Power Management in Micro grid Using Hybrid Energy Storage System

Integrated Intelligent Research (IIR) International Journal of Business Intelligents
Volume: 05 Issue: 01 June 2016 Page No.112-115
ISSN: 2278-2400
112
Support Vector Machine Based Data Classification to
Avoid Data Redundancy Removal before Persist the Data
in a DBMS
M.Nalini1
, S.Anbu2
Research Scholar, Department of Computer Science and Engineering,St.Peter's University,Avadi, Chennai, India
Professor, Department of Computer Science and Engineering,St.Peters College of Engineering and Technology,Avadi, Chennai, India
Email: nalinicseme@gmail.com, anbuss16@gmail.com
Abstract—Data Base Management System is one of the growing
fields in computing world. Grid computing, internet sharing,
distributed computing, parallel processing and cloud are the areas
store their huge amount of data in a DBMS to maintain the
structure of the data. Memory management is one of the major
portions in DBMS due to edit, delete, recover and commit
operations used on the records. To improve the memory
utilization efficiently, the redundant data should be eliminated
accurately. In this paper, the redundant data is fetched by the
Quick Search Bad Character (QSBC) function and intimate to the
DB admin to remove the redundancy. QSBC function compares
the entire data with patterns taken from index table created for all
the data persisted in the DBMS to easy comparison of redundant
(duplicate) data in the database. This experiment in examined in
SQL server software on a university student database and
performance is evaluated in terms of time and accuracy. The
database is having 15000 students data involved in various
activities.
Keywords—Data redundancy, Data Base Management System,
Support Vector Machine, Data Duplicate.
I. INTRODUCTION
The growing (prenominal) mass of information present in digital
media has become a resistive problem for data administrators.
Usually, shaped on data congregate from distinct origin, data
repositories such as those used by digital libraries and e-
commerce agent based records with disparate schemata and
structures. Also problems regarding to low response time,
availability, security and quality assurance become more
troublesome to manage as the amount of data grow larger. It is
practicable to specimen that the peculiarity of the data that an
association uses in its systems is relative to its efficiency for
offering beneficial services to their users. In this environment,
the determination of maintenance repositories with “dirty” data
(i.e., with replicas, identification errors, equal patterns, etc.) goes
greatly beyond technical discussion such as the everywhere
quickness or accomplishment of data administration systems.
The solutions available for addressing this situation need more
than technical efforts; they need administration and cultural
changes as well.
To distinguishing and manipulation replicas is essential to assure
the peculiarity of the information made present by emphasizing
system such as digital libraries and e-commerce agent. These
systems may rely on compatible data to propose exalted
profession benefit, and may be inclined by the existence of
replica in their repositories. A Hereditary Scheme (HS) approach
was used to register deduplication [1]. The problem of find out
and destroy replica entries in a repository is known as record
deduplication [2]. This approach bind several dissimilar portion
of attestation extracted from the data content to exhibit a
deduplication function that is capable to recognize whether two
or more entries in a database are replicas or not. Since record
deduplication is a time consuming work even for small
databases, our scope is to encourage a process that predicting a
peculiar combination of the best pieces of evidence, thus yielding
a deduplication function that improves the performance using a
method to compare the corresponding data for training process.
Finally, this function can be applied on the entire data or even
applied to other databases with similar characteristics. Moreover,
modern supplemental data can be entreated similarly by the
suggested function, as long as there is no unexpected deviate in
the data patterns, something that is very important in huge
databases. It is valuable consideration that these (arithmetical)
services, which can be considered as a combination of several
powerful deduplication regulations, is easy, fast and strong to
calculate, permit its effectual technique to the deduplication of
huge databases. By record deduplication using HS approach that
generates gene excellence for each record using genetic
operation. If that gene value equal with any other record that
record was considered as a duplicate record. These trading
operations are to increase the characteristic of given record.
Genetic Operations are Reproduction, Mutation and Crossover
[1]. From this, it can be understand that genetic operations can
impact the performance of the record deduplication task. From
the experimental results it can be concluded that the significant
difference among the various efforts required obtaining suitable
solution. The main contribution of the existing approach is to
eliminate the record duplication. The experimental results
obtained from the existing approaches PSO and GA are
compared to evaluate the performance, where PSO is better than
GA is proved [3]. Some of the research methods such as anomaly
detection methods are used in various applications like online
banking, credit card fraud, insurance and health care areas. The

ISSN: 2278-2400
113
quality of the software product is depends on the data models
used for managing dynamic changes on the data [4]. Some of the
research works do testing process also integrating with the
anomaly detection [5]. Few research works are removing the
duplicate record removal in file system either at sub-directory or
in the whole directory [6-9]. Some of the existing approaches
mainly divided into two types of categories like de-duplication,
one is file-level [10-12] and the other one is Block-level de-
duplication [13-15]. Means the duplication records are analyzed
in terms of internal information and external information of the
file system. From the above background study, it is essential to
develop a method for deleting data duplication to increase the
quality of the data.
II. PROBLEM STATEMENT
Data and DBMS based application are growing speedily in most
of the computing fields today. All the earlier approaches
discussed in the earlier research works are concentrating on data
cleaning, data arranging, error correction and duplication
removal through anomaly detection. But it is essential to
understand and apply data redundancy removal in advanced data
mining and big-data analysis applications to provide customer
satisfaction and quality service provision. Because, nowadays
data centers and DBMA are interconnected into cloud
environment which are integrated with parallel as well as
distributed computing. Hence, it is necessary to provide speed
access, memory management and accurate peculiar data retrieval.
This problem is taken into account and in this paper by using a
pattern recognition approaches data redundancy will be
eliminated and improve the quality of service.
The contribution of the proposed approach in this paper is:
1. Read the data and create custom-index for each data,
where the custom-index is considered as the pattern for
comparison.
2. Each interval of time, during insertion of a new record,
deletion of a record and altering the data the custom-
index will be examined and eliminated.
III. PROPOSED SYSTEM MODEL
The entire functionality of this paper is illustrated in the
following Figure-1. It is assumed that the data is maintained in
the form of records, stored in a DBMS (as a Table). Each data
has more number of fields F ={F1, F2, ….,Fn}, all the fields are
unique in terms of attributes. All the attributes are configured
while structuring the table. A new table is created for each table
within single column as the custom-index. The custom index is
created as a pattern. An exact pattern matching is to find all the
occurrences of a particular pattern (P =P1 P2 P3….Pm) where the
pattern contains number of characters. In the earlier
research works considered that the pattern occur in the data
Y={Y1, Y2, …., Yn}.
Figure-1. Proposed Model for Data
IV. PREPROCESSING
In this paper Quick Search Bad Character (QSBC) function is
used to verify all the characters in the data set. It read the data
row by row and column by column and examine from left to
right. If QSBC finds a same custom-index value more than one
time, then it will intimate to the DB administrator to eliminate
the duplicate record. At the same time it creates a log file to
verify the performance of the QSBC function. QSBC is selected
as a perfect solution for comparing the patterns due to the
following reasons are:
(i). QSBC accurately matches the custom index
speedily, and it is independent to other methods related to the
DBMS.
(ii). QBSC examines and compare the patterns character
by character using more shift operations.
(iii). QBSC compares the pattern from left to right by
creating sub patters in the entire data string.
This preprocessing phase helps to obtain the number of duplicate
patterns available in the database. The above three stages of the
pattern searching algorithm is given below:
1. Void QSBC(Char *X, int m, int QSBC[])
2. {
a. int i;
b. for(i=0; i<Size(DATA); i++)
c. {
d. if(lastCha == y[j + m-1] && first Cha == y[j])
i. {
ii. if(i <= 0)
iii. {

ISSN: 2278-2400
114
1. output(j);
iv. }
e. }
f. }
3. }
Three steps are applied in the preprocessing stage. In step-1,
character-character comparison is applied within the entire data
and pattern. To find out the resemblance among the pattern and
the data, the last character of the patters is compared with the
entire data. If it matches with any patter, the first character of the
pattern and the corresponding character in the entire data are
compared. If these characters match, the algorithm enters into the
next stage; otherwise, it goes to the last step. Whenever the
algorithm finds a matching, it maintains a count and log
information for further verification and intimation to the admin.
The value of Size(DATA) is dependent on the alphabet size. For
efficiency considerations, we have chosen a value accordingly to
cover all the ASCII values of the characters defined in the
present alphabet set. Void OUTPUT (int) is a function used to
print the position (j) of the current window on the text. The
following Figure-2 shows the custom-index and the data
persisted in the DBMS.The custom index is created by
combining the first and the second field from the main table. The
first and the last character are taken from the first and the last
character of the Field-2. The middle characters in the custom
index are a k-digit number generated automatically in increasing
order [like auto number]. This number indicates the record
number to search speedily from the data base separately as well
as integrated with the custom index.
Figure- 2 . (a). Custom Index Table, (b). Main table
The entire proposed approach is implemented in SQL-SERVER
2008 software for persisting the data. The front end is designed
in DOTNET software to provide user interaction. The proposed
QSBC and pattern matching operations are coded in C# language
and the results are obtained in terms of data size, number of
duplicate records created and the time taken to detect and delete
duplication.
V. RESULTS AND DISCUSSION
To evaluate the performance the experiment is examined more
number of times with various numbers of records in each round.
The number of records in each round is 1000, 2000, 3000, 4000
and 5000. The efficiency is verified by calculating the number of
data redundancy eliminated in the database. Also the time taken
to eliminate the redundant data is calculated to find out the
efficiency of the proposed approach. Comparing with the
existing approach, the performance of the proposed approach is
better in term of time and elimination of redundant data in the
DBMS. This results comparison is shown in the following
Figure-3 and in Figure-4. Figure-5 shows the performance of the
proposed approach in terms of redundant data detection in
different dataset. The number of data redundancy detection is
depend on the dataset. Also according to the time taken and
elimination ratio, our proposed approach is better than the
existing approach and it is shown in the following Figures-3 to
Figure-5.
Figure-3 . Performance Evaluation of Finding Redundant Data
Figure-4 . Performance Evaluation By calculating the Time taken to
eliminate the Redundant Data
Figure-5 . Performance Evaluation in terms of Various Data Sets
VI. CONCLUSION
To fulfill the objective of this paper, a custom index is
maintained for all the data going to be persisted in the DBMS.

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115
The proposed QSBC approach can do detection and elimination
of redundant data in any kind of DBMS speedily and accurately.
Some of the anomaly functions are also carried out by the
proposed approach is data cleaning and alignment, by comparing
the custom-index. It is verified before and after data
manipulation processes. From the obtained results and the graphs
shown in Figure-3 to Figure-5, it is concluded that QSBC
approach is a suitable, better approach for DBMS.
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