Serialized Form

Package yass.analysis

Class yass.analysis.AnalysisException extends java.lang.Exception implements Serializable

Class yass.analysis.AnalysisResults extends java.lang.Object implements Serializable

Serialized Fields

id

int id

Unique ID assigned to results set

simulationId

int simulationId

Unique ID of simulation from which these results are obtained

iterations

int iterations

Number of simulation iterations completed at time of analysis

simulatedTime

double simulatedTime

Number of simulated seconds completed at time of analysis

nodeCount

int nodeCount

Number of nodes participating in network

producerNodeCount

int producerNodeCount

Number of nodes which may act as packet producers

producerNodeCountPercent

double producerNodeCountPercent

Percentage of total nodes participating in network which may act as packet producers

neighbourStatistics

Statistics neighbourStatistics

Statistics about potential communication-partner neighbours of all nodes participating in the network

interferenceSourceStatistics

Statistics interferenceSourceStatistics

Statistics about potential communication-corrupting neighbours of all nodes participating in the network

nodeEnergyUsedReal

Statistics nodeEnergyUsedReal

Statistics about energy used by nodes participating in the network

nodeEnergyRemainingReal

Statistics nodeEnergyRemainingReal

Statistics about energy remaining unused by nodes participating in the network

nodeEnergyUsedClairvoyant

Statistics nodeEnergyUsedClairvoyant

Statistics about energy used by nodes participating in the network, adjusted for clairvoyant state management

nodeEnergyRemainingClairvoyant

Statistics nodeEnergyRemainingClairvoyant

Statistics about energy remaining unused by nodes participating in the network, adjusted for clairvoyant state management

nodeEnergyClairvoyanceSavings

Statistics nodeEnergyClairvoyanceSavings

Statistics about energy savings achieved by clairvoyant state management

energyUsedPerNodeReal

java.util.Map<K,V> energyUsedPerNodeReal

Mapping of node ID to energy consumed in Joules

energyUsedPerNodeClairvoyant

java.util.Map<K,V> energyUsedPerNodeClairvoyant

Mapping of node ID to energy consumed in Joules, adjusted for clairvoyant state management

energyRemainingPerNodeReal

java.util.Map<K,V> energyRemainingPerNodeReal

Mapping of node ID to energy consumed in Joules

energyRemainingPerNodeClairvoyant

java.util.Map<K,V> energyRemainingPerNodeClairvoyant

Mapping of node ID to energy consumed in Joules, adjusted for clairvoyant state management

energyUsedClairvoyanceSaving

java.util.Map<K,V> energyUsedClairvoyanceSaving

Mapping of node ID to energy saved in Joules, when activity adjusted for clairvoyant state management

nodeStateDurationsAllStates

Statistics nodeStateDurationsAllStates

Statistics about the durations for which nodes maintained a steady state between state transitions, considering all nodes and possible node states together

nodeStateEnergyAllStates

Statistics nodeStateEnergyAllStates

Statistics about the energy consumed by nodes as they maintained a steady state between state transitions, considering all nodes and possible node states together

nodeStateClairvoyantEnergyAllStates

Statistics nodeStateClairvoyantEnergyAllStates

Statistics about the energy which would have been consumed by nodes as they maintained a steady state between state transitions, considering all nodes and possible node states together, if node state was managed clairvoyantly and switching into low-energy states whenever it would have been possible without changing observed network behaviour

nodeStateDurations

java.util.Map<K,V> nodeStateDurations

Mapping of each node state, adopted at least once by one node during simulation, to statistics about the durations for which all nodes participating in the network maintained this state

nodeStateEnergy

java.util.Map<K,V> nodeStateEnergy

Mapping of each node state, adopted at least once by one node during simulation, to statistics about the energy consumed by all nodes participating in the network while maintaining this state

nodeStateClairvoyantEnergy

java.util.Map<K,V> nodeStateClairvoyantEnergy

Mapping of each node state, adopted at least once by one node during simulation, to statistics about the energy consumed by all nodes participating in the network while maintaining this state, if the nodes state had been managed clairvoyantly to switch into low-energy states whenever it would have been possible to do so without changing observed network behaviour

rmStateDurationsAllStates

Statistics rmStateDurationsAllStates

Statistics about the durations for which radios maintained a steady state between state transitions, considering all radios and possible radio states together

rmStateEnergyAllStates

Statistics rmStateEnergyAllStates

Statistics about the energy consumed by radios as they maintained a steady state between state transitions, considering all radios and possible radio states together

rmStateClairvoyantEnergyAllStates

Statistics rmStateClairvoyantEnergyAllStates

Statistics about the energy which would have been consumed by radios as they maintained a steady state between state transitions, considering all radios and possible radio states together, if radio state was managed clairvoyantly and switching into low-energy states whenever it would have been possible without changing observed network behaviour

rmStateDurations

java.util.Map<K,V> rmStateDurations

Mapping of each radio state, adopted at least once by one radio during simulation, to statistics about the durations for which all radios participating in the network maintained this state

rmStateEnergy

java.util.Map<K,V> rmStateEnergy

Mapping of each radio state, adopted at least once by one radio during simulation, to statistics about the energy consumed by all radios participating in the network while maintaining this state

rmStateClairvoyantEnergy

java.util.Map<K,V> rmStateClairvoyantEnergy

Mapping of each radio state, adopted at least once by one radio during simulation, to statistics about the energy consumed by all radios participating in the network while maintaining this state, if the radios state had been managed clairvoyantly to switch into low-energy states whenever it would have been possible to do so without changing observed network behaviour

generatedPacketCount

int generatedPacketCount

Number of generated packets

generatedBitCount

int generatedBitCount

Number of generated bits

deliveredPacketCount

int deliveredPacketCount

Number of delivered packets

deliveredBitCount

int deliveredBitCount

Number of delivered bits

undeliveredPacketCount

int undeliveredPacketCount

Number of undelivered packets

undeliveredBitCount

int undeliveredBitCount

Number of undelivered bits

copiesReceivedAllPackets

Statistics copiesReceivedAllPackets

Statistics about how many copies of generated packets arrived at each node, considering both those packets which arrived at their intended destinations and those which did not

copiesReceivedDeliveredPackets

Statistics copiesReceivedDeliveredPackets

Statistics about how many copies of generated packets arrived at each node, considering only those packets which arrived at their intended destinations and disregarding those which did not

latencies

Statistics latencies

Statistics about the packet delivery latencies of packets which were successfully delivered to their intended destinations, considering only the first copy of each packet to arrive at the destination

hopCounts

Statistics hopCounts

Statistics about the number of network hops observed along the delivery routes of packets successfully delivered to their intended destinations, considering only the first copy of each packet to arrive at the destination

directPhysicalDistances

Statistics directPhysicalDistances

Statistics about straight-line distances between source and sink for delivered packets

directPhysicalSpeeds

Statistics directPhysicalSpeeds

Statistics about straight-line speeds between source and sink for delivered packets

actualPhysicalDistances

Statistics actualPhysicalDistances

Statistics about actual-traversed-path distances between source and sink for delivered packets

actualPhysicalSpeeds

Statistics actualPhysicalSpeeds

Statistics about actual-traversed-path speeds between source and sink for delivered packets

deliveryPathStraightness

Statistics deliveryPathStraightness

Statistics about the straightness of packet delivery paths for delivered packets, comparing the direct physical distances and actual traversed physical distances between the source and destination nodes. Increasing straightness in the interval (0,1] corresponds to an actual traversed distance more closely matching the direct distance, and hence closeness to the shortest possible physical path (achievable only if the delivery path consists of exactly two nodes, or all nodes on the delivery path are aligned in a precise straight line, or in an infinitely dense network).

deliveredPacketMetres

double deliveredPacketMetres

Total count of distance traversed by the first received copy of all successfully delivered packets. This measure is of little interest in itself, but is a required component used in calculating other measures at a later stage of processing.

deliveredPacketHops

int deliveredPacketHops

Total count of network hops traversed by the first received copy of all successfully delivered packets. This measure is of little interest in itself, but is a required component used in calculating other measures at a later stage of processing.

realEnergyPerBit

double realEnergyPerBit

Energy consumed per delivered bit

realEnergyPerPacket

double realEnergyPerPacket

Energy consumed per delivered packet

clairvoyantEnergyPerBit

double clairvoyantEnergyPerBit

Energy consumed per delivered bit if radio had been switched off whenever it was not doing useful work

clairvoyantEnergyPerPacket

double clairvoyantEnergyPerPacket

Energy consumed per delivered packet if radio had been switched off whenever it was not doing useful work

clairvoyancySavingPerBitPercent

double clairvoyancySavingPerBitPercent

Energy per delivered bit which would have been saved with a clairvoyant radio state management policy

clairvoyancySavingPerPacketPercent

double clairvoyancySavingPerPacketPercent

Energy per delivered packet which would have been saved with a clairvoyant radio state management policy

receptionStateCount

java.util.Map<K,V> receptionStateCount

Mapping of final packet reception state to the number of packet reception attempts ending in that state

transmissionStateCount

java.util.Map<K,V> transmissionStateCount

Mapping of final packet transmission state to the number of packet transmission attempts ending in that state

packetCoverageTimes

java.util.Map<K,V> packetCoverageTimes

Mapping of required propagation proportion to statistics about the critical time periods taken to reach these propagation targets

packetCoverageNodeTargets

java.util.Map<K,V> packetCoverageNodeTargets

Mapping of required propagation proportion to the minimal number of nodes required to meet the propagtion proportion target

packetCoveragePacketCounts

java.util.Map<K,V> packetCoveragePacketCounts

Mapping of required propagation proportion to the number of packets which were successfully propagated to at least the minimum number of nodes required to satisfy the propagation proportion target

packetCoverageAnalysisCompleted

boolean packetCoverageAnalysisCompleted

Flag indicating whether packet coverage stats were calculated by the analyser; this analysis can be disabled for faster runtime if the results are not required.

deliveredLatencyPerHop

Statistics deliveredLatencyPerHop

For delivered packets only, the latency divided by the number of hops, to normalise for logical network size (value is the mean). Unit is seconds.

deliveredLatencyPerMetre

Statistics deliveredLatencyPerMetre

For delivered packets only, the latency divided by the number of metres, to normalise for physical network size (value is the mean). Unit is seconds per metre.

packetDeliveryFailureRatio

double packetDeliveryFailureRatio

The ratio between the number of packets generated and queued for delivery, and the number of packets successfully delivered to the correct destination(s). The packet delivery failure ratio added to the packet delivery success ratio always sum to 1. Using the delivery failure ratio enables this quality measure to conform to the [low value = high quality] pattern of the other quality measures. Unitless.

energyPerPacketPerMetre

double energyPerPacketPerMetre

The energy required to move one packet by one metre in the network. This includes the energy expended in duplicate deliveries, and attempted deliveries that ultimately fail (value is the mean). Unit is Joules per packet per metre.

energyPerPacketPerHop

double energyPerPacketPerHop

The energy required to move one packet by one hop in the network. This includes the energy expended in duplicate deliveries, and attempted deliveries that ultimately fail (value is the mean). Unit is Joules per packet per hop.

clairvoyantEnergyPerPacketPerMetre

double clairvoyantEnergyPerPacketPerMetre

The energy required to move one packet by one metre in the network. This includes the energy expended in duplicate deliveries, and attempted deliveries that ultimately fail (value is the mean). This value is adjusted to assume a clairvoyant energy/state management policy. Unit is Joules per packet per metre.

clairvoyantEnergyPerPacketPerHop

double clairvoyantEnergyPerPacketPerHop

The energy required to move one packet by one hop in the network. This includes the energy expended in duplicate deliveries, and attempted deliveries that ultimately fail (value is the mean). This value is adjusted to assume a clairvoyant energy/state management policy. Unit is Joules per packet per hop.

packetDeliveryStatsArrived

java.util.Map<K,V> packetDeliveryStatsArrived

Mapping of packet ID to end-to-end delivery status for all packets generated in the simulated network which were observed at at least one other node than the source node

packetDeliveryStatsDistanceFromSource

java.util.Map<K,V> packetDeliveryStatsDistanceFromSource

Mapping of packet ID to the distance from source node that the packet attains at the exposed node closest to the intended destination for all packets generated in the simulated network which were observed at at least one other node than the source node

packetDeliveryStatsDistanceToDestination

java.util.Map<K,V> packetDeliveryStatsDistanceToDestination

Mapping of packet ID to the distance to destination node that the packet attains at the exposed node closest to the intended destination for all packets generated in the simulated network which were observed at at least one other node than the source node

packetDeliveryStatsDistanceProportionTraversed

java.util.Map<K,V> packetDeliveryStatsDistanceProportionTraversed

Mapping of packet ID to the proportion of the straight-line path between source and destination which is represented by the distance from the source node to the packet-exposed location nearest the intended sink for all packets generated in the simulated network which were observed at at least one other node than the source node

packetDeliveryStatsAssociatedHops

java.util.Map<K,V> packetDeliveryStatsAssociatedHops

Mapping of packet ID to the total number of node-to-node hops for each packet generated in the simulated network which were observed at at least one other node than the source node

packetDeliveryStatsTimeToClosest

java.util.Map<K,V> packetDeliveryStatsTimeToClosest

Mapping of packet ID to the number of seconds elapsed between the generation of a packet, and the arrival of that packet at the location closest to the intended destination exposed to that packet, for all packets generated in the simulated network which were observed at at least one other node than the source node

packetDeliveryStatsHopsToClosest

java.util.Map<K,V> packetDeliveryStatsHopsToClosest

Mapping of packet ID to the number of node-to-node hops along the observed delivery path from source node to the location nearest to the intended destination that was observed during simulated activity, for all packets generated in the simulated network which were observed at at least one other node than the source node

Class yass.analysis.Statistics extends java.lang.Object implements Serializable

Serialized Fields

minimum

double minimum

The minimum

maximum

double maximum

The maximum

mean

double mean

The mean

sd

double sd

The standard deviation

median

double median

The median

sum

double sum

The sum

count

int count

The count of raw data items

Package yass.backoff

Class yass.backoff.BackoffException extends java.lang.Exception implements Serializable

Package yass.database

Class yass.database.DatabaseException extends java.lang.Exception implements Serializable

Package yass.energy

Class yass.energy.EnergyException extends java.lang.Exception implements Serializable

Package yass.modularforwarding.scoring

Class yass.modularforwarding.scoring.ScoreException extends java.lang.Exception implements Serializable

Package yass.network

Class yass.network.NodeException extends java.lang.Exception implements Serializable

Class yass.network.RouteException extends java.lang.Exception implements Serializable

Package yass.radio

Class yass.radio.PathLossException extends RadioModuleException implements Serializable

Class yass.radio.RadioModuleException extends java.lang.Exception implements Serializable

Class yass.radio.ReceptionException extends RadioModuleException implements Serializable

Class yass.radio.TransmissionException extends RadioModuleException implements Serializable

Package yass.simulation

Class yass.simulation.SimulationException extends java.lang.Exception implements Serializable

Package yass.traffic.producer

Class yass.traffic.producer.PacketProducerException extends java.lang.Exception implements Serializable

Package yass.util

Class yass.util.LogException extends java.lang.Exception implements Serializable