Network WSNRouting

Package: org.mixim.examples.WSNRouting
File: examples/WSNRouting/WSNRouting.ned

This example shows how to simulate wireless sensor networks. Three different routing protocols are considered, for different traffic types: convergecast, with Wiseroute; network-level broadcast, with flooding; and probabilistic broadcast.

Usage diagram:

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Inheritance diagram:

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Parameters:

Name	Type	Description
playgroundSizeX	double	x size of the area the nodes are in (in meters)
playgroundSizeY	double	y size of the area the nodes are in (in meters)
playgroundSizeZ	double	z size of the area the nodes are in (in meters)
numHosts	double	total number of hosts in the network

Properties:

Name	Value	Description
isNetwork
display	bgb=$playgroundSizeX,$playgroundSizeY,white,,;bgp=10,50

Unassigned submodule parameters:

Name	Type	Default value	Description
connectionManager.coreDebug	bool		debug switch for core framework
connectionManager.sendDirect	bool		send directly to the node or create separate gates for every connection
connectionManager.pMax	double		maximum sending power used for this network [mW]
connectionManager.sat	double		minimum signal attenuation threshold [dBm]
connectionManager.alpha	double		minimum path loss coefficient
connectionManager.carrierFrequency	double		minimum carrier frequency of the channel [Hz]
connectionManager.drawMaxIntfDist	bool	false	should the maximum interference distance be displayed for each node?
world.coreDebug	bool		debug switch for the base framework
world.useTorus	bool		use the playground as torus?
world.use2D	bool		use a 2-dimensional world?
node.utility.coreDebug	bool		debug switch for the base framework
node.batteryStats.debug	bool		write per-activity and per-device statistics to omnetpp.sca (if false, only total energy and lifetime are written)
node.batteryStats.detail	bool	false	subscribe to battery status and record time series data in omnetpp.vec (resolution depends on battery's publishDelta)
node.batteryStats.timeSeries	bool	false
node.battery.debug	bool
node.battery.nominal	double	1000 mAh	nominal battery capacity
node.battery.capacity	double	1000 mAh	battery capacity
node.battery.voltage	double	3 V	nominal voltage
node.battery.resolution	double	60 s	capacity is updated at least every resolution time
node.battery.publishDelta	double	1	if > 0, capacity is published to the BB each publishTime interval
node.battery.publishTime	double	60 s	number of modules that will draw energy from the battery
node.battery.numDevices	int	1
node.mobility.coreDebug	bool		debug switch for the core framework
node.mobility.x	double		x coordinate of the nodes' position (-1 = random)
node.mobility.y	double		y coordinate of the nodes' position (-1 = random)
node.mobility.z	double		z coordinate of the nodes' position (-1 = random)
node.nic.phy.coreDebug	bool		debug switch for core framework
node.nic.phy.recordStats	bool	false	enable/disable tracking of statistics (eg. cOutvectors)
node.nic.phy.usePropagationDelay	bool		Should transmission delay be simulated?
node.nic.phy.useThermalNoise	bool		should thermal noise be considered?
node.nic.phy.analogueModels	xml		Specification of the analogue models to use and their parameters
node.nic.phy.sensitivity	double		The sensitivity of the physical layer [dBm]
node.nic.phy.maxTXPower	double		The maximum transimission power of the physical layer [mW]
node.nic.phy.initialRadioState	int	0	state the radio is initially in
node.nic.phy.radioMinAtt	double	1.0	radios gain factor (attenuation) while receiving
node.nic.phy.radioMaxAtt	double	0.0	radios gain factor (attenuation) while not receiving
node.nic.phy.nbRadioChannels	int	1	Number of available radio channels. Defaults to single channel radio.
node.nic.phy.initialRadioChannel	int	0	Initial radio channel.
node.nic.phy.numActivities	int	5	the number of different power consuming activities the phy layer has change this parameter if your decider or physical layer uses more than the default 5 activities (sleep, rx, tx, switching, decoding)
node.nic.mac.notAffectedByHostState	bool	false
node.nic.mac.coreDebug	bool		debug switch
node.nic.mac.debug	bool	false	debug switch
node.nic.mac.stats	bool	true
node.nic.mac.trace	bool	false
node.nic.mac.queueLength	double	100	size of the MAC queue (maximum number of packets in Tx buffer)
node.nic.mac.txPower	double	1 mW	tx power [mW]
node.nic.mac.useMACAcks	bool	true	Send/Expect MAC acks for unicast traffic?
node.nic.mac.macMaxFrameRetries	double	3	maximum number of frame retransmission only used when usage of MAC acks is enabled
node.nic.mac.macMaxCSMABackoffs	double	4	maximum backoffs
node.nic.mac.contentionWindow	int	2	# of backoff periods of the initial contention window (for linear and constant backoff method only)
node.nic.mac.macMinBE	double	3	minimum backoff exponent (for exponential backoff method only)
node.nic.mac.macMaxBE	double	5	maximum backoff exponent (for exponential backoff method only)
node.net.stats	bool		stats switch
node.net.headerLength	double		length of the network packet header (in bits)
node.transport.notAffectedByHostState	bool	false
node.transport.trace	bool	false
node.transport.stats	bool	true
node.transport.headerLength	int	2 byte
node.transport.interPacketDelay	double	0 s	this class does not send more than two packets to the same destination in a time interPacketDelay to the lower layer. It is deactivated if this value is set to 0.
node.transport.nbMaxPacketsPerAggregation	int	10	maximum number of packets to aggregate per sending
node.arp.coreDebug	bool		debug switch for the core framework
node.arp.debug	bool	false	enable debugging for this module
node.arp.offset	int	0	Adds an offset to node addresses
node.app.debug	bool	false	debug switch
node.app.stats	bool	true	stats generation switch
node.app.trace	bool	false	activates detailed logging (per source latencies and vector logging). stats must be true.
node.app.broadcastPackets	bool	false	send packets in broadcast mode
node.app.nbPackets	double	0
node.app.destAddr	int	0
node.app.trafficType	string	"periodic"	Can be one of: periodic, uniform or exponential
node.app.trafficParam	double	1	the mean time between two packets
node.app.initializationTime	double	1 min	minimum time before generation of the first packet
node.app.headerLength	int	2 byte

Source code:

//
// This example shows how to simulate wireless sensor networks.
// Three different routing protocols are considered, for different traffic 
// types:
// convergecast, with Wiseroute;
// network-level broadcast, with flooding;
// and probabilistic broadcast.
//
network WSNRouting
{
    parameters:
        double playgroundSizeX @unit(m); // x size of the area the nodes are in (in meters)
        double playgroundSizeY @unit(m); // y size of the area the nodes are in (in meters)
        double playgroundSizeZ @unit(m); // z size of the area the nodes are in (in meters)
        double numHosts; // total number of hosts in the network

        @display("bgb=$playgroundSizeX,$playgroundSizeY,white,,;bgp=10,50");
    submodules:
        connectionManager: ConnectionManager {
            parameters:
                @display("p=225,40;b=42,42,rect,yellow;i=abstract/multicast");

        }
        world: BaseWorldUtility {
            parameters:
                playgroundSizeX = playgroundSizeX;
                playgroundSizeY = playgroundSizeY;
                playgroundSizeZ = playgroundSizeZ;
                @display("p=30,0;i=misc/globe");
        }
        node[numHosts]: Host802154_2400MHz {
            parameters:
                numHosts = numHosts;
                @display("p=75,130;b=42,42,rect,yellow;i=device/wifilaptop");

        }
    connections allowunconnected:
}