Update paper

This commit is contained in:
Loic Guegan 2019-05-22 11:24:17 +02:00
parent 5a77b67d6b
commit 8bdcd37ac4
983 changed files with 15976333 additions and 5 deletions

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# G5K Simulation Scripts
- client.py is run by utils.sh
- setup-mysql.sql used by utils.sh to configure server database
- utils.sh contains functionnality to:
- Subscribe in G5K
- Kill all VMs on the subscribed nodes
- Inspect the database
- Purge the database
- run-sim.sh use utils.sh to run all the simulations
- record-energy.sh fetch energy csv files from G5K
- energyFromLogs.sh use record-energy.sh to fetch energy data using run-sim.sh logs

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src/g5k/clients.py Executable file
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#!/usr/bin/python
from __future__ import division
import os,sys,random, time,datetime
from subprocess import Popen
# Check script argument
if len(sys.argv) != 6:
print("Usage: "+sys.argv[0]+" <mysqlServerIp> <nbSensors> <nbSensorsFactor> <requestPerSensor> <sendInterval>")
exit(1)
# Init script parameters
serverIp=sys.argv[1]
nbSensors=int(sys.argv[2])
nbSensorsFactor=int(sys.argv[3])
effectiveNbSensors=nbSensors*nbSensorsFactor
requestPerSensor=int(sys.argv[4])
sendInterval=int(sys.argv[5])
avgSiteTemp=list()
for i in range(0,effectiveNbSensors):
avgSiteTemp.append(random.randint(-10,30))
def insert(sensorId, value):
""" Send value of sensorId into the database """
stamp=int(time.mktime(datetime.datetime.today().timetuple()))
insertCMD = "mysql -u user --password=mysql --host="+serverIp+" experiment -e"
insertCMD=insertCMD.split()
insertCMD.append("INSERT INTO temperature (id,stamp,val) VALUES("+str(sensorId)+","+str(stamp)+","+str(value)+");")
Popen(insertCMD) # Run command asynchronously
def send():
""" Send temperature of each sensors into the database """
for i in range(0,effectiveNbSensors):
insert(i,random.gauss(avgSiteTemp[i], 3))
# Print infos
print("Launching clients with:")
print(" - Mysql Server IP {:>20}".format(serverIp))
print(" - Number of sensors {:>18}".format(effectiveNbSensors))
print(" - Number of request per sensor {:>7}".format(effectiveNbSensors))
# Send data
for i in range(0, requestPerSensor):
send()
time.sleep(sendInterval) # We assume send() take no time

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src/g5k/energyFromLogs.sh Executable file
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#!/bin/bash
logFile="$(dirname $(readlink -f $0))"/simLogs.txt
getValue () {
line=$(echo "$1" | grep "Simulation para"|sed "s/Simulation parameters: //g")
key=$2
echo "$line"|awk 'BEGIN{RS=" ";FS=":"}"'$key'"==$1{gsub("\n","",$0);print $2}'
}
IFS=$'\n'
for cmd in $(cat $logFile|grep "Simulation parameters")
do
nodeName=$(getValue $cmd serverNodeName)
from=$(getValue $cmd simStart)
to=$(getValue $cmd simEnd)
vmSize=$(getValue $cmd vmSize)
nbSensors=$(getValue $cmd nbSensors)
simKey=$(getValue $cmd simKey)
delayStart=$(getValue $cmd delayStart)
./recordEnergy.sh nova $nodeName $from $to "${simKey}_${vmSize}VMSIZE_${nbSensors}NBSENSORS_${from}${to}.csv"
./recordEnergy.sh nova $nodeName $delayStart $from "${simKey}_${vmSize}VMSIZE_${nbSensors}NBSENSORS_${from}${to}_IDLE.csv"
done

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#!/bin/bash
# Parse argument
[ $# != 5 ] && { echo "Usage: $0 <cluster-name> <node-name> <from> <to> <output-file>"; exit 1; }
# Init arguments
clusterName="$1"
nodeName="$2"
outputFile="$5"
wattmeter=$(curl -s https://api.grid5000.fr/stable/sites/lyon/clusters/${clusterName}/nodes/${nodeName}.json | jq -r '.sensors.power.via.pdu[0].uid')
port=$(curl -s https://api.grid5000.fr/stable/sites/lyon/pdus/${wattmeter}.json | jq -r '.ports|to_entries|map(select(.value=="'${nodeName}'"))[0].key')
energyEntry=$(( 5 + port )) # Define the entry in the CSV that correspond to the correct energy value
if [ -z $wattmeter ] || [ -z $port ]
then
echo -ne "\nCannot find energy informations (wattmeter/port) for node $nodeName\n"
echo -ne "\nCheck the node name (do not use hostname! only node name ex: nova-7)\n"
exit 1
fi
echo "Node ${nodeName} is connected on wattmeter ${wattmeter} on port ${port}"
# Fetching energy and save in csv format
from=$(date -d "@$3" "+%s")
to=$(date -d "@$4" "+%s")
echo "ts,energy" > $outputFile # Write CSV header
for time in $(seq $from 3600 $to)
do
# We need gz extension if it is not the current hour
[ $(date -d "@$time" "+%Y-%m-%dT%H") != $(date "+%Y-%m-%dT%H") ] && ext='.gz' || ext=''
powerFilename=$(date -d "@$time" "+power.csv.%Y-%m-%dT%H${ext}")
url="http://wattmetre.lyon.grid5000.fr/data/${wattmeter}-log/${powerFilename}"
echo "- Fetching logs from ${url}"
# Fetch logs data
[ ! -z $ext ] && csvContent=$(curl -s "${url}" | zcat) || csvContent=$(curl -s "${url}")
# Parse data and extract the right values in csv format
toSave=$(echo "$csvContent" | awk -F, 'int($3)>='$from'&& int($3)<='$to'{printf "%s,%s\n",$3,$5+'$port'};')
echo "$toSave" >> $outputFile # Save data in csv
done
echo "Done"

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#!/bin/bash
# Parameters
delay=60 # Delay before starting simulation (let CPU energy going down on the server)
nbSensors=20 # Number of sensors that will send request to de server
nbSensorsFactor=3 # nbSensors*nbSensorFactor
simulationTime=300 # Approximative
sensorsSendInterval=10 # Delay between sensors requests
# requestPerSensor dynamically computed inside init-nodes
vmSize=2048 # Number of alocated ram
simKey="NONE"
# Where script is located
simScript=$(dirname $(readlink -f "$0"))/utils.sh
# Build a function using the script
initNodes () {
source "$simScript"
}
##### Test VM RAM #####
simKey="vmSize"
for vmSize in $(echo 1024 2048 4096)
do
initNodes deploy
initNodes kill # Kill all vms (do not forget :D)
done
vmSize=2048 # Reset vmSize
simKey="nbSensors"
##### Test number of sensors #####
for nbSensors in $(echo 20 100 300)
do
initNodes deploy
initNodes kill # Kill all vms
done

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create DATABASE IF NOT EXISTS experiment;
use experiment;
create TABLE IF NOT EXISTS temperature (id INTEGER,stamp INTEGER, val INTEGER);
use mysql;
CREATE USER 'user'@'%' IDENTIFIED BY 'mysql';
GRANT ALL ON experiment.* TO 'user'@'%';

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#!/bin/bash
##### Parameters #####
if [ -z ${nbSensors+x} ] # If nbSensors exists, so all parameters are already define
then
delay=60 # Delay before starting simulation (let CPU energy going down on the server)
nbSensors=30 # Number of sensors that will send request to de server
nbSensorsFactor=3 # nbSensors*nbSensorFactor
simulationTime=300 # Approximative
sensorsSendInterval=10 # Delay between sensors requests
vmSize=2048 # Number of alocated ram
simKey="NONE"
fi
nHours=3 # Reservation dutation
requestPerSensor=$(( simulationTime / sensorsSendInterval )) # Theorical simulation time is $requestPerSensor*$sensorsSendInterval
######################
logFile="./simLogs.txt"
log () {
echo -e "\033[0;34m$@\033[0m"
}
sshWait () {
log "Waiting for for an ssh connection to a vm ($1)"
error=255
until [ $error -eq 0 ]
do
ssh -q root@$1 echo "Connected to $(hostname)"
error=$?
sleep 4
done
}
if [ "$1" = "subscribe" ] && [ $# -eq 1 ]
then
log "Subscribing..."
oarsub -l slash_22=1+{"virtual!='NO' AND cluster='nova'"}/nodes=2,walltime=$nHours 'sleep "10d"' # On node send request to the other
# oarsub -l slash_22=1+{"virtual!='NO'"}/nodes=2,walltime=$nHours 'sleep "10d"' # On node send request to the other
elif [ "$1" = "deploy" ] && [ $# -eq 1 ]
then
# Get machine mac address
serverSubnet=$(g5k-subnets -im|sed "1q;d")
serverMac=$(echo "$serverSubnet"|sed "s/^.*\t//g")
serverIp=$(echo "$serverSubnet"|sed "s/\t.*$//g")
clientIp=$(hostname) # Not really a IP but :P
clientNode=$(hostname)
serverNode=$(cat $OAR_NODE_FILE|uniq|sed "s/$clientNode//g"|sed "s/ //g"|tr -d '\n')
onS="oarsh $serverNode" # For convenience
# Init vm images
log "Create server vm image"
$onS cp -n /grid5000/virt-images/debian9-x64-base.qcow2 /tmp/
$onS qemu-img create -f qcow2 -o backing_file=/tmp/debian9-x64-base.qcow2 /tmp/img.qcow2
sleep 1 # Wait for fun
# Build cloud init iso (to have ssh access witouth password
log "Create server cloud-init image"
$onS cp /grid5000/virt-images/cloud-init-example.sh /tmp/
$onS "cd /tmp && export cloud_init_key=\$(cat ~/.ssh/id_rsa.pub) && ./cloud-init-example.sh"
$onS "cd /tmp && genisoimage -output cloud-init-data.iso -volid cidata -joliet -rock cloud-init-data/user-data cloud-init-data/meta-data"
# Launch vm
log "Launch server vm"
$onS kvm -m ${vmSize}M -hda /tmp/img.qcow2 -netdev bridge,id=br0 -device virtio-net-pci,netdev=br0,id=nic1,mac=$serverMac -cdrom /tmp/cloud-init-data.iso -display none -daemonize &
##### Server #####
onS="ssh root@$serverIp" # Don't forget to use vm
sshWait $serverIp
# One apt-get update seems to be not enought to get mysql-server
$onS "apt-get update && apt-get update"
$onS apt-get -y install mysql-server
# Enable mysql connection from outside
$onS sed -i "s/bind-address/#bind-address/g" /etc/mysql/mariadb.conf.d/50-server.cnf
$onS 'echo -e "[mysqld]\nmax_connections = 100000" >> /etc/mysql/my.cnf' # Otherwise you will have the error "TOO MANY CONNECTION"
$onS systemctl restart mysql
rsync -avh setup-mysql.sql root@$serverIp:/tmp/ # Send mysl setup script
$onS "mysql < /tmp/setup-mysql.sql" # Then execute it
##### Start Simulation #####
serverNodeName=$(echo $serverNode|grep -o ^.*[-][0-9]*|tr -d '\n') # For logging
log "Simulation will start in ${delay}s"
delayStart=$(date "+%s") # Used to compute the idle energy consumption
sleep $delay
simStart=$(date "+%s")
echo "---------- Simulation (key=${simKey}) start at $simStart ($(date -d @${simStart}))" >> $logFile
python ./clients.py $serverIp $nbSensors $nbSensorsFactor $requestPerSensor $sensorsSendInterval
simEnd=$(date "+%s")
echo "Simulation parameters: serverNode:$serverNode serverIp:$serverIp serverMac:$serverMac clientNode:$clientNode clientNode:$clientNode clientMac:$clientMac delay:$delay delayStart:${delayStart} nbSensors:$nbSensors nbSensorsFactor:$nbSensorsFactor requestPerSensors:$requestPerSensor sensorsSendInterval:${sensorsSendInterval} simKey:${simKey} simStart:${simStart} simEnd:${simEnd} duration:$(( simEnd - simStart )) serverNodeName:${serverNodeName} vmSize:${vmSize}" >> $logFile
echo "./recordEnergy.sh nova $serverNodeName $simStart $simEnd energy_${simKey}_${nbSensors}NS_${vmSize}vmSize_${simStart}_${simEnd}.csv" >> $logFile
echo -e "---------- Simulation (key=${simKey}) end at ${simEnd} ($(date -d @${simEnd}))\n" >> $logFile
log "Simulation end ! Please see $logFile for more infos"
##### End Simulation #####
##### Print some infos #####
log "Network Settings:"
log " - Server $serverNode, $serverIp, $serverMac"
log " - Client $clientNode, $clientIp, $clientMac"
log "Simulation Settings:"
log " - Simulation delay ${delay}s"
log " - Number of sensors $(( nbSensors * nbSensorsFactor))"
log " - Number of request per sensors $requestPerSensor"
log " - Number of request per seconds on eachsensors $sensorsRequestPerSec"
elif [ "$1" = "kill" ] && [ $# -eq 1 ]
then
##### Kill all kvm on the subscribed nodes #####
isServer=1
finished=0
for node in $(cat $OAR_NODE_FILE|uniq)
do
[ $isServer -eq 1 ] && { curMac=$serverMac; isServer=0; serverNode=$node; } || { curMac=$clientMac; finished=1; clientNode=$node; }
log "Killing vm on node $node"
oarsh $node pkill -9 qemu &
[ $finished -eq 1 ] && break
done
elif [ "$1" = "inspect" ] && [ $# -eq 2 ]
then
##### Show content of the database #####
mysql --host="$2" -u user --password="mysql" experiment -e "SELECT * FROM temperature;"
elif [ "$1" = "flush" ] && [ $# -eq 2 ]
then
##### Flush content of the temperature table #####
log "Cleaning database table..."
mysql --host="$2" -u user --password="mysql" experiment -e "TRUNCATE TABLE temperature;"
else
echo "Usage:"
echo " - $0 subscribe"
echo " - $0 deploy"
echo " - $0 kill"
echo " - $0 inspect <serverIP>"
echo " - $0 flush <serverIP>"
fi

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-1,1622.11
0,3422.92
1,3600
2,3600
3,3600
4,3600
5,3600
6,3600
7,3600
8,3600
9,1800

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#!/bin/bash
##### Arguments #####
nHost=20 # At least 20 host x)
nProcesses=3 # Max number of parrallel simulations (don't go too high, your process will be killed (arround 8))
nHours=4 # Reservation duration
simArgsLoc=~/args/ # Don't change this path witouth changing it in workder scripts
finishedFile="$simArgsLoc/finished-microBenchmarks.txt"
logsFinalDst=~/logs/
#####################
# Check
[ "$1" == "subscribe" ] && subscribe=1 ||subscribe=0
[ "$1" == "deploy" ] && deploy=1 || deploy=0
[ "$1" == "-p" ] && progress=1 || progress=0
[ "$1" == "scan" ] && scan=1 || scan=0
handleSim () {
[ -z "${argId}" ] && argId=1 || argId=$(( argId + 1 ))
outF="$simArgsLoc/${argId}.sh" # Args file based on host name (avoid conflict)
# Add Shebang
echo '#!/bin/bash' > $outF
echo "finishedFile=\"$finishedFile\"" >> $outF
echo "nProcesses=$nProcesses" >> $outF
echo "logsFinalDst=\"$logsFinalDst\"" >> $outF
# Save arguments
echo "sensorsSendInterval=${sensorsSendInterval}" >> $outF
echo "sensorsPktSize=${sensorsPktSize}" >> $outF
echo "nbHop=${nbHop}" >> $outF
echo "simKey=\"${simKey}\"" >> $outF
echo "sensorsNumber=${sensorsNumber}" >> $outF
echo "linksLatency=${linksLatency}" >> $outF
echo "sensorsNumber=${sensorsNumber}" >> $outF
echo "linksBandwidth=${linksBandwidth}" >> $outF
echo "positionSeed=${positionSeed}" >> $outF
}
# Start subscribe/deploy
if [ $subscribe -eq 1 ]
then
echo "Starting oarsub..."
oarsub -l host=$nHost,walltime=$nHours 'sleep "10d"' # Start reservation
echo "Please join your node manually when your reservation is ready by using oarsub -C <job-id>"
exit 0
elif [ $deploy -eq 1 ]
then
echo "Starting deployment..."
##### Usefull Variables #####
wai=$(dirname "$(readlink -f $0)") # Where Am I ?
hostList=($(cat $OAR_NODE_FILE | uniq))
#############################
# Initialize logsFinalDst
mkdir -p $logsFinalDst
rm -rf $logsFinalDst/* # Clean log dst just in case (it is dangerous but avoid conflict)
mkdir -p $simArgsLoc
rm -rf $simArgsLoc/* # Clean old args
# Add your simulation code block here
simulator="simulator/simulator"
parseEnergyScript="./parseEnergy.awk"
parseDelayScript="./parseDelay.awk"
logFolder="logs/"
export LD_LIBRARY_PATH=${LD_LIBRARY_PATH}:${NS3_PATH}/build/lib
# Default Parameters
sensorsSendInterval=1 # DON'T GO BELOW 1 SECONDS !!!!!!! Simulator will stay stuck
sensorsPktSize=192 # 1 byte temperature (-128 à +128 °C) and 4Byte sensorsId
sensorsNumber=5
nbHop=10 # Cf paper AC/Yunbo
linksBandwidth=10000 # 10Ge links (to be coherent with energy values of ECOFEN/literature)
linksLatency=11
positionSeed=5
simKey="NOKEY"
run () {
# If another function want to handle simulation (tipically used on g5k)
type -t handleSim > /dev/null && { handleSim; return; }
local logFile="${logFolder}/${simKey}_${sensorsSendInterval}SSI_${sensorsPktSize}SPS_${sensorsNumber}SN_${nbHop}NH_${linksBandwidth}LB_${linksLatency}LL_${positionSeed}PS.org"
[ -f "$logFile" ] && return
local simCMD="$simulator --sensorsSendInterval=${sensorsSendInterval} --sensorsPktSize=${sensorsPktSize} --sensorsNumber=${sensorsNumber} --nbHop=${nbHop} --linksBandwidth=${linksBandwidth} --linksLatency=${linksLatency} --positionSeed=${positionSeed} 2>&1"
local log=$(bash -c "$simCMD")
# Compute some metrics
energyLog=$(echo "$log" | $parseEnergyScript)
avgDelay=$(echo "$log" | $parseDelayScript)
totalEnergy=$(echo "$energyLog" | awk 'BEGIN{power=0;FS=","}NR!=1{power+=$2}END{print(power)}')
sensorsEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumW=0}$1<0{sumW+=$2}END{print sumW}')
networkEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumN=0}$1>=0{sumN+=$2}END{print sumN}')
nbPacketCloud=$(echo "$log"|grep -c "CloudSwitch receive")
nbNodes=$(echo "$log"|awk '/Simulation used/{print($3)}')
ns3Version=$(echo "$log"|awk '/NS-3 Version/{print($3)}')
# Save logs
echo -e "#+TITLE: $(date) ns-3 (version ${ns3Version}) simulation\n" > $logFile
echo "* Environment Variables" >> $logFile
env >> $logFile
echo "* Full Command" >> $logFile
echo "$simCMD" >> $logFile
echo "* Output" >> $logFile
echo "$log" >> $logFile
echo "* Energy CSV (negative nodeId = WIFI, 0 = AP (Wireless+Wired), positive nodeId = ECOFEN" >> $logFile
echo "$energyLog" >> $logFile
echo "* Metrics" >> $logFile
echo "-METRICSLINE- sensorsSendInterval:${sensorsSendInterval} sensorsPktSize:${sensorsPktSize} sensorsNumber:${sensorsNumber} nbHop:${nbHop} linksBandwidth:${linksBandwidth} linksLatency:${linksLatency} totalEnergy:$totalEnergy nbPacketCloud:$nbPacketCloud nbNodes:$nbNodes avgDelay:${avgDelay} ns3Version:${ns3Version} simKey:${simKey} positionSeed:${positionSeed} sensorsEnergy:${sensorsEnergy} networkEnergy:${networkEnergy}" >> $logFile
}
simKey="NBSENSORS"
for sensorsNumber in $(seq 1 15)
do
run
done
simulator="simulator/simulator"
parseEnergyScript="./parseEnergy.awk"
parseDelayScript="./parseDelay.awk"
logFolder="logs/"
export LD_LIBRARY_PATH=${LD_LIBRARY_PATH}:${NS3_PATH}/build/lib
# Default Parameters
sensorsSendInterval=1 # DON'T GO BELOW 1 SECONDS !!!!!!! Simulator will stay stuck
sensorsPktSize=192 # 1 byte temperature (-128 à +128 °C) and 4Byte sensorsId
sensorsNumber=5
nbHop=10 # Cf paper AC/Yunbo
linksBandwidth=10000 # 10Ge links (to be coherent with energy values of ECOFEN/literature)
linksLatency=11
positionSeed=5
simKey="NOKEY"
run () {
# If another function want to handle simulation (tipically used on g5k)
type -t handleSim > /dev/null && { handleSim; return; }
local logFile="${logFolder}/${simKey}_${sensorsSendInterval}SSI_${sensorsPktSize}SPS_${sensorsNumber}SN_${nbHop}NH_${linksBandwidth}LB_${linksLatency}LL_${positionSeed}PS.org"
[ -f "$logFile" ] && return
local simCMD="$simulator --sensorsSendInterval=${sensorsSendInterval} --sensorsPktSize=${sensorsPktSize} --sensorsNumber=${sensorsNumber} --nbHop=${nbHop} --linksBandwidth=${linksBandwidth} --linksLatency=${linksLatency} --positionSeed=${positionSeed} 2>&1"
local log=$(bash -c "$simCMD")
# Compute some metrics
energyLog=$(echo "$log" | $parseEnergyScript)
avgDelay=$(echo "$log" | $parseDelayScript)
totalEnergy=$(echo "$energyLog" | awk 'BEGIN{power=0;FS=","}NR!=1{power+=$2}END{print(power)}')
sensorsEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumW=0}$1<0{sumW+=$2}END{print sumW}')
networkEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumN=0}$1>=0{sumN+=$2}END{print sumN}')
nbPacketCloud=$(echo "$log"|grep -c "CloudSwitch receive")
nbNodes=$(echo "$log"|awk '/Simulation used/{print($3)}')
ns3Version=$(echo "$log"|awk '/NS-3 Version/{print($3)}')
# Save logs
echo -e "#+TITLE: $(date) ns-3 (version ${ns3Version}) simulation\n" > $logFile
echo "* Environment Variables" >> $logFile
env >> $logFile
echo "* Full Command" >> $logFile
echo "$simCMD" >> $logFile
echo "* Output" >> $logFile
echo "$log" >> $logFile
echo "* Energy CSV (negative nodeId = WIFI, 0 = AP (Wireless+Wired), positive nodeId = ECOFEN" >> $logFile
echo "$energyLog" >> $logFile
echo "* Metrics" >> $logFile
echo "-METRICSLINE- sensorsSendInterval:${sensorsSendInterval} sensorsPktSize:${sensorsPktSize} sensorsNumber:${sensorsNumber} nbHop:${nbHop} linksBandwidth:${linksBandwidth} linksLatency:${linksLatency} totalEnergy:$totalEnergy nbPacketCloud:$nbPacketCloud nbNodes:$nbNodes avgDelay:${avgDelay} ns3Version:${ns3Version} simKey:${simKey} positionSeed:${positionSeed} sensorsEnergy:${sensorsEnergy} networkEnergy:${networkEnergy}" >> $logFile
}
simKey="SENDINTERVAL"
for sensorsNumber in $(seq 5 2 15)
do
for sensorsSendInterval in $(seq 10 10 100)
do
run
done
done
simulator="simulator/simulator"
parseEnergyScript="./parseEnergy.awk"
parseDelayScript="./parseDelay.awk"
logFolder="logs/"
export LD_LIBRARY_PATH=${LD_LIBRARY_PATH}:${NS3_PATH}/build/lib
# Default Parameters
sensorsSendInterval=1 # DON'T GO BELOW 1 SECONDS !!!!!!! Simulator will stay stuck
sensorsPktSize=192 # 1 byte temperature (-128 à +128 °C) and 4Byte sensorsId
sensorsNumber=5
nbHop=10 # Cf paper AC/Yunbo
linksBandwidth=10000 # 10Ge links (to be coherent with energy values of ECOFEN/literature)
linksLatency=11
positionSeed=5
simKey="NOKEY"
run () {
# If another function want to handle simulation (tipically used on g5k)
type -t handleSim > /dev/null && { handleSim; return; }
local logFile="${logFolder}/${simKey}_${sensorsSendInterval}SSI_${sensorsPktSize}SPS_${sensorsNumber}SN_${nbHop}NH_${linksBandwidth}LB_${linksLatency}LL_${positionSeed}PS.org"
[ -f "$logFile" ] && return
local simCMD="$simulator --sensorsSendInterval=${sensorsSendInterval} --sensorsPktSize=${sensorsPktSize} --sensorsNumber=${sensorsNumber} --nbHop=${nbHop} --linksBandwidth=${linksBandwidth} --linksLatency=${linksLatency} --positionSeed=${positionSeed} 2>&1"
local log=$(bash -c "$simCMD")
# Compute some metrics
energyLog=$(echo "$log" | $parseEnergyScript)
avgDelay=$(echo "$log" | $parseDelayScript)
totalEnergy=$(echo "$energyLog" | awk 'BEGIN{power=0;FS=","}NR!=1{power+=$2}END{print(power)}')
sensorsEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumW=0}$1<0{sumW+=$2}END{print sumW}')
networkEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumN=0}$1>=0{sumN+=$2}END{print sumN}')
nbPacketCloud=$(echo "$log"|grep -c "CloudSwitch receive")
nbNodes=$(echo "$log"|awk '/Simulation used/{print($3)}')
ns3Version=$(echo "$log"|awk '/NS-3 Version/{print($3)}')
# Save logs
echo -e "#+TITLE: $(date) ns-3 (version ${ns3Version}) simulation\n" > $logFile
echo "* Environment Variables" >> $logFile
env >> $logFile
echo "* Full Command" >> $logFile
echo "$simCMD" >> $logFile
echo "* Output" >> $logFile
echo "$log" >> $logFile
echo "* Energy CSV (negative nodeId = WIFI, 0 = AP (Wireless+Wired), positive nodeId = ECOFEN" >> $logFile
echo "$energyLog" >> $logFile
echo "* Metrics" >> $logFile
echo "-METRICSLINE- sensorsSendInterval:${sensorsSendInterval} sensorsPktSize:${sensorsPktSize} sensorsNumber:${sensorsNumber} nbHop:${nbHop} linksBandwidth:${linksBandwidth} linksLatency:${linksLatency} totalEnergy:$totalEnergy nbPacketCloud:$nbPacketCloud nbNodes:$nbNodes avgDelay:${avgDelay} ns3Version:${ns3Version} simKey:${simKey} positionSeed:${positionSeed} sensorsEnergy:${sensorsEnergy} networkEnergy:${networkEnergy}" >> $logFile
}
simKey="SENSORSPOS"
for sensorsNumber in $(seq 5 2 15)
do
for positionSeed in $(seq 1 10)
do
run
done
done
# Distribute argument according to subsribed nodes
cd $simArgsLoc
curHostId=0
for file in $(find ./ -type f)
do
[ $curHostId -eq $nHost ] && curHostId=0
mv -- ${file} ${hostList[$curHostId]}-$(basename ${file})
curHostId=$(( curHostId + 1 ))
done
cd -
# Run simulations
echo "Host who finished their work:" > $finishedFile
for host in ${hostList[@]}
do
echo "Start simulations on node $host"
oarsh lguegan@$host bash g5k-worker.sh &
done
exit 0
elif [ $progress -eq 1 ]
then
alreadyFinished=$(cat $finishedFile| tail -n +2| wc -l)
percent=$(echo $alreadyFinished $nHost| awk '{print $1/$2*100}')
echo "Progression: " $alreadyFinished/$nHost "(${percent}%)"
elif [ $scan -eq 1 ]
then
for host in $(cat $OAR_NODE_FILE|uniq)
do
proc=$(oarsh $host "ps -e|grep -i simulator")
[ ! -z "$proc" ] && { echo "- Processes for node $host:"; echo "$proc"; }
done
else
echo "Invalid arguments, make sure you know what you are doing !"
exit 1
fi

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src/ns3/g5k-worker.sh Executable file
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#!/bin/bash
export NS3_PATH=~/.bin/ns-3/ns-3.29/
g5kLogFolder="/tmp/logs/"
mkdir -p $g5kLogFolder # Create log folder just in case
rm -rf $g5kLogFolder/* # Clean previous logs just in case
hostname=$(hostname)
# Run simulations with sourced arguments :D
simArgsLoc=~/args/ # Don't change this path without changing it in root scripts
argsId=0
argsFile="$simArgsLoc/${hostname}-args-${argsId}.sh" # Arguments generated by Root Node
curNProcesses=0 # Start with no processes
for argsFile in $(find $simArgsLoc -type f -name "$hostname*")
do
simulator="simulator/simulator"
parseEnergyScript="./parseEnergy.awk"
parseDelayScript="./parseDelay.awk"
logFolder="logs/"
export LD_LIBRARY_PATH=${LD_LIBRARY_PATH}:${NS3_PATH}/build/lib
# Default Parameters
sensorsSendInterval=1 # DON'T GO BELOW 1 SECONDS !!!!!!! Simulator will stay stuck
sensorsPktSize=192 # 1 byte temperature (-128 à +128 °C) and 4Byte sensorsId
sensorsNumber=5
nbHop=10 # Cf paper AC/Yunbo
linksBandwidth=10000 # 10Ge links (to be coherent with energy values of ECOFEN/literature)
linksLatency=11
positionSeed=5
simKey="NOKEY"
run () {
# If another function want to handle simulation (tipically used on g5k)
type -t handleSim > /dev/null && { handleSim; return; }
local logFile="${logFolder}/${simKey}_${sensorsSendInterval}SSI_${sensorsPktSize}SPS_${sensorsNumber}SN_${nbHop}NH_${linksBandwidth}LB_${linksLatency}LL_${positionSeed}PS.org"
[ -f "$logFile" ] && return
local simCMD="$simulator --sensorsSendInterval=${sensorsSendInterval} --sensorsPktSize=${sensorsPktSize} --sensorsNumber=${sensorsNumber} --nbHop=${nbHop} --linksBandwidth=${linksBandwidth} --linksLatency=${linksLatency} --positionSeed=${positionSeed} 2>&1"
local log=$(bash -c "$simCMD")
# Compute some metrics
energyLog=$(echo "$log" | $parseEnergyScript)
avgDelay=$(echo "$log" | $parseDelayScript)
totalEnergy=$(echo "$energyLog" | awk 'BEGIN{power=0;FS=","}NR!=1{power+=$2}END{print(power)}')
sensorsEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumW=0}$1<0{sumW+=$2}END{print sumW}')
networkEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumN=0}$1>=0{sumN+=$2}END{print sumN}')
nbPacketCloud=$(echo "$log"|grep -c "CloudSwitch receive")
nbNodes=$(echo "$log"|awk '/Simulation used/{print($3)}')
ns3Version=$(echo "$log"|awk '/NS-3 Version/{print($3)}')
# Save logs
echo -e "#+TITLE: $(date) ns-3 (version ${ns3Version}) simulation\n" > $logFile
echo "* Environment Variables" >> $logFile
env >> $logFile
echo "* Full Command" >> $logFile
echo "$simCMD" >> $logFile
echo "* Output" >> $logFile
echo "$log" >> $logFile
echo "* Energy CSV (negative nodeId = WIFI, 0 = AP (Wireless+Wired), positive nodeId = ECOFEN" >> $logFile
echo "$energyLog" >> $logFile
echo "* Metrics" >> $logFile
echo "-METRICSLINE- sensorsSendInterval:${sensorsSendInterval} sensorsPktSize:${sensorsPktSize} sensorsNumber:${sensorsNumber} nbHop:${nbHop} linksBandwidth:${linksBandwidth} linksLatency:${linksLatency} totalEnergy:$totalEnergy nbPacketCloud:$nbPacketCloud nbNodes:$nbNodes avgDelay:${avgDelay} ns3Version:${ns3Version} simKey:${simKey} positionSeed:${positionSeed} sensorsEnergy:${sensorsEnergy} networkEnergy:${networkEnergy}" >> $logFile
}
logFolder=$g5kLogFolder # Don't forget override default g5kLogFolder
source $argsFile # Fetch argument
run & # Run async
((curNProcesses+=1)) # Increase by 2
[ $curNProcesses -ge $nProcesses ] && { curNProcesses=0; wait; }
done
wait # Wait until the end of all simulations
cp -r $g5kLogFolder/* "$logsFinalDst" # Fetch log from tmp into nfs
echo $(hostname) >> $finishedFile # Just say I finished

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src/ns3/nix/default.nix Normal file
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{
pkgs ? (import (fetchTarball "https://github.com/NixOS/nixpkgs/archive/19.03.tar.gz") {})
}:
with pkgs; rec {
ns3 = stdenv.mkDerivation rec {
##### Configure NIX #####
name="ns3";
sourceRoot="ns-allinone-3.29/ns-3.29/"; # Since we have 2 source tarball (ns-3 & ECOFEN) nix need to know which one to use
##### Fetch ns-3 And ECOFEN #####
src = [
(fetchurl {
url = https://www.nsnam.org/releases/ns-allinone-3.29.tar.bz2;
sha256 = "0m9dpmby116qk1m4x645i1p92syn30yzn9dgxxji5i25g30abpsd";
})
(fetchurl {
url = http://people.irisa.fr/Anne-Cecile.Orgerie/ECOFEN/ecofen-v2.tar.bz2;
sha256 = "1dnmm20ihas6hwwb8qbx8sr3h66nrg8h55x6f2aqpf3xima29dyh";
})
];
##### Configure Dependencies #####
buildInputs= [ python gsl ];
##### Configure Phases #####
postUnpack=''mv ecofen-module-v2 ${sourceRoot}/contrib/ecofen'';
configurePhase=''
export CXXFLAGS="-Wall -g -O0" # Don't treat warning as error when compiling ns-3
python2 waf configure
'';
buildPhase=''python2 waf'';
installPhase=''
mkdir -p $out/include
cp -r ./build/lib $out/
cp -r ./build/ns3 $out/include
'';
};
simulator= stdenv.mkDerivation rec {
##### Configure NIX #####
name="simulator";
src=./simulator;
##### Export ns3 location #####
NS3_PATH=ns3;
##### Configure Phases #####
buildPhase=''make'';
installPhase=''
mkdir -p $out/bin
install -D -t $out/bin simulator
'';
};
}

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EXEC=simulator
##### NS3 g++ Arguments
NS3_ARGS= -D NS3_LOG_ENABLE -L ${NS3_PATH}/lib -I ${NS3_PATH}/include
NS3_ARGS+=$(addprefix -l, $(subst lib,,$(subst .so,,$(notdir $(wildcard ${NS3_PATH}/lib/libns3*.so)))))
NS3_VERSION="3.29"
##### Source Files
SRC=main.cc modules/platform.cc modules/energy.cc modules/callbacks.cc
all: $(EXEC)
$(EXEC): $(SRC)
@echo -e "\e[32mDon't forget to define NS3_PATH env variable !\e[0m"
g++ -g -D NS3_VERSION=${NS3_VERSION} $(NS3_ARGS) $(SRC) -o $@
@echo -e "\e[32mRun the following command before running $(EXEC):\e[0m"
@echo -e "\e[32mexport LD_LIBRARY_PATH=${LD_LIBRARY_PATH}:${NS3_PATH}/lib\e[0m"
clean:
- rm $(EXEC)
.PHONY: clean

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#include "modules/modules.hpp"
#ifndef NS3_VERSION
#define NS3_VERSION "unknown"
#endif
NS_LOG_COMPONENT_DEFINE ("WIFISensorsSimulator");
/**
* To get more details about functions please have a look at modules/modules.hpp
*/
int main(int argc, char* argv[]){
uint32_t sensorsFrequency=1; // One pkt every second
uint32_t sensorsPktSize=192; // 128 bits for sensors id and 32 bit for the temperature (an arbitrary Integer) and a timestamp (32bits)
uint32_t sensorsNumber=5;
uint32_t nbHop=10;
uint32_t linksBandwidth=10000;
uint32_t linksLatency=11; // 10 hops => 9 links => 11.1ms of latency => end-to-end latency==100ms
uint32_t positionSeed=5; // arbitrary
CommandLine cmd;
cmd.AddValue ("sensorsSendInterval", "Number of sensors measurement per second", sensorsFrequency);
cmd.AddValue ("sensorsPktSize", "Sensors packet size (bytes)", sensorsPktSize);
cmd.AddValue ("sensorsNumber", "Number of sensors connected to AP", sensorsNumber);
cmd.AddValue ("nbHop", "Number of hop between AP and Cloud", nbHop);
cmd.AddValue ("linksBandwidth", "Links bandwidth between AP and Cloud", linksBandwidth);
cmd.AddValue ("linksLatency", "Links latency between AP and Cloud", linksLatency);
cmd.AddValue ("positionSeed", "RandomRectangle Sensors placement seed", positionSeed);
cmd.Parse (argc, argv);
// Check sensors frequency
if(sensorsFrequency<1){
NS_LOG_UNCOND("SensorsSendInterval too small: " << sensorsFrequency << " (it should be >1)." );
exit(1);
}
//LogComponentEnable("UdpEchoClientApplication", LOG_LEVEL_INFO);
//LogComponentEnable("PacketSink", LOG_LEVEL_INFO);
// ---------- Setup Simulations ----------
CloudInfos cloud=createCloud(nbHop,linksBandwidth,linksLatency); // Create cloud P2P node chain o--o--o--o--o
setupCloudEnergy(cloud); // DO IT JUST AFTER createCloud !!!!! Otherwise you will be in trouble
Cell cell=createCell(sensorsNumber,cloud.first.Get(0),positionSeed); // Use first cloud node as Access Point
setupScenario(cell,cloud,sensorsPktSize,sensorsFrequency); // Send data from Sensors to Cloud
DeviceEnergyModelContainer wifi=setupCellEnergy(cell);
// Don't forget the following
Ipv4GlobalRoutingHelper::PopulateRoutingTables ();
// Setup Logs
uint32_t nNode=ns3::NodeList::GetNNodes();
FlowMonitorHelper flowmon;
Ptr<FlowMonitor> monitor = flowmon.InstallAll();
Ptr<Ipv4FlowClassifier> classifier = DynamicCast<Ipv4FlowClassifier> (flowmon.GetClassifier ());
// Run Simulations
Simulator::Stop (Seconds (SIM_TIME));
Simulator::Run ();
// Print logs
NS_LOG_UNCOND("NS-3 Version " << NS3_VERSION);
NS_LOG_UNCOND("Simulation used "<< nNode << " nodes");
std::map<FlowId, FlowMonitor::FlowStats> stats = monitor->GetFlowStats ();
for (std::map< FlowId, FlowMonitor::FlowStats>::iterator flow=stats.begin(); flow!=stats.end(); flow++)
{
Ipv4FlowClassifier::FiveTuple t = classifier->FindFlow(flow->first);
NS_LOG_UNCOND("Flow " <<t.sourceAddress<< " -> "<< t.destinationAddress << " delay = " <<flow->second.delaySum.GetSeconds());
}
// Trace
DeviceEnergyModelContainer::Iterator it=wifi.Begin();
int i=0; // Note that node 0 is the AP
while(it!=wifi.End()){
NS_LOG_UNCOND ("Node " << i << " consumes " <<(*it)->GetTotalEnergyConsumption());
it++;
i--; // Edge device will have id < 0 and ap will have id 0
}
// Finish
Simulator::Destroy ();
return(0);
}

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#include "modules.hpp"
void PktReceived(std::string nodeName,Ptr< const Packet > packet, const Address &address){
NS_LOG_UNCOND("Node " << nodeName << " receive a packet" << " at time " << Simulator::Now ().GetSeconds () << "s");
}
void EnergyUpdated(std::string nodeName,double oldValue, double newValue){
double currentTime=Simulator::Now ().GetSeconds ();
double energyConsumes=newValue-oldValue;
NS_LOG_UNCOND("Node " << nodeName << " consumes " << energyConsumes << "J" << " at time " << currentTime << "s");
}

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#include "modules.hpp"
DeviceEnergyModelContainer setupCellEnergy(Cell cell){
NodeContainer nodes(cell.first.first,cell.first.second);
NetDeviceContainer nodesNetDev(cell.second.first,cell.second.second);
// Install energy source
BasicEnergySourceHelper edgeBasicSourceHelper;
edgeBasicSourceHelper.Set ("BasicEnergySourceInitialEnergyJ", DoubleValue (BASICENERGYSOURCEINITIALENERGYJ));
edgeBasicSourceHelper.Set ("BasicEnergySupplyVoltageV", DoubleValue (BASICENERGYSUPPLYVOLTAGEV));
EnergySourceContainer apEdgeNodesSources = edgeBasicSourceHelper.Install (cell.first.first);
EnergySourceContainer wifiEdgeNodesSources = edgeBasicSourceHelper.Install (cell.first.second);
// Install device energy model
WifiRadioEnergyModelHelper radioEnergyHelper;
radioEnergyHelper.Set ("TxCurrentA", DoubleValue (TXCURRENTA));
radioEnergyHelper.Set ("RxCurrentA", DoubleValue (RXCURRENTA));
radioEnergyHelper.Set ("IdleCurrentA", DoubleValue (IDLECURRENTA));
DeviceEnergyModelContainer edgeApDeviceModels = radioEnergyHelper.Install (cell.second.first, apEdgeNodesSources);
DeviceEnergyModelContainer edgeDeviceModels = radioEnergyHelper.Install (cell.second.second, wifiEdgeNodesSources);
// Trace
// DeviceEnergyModelContainer::Iterator it=edgeDeviceModels.Begin();
//int i=1; // Node 0 will be AP, other node will have negative id (cf following while)
// This is usefull in logs, in fact ECOFEN nodes will have positive ID and WIFI energy nodes negative id
// AP will have id 0 in ECOFEN and WIFI (in order to combine their energy value when parsing logs
// while(it!=edgeDeviceModels.End()){
// (*it)->TraceConnect ("TotalEnergyConsumption", std::to_string(0-i),MakeCallback (&EnergyUpdated));
// it++;
// i++;
// }
// // AP will have id 0
// (*edgeApDeviceModels.Begin())->TraceConnect ("TotalEnergyConsumption", std::to_string(0),MakeCallback (&EnergyUpdated));
// Ptr<BasicEnergySource> basicSourcePtr0 = DynamicCast<BasicEnergySource> (wifiEdgeNodesSources.Get (0));
// //basicSourcePtr0->TraceConnectWithoutContext ("RemainingEnergy", MakeCallback (&RemainingEnergy));
// //device energy model
// Ptr<DeviceEnergyModel> basicRadioModelPtr0 =
// basicSourcePtr0->FindDeviceEnergyModels ("ns3::WifiRadioEnergyModel").Get (0);
// NS_ASSERT (basicRadioModelPtr0 != NULL);
// basicRadioModelPtr0->TraceConnectWithoutContext ("TotalEnergyConsumption", MakeCallback (&TotalEnergy));
return(DeviceEnergyModelContainer(edgeApDeviceModels,edgeDeviceModels));
}
void setupCloudEnergy(CloudInfos cloudInfos){
NodeContainer cloudNodes=cloudInfos.first;
// Install basic energy
ns3::BasicNodeEnergyHelper basicNodeEnergy;
basicNodeEnergy.Set("OnConso", ns3::DoubleValue (ONCONSO));
basicNodeEnergy.Set("OffConso", ns3::DoubleValue (OFFCONSO));
basicNodeEnergy.Install (cloudNodes);
ns3::CompleteNetdeviceEnergyHelper completeNetdeviceEnergy;
completeNetdeviceEnergy.Set ("OffConso", ns3::DoubleValue (OFFCONSO));
completeNetdeviceEnergy.Set ("IdleConso", ns3::DoubleValue (IDLECONSO));
completeNetdeviceEnergy.Set ("RecvByteEnergy", ns3::DoubleValue (RECVBYTEENERGY));
completeNetdeviceEnergy.Set ("SentByteEnergy", ns3::DoubleValue (SENTBYTEENERGY));
completeNetdeviceEnergy.Set ("RecvPktEnergy", ns3::DoubleValue (RECVPKTENERGY));
completeNetdeviceEnergy.Set ("SentPktEnergy", ns3::DoubleValue (SENTPKTENERGY));
completeNetdeviceEnergy.Install(cloudNodes);
ns3::ConsumptionLogger conso;
conso.NodeConso(ns3::Seconds (ECOFEN_LOG_EVERY), ns3::Seconds(SIM_TIME), cloudNodes);
}

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#ifndef MODULES_HPP
#define MODULES_HPP
#include "ns3/command-line.h"
#include "ns3/config.h"
#include "ns3/string.h"
#include "ns3/log.h"
#include "ns3/yans-wifi-helper.h"
#include "ns3/ssid.h"
#include "ns3/mobility-helper.h"
#include "ns3/on-off-helper.h"
#include "ns3/yans-wifi-channel.h"
#include "ns3/mobility-model.h"
#include "ns3/packet-sink.h"
#include "ns3/packet-sink-helper.h"
#include "ns3/udp-echo-helper.h"
#include "ns3/tcp-westwood.h"
#include "ns3/internet-stack-helper.h"
#include "ns3/ipv4-address-helper.h"
#include "ns3/ipv4-global-routing-helper.h"
#include "ns3/constant-position-mobility-model.h"
#include "ns3/energy-module.h"
#include "ns3/wifi-radio-energy-model-helper.h"
#include "ns3/point-to-point-helper.h"
#include "ns3/ecofen-module.h"
#include "ns3/node-list.h"
#include "ns3/flow-monitor-module.h"
// C++ library
#include <iostream> // Why not ?
#include <utility> // To use std::pair
#include <iomanip> // To use std::setw
#define SIM_TIME 1800 // 30mins simulations
#define RECT_SIZE 20 // Sensors random rectangle position size
#define MAX_PACKET_BY_SENSOR 900000 // Reasonable big number (in order that simulation end before sensors stop sending packets)
// ECOFEN
#define ECOFEN_LOG_EVERY 0.5
// WIFI Energy Values
#define BASICENERGYSOURCEINITIALENERGYJ 10000000
#define BASICENERGYSUPPLYVOLTAGEV 3.3
#define TXCURRENTA 0.38
#define RXCURRENTA 0.313
#define IDLECURRENTA 0.273
// Cloud Energy Values
#define ONCONSO 0
#define OFFCONSO 0
#define IDLECONSO 1
#define RECVBYTEENERGY 3.4
#define SENTBYTEENERGY 3.4
#define RECVPKTENERGY 192.2
#define SENTPKTENERGY 192.2
using namespace ns3;
// ---------- Data types ----------
typedef std::pair<NodeContainer,NodeContainer> CellNodes; // Format (APNode, SensorsNodes)
typedef std::pair<NetDeviceContainer,NetDeviceContainer> CellNetDevices; // Format (APNetDev, SensorsNetDev)
typedef std::pair<CellNodes,CellNetDevices> Cell;
typedef std::pair<Ipv4Address,int> EndPoint; // Format (IP,Port)
typedef std::pair<NodeContainer,EndPoint> CloudInfos; // Format (CloudHops,CloudEndPoint), here data sent to CloudEndPoint
// ---------- platform.cc ----------
/**
* Create a WIFI cell paltform composed of nbSensors sensors and ap as an access point
*/
Cell createCell(uint32_t nbSensors, Ptr<ns3::Node> ap,int positionSeed);
/**
* Build P2P network composed of nbHop hops (to simulate edge->cloud communications)
* Note: Cloud Servers are not considered here and completely ignored !
*/
CloudInfos createCloud(int nbHop, uint32_t bandwidth, uint32_t latency);
/**
* Setup simulation scenario on the platforms. Sensors in cell will send packets of sensorsPktSize size every
* sensorsSensInterval second to the cloud using cloudInfos.
*/
void setupScenario(Cell cell, CloudInfos cloudInfos, int sensorsPktSize, int sensorsSendInterval);
// ---------- energy.cc ----------
/*
* Configure WIFI energy module for cell
*/
DeviceEnergyModelContainer setupCellEnergy(Cell cell);
/*
* Configure link/port energy using ecofen
*/
void setupCloudEnergy(CloudInfos cloudInfos);
// ---------- callbacks.cc ----------
void PktReceived(std::string nodeName,Ptr< const Packet > packet, const Address &address);
void EnergyUpdated(std::string nodeName,double oldValue, double newValue);
#endif

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#include "modules.hpp"
#include "ns3/pointer.h"
/**
* Create a sensors cell base on
* nbSensors Number of temperature sensors in the cell
* ap the Access Point (usually linked to the cloud)
*/
Cell createCell(uint32_t nbSensors, Ptr<ns3::Node> ap,int positionSeed){
// Create sensors
NodeContainer sensors;
sensors.Create(nbSensors);
// Define sensors position/mobility
MobilityHelper mobility;
mobility.SetMobilityModel ("ns3::ConstantPositionMobilityModel"); // Sensors are fixed
Ptr<UniformRandomVariable> X = CreateObject<UniformRandomVariable> ();
X->SetAttribute ("Min", DoubleValue (0));
X->SetAttribute ("Max", DoubleValue (RECT_SIZE));
X->SetAttribute("Stream",IntegerValue(positionSeed));
Ptr<UniformRandomVariable> Y = CreateObject<UniformRandomVariable> ();
Y->SetAttribute ("Min", DoubleValue (0));
Y->SetAttribute ("Max", DoubleValue (RECT_SIZE));
Y->SetAttribute("Stream",IntegerValue(positionSeed+1));
mobility.SetPositionAllocator("ns3::RandomRectanglePositionAllocator",
"X",PointerValue(X),
"Y",PointerValue(Y));
mobility.Install(NodeContainer(ap,sensors));
// To apply XXWifiPhy and WifiMac on sensors
WifiHelper wifiHelper;
wifiHelper.SetStandard (WIFI_PHY_STANDARD_80211n_5GHZ);
/* Set up Legacy Channel */
YansWifiChannelHelper wifiChannel;
wifiChannel.SetPropagationDelay ("ns3::ConstantSpeedPropagationDelayModel");
wifiChannel.AddPropagationLoss ("ns3::FriisPropagationLossModel", "Frequency", DoubleValue (5e9));
/* Setup Physical Layer */
YansWifiPhyHelper wifiPhy = YansWifiPhyHelper::Default ();
wifiPhy.SetChannel (wifiChannel.Create ());
wifiPhy.Set ("TxPowerStart", DoubleValue (10.0));
wifiPhy.Set ("TxPowerEnd", DoubleValue (10.0));
wifiPhy.Set ("TxPowerLevels", UintegerValue (1));
wifiPhy.Set ("TxGain", DoubleValue (0));
wifiPhy.Set ("RxGain", DoubleValue (0));
wifiPhy.Set ("RxNoiseFigure", DoubleValue (10));
wifiPhy.Set ("CcaMode1Threshold", DoubleValue (-79));
wifiPhy.Set ("EnergyDetectionThreshold", DoubleValue (-79 + 3));
// wifiPhy.SetErrorRateModel ("ns3::YansErrorRateModel");
wifiHelper.SetRemoteStationManager ("ns3::ConstantRateWifiManager",
"DataMode", StringValue ("HtMcs7"),
"ControlMode", StringValue ("HtMcs0"));
/* Configure AP */
Ssid ssid = Ssid ("network");
WifiMacHelper wifiMac;
wifiMac.SetType ("ns3::ApWifiMac", "Ssid", SsidValue (ssid));
NetDeviceContainer apNetDevice;
apNetDevice = wifiHelper.Install (wifiPhy, wifiMac, ap);
/* Configure STA */
wifiMac.SetType ("ns3::StaWifiMac", "Ssid", SsidValue (ssid));
NetDeviceContainer sensorsNetDevices;
sensorsNetDevices = wifiHelper.Install (wifiPhy, wifiMac, sensors);
return(std::make_pair(std::make_pair(ap,sensors),std::make_pair(apNetDevice,sensorsNetDevices)));
}
/**
* Install network stack and applications
*/
void setupScenario(Cell cell, CloudInfos cloudInfos, int sensorsPktSize, int sensorsSendInterval){
NodeContainer ap=cell.first.first;
NodeContainer sensors=cell.first.second;
NetDeviceContainer apNetDev= cell.second.first;
NetDeviceContainer sensorsNetDev= cell.second.second;
// 6. Install TCP/IP stack & assign IP addresses
InternetStackHelper internet;
// internet.Install (ap);
internet.Install (sensors);
Ipv4AddressHelper ipv4;
ipv4.SetBase ("10.0.0.0", "255.255.0.0");
Ipv4InterfaceContainer apInt,sensorsInt;
apInt=ipv4.Assign(apNetDev);
sensorsInt=ipv4.Assign(sensorsNetDev);
UdpEchoClientHelper echoClientHelper (InetSocketAddress (cloudInfos.second.first, cloudInfos.second.second));
echoClientHelper.SetAttribute ("Interval", TimeValue (Seconds (sensorsSendInterval)));
echoClientHelper.SetAttribute ("PacketSize", UintegerValue (sensorsPktSize));
echoClientHelper.SetAttribute ("MaxPackets", UintegerValue (MAX_PACKET_BY_SENSOR));
ApplicationContainer pingApps;
// again using different start times to workaround Bug 388 and Bug 912
for(int i=0;i<sensors.GetN();i++){
echoClientHelper.SetAttribute ("StartTime", TimeValue (MilliSeconds (1+i)));
echoClientHelper.Install (sensors.Get(i));
}
}
CloudInfos createCloud(int nbHop, uint32_t bandwidth, uint32_t latency){
NodeContainer HopNodes;
HopNodes.Create(nbHop);
InternetStackHelper stack;
stack.Install(HopNodes);
Ipv4Address cloudIP; // Will be fill in the following for loop
int cloudPort=80;
for(int i=0;i<nbHop-1;i++){
NodeContainer curNodes(HopNodes.Get(i),HopNodes.Get(i+1));
PointToPointHelper pointToPoint;
pointToPoint.SetDeviceAttribute ("DataRate", StringValue ((std::to_string(bandwidth)+"Mbps").c_str()));
pointToPoint.SetChannelAttribute ("Delay", StringValue ((std::to_string(latency)+"ms").c_str()));
NetDeviceContainer p2pDevices;
p2pDevices = pointToPoint.Install (curNodes);
Ipv4AddressHelper address;
address.SetBase (("10."+std::to_string(i+1)+".0.0").c_str(), "255.255.0.0"); // Remember: 10.0.0.0 is used by WIFI
Ipv4InterfaceContainer p2pInterfaces;
p2pInterfaces = address.Assign (p2pDevices);
if(i==nbHop-2){ // If we are on the last for loop (before last node)
cloudIP=p2pInterfaces.GetAddress (1); // Get Last node interface
PacketSinkHelper apSink("ns3::UdpSocketFactory",InetSocketAddress (Ipv4Address::GetAny (), cloudPort));
ApplicationContainer sinkApp=apSink.Install(curNodes.Get(1)); // Instal sink on last node
sinkApp.Get(0)->TraceConnect("Rx","CloudSwitch",MakeCallback(&PktReceived));
sinkApp.Start (Seconds (0));
}
}
return(std::make_pair(HopNodes,std::make_pair(cloudIP,cloudPort)));
}

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src/ns3/parseDelay.awk Executable file
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#!/usr/bin/awk -f
BEGIN {
delaySum=0
delayCount=0
}
/delay =/ {
gsub("ns","",$7)
gsub("+","",$7)
delaySum+=$7
delayCount+=1
}
END {
if(delayCount>0)
print(delaySum/delayCount)
else
print(0)
}

55
src/ns3/parseEnergy.awk Executable file
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#!/usr/bin/awk -f
BEGIN {
durationECOFEN=0
sum=0
}
# For ECOFEN energy model
/Node [0-9]+ Conso/ {
if (!($4 in energyECOFEN)){
energyECOFEN[$4]=$6
countECOFEN[$4]=1
}
else {
energyECOFEN[$4]=$6+energyECOFEN[$4]
countECOFEN[$4]++
}
durationECOFEN=$2
}
# For WIFI ns-3 energy model
/Node -?[0-9]+ consumes/ {
gsub("J","",$4) # Remove trailling Joule symbol
energyWIFI[$2]=$4
}
END {
# Extract ECOFEN energy
for(key in energyECOFEN){
if (countECOFEN[key]>0){ # Otherwise: 0 division
overallEnergy[key]=energyECOFEN[key]/countECOFEN[key]*durationECOFEN
}
else {
overallEnergy[key]=0
}
}
# Extract WIFI energy
for(key in energyWIFI){
if(key in overallEnergy){ # Combine WIFI+ECOFEN
overallEnergy[key]+=energyWIFI[key] # Add wifi to ECOFEN
}
else {
overallEnergy[key]=energyWIFI[key] # Only add WIFI since there is no ECOFEN value
}
}
# CSV output
print("nodeId,energy")
for(key in overallEnergy){
print(key "," overallEnergy[key])
}
}

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#+TITLE: Analysis
#+LATEX_HEADER: \usepackage{fullpage}
#+OPTIONS: toc:nil
\begin{center}
\begin{tabular}{lr}
Parameters & Values\\
\hline
sensorsPktSize & 5 bytes\\
sensorsSendInterval & 10s\\
sensorsNumber & 10\\
nbHop & 10\\
linksBandwidth & 10Mbps\\
linksLatency & 2ms\\
\end{tabular}
\newline
\end{center}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_networkEnergy.png}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_sensorsEnergy.png}
\includegraphics[width=0.5\linewidth]{SENSORSPOS-positionSeed_avgDelay.png}
\includegraphics[width=0.5\linewidth]{NBSENSORS-sensorsNumber_totalEnergy.png}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_totalEnergy.png}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_energyWifi.png}
\includegraphics[width=0.5\linewidth]{sensorsSendInterval-net.png}
\includegraphics[width=0.5\linewidth]{SENSORSPOS-positionSeed_totalEnergy.png}
\includegraphics[width=0.5\linewidth]{sensorsSendInterval-wifi.png}

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% Created 2019-05-15 mer. 15:23
% Intended LaTeX compiler: pdflatex
\documentclass[11pt]{article}
\usepackage[utf8]{inputenc}
\usepackage[T1]{fontenc}
\usepackage{graphicx}
\usepackage{grffile}
\usepackage{longtable}
\usepackage{wrapfig}
\usepackage{rotating}
\usepackage[normalem]{ulem}
\usepackage{amsmath}
\usepackage{textcomp}
\usepackage{amssymb}
\usepackage{capt-of}
\usepackage{hyperref}
\usepackage{fullpage}
\date{\today}
\title{Analysis}
\hypersetup{
pdfauthor={},
pdftitle={Analysis},
pdfkeywords={},
pdfsubject={},
pdfcreator={Emacs 26.2 (Org mode 9.1.9)},
pdflang={English}}
\begin{document}
\maketitle
\begin{center}
\begin{tabular}{lr}
Parameters & Values\\
\hline
sensorsPktSize & 5 bytes\\
sensorsSendInterval & 10s\\
sensorsNumber & 10\\
nbHop & 10\\
linksBandwidth & 10Mbps\\
linksLatency & 2ms\\
\end{tabular}
\newline
\end{center}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_networkEnergy.png}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_sensorsEnergy.png}
\includegraphics[width=0.5\linewidth]{SENSORSPOS-positionSeed_avgDelay.png}
\includegraphics[width=0.5\linewidth]{NBSENSORS-sensorsNumber_totalEnergy.png}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_totalEnergy.png}
\includegraphics[width=0.5\linewidth]{SENDINTERVAL-sensorsSendInterval_energyWifi.png}
\includegraphics[width=0.5\linewidth]{sensorsSendInterval-net.png}
\includegraphics[width=0.5\linewidth]{SENSORSPOS-positionSeed_totalEnergy.png}
\includegraphics[width=0.5\linewidth]{sensorsSendInterval-wifi.png}
\end{document}

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* Run simulations
To run all the simulations, execute the following call:
#+NAME: runSim
#+CALL: runBW(lat=runLat(nbSens=runNbSensors(nbHop=runNbHop())))
#+RESULTS: runSim
** Experiments
*** Sensors Position
#+NAME: runSensorsPos
#+BEGIN_SRC bash :noweb yes :results output
<<singleRun>>
simKey="SENSORSPOS"
for sensorsNumber in $(seq 5 2 15)
do
for positionSeed in $(seq 1 10)
do
run
done
done
#+END_SRC
*** Sensors Send Interval
#+NAME: runSendInterval
#+BEGIN_SRC bash :noweb yes :results output
<<singleRun>>
simKey="SENDINTERVAL"
for sensorsNumber in $(seq 5 2 15)
do
for sensorsSendInterval in $(seq 10 10 100)
do
run
done
done
#+END_SRC
*** Bandwidth
#+NAME: runBW
#+BEGIN_SRC bash :noweb yes :results output
<<singleRun>>
simKey="BW"
for sensorsNumber in $(seq 1 10)
do
for linksBandwidth in $(seq 10 20 100)
do
run
done
done
#+END_SRC
#+RESULTS: runBW
#+RESULTS:
*** Latency
#+NAME: runLat
#+BEGIN_SRC bash :noweb yes :results output
<<singleRun>>
simKey="LATENCY"
for sensorsNumber in $(seq 1 10)
do
for linksLatency in $(seq 1 1 10)
do
run
done
done
#+END_SRC
#+RESULTS: runLat
#+RESULTS:
*** Number of sensors
#+NAME: runNbSensors
#+BEGIN_SRC bash :noweb yes :results output
<<singleRun>>
simKey="NBSENSORS"
for sensorsNumber in $(seq 1 15)
do
run
done
#+END_SRC
#+RESULTS:
*** Number of Hop
#+NAME: runNbHop
#+BEGIN_SRC bash :noweb yes :results output
<<singleRun>>
simKey="NBHOP"
for sensorsNumber in $(seq 1 10)
do
for nbHop in $(seq 1 10)
do
run
done
done
#+END_SRC
#+RESULTS: runNbHop
** Single Run
#+NAME: singleRun
#+BEGIN_SRC bash :eval never :noweb yes :results output
simulator="simulator/simulator"
parseEnergyScript="./parseEnergy.awk"
parseDelayScript="./parseDelay.awk"
logFolder="logs/"
export LD_LIBRARY_PATH=${LD_LIBRARY_PATH}:${NS3_PATH}/build/lib
# Default Parameters
sensorsSendInterval=1 # DON'T GO BELOW 1 SECONDS !!!!!!! Simulator will stay stuck
sensorsPktSize=192 # 1 byte temperature (-128 à +128 °C) and 4Byte sensorsId
sensorsNumber=5
nbHop=10 # Cf paper AC/Yunbo
linksBandwidth=10000 # 10Ge links (to be coherent with energy values of ECOFEN/literature)
linksLatency=11
positionSeed=5
simKey="NOKEY"
run () {
# If another function want to handle simulation (tipically used on g5k)
type -t handleSim > /dev/null && { handleSim; return; }
local logFile="${logFolder}/${simKey}_${sensorsSendInterval}SSI_${sensorsPktSize}SPS_${sensorsNumber}SN_${nbHop}NH_${linksBandwidth}LB_${linksLatency}LL_${positionSeed}PS.org"
[ -f "$logFile" ] && return
local simCMD="$simulator --sensorsSendInterval=${sensorsSendInterval} --sensorsPktSize=${sensorsPktSize} --sensorsNumber=${sensorsNumber} --nbHop=${nbHop} --linksBandwidth=${linksBandwidth} --linksLatency=${linksLatency} --positionSeed=${positionSeed} 2>&1"
local log=$(bash -c "$simCMD")
# Compute some metrics
energyLog=$(echo "$log" | $parseEnergyScript)
avgDelay=$(echo "$log" | $parseDelayScript)
totalEnergy=$(echo "$energyLog" | awk 'BEGIN{power=0;FS=","}NR!=1{power+=$2}END{print(power)}')
sensorsEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumW=0}$1<0{sumW+=$2}END{print sumW}')
networkEnergy=$(echo "$energyLog" |awk -F',' 'BEGIN{sumN=0}$1>=0{sumN+=$2}END{print sumN}')
nbPacketCloud=$(echo "$log"|grep -c "CloudSwitch receive")
nbNodes=$(echo "$log"|awk '/Simulation used/{print($3)}')
ns3Version=$(echo "$log"|awk '/NS-3 Version/{print($3)}')
# Save logs
echo -e "#+TITLE: $(date) ns-3 (version ${ns3Version}) simulation\n" > $logFile
echo "* Environment Variables" >> $logFile
env >> $logFile
echo "* Full Command" >> $logFile
echo "$simCMD" >> $logFile
echo "* Output" >> $logFile
echo "$log" >> $logFile
echo "* Energy CSV (negative nodeId = WIFI, 0 = AP (Wireless+Wired), positive nodeId = ECOFEN" >> $logFile
echo "$energyLog" >> $logFile
echo "* Metrics" >> $logFile
echo "-METRICSLINE- sensorsSendInterval:${sensorsSendInterval} sensorsPktSize:${sensorsPktSize} sensorsNumber:${sensorsNumber} nbHop:${nbHop} linksBandwidth:${linksBandwidth} linksLatency:${linksLatency} totalEnergy:$totalEnergy nbPacketCloud:$nbPacketCloud nbNodes:$nbNodes avgDelay:${avgDelay} ns3Version:${ns3Version} simKey:${simKey} positionSeed:${positionSeed} sensorsEnergy:${sensorsEnergy} networkEnergy:${networkEnergy}" >> $logFile
}
#+END_SRC
** Grid 5000
*** Master Node Script
This code generate and distribute simulation argument to the slave worker nodes and
run start their simulations processes:
#+BEGIN_SRC sh :tangle ./g5k-root.sh :shebang "#!/bin/bash" :noweb yes
##### Arguments #####
nHost=20 # At least 20 host x)
nProcesses=3 # Max number of parrallel simulations (don't go too high, your process will be killed (arround 8))
nHours=4 # Reservation duration
simArgsLoc=~/args/ # Don't change this path witouth changing it in workder scripts
finishedFile="$simArgsLoc/finished-microBenchmarks.txt"
logsFinalDst=~/logs/
#####################
# Check
[ "$1" == "subscribe" ] && subscribe=1 ||subscribe=0
[ "$1" == "deploy" ] && deploy=1 || deploy=0
[ "$1" == "-p" ] && progress=1 || progress=0
handleSim () {
[ -z "${argId}" ] && argId=1 || argId=$(( argId + 1 ))
outF="$simArgsLoc/${argId}.sh" # Args file based on host name (avoid conflict)
# Add Shebang
echo '#!/bin/bash' > $outF
echo "finishedFile=\"$finishedFile\"" >> $outF
echo "nProcesses=$nProcesses" >> $outF
echo "logsFinalDst=\"$logsFinalDst\"" >> $outF
# Save arguments
echo "sensorsSendInterval=${sensorsSendInterval}" >> $outF
echo "sensorsPktSize=${sensorsPktSize}" >> $outF
echo "nbHop=${nbHop}" >> $outF
echo "simKey=\"${simKey}\"" >> $outF
echo "sensorsNumber=${sensorsNumber}" >> $outF
echo "linksLatency=${linksLatency}" >> $outF
echo "sensorsNumber=${sensorsNumber}" >> $outF
echo "linksBandwidth=${linksBandwidth}" >> $outF
echo "positionSeed=${positionSeed}" >> $outF
}
# Start subscribe/deploy
if [ $subscribe -eq 1 ]
then
echo "Starting oarsub..."
oarsub -l host=$nHost,walltime=$nHours 'sleep "10d"' # Start reservation
echo "Please join your node manually when your reservation is ready by using oarsub -C <job-id>"
exit 0
elif [ $deploy -eq 1 ]
then
echo "Starting deployment..."
##### Usefull Variables #####
wai=$(dirname "$(readlink -f $0)") # Where Am I ?
hostList=($(cat $OAR_NODE_FILE | uniq))
#############################
# Initialize logsFinalDst
mkdir -p $logsFinalDst
rm -rf $logsFinalDst/* # Clean log dst just in case (it is dangerous but avoid conflict)
mkdir -p $simArgsLoc
rm -rf $simArgsLoc/* # Clean old args
# Add your simulation code block here
<<runNbSensors>>
<<runSendInterval>>
<<runSensorsPos>>
# Distribute argument according to subsribed nodes
cd $simArgsLoc
curHostId=0
for file in $(find ./ -type f)
do
[ $curHostId -eq $nHost ] && curHostId=0
mv -- ${file} ${hostList[$curHostId]}-$(basename ${file})
curHostId=$(( curHostId + 1 ))
done
cd -
# Run simulations
echo "Host who finished their work:" > $finishedFile
for host in ${hostList[@]}
do
echo "Start simulations on node $host"
oarsh lguegan@$host bash g5k-worker.sh &
done
exit 0
elif [ $progress -eq 1 ]
then
alreadyFinished=$(cat $finishedFile| tail -n +2| wc -l)
percent=$(echo $alreadyFinished $nHost| awk '{print $1/$2*100}')
echo "Progression: " $alreadyFinished/$nHost "(${percent}%)"
else
echo "Invalid arguments, make sure you know what you are doing !"
exit 1
fi
#+END_SRC
*** Worker Node Script
Almost like the [[microBenchmarksSingle][single run script]] but with additionnal code to handle g5k simulation platform (arguments,logs etc..).
#+BEGIN_SRC sh :tangle ./g5k-worker.sh :shebang "#!/bin/bash" :noweb yes
export NS3_PATH=~/.bin/ns-3/ns-3.29/
g5kLogFolder="/tmp/logs/"
mkdir -p $g5kLogFolder # Create log folder just in case
rm -rf $g5kLogFolder/* # Clean previous logs just in case
hostname=$(hostname)
# Run simulations with sourced arguments :D
simArgsLoc=~/args/ # Don't change this path without changing it in root scripts
argsId=0
argsFile="$simArgsLoc/${hostname}-args-${argsId}.sh" # Arguments generated by Root Node
curNProcesses=0 # Start with no processes
for argsFile in $(find $simArgsLoc -type f -name "$hostname*")
do
<<singleRun>>
logFolder=$g5kLogFolder # Don't forget override default g5kLogFolder
source $argsFile # Fetch argument
run & # Run async
((curNProcesses+=1)) # Increase by 2
[ $curNProcesses -ge $nProcesses ] && { curNProcesses=0; wait; }
done
wait # Wait until the end of all simulations
cp -r $g5kLogFolder/* "$logsFinalDst" # Fetch log from tmp into nfs
echo $(hostname) >> $finishedFile # Just say I finished
#+END_SRC
* Logs Analysis
To Generate all the plots, please execute the following line:
#+NAME: runAnalysis
#+CALL: plotToPDF(plots=genAllPlots(data=logToCSV()))
#+RESULTS: runAnalysis
** R Scripts
*** Generate all plots script
Available variables:
|---------------------|
| Name |
|---------------------|
| sensorsSendInterval |
| sensorsPktSize |
| sensorsNumber |
| nbHop |
| linksBandwidth |
| linksLatency |
| totalEnergy |
| nbPacketCloud |
| nbNodes |
| avgDelay |
| simKey |
|---------------------|
#+NAME: genAllPlots
#+BEGIN_SRC R :noweb yes :results output
<<RUtils>>
# easyPlotGroup("linksLatency","totalEnergy", "LATENCY","sensorsNumber")
# easyPlotGroup("linksBandwidth","totalEnergy", "BW","sensorsNumber")
easyPlot("sensorsNumber","totalEnergy", "NBSENSORS")
easyPlotGroup("positionSeed", "totalEnergy","SENSORSPOS","sensorsNumber")
easyPlotGroup("positionSeed", "avgDelay","SENSORSPOS","sensorsNumber")
easyPlotGroup("sensorsSendInterval","sensorsEnergy","SENDINTERVAL","sensorsNumber")
easyPlotGroup("sensorsSendInterval","networkEnergy","SENDINTERVAL","sensorsNumber")
#+END_SRC
#+RESULTS: genAllPlots
*** R Utils
RUtils is intended to load logs (data.csv) and providing
simple plot function for them.
#+NAME: RUtils
#+BEGIN_SRC R :eval never
library("tidyverse")
# Fell free to update the following
labels=c(nbNodes="Number of nodes",sensorsNumber="Number of sensors",totalEnergy="Total Energy (J)",
nbHop="Number of hop (AP to Cloud)", linksBandwidth="Links Bandwidth (Mbps)", avgDelay="Average Application Delay (s)",
linksLatency="Links Latency (ms)", sensorsSendInterval="Sensors Send Interval (s)", positionSeed="Position Seed",
sensorsEnergy="Sensors Wifi Energy Consumption (J)", networkEnergy="Network Energy Consumption (J)")
# Load Data
data=read_csv("logs/data.csv")
# Get label according to varName
getLabel=function(varName){
if(is.na(labels[varName])){
return(varName)
}
return(labels[varName])
}
easyPlot=function(X,Y,KEY){
curData=data%>%filter(simKey==KEY)
stopifnot(NROW(curData)>0)
ggplot(curData,aes_string(x=X,y=Y))+geom_point()+geom_line()+xlab(getLabel(X))+ylab(getLabel(Y))
ggsave(paste0("plots/",KEY,"-",X,"_",Y,".png"))
}
easyPlotGroup=function(X,Y,KEY,GRP){
curData=data%>%filter(simKey==KEY) %>% mutate(!!GRP:=as.character(UQ(rlang::sym(GRP)))) # %>%mutate(sensorsNumber=as.character(sensorsNumber))
stopifnot(NROW(curData)>0)
ggplot(curData,aes_string(x=X,y=Y,color=GRP,group=GRP))+geom_point()+geom_line()+xlab(getLabel(X))+ylab(getLabel(Y)) + labs(color = getLabel(GRP))
ggsave(paste0("plots/",KEY,"-",X,"_",Y,".png"))
}
#+END_SRC
** Plots -> PDF
Merge all plots in plots/ folder into a pdf file.
#+NAME: plotToPDF
#+BEGIN_SRC bash :results output :noweb yes
orgFile="plots/plots.org"
<<singleRun>> # To get all default arguments
# Write helper function
function write {
echo "$1" >> $orgFile
}
echo "#+TITLE: Analysis" > $orgFile
write "#+LATEX_HEADER: \usepackage{fullpage}"
write "#+OPTIONS: toc:nil"
# Default arguments
write '\begin{center}'
write '\begin{tabular}{lr}'
write 'Parameters & Values\\'
write '\hline'
write "sensorsPktSize & ${sensorsPktSize} bytes\\\\"
write "sensorsSendInterval & ${sensorsSendInterval}s\\\\"
write "sensorsNumber & ${sensorsNumber}\\\\"
write "nbHop & ${nbHop}\\\\"
write "linksBandwidth & ${linksBandwidth}Mbps\\\\"
write "linksLatency & ${linksLatency}ms\\\\"
write '\end{tabular}'
write '\newline'
write '\end{center}'
for plot in $(find plots/ -type f -name "*.png")
do
write "\includegraphics[width=0.5\linewidth]{$(basename ${plot})}"
done
# Export to pdf
emacs $orgFile --batch -f org-latex-export-to-pdf --kill
#+END_SRC
#+RESULTS:
** Log -> CSV
logToCSV extract usefull data from logs and put them into logs/data.csv.
#+NAME: logToCSV
#+BEGIN_SRC bash :results none
csvOutput="logs/data.csv"
# First save csv header line
aLog=$(find logs/ -type f -name "*.org"|head -n 1)
metrics=$(cat $aLog|grep "\-METRICSLINE\-"|sed "s/-METRICSLINE-//g")
echo $metrics | awk '{for(i=1;i<=NF;i++){split($i,elem,":");printf(elem[1]);if(i<NF)printf(",");else{print("")}}}' > $csvOutput
# Second save all values
for logFile in $(find logs/ -type f -name "*.org")
do
metrics=$(cat $logFile|grep "\-METRICSLINE\-"|sed "s/-METRICSLINE-//g")
echo $metrics | awk '{for(i=1;i<=NF;i++){split($i,elem,":");printf(elem[2]);if(i<NF)printf(",");else{print("")}}}' >> $csvOutput
done
#+END_SRC
** Custom Plots
#+NAME: ssiNet
#+BEGIN_SRC R :noweb yes :results graphics :file plots/sensorsSendInterval-net.png
<<RUtils>>
data%>%filter(simKey=="SENDINTERVAL",sensorsNumber==20) %>% ggplot(aes(x=sensorsSendInterval,y=networkEnergy))+xlab(getLabel("sensorsSendInterval"))+ylab(getLabel("networkEnergy"))+
geom_line()+labs(title="For 20 sensors")
ggsave("plots/sensorsSendInterval-net.png",dpi=80)
#+END_SRC
#+RESULTS:
[[file:plots/sensorsSendInterval-net.png]]
#+NAME: ssiWifi
#+BEGIN_SRC R :noweb yes :results graphics :file plots/sensorsSendInterval-wifi.png
<<RUtils>>
data%>%filter(simKey=="SENDINTERVAL",sensorsNumber==20) %>% ggplot(aes(x=sensorsSendInterval,y=sensorsEnergy))+xlab(getLabel("sensorsSendInterval"))+ylab(getLabel("sensorsEnergy"))+
geom_line() + geom_line()+labs(title="For 20 sensors")
ggsave("plots/sensorsSendInterval-wifi.png",dpi=80)
#+END_SRC
#+RESULTS: ssiWifi
[[file:plots/sensorsSendInterval-wifi.png]]
#+RESULTS:
[[file:plots/sensorsSendInterval.png]]
#+BEGIN_SRC R :results graphics :noweb yes :file plot-final.png :session *R*
<<RUtils>>
simTime=1800
# Network
data=read_csv("logs/data.csv")
data=data%>%filter(simKey=="NBSENSORS")
dataC5=data%>%filter(sensorsNumber==5)%>% mutate(energy=networkEnergy/simTime) %>%select(energy,sensorsNumber)
dataC10=data%>%filter(sensorsNumber==10)%>%mutate(energy=networkEnergy/simTime) %>%select(energy,sensorsNumber)
dataNet=rbind(dataC5,dataC10)%>%mutate(type="Network")
# Network
dataS5=data%>%filter(sensorsNumber==5)%>% mutate(energy=sensorsEnergy/simTime) %>%select(energy,sensorsNumber)
dataS10=data%>%filter(sensorsNumber==10)%>%mutate(energy=sensorsEnergy/simTime) %>%select(energy,sensorsNumber)
dataS=rbind(dataS5,dataS10)%>%mutate(type="Sensors")
data=rbind(dataNet,dataS)%>%mutate(sensorsNumber=as.character(sensorsNumber))
ggplot(data)+geom_bar(aes(x=sensorsNumber,y=energy,fill=type),stat="identity")+xlab("Sensors Number")+ylab("Power Consumption (W)")+guides(fill=guide_legend(title="Part"))
ggsave("plot-final.png",dpi=80)
#+END_SRC
#+RESULTS:
[[file:plot-final.png]]

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