OPNET Projects for PhD, M.Tech or B.Tech students

 

OPNET means Optimized Network Engineering Tools (OPNET) is a comprehensive engineering system capable of simulation large communications networks with detailed protocol modeling and performance analysis. The Behavior and performance both can be analyzed by discrete event simulation. OPNET Projects for PhD has been designed to provide a comprehensive work environment for the network modeler that takes advantage of the sophisticated graphics of engineering workstations.

The tools provided by OPNET Project for B.Tech from a tightly-integrated system with the following principle features for OPNET Projects For M.Tech

• Domain Specific, Hierarchical Models
• Automatic Simulation Generation
• Flexibility and Detailed Modeling
• Domain Specific, Hierarchical Models: The main purpose of designing OPNET Projects for B.Tech is for development and analysis of communication networks. All the models of network ether that is hardware or software are have same structured that is hierarchical. Graphical Specification of Models – Wherever possible, specifications are entered graphically with specialized editors. These editors provide an efficient medium for design capture via a consistent set of modem user interface methods such as mouse-driven menus and icons.
• Automatic Simulation Generation: With the help of OPNET Project for PhD, It reduces the effort requires to develop a simulation by providing an efficient event-driven simulation kernel, libraries of communications building blocks, and compilers which take the design specification and automatically generate an executable simulation. The extensive software development process typically associated with complex system simulation is thus drastically reduced.Analysis Tool- A set of analysis tools provides sophisticated data reduction techniques to summarize simulation results into easily interpreted graphical form, and to monitor model behavior in detail.
• Flexibility and Detailed Modeling: While much of the structure model specification in OPNET Projects for M.Tech is performed graphically, models of protocols and algorithms employ a hybrid approach called proto-c, which allows users to embed C language code within a graphically specified finite state machine.The specification of processes in C is facilitated by an extensive library of support procedures which provide a wide range of simulation service. In addition, code specified externally to the OPNET system may be linked into OPNET produced simulations. This ability to integrate fully general high-level- language code gives the user a very high degree of flexibility in constructing models at any level detail. OPNET Projects for M.Tech can be used in many diverse application areas of communication networks. Some examples of possible applications include local area networks, mobile packet radio networks, ISDN architecture, distributed sensor and control networks and tactical networks.

System Structure used for OPNET Projects for B.Tech Students

OPNET system is a set of tools which can be divided into three functional areas:

• Specification,
• Simulation
• Analysis.

The specification area consists of the five graphical editors with which users specify their design these are

• Network Editor,
• Node Editor
• Process Editor
• Parameter Editor
• Probe Editor.

The simulation area consists of the Simulation Tool and Simulation Kernel. The analysis area consists of the Analysis Tool, which processes and graphically presents simulation results, and the Filter Editor, which is used to construct specialized result-processing filters. These three areas are supported graphically by an encompassing window management system called the Tool

Network Editor:

The tool is used to specify network models, which consists of subnetwork and node objects. Node objects are physical instantiation of node models built in the Node Editor, while subnetwork as well as the top or global modeling level, nodes may be placed on a dimension plane for those models in which physical location is relevant. Because the Network Editor represents the most encompassing modeling in OPNET Projects for B.Tech, it also provides the operations necessary to bind together all lower level specifications into a single executable simulation.

Node Editor:

This tool is used to specify node models, which consist parameterized modules interconnected in an arbitrarily complex graph to represent the information flow and structure aspects of a particular class of communications node. The supported module types include general processors, generators, queues, transmitters and receivers, and antennas.

Process Editor:

This tool is to specify process models which represent tools, algorithms, or in general, decision making processes. The specifications are based on proto-c language Finite State Machine representations and include the names of states, transitions between states, the conditions for each transition, the actions which are taken upon entering or exiting a state or making transition, temporary and state variables, and formal attributes of the process.

Parameter Editor:

This tool includes several distinct editing modes which are used to specify model parameter that are more complex than simple numeric or string input. Parameter types include functions of one or two independent variables, which are specified graphically, and data tables, which are specified via a spreadsheet-like interface. The parameters created in the editor are: Probability Density Function (PDF), Packet Formats, Interface Information (ICl) formats, and additionally for OPNET/B, Antenna Patterns, and Modulation function.

Probe Editor:

This tool is used to specify data collection requests which may be applied to a simulation at run time in order to cause the executing model to place specific data into an output file. A file created in the Probe Editor consists of a list of probes each of which hierarchically references a statistic, a module, a node, and a sub network.

If you are student of B.Tech, M.Tech or PhD and want Guidance and projects on OPENT Simulator, Our Experts provides you complete support in selection of projects, implementation and with documentation. For more just talk to our experts over a Phone Call at +91-9041262727 or email us at support@e2matrix.com

 Latest OPENT Thesis Project List for B.Tech, M.Tech or PhD Students

 

1	Ethernet	A Direct Link Network with Media Access Control
		The objective of this Project is designed to demonstrate the operation of the Ethernet network. The simulation in this Project will help you examine the performance of the Ethernet network under different scenarios.
2	Token Ring	A Shared-Media Network with Media Access Control
		The objective of this Project is designed to demonstrate the implementation of a token ring network. The simulation in this Project will help you examine the performance of the token ring network under different scenarios.
3	Switched LANs	A Set of Local Area Networks Interconnected by Switches
		The objective of this Project is designed to demonstrate the implementation of switched local area networks. The simulation in this Project will help you examine the performance of different implementations of local area networks connected by switches and hubs.
4	Network Design	Planning a Network with Different Users, Hosts, and Services
		The objective of this Project is to demonstrate the basics of designing a network, taking into consideration the users, services, and locations of the hosts.
5	ATM	A Connection-Oriented, Cell-Switching Technology
		The objective of this Project is to examine the effect of ATM adaptation layers and service classes on the performance of the network.
6	RIP: Routing Information Protocol	A Routing Protocol Based on the Distance-Vector Algorithm
		The objective of this Project is to configure and analyse the performance of the Routing Information Protocol (RIP) model.
7	OSPF: Open Shortest Path First	A Routing Protocol Based on the Link-State Algorithm
		The objective of this Project is to configure and analyze the performance of the Open Shortest Path First (OSPF) routing protocol.
8	Border Gateway Protocol (BGP)	An Interdomain Routing Protocol
		The objective of this Project is to simulate and study the basic features of an interdomain routing protocol called Border Gateway Protocol (BGP)
9	TCP: Transmission Control Protocol	A Reliable, Connection-Oriented, Byte-Stream Service
		The objective of this Project is designed to demonstrate the congestion control algorithms implemented by the Transmission Control Protocol (TCP). The Project provides a number of scenarios to simulate these algorithms. You will compare the performance of the algorithms through the analysis of the simulation results
10	Queuing Disciplines	Order of Packet Transmission and Dropping
		The objective of this Project is to examine the effect of different queuing disciplines on packet delivery and delay for different services.
11	RSVP	Providing QoS by Reserving Resources in the Network
		The objective of this Project is to study the Resource Reservation Protocol (RSVP) as a part of the Integrated Services approach to providing Quality of Service (QoS) to individual applications or flows.
12	Firewalls and VPN	Network Security and Virtual Private Networks
		The objective of this Project is to study the role of firewalls and Virtual Private Networks (VPNs) in providing security to shared public networks such as the Internet.
13	Applications	Network Application Performance Analysis
		The objective of this Project is to analyze the performance of an Internet application protocol and its relation to the underlying network protocols. In addition, this Project reviews some of the topics covered in previous Projects.
14	Wireless Local Area Network	Medium Access Control for Wirelessly Connected Stations
		The objective of this Project addresses the MAC (Medium Access Control) sub layer of the IEEE 802.11 standard for WLAN (wireless local area network). Different options of this standard are studied in this Project. The performance of these options is analyzed under different scenarios.
15	Mobile Wireless Network	A Wireless Local Area Network with Mobile Stations
		The objective of this Project simulates mobility in wireless local area network. The effect of mobility on the TCP performance is studied. In addition, the Project studies how the request to send (RTS) and clear to send (CTS) frames are utilized in avoiding the hidden node problem usually induced by mobility in WLAN.
16	Enhanced Interior Gateway Routing Protocol (EIGRP)	A Routing Protocol Based on the Link-State Algorithm
		The objective of this Project is to configure and analyze the performance of the. Enhanced Interior Gateway Routing Protocol (EIGRP)
17	IGRP   Interior Gateway Routing Protocol	A Routing Protocol Based on the Link-State Algorithm
		The objective of this Project is to configure and analyze the performance of the.  Interior Gateway Routing Protocol (IGRP)

 

 

 

18	( IS-IS)	A Routing Protocol Based on the Link-State Algorithm
		The objective of this Project is to configure and analyze the performance of the Intermediate System – Intermediate System (IS-IS)
19	(IS-IS ) IPV6	A Routing Protocol Based on the Link-State Algorithm
		The objective of this Project is to configure and analyze the performance of the Intermediate System – Intermediate System (IS-IS)
20	( RIPng) Ipv6	A Routing Protocol Based on the Distance-Vector Algorithm
		The objective of this Project is to configure and analyze the performance of the Routing Information Protocol (RIPng ipv6) model.
21	( OSPF) Ipv6	A Routing Protocol Based on the Link-State Algorithm
		The objective of this Project is to configure and analyze the performance of the Open ShortestPath First (OSPF IPV6) routing protocol.
22	MANET      DSR	The DSR protocol is an on-demand(Reactive) Routing Protocol
		The objective of this Project is to configure and analyze the performance of the DSR routing protocol.
23	MANET   AODV	The AODV protocol is an on-demand (Reactive)Routing Protocol
		The objective of this Project is to configure and analyze the performance of the AODV routing protocol.
24	MANET    OLSR	The OLSR protocol is an on-demand  (Proactive) Routing Protocol
		The objective of this Project is to configure and analyze the performance of the OLSR routing protocol.

 

 

 

 

25	MANET     TORA	The TORA protocol is an on-demand  (Reactive) Routing Protocol
		The objective of this Project is to configure and analyze the performance of the TORA routing protocol.
26	MANET     GRP	The GRP protocol is an on-demand  (Proactive) Routing Protocol
		The objective of this Project is to configure and analyze the performance of the GRP routing protocol.
27	Hybrid EIGRP + OLSR	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (EIGRP + OLSR) routing protocol.
28	Hybrid EIGRP + RIP	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (EIGRP + RIP) routing protocol.
29	Hybrid EIGRP + IS-IS	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (EIGRP + IS-IS) routing protocol.
30	Hybrid IS-IS + OLSR	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (IS-IS + OLSR) routing protocol.
31	Hybrid IS-IS + RIP	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (IS-IS + RIP) routing protocol.
32	Hybrid IS-IS + IGRP	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (IS-IS+ IGRP) routing protocol.
32	Hybrid OLSR + IGRP	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (OLSR + IGRP) routing protocol.
32	Hybrid RIP + IGRP	Hybrid Protocols can be implemented in a same network
		The objective of this Project is to configure and analyze the performance of the Hybrid (RIP + IGRP) routing protocol.
33	JAMMING ATTACK  OLSR	Jamming attack implementation on olsr
		The objective of this Project is to configure and analyze the performance of OLSR with and without jamming attack.
34	JAMMING ATTACK   AODV	Jamming attack implementation on aodv
		The objective of this Project is to configure and analyze the performance of AODV with and without jamming attack.
35	JAMMING ATTACK  DSR	Jamming attack implementation on DSR
		The objective of this Project is to configure and analyze the performance of DSR with and without jamming attack.
36	JAMMING ATTACK  GRP	Jamming attack implementation on GRP
		The objective of this Project is to configure and analyze the performance of GRP with and without jamming attack.
37	JAMMING ATTACK  TORA	Jamming attack implementation on OLSR
		The objective of this Project is to configure and analyze the performance of TORA with and without jamming attack.
38	WEB CACHING & DATACOMPRESSION	Improving web access andserver performance
		The objective of this lab is to study the effect of Web caching and data compression on the response time involved in accessing Web pages and on the load on the Web server.