Introduction of Car type classification
In this
report, there is some comprehensive information about the system that can
easily identify the type of car through the help of a picture. For that case, the
user will input a picture of a car and it will go towards the system and the
output will evaluate the type of that car. The whole system contains a complete
dataset of modern cars or fast-moving cars. This system is extremely helpful in
high speed chases on the highway in speed cameras.
High-level working of the system of Car type
classification
In this
section, there is a complete working of the whole system. It will start from
the data set, for that case, the dataset will contain all images of the modern
car in the system. This shows that the output image will be compared with all
data set images and find out the type of that particular car. For that case, the
camera must be equipped with a digital PAL resolution for clear images. The
dataset of the car will consist of more than 6000 cars. The images will be of the
same dimensions (Huttunen, Yancheshmeh, & Chen, 2016).
Classification of Car type classification
Now in this
step, there is complete information about the system that will classify the type
of car. The system for detection is deep neural networks. For that case, there
are about different factors that are contributing to its success, which include
a graphing processing unit and the advancement in the neural network community.
Both of these factors are involved in enabling the training network with a large
number of stack layers.
Then, it
can be noted that a large scale image classification record that contains the ImageNet
database will play an important role during recognition. Then after this in the
next step there is a need to define hyperparameters to the system. This is
because it is used for searching. It can be noted that the whole system consists
of 4 convolutional layers and it also contains two dense layers. Due to this
the input image is then classified into a square shape with the dimension of
60-160 (Ma & Andreasson, 2007).
Then after
this, for stochastic gradient backpropagation, a crucial parameter is used.
This parameter contains geometric distribution between Then after this a network that contains 50 random
selected hyper parameter will play a role.
There are about 5
convolutional layers in the car recognition. For that case, the first layer
will map the three-channel 96*96 input of a car image into 32 feature maps.
These maps are pooled up to 48*48 resolution. Now after this, the second
convolutional layer will also producing 32 feature maps. Then these maps are
again down sampled with 24*24 max-pooling. Moreover, after the convolutional
layer there are more two layer that are connected with each other with 100
nodes. Now in the last step, the output layer will map the 100 features on the
last layer with the help of softmax operator. It will show the clear image of
the car and also it is classified in a proper way. Moreover, in every layer there is complete
combination of a rectified linear unit and a dropout regularizer that are
helping in classification with perfection.
Figure 1: Structure of the
proposed network
The above figure is the brief information about the whole
system. This figure is defining the complete working of the system through deep
neural networks. It can be seen from the figure that the input image is taken
and the output is classifying it into a van.
The main
benefit of this system is that it will enable the classifier to lever high
level structures in the image. Moreover, there is also one drawback in the
system and it is related to the hyper parameters of the network. This shows
that there is need to define these parameters to the network (Yang, Luo, Loy, & Tang., 2015).
The vehicle classification process is a
critical process. Kul et al (2017) proposed a model technique for the
classification and detection of cars. The framework mainly consist of input
frames, background subtraction, feature extraction, classification and other
detection results. The approached worked well for the target detection and
feature based object detection refer to the algorithm to detect the objects (Kul, Eken, &
Sayar, 2017).
The research conducted by Yousaf et al (2012) was mainly about the vehicle
classification and emerged as a significant field of the study. The system
provides applications like security system, accident prevention, congestion
avoidance, and algorithms to implement the classification. The research
proposed Hybrid Dynamic Bayesian Network (HDBN) classification algorithm for
the better estimation of cars, features, classification, and selection. The
research extracts the rear view of information such as distance between the
wheels of cars and height of wheels (Yousaf, Iftikhar, &
Javed, 2012).
Expected input and output of the system
From the
above system it can be noted that the expected input of the system is the
image. But it can be noted that the input image must be 96*96 dimension image
and it must be taken through the digital camera. The input image also contain 3
important channels. On the other hand, the output of the system will give
classified the image into the different category of the cars. This shows that the
output will be defined in 4 likelihoods.
Objectives for the system of Car type classification
·
To
evaluate the classification of the type of car
·
To
check how the system will work according to the required input
·
To
analyse brief working of the car type classification system
·
To
analyse how the required output is gained through the system
·
To
evaluate positive and negative points of the system.
Conclusion of Car type classification
Summing up all the discussion from above, it is concluded that car type
classification system is extremely effective in high speed chasing around the
world. In this report there is complete information about the whole system.
This system is using deep neural network. The main benefit of this system is
that it will enable the classifier to lever high level structures in the image.
In this report, the working of whole system is presented in a proper way.
Moreover, the main objective of the system is also evaluated. The working of
the system is also explained through the help of figure.
References
of Car type classification
Huttunen,
H., Yancheshmeh, F. S., & Chen, K. (2016). Car type recognition with deep
neural networks. In 2016 IEEE Intelligent Vehicles Symposium (IV),.
Kul, S., Eken, S.,
& Sayar, A. (2017). A Concise Review on Vehicle Detection and
Classification. Conference on Engineering and Technology, 01(05), 01-10.
Ma, X., &
Andreasson, I. (2007). Behavior measurement, analysis, and regime
classification in car following. IEEE transactions on intelligent
transportation systems 8, .
Yang, L., Luo, P.,
Loy, C. C., & Tang., X. (2015). A large-scale car dataset for fine-grained
categorization and verification. In Proceedings of the IEEE conference on
computer vision and pattern recognition,.
Yousaf, K.,
Iftikhar, A., & Javed, A. (2012). Comparative Analysis of Automatic Vehicle
Classification Techniques: A Survey. Automatic Vehicle, 36(18), 01-10.