5G Network Simulator Projects

5G Network Simulator Projects

5G Network Simulator Projects is a tool used to analyze and compute the network performance. The reason for why we implement simulators is, we want to use the 5G network in wide and innovative use range cases.

Overview of 5G Simulator

“5G networks are incredibly upgraded in the features of carrier acceptance, regulatory, pre-conformance, conformance, and in covers protocol almost the entire work flow from the existing generation of networks!!”

5G Network Simulator Projects is the chief purpose of the 5G simulation is to exceed the popular SimuLte4G network, and this type of simulator integrates the radio access of 5G networks. The 5G simulation is based on the C++ language and structured in OMNeT++. The other features of this simulator is as it constructed with simple plugging interface, so that any user or research scholars can optimize new modules to implant innovative protocols and algorithms.

“Through this article, we are attempting to afford you the innovative techniques followed by us in the 5G simulator and displaying the simulation results and features from our own experiences. In this article, we provide you our solutions from the most authorized test cases of 5G network simulators.

Advantages of Fifth Gen simulator

  • The complete implementation of end-to-end stack permits to deport the evaluation of first Transport Layer Protocol (TCP) performance on mmWave bands, and to incorporate new networking strategies for the better accessible spectrum utilization.
  • Emulate the whole mobility protocols that involve dual connectivity, intra and inter-RAT handover.
  • Channeling protocols for structural discovery and emulates the key core network components.
  • To evaluate various designs, the MAC and PHY classes are technically altered to easy modifications.

5G Network Simulator Projects, In addition to the exceeding advantages of the network simulation, there is another remarkable feature that 5G sustains extensive range of channel models that involves the trending 3GPP models to perform frequency spectrum over 6MHz. By this way, we can model the ray tracing and measured traces. Here we provide you the LTE Network Simulator modules.

Functions of 5G network modules

  • mmWave: It is a ns-3 module to simulate the cellular networks functions on the basis of mmWaves in 5G
  • simu5G: It is an evaluating simulator allows the 5G radio access, structured on the basis of OMNeT++ Projects, and written in C++

Among the mentioned simulation protocols, the simu5G can be used to improve new models to implement new algorithms and protocols. In addition to the above protocols, we provide you the plugins used in 5G network.

Notable plugins of 5G simulator

Our finest plugin used exclusively for the 5G simulation is NR module. Its features are

  • Integrating fundamental PHY-MAC NR topographies ranged with 3GPP NR Release-15
  • Progressive in TDD, beamforming, operation at FR2, and 3GPP channel model
  • Advanced in simulating mmWave module
  • Radical simulator of the LTE/EPC Network Simulator and LENA
  • Pluggable module, convenient to ns-3 and simulates 5G New Radio (NR) cellular networks

The above are the features of the NR module plugin. Along with providing our best plugin, let us introduce you to the important classes that are used to perform the following actions of 5G network as listed below.

Significant classes of 5G simulator

  • OMNeT++ – UDP (for UDP socket based transmission)
  • NS3 – MmWave3gppPropagationLossModel (for 3GPP TR 38.900 v14.1.0 base)
  • NS3 – MmWavePhyMacCommon (for MAC protocols)

The mentioned classes are allotted to perform the respected functions in each simulator. In addition to the remarkable classes for 5G simulation, we provide you the list of integrated tools that are effective to use in the 5G simulation networks.

Major functions of integrated tools

  • Open5GCore: It is the testbed platform of the upcoming mobile core networks and it is the first tool that executed over 3GPP 5G core network across the world. The prototype of this tool has designed to release 15 and 16 core network functionality, in a system fit for R&D behavior. Another main feature of this tool is it can be interoperable with both UE and 5G NR base stations.

The Open5GCore is one of our sample integrated tools used for simulation particularly for the research purpose. Apart from that we are having many integrated tools that are able to transfer and 5G testbed deploying standard tools for the real-time experiments. Here our suggestions on the programming languages for 5G network simulation.

Notable programming languages in 5G network

  • OMNeT++ – C++
  • Ns-3 – C++ and Python

The above mentioned programming languages are the most suitable for the 5G network simulators. Among those simulators, the OMNeT++’s structure is based on its components, thus it programmed entirely in C++. It has constructed in huge components integrated with the use of standard language, NED. Here’s our idea over the supporting OS for network simulation

Remarkable OS for 5G network simulator

  • Ubuntu-18.04
  • Windows-7 32 bit
  • Windows-8 64 bit
  • Ubuntu-14.04

The suggested operating systems and its versions are considered as the most appropriate OS to perform effective network simulation. In addition to our suggestion on the OS, we introduce you our 5G network simulating tools and its versions.

Significant simulators and versions
  • OMNeT++ – 5.0
  • NS-3 – 3.0

The mentioned tools and versions are our fundamental tools used for the research purpose to analyze the samples. These tools are the wide known tools for simulation and other than these simulators; we have numerous tools and versions for real-time applications. As the tools are important for the simulation, so the protocols are. Here we provide you our protocols and its application traits as follows.

Protocols in 5G simulator

  • LEDS: used for localization, physical attack protection, end-to-end security
  • LiSP: used for WSN, Group head security demands of nodes
  • SPINS: used for μTesla validation, node-to-base and reversed communication patterns
  • LLSP: used for resource constraint, in-network processing
  • TinySec: used for high level security protocols, local broadcasting and in-network processing.

Protocols are generally important for any simulation purpose, as they provide the performance metrics, where the simulation takes place. The protocols given above are considered as the most significant protocols that are suitable for the 5G network simulation. Along with those major protocols, here are our notable subjects used in 5G network simulator.

Prominent subjects used in network simulator

  • Cellular Network
  • V2X Communication
  • Distributed Computing
  • Mobile Computing

These are the notable subjects that a research scholar must be aware before conducting research over the 5G networking. Besides our knowledge in the subjects used for 5G simulating, we provide you the parameters and metrics for the 5G network simulator as follows.

Empirical study on 5G network simulator

  • Packet loss: it is used to calculate the quantity of missing packets due to poor channel features. This simulation metric measured in expressions of percentage.
  • Load Balance: this metric is used to calculate the network received responses by the aggregate amount of packets, measured in the response time units, i.e. seconds
  • Congestion Control: it is measured in the delay and throughput terms on the ration of effectiveness of QoS and Congestion control.
  • Network Workload: it is used to calculate the number of packets sent for transmission and measures in terms of the no. of buffering packets.

The above metrics are used to evaluate the parameters and the service quality of the network. These are the terms, which the metrics used to analyze the performance of the network in each category. Hence, it deserves a great place in a typical network simulation. Here are our subject wise modules in 5G network simulator.

List of Important subject wise modules

  • OMNeT++ – transport (for packet transmission process)
  • Ns-3 – mmWave (for Spectrum Process)
  • Ns-3 – traffic control (for control network traffic)

The subject wise modules are important to perform the parenthesized actions in a network simulator respectively. Here we provide you the major syntax used in the 5G network simulator as follows.

Chief syntax in 5G network simulator

void

MmWave3gppChannel::Initial(NetDeviceContainer ueDevices, NetDeviceContainer enbDevices)

{

            NS_LOG_INFO (&ueDevices<<&enbDevices);

            for (NetDeviceContainer::Iterator i = ueDevices.Begin(); i != ueDevices.End(); i++)

            {

                        Ptr<MmWaveUeNetDevice> UeDev =

                                                                        DynamicCast<MmWaveUeNetDevice> (*i);

                        if (UeDev->GetTargetEnb ())

                        {

                                    Ptr<NetDevice> targetBs = UeDev->GetTargetEnb ();

                                    ConnectDevices (*i, targetBs);

                                    ConnectDevices (targetBs, *i);

                                    SetBeamformingVector(*i,targetBs);

                                    // get the mobility objects

                                    Ptr<const MobilityModel> a = targetBs->GetNode()->GetObject<MobilityModel> ();

                                    Ptr<const MobilityModel> b = UeDev->GetNode()->GetObject<MobilityModel> ();

                                    NS_LOG_INFO(“a ” << a << ” b ” << b);

                                    // initialize the pathloss and channel condition

                                    if (DynamicCast<MmWave3gppPropagationLossModel> (m_3gppPathloss)!=0)

                                    {

                                                m_3gppPathloss->GetObject<MmWave3gppPropagationLossModel> ()

                                                                        ->GetLoss(a->GetObject<MobilityModel>(),b->GetObject<MobilityModel>());

                                    }                                  // the GetObject trick is a trick against the const keyword

                                    else if (DynamicCast<MmWave3gppBuildingsPropagationLossModel> (m_3gppPathloss)!=0)

                                    {

                                                m_3gppPathloss->GetObject<MmWave3gppBuildingsPropagationLossModel> ()

                                                                        ->GetLoss(a->GetObject<MobilityModel>(),b->GetObject<MobilityModel>());

                                    }

                                    else

                                    {

                                                NS_FATAL_ERROR(“unkonw pathloss model”);

                                    }

                                    std::vector<int> listOfSubchannels;

                                    for (unsigned i = 0; i < m_phyMacConfig->GetTotalNumChunk(); i++)

                                    {

                                                listOfSubchannels.push_back(i);

                                    }

                                    Ptr<const SpectrumValue> fakePsd =

                                                MmWaveSpectrumValueHelper::CreateTxPowerSpectralDensity (m_phyMacConfig, 0, listOfSubchannels);

                                    DoCalcRxPowerSpectralDensity(fakePsd, a, b);

                        }

            }

}

There are numerous syntaxes applicable for the 5G network simulator. The above syntax is an example syntax applied to start the 3GPPChannel based on the mmWave specified for 5G devices and the syntax is for NS3 simulator. Here we provide you the applications of 5G network simulator.

Important applications of 5G simulator

   With the help of 5G simulator, we can perform the following process of

  • Optimal Load Balancing and routing the packet transmission
  • Encrypted and decrypted sense data transmission
  • Communication between the 5G base station and UE nodes

Some of the above applications are intended for security actions, calculation, and simulation. Along with the above application purposes, we suggest you our finest algorithms for each category of simulation.

Finest Algorithms used in 5G network

 For self-optimization, the algorithms are

  • Recurrent neural networks
  • One-class SVM
  • Special clustering
  • Gradient Boosting decision tree

 For self- healing simulation, the algorithms are,

  • Hidden Markov Model
  • Logistic regression
  • Support Vector Machine

For self- configuration, we use the algorithms of

  • Transfer learning
  • Dynamic programing
  • Reinforcement learning

These are the major classifications of Artificial Intelligence algorithm we used to improve the functions of cellular networks. In addition to the algorithm, let’s take a look on the major applicable areas of 5G networking.

Major areas in 5G simulator

  • Process on the basis of sleep scheduling
  • Process on the basis of signaling
  • Process for data transmission on basis of routing

These are the wide range areas covered by the 5G simulator. In addition to the simulation areas, we provide you the major process in 5G simulator. It has a typical structure view as follows.

Chief process in 5G simulator

  • Initialization
    • Compatibility check
    • Choice of scenario
    • Parameter initialization
  • Pre-generation
    • Distribute to chunks
    • Producing network components
    • Produces blockages
  • Main Simulator Loop
    • Updating the values of MF/segment
    • TSs Looping
    • Freely processing the chunks
  • Post processing
    • Integrating outputs
    • Processing the regular values of TS results
    • TS result storage

These are the important algorithms used under each category of simulation process. The algorithms are the most fundamental elements to perform any simulation event. Besides the 5G network algorithm, we display you the major steps in the 5G network as follows.

Significant steps in 5G simulator

  • Altering antenna geometry
  • Introducing CAD data vehicle
  • Steps taken for issues
    • Meshing vehicle metal parts and antennas
    • Describing frequencies, outputs
    • Validating EM model
    • Running problem solver
  • Storing simulation results

The above process are the common steps taken by the simulator in order to obtain best results from the simulation process and in fixing the errors both in the network function and in the simulation process. Here are our suggestions of routing protocols in 5G network simulator as follows.

Major Routing Protocols in simulators

  • Associativity-based routing
  • Signal stability based Adaptive Routing protocol
  • Label-based multipath routing

Apart from the mentioned protocols, there are many routing protocols available for the 5G network simulators. As reaching the conclusion part of the article, we provide you the suggestion of our project developers from their research point of view on the project titles of 5G networks simulator.

Project titles in 5G simulators

We can help you in performing projects on packet transmission process among the IoT nodes through 5G base station with the help of 5G network simulators

Interesting 5g Network Simulator

In addition to our project services in the simulators, we are able to afford you help in doing your assignment and homework writings. So here, we notify you not to miss this chance to work with us and you can come at any level of your project completion. Join us to have a wonderful project experience along with our team of world-class certified engineers and have your expected result outcomes!!

Live Tasks
Technology Ph.D MS M.Tech
NS2 75 117 95
NS3 98 119 206
OMNET++ 103 95 87
OPNET 36 64 89
QULANET 30 76 60
MININET 71 62 74
MATLAB 96 185 180
LTESIM 38 32 16
COOJA SIMULATOR 35 67 28
CONTIKI OS 42 36 29
GNS3 35 89 14
NETSIM 35 11 21
EVE-NG 4 8 9
TRANS 9 5 4
PEERSIM 8 8 12
GLOMOSIM 6 10 6
RTOOL 13 15 8
KATHARA SHADOW 9 8 9
VNX and VNUML 8 7 8
WISTAR 9 9 8
CNET 6 8 4
ESCAPE 8 7 9
NETMIRAGE 7 11 7
BOSON NETSIM 6 8 9
VIRL 9 9 8
CISCO PACKET TRACER 7 7 10
SWAN 9 19 5
JAVASIM 40 68 69
SSFNET 7 9 8
TOSSIM 5 7 4
PSIM 7 8 6
PETRI NET 4 6 4
ONESIM 5 10 5
OPTISYSTEM 32 64 24
DIVERT 4 9 8
TINY OS 19 27 17
TRANS 7 8 6
OPENPANA 8 9 9
SECURE CRT 7 8 7
EXTENDSIM 6 7 5
CONSELF 7 19 6
ARENA 5 12 9
VENSIM 8 10 7
MARIONNET 5 7 9
NETKIT 6 8 7
GEOIP 9 17 8
REAL 7 5 5
NEST 5 10 9
PTOLEMY 7 8 4

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