Difference between revisions of "Projects:2016s2-246 Feral Cat Detector"

From Projects
Jump to: navigation, search
Line 1: Line 1:
==Introduction==  
+
'''==Introduction==  
 
+
'''
 
===Group member===  
 
===Group member===  
  
Line 9: Line 9:
 
Dr. Danny Gibbins & Dr. Said Al-Sarawi
 
Dr. Danny Gibbins & Dr. Said Al-Sarawi
  
===Background===  
+
===Background===
  
 
In Australia, significant numbers of native wildlife are killed each year by feral cats and foxes. As part of their control
 
In Australia, significant numbers of native wildlife are killed each year by feral cats and foxes. As part of their control
Line 23: Line 23:
 
implementation which demonstrates their solution.
 
implementation which demonstrates their solution.
  
==Approach==  
+
'''==Approach=='''
  
 
Based on the project of Richard & Yang in the last year, we build a alternative classification system which consist of two parts: feature selection and classification. In this project, instead of single feature, we have used feature combination which is proven could improve the classification performance. Moreover, we have test several classifiers to find which one is better and applied the better one in our system.
 
Based on the project of Richard & Yang in the last year, we build a alternative classification system which consist of two parts: feature selection and classification. In this project, instead of single feature, we have used feature combination which is proven could improve the classification performance. Moreover, we have test several classifiers to find which one is better and applied the better one in our system.
Line 29: Line 29:
 
For the part of classifictoin, we verify the framework of AdaBoost can improve classifier’s performance firstly, and then find the best classifier among 4 classifiers, SVM, MKL-SVM, softmax, SVM+AdaBoost.
 
For the part of classifictoin, we verify the framework of AdaBoost can improve classifier’s performance firstly, and then find the best classifier among 4 classifiers, SVM, MKL-SVM, softmax, SVM+AdaBoost.
  
==Technical details==
+
'''==Technical details=='''
 
===Feature Selection===
 
===Feature Selection===

Revision as of 13:47, 5 June 2017

==Introduction==

Group member

Bolun Huang & Yan Chen

Supervisors

Dr. Danny Gibbins & Dr. Said Al-Sarawi

Background

In Australia, significant numbers of native wildlife are killed each year by feral cats and foxes. As part of their control and monitoring, field researchers and park managers are interested in low cost automated sensor systems that could be placed out in the field to detect the presence of feral cats and possibly even trigger control measures. The aim of this project is to examine a range of image and signal processing techniques that could be used to reliably detect the presence of a nearby feral cat or fox and distinguish it from other native animals such as wallabies and wombats. The possible range of sensors that might be used to achieve this include (but is not limited to) infra-red imaging cameras, ultrasonic detectors, and imaging range sensors (akin to say an x-box Kinect). Both the sensors and the processing unit (say a raspberry pi or A20 based mini board) would need to be low cost and potentially sometime in the future be able to operate in the field for days at a time. The two students would be required to develop both the processing techniques and a simple hardware implementation which demonstrates their solution.

==Approach==

Based on the project of Richard & Yang in the last year, we build a alternative classification system which consist of two parts: feature selection and classification. In this project, instead of single feature, we have used feature combination which is proven could improve the classification performance. Moreover, we have test several classifiers to find which one is better and applied the better one in our system. In feature selection, we select 5 single features as base features: SIFT, PHOW, PHOG, LBP and SSIM. At first, we compare the performances of feature combination and single feature to find which way is better. Then, based on 5 base features to test all feature combinations and find the feature which can obtain the highest accuracy. For the part of classifictoin, we verify the framework of AdaBoost can improve classifier’s performance firstly, and then find the best classifier among 4 classifiers, SVM, MKL-SVM, softmax, SVM+AdaBoost.

==Technical details==

Feature Selection