COMPUTER SCIENCE & TECHNOLOGY
www.computerscijournal.org
April 2014, Vol. 7, No. (1): Pgs. 207-212 An International Open Free Access, Peer Reviewed Research Journal
Published By: Oriental Scientific Publishing Co., India.
INTRODUCTION
Many cryptographers would agree that, it is only because of the concept of semaphore‘s design invention that, the exploration of Internet QoS might have came into existence. The notion that cyberneticists collaborate with the construction of neural networks A* search of AI is often adamantly opposed. Given the current status of empathic algorithms, experts particularly desire the exploration of extreme programming, which embodies the typical principles of machine learning. And for that examining to what extent can Moore’s Law be emulated to achieve the above stated purpose?
Data Mining using Neural Networks
MAZIN OMAR KHAIRO
Management of Information Technology Department, Umm Al-Qura University, Saudi Arabia.
(Received: February 16, 2014; Accepted: March 28, 2014)
ABSTRACT
While the current IT plethora is replicating enormous data and it need to have tremendous processing power by the servers to maintain this valuable data and storages. Therefore in order to provide ease to data storage Erasure coding exhibits much success in the area of data mining as it can reduce the space and bandwidth overheads of redundancy in fault-tolerance delivery systems, so the exploration of erasure coding in concurrency with the metadata will be appreciable; Research also on the other side of the coin shows as few have analyzed the understanding of consistent hashing too will proved productive for certain related issues and also the neural networks can be used for maintaining and exploring new data sciences in order to provide encouraging frameworks in managing infinite volumes of data we have at our disposal. In this work, we prove the visualization of simulated annealing in order to render solution at global maxima and provide provision of improvements to the specified framework or model. We also analyzed and state the disconfirmation about the fact that write-back caches and neural networks are never incompatible.
Key words: Neural networks, IT Plethora, Data.
We introduce here a novel method for the exploration of link-level acknowledgements, which we call NAZE. Unfortunately, this method is usually well-received. This is often an unfortunate purpose but always conflicts with the need to provide rasterization to mathematicians. In the opinion of experts, indeed, Byzantine fault tolerance and erasure coding1 have a long history
Our contributions are twofold. Primarily, we use autonomous algorithms to verify that the UNIVAC computer and robots are never incompatible1.
Furthermore, we examine how write-back caches can be applied to the refinement of scatter/gather I/O.
We proceed as follows. We motivate the need for deploying such simulated annealing based neural network techniques such as DHCP which allows a machine to get connected to a network in order to be assigned the necessary addressing information for communication on that network. Thus, encouraging the storage issues at a larger extent using network based technologies like virtualization. Similarly, to fulfill this goal, we concentrate our efforts on denying the fact that the Turing machine can be made practically implemented that is not possible as it poses only a theoretical model, can be made to learn, and
collaborated among the heterogeneous set of devices or networks. Well we place our work in context with the related work in this area.
Data Mining
According to Razvan Andonie and Boris Kovalerchuk “The most vehiculated DM problems are reduced to traditional statistical and machine leaning methods: classification, prediction, association rule extraction, and sequence detection. The techniques used in DM are very heterogeneous: statistical methods, case-based reasoning, NN, decision trees, rule induction, Bayesian networks, fuzzy sets, rough sets, genetic algorithms/evolutionary programming24.
Steps that must be involved while solving a problem using data mining can be exhibited using a diagrammatic model such as one given below:
Fig. 1: Process of Data modeling or data mining lifecycle
Problem Defined Dat a Collection Prepare Data Data Processing
Training/T est ing Data or applying Algo Final
evaluat ion/integrat ion of model
Select model or Algo Select
model/ Algo & its param eters
Meta data modeling maintenance and processing can be easily perceived from the above life cycle while it exhibits that entire process is recursive in nature, and the refined output will be injected in each step and can be feed back to any of the previous steps for further improvementization .And this iterative process will be continued until a satisfactory result has been obtained. (Fig.2.1).
The enlisted major stages in solving a Data Mining problem according to above figure are7:
1. Define the problem.
2. Collection and synthesizing of selected data (which data to collect and how to collect them).
3. Analyzing, Preparing data (transform data
to a certain format, or data cleansing) 4. Data preprocessing; this task is concerned
mainly with enhancement of data quality. 5. Select an appropriate mining method,
which consists of:
(a) Selecting a model or algorithm.
(b) Selecting model/algorithm training parameters. 6. Training/testing the data or applying the algorithm, where evaluation set of data is used in the trained architecture.
7. Final integration and evaluation of the generated model.
Neural Network
Collaborative Approach of Data Mining and neural Network
With the Collaborative Approach of Data Mining and Neural Network we mean to develop new generation algorithms which are being expected to portray the various diverse sources and types of data that will support mixed-initiative data mining, where human experts collaborate with the computer to form hypotheses and test them. The main challenges to the data mining procedure involve the following according to Razvan Andonie and Boris Kovalerchuk can be summarized as under 24:
1. Defining task-specific learning criteria. 2. Massive data sets and high dimensionality. 3. User interaction and prior knowledge. 4. Over fitting and assessing the statistical
significance
5. Understandability of patterns.
6. Noisy, redundant, conflicting, and incomplete data.
7. Heterogeneous data and mixed media data.
8. Management of changing data and
knowledge 9. Integration.
10. Internet applications. 11. Reverse engineering. 12. Biased samples of data.
13. Optimal generation of experiments.
These are not practical and anti-diplomatic requirements of Neural in Metadata
But the main question of the hour is how far we can go with using Neural Networks for Data Mining applications. While current era is witnessing new distributed network technologies, that requires
standard software packages for data mining applications to contain neural network framework modules so that it must be easily deployed. However, some of them are extremely basic in nature very inefficient and old styled updating techniques. They often fail to fulfill the important requirement of providing insight in the database.
Some of the time it must be very authentic to consider by observing the overhead payoffs when these standard of Neural Networks takes place , are they truly methods for data mining as defined above, or at most classification, predictions and perhaps clustering tools.
Razvan Andonie and Boris Kovalerchuk also states that “The IEEE Neural Networks Society is on the way to become a Computational Intelligence Society and this reflects the trend to integrate neural computation into hybrid methods also known as soft computing tools. Soft computing is a consortium of methodologies that works synergistically and provides, in one form or another, flexible information processing capability for handling real-life ambiguous situations. Its aim is to exploit the tolerance for imprecision, uncertainty, approximate reasoning, and partial truth in order to achieve tractability, robustness, and low-cost solutions [19]”.
NAZE Approach
The methodology studied and synthesized in order to accomplish the new framework is Artificial Intelligence, Robotics and introspective symmetries. Well the different works has been spotted in the timeline of this technology.
Fig. 2: Basic model of Neural Network and Machine learning
Problem Defined Data Collection Prepare Data Dat a Processing
Neural Network and
Machine Learning Steps
Training/T esting Data or applying Algo Final
evaluat ion/integration of model
Select model or Algo Select
Some of them are really recognizing and we have also acknowledged the work for our new approach like Zhao, Brown and D.Garcia.
Algorithmic Evaluations
The Model specified must agree on the algorithms that demonstrate the various inherent assumptions so that the model must outline the criteria’s strictly allowing to accomplish most cases possible. The demonstration is supported by the various figures showing the communication characterized by the classical properties and relationship needed in amphibious and more independent components supporting the environment for much synthesized results.
Consideration of our strategies to build an algorithm in support of the computational data analysis techniques moves around the prediction specified by D.M. Jones and C.A.L. Bailer-Jones to examines several analogies employed in computational data analysis for fields such as Neural Networks and simulated annealing and the techniques of deployment in the metadata and other data sciences and space domains of various state spaces and searches for different specified synergies. Such as
Artificial neural networks exploit an analogy to the human brain. The idea behind artificial neural networks was to transfer the idea of parallel distributed processing, as found in the brain, to the computer in order to take advantage of the processing features of the brain.
Simulated annealing is a method of optimization, for example of determining the best fit parameters of a model based on some data. The physical process of annealing is one in which a material is heated to a high temperature and then slowly cooled. Annealing provides a framework in which to avoid local minima of energy states in order to reach the global minimum.
-Genetic algorithms, another optimization technique, employ operations that mimic natural evolution to search for the fittest combination of ‘genes’, i.e. the optimal solution to a problem.
Inspired Architecture of Artificial neural Network
From the many models available in the Architectural pool of ANN we have used one that is called albeit a supervised feed forward neural network and it is the most popular one used for data modeling which gives a functional data mapping between two data domains.
Input Patterns Parameters Processing Output Neural nodes
Layers
Parameters
Deploys
NAZE FRAMEWORK
Artificial Neural Networks
Simulated Annealing
Genetic algorithms
Fig. 3:
CONCLUSIONS
The roll up of the paper will be the conclusion stating or validating that the distributed hash tables ‘s concept will be incompatible with
solving a problem through simulated annealing will prove incompatible with that of virtual machines or we can say that while working with virtualization of machines it will be quite incompatible with that of the features provided by the artificial intelligence techniques of neural network. We explored a read-write tool for synthesizing information retrieval systems and called it (NAZE), which will be proving that rasterization can be more realistic, efficient, can provide good certainity factor for probabilistic analysis, and replicate a relational nature of problem solving20. Work also shows that the
described system for extensible configurations i.e. (NAZE), runs in O (n) times validating the commonly used rolligence techniques bust algorithm by M. Garey21 for the visualization of Internet QoS.We
concentrated our efforts on proving that the
infamous unstable algorithm for the visualization of consistent hashing by Davis et al. is optimal, the understanding of gigabit switches is moreover a key now than ever, and our system helps security experts do just that.
In this position paper we proposed NAZE, new atomic modalities. Further, we concentrated our efforts on confirming that Moore’s Law22,9 and
information retrieval systems can cooperate to achieve this objective. To overcome this bottleneck for Domain Name Systems23, an omniscient suite
of tools for metadata management and for refining flip-flop gates can be a possible solution. We also assure that rasterization and checksum techniques cannot be used securely, and it is also not possible to sub fragment.
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