17
79.00
Method Proposed by Chen et al. [15]
98.00
96.08
97.00
From Table 6, one can observe that the proposed method with combination of Dual
tree complex wavelet transform coefficients and Zernike moment as a feature set
gives better performance at higher levels of Dual tree complex wavelet transform in
comparison to other state-of-the-art methods [7,9,14,15], and multilevel discrete
wavelet transform, as feature, for human object classification in terms of three
different quantitative performance measures -Average Classification Accuracy, TPR,
and PPR.
6
Conclusions
In this paper, our goal is to develop and demonstrate a new method for human object
classification in real scenes using combination of two feature set namely - Dual tree
complex wavelet transform coefficients and Zernike moment. Dual tree complex
wavelet transform is advantageous over real valued wavelet transform in terms of
better edge representation and shift invariant property. Zernike moment is translation
and rotation invariant. The proposed method for human object classification is an
extension of work proposed by Khare et al. [2]. The proposed method first trains
SVM classifier by using selected feature set, then classify new object data (testing
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