Add --validate option. Do not refreshShapers if validation fails, unless first boot

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Robert Chacón 2022-09-09 10:43:49 -06:00 committed by GitHub
parent 7fe9537be4
commit aa4c6b5125
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@ -214,93 +214,130 @@ def refreshShapers():
networkJSONfile = 'network.json'
# Check validation
safeToRunRefresh = False
if (validateNetworkAndDevices() == True):
shutil.copyfile('ShapedDevices.csv', 'lastGoodConfig.csv')
shutil.copyfile('network.json', 'lastGoodConfig.json')
print("Backed up good config as lastGoodConfig.csv and lastGoodConfig.json")
safeToRunRefresh = True
else:
warnings.warn("Validation failed - pulling from last good conifg")
shapedDevicesFile = 'lastGoodConfig.csv'
networkJSONfile = 'lastGoodConfig.json'
if (isThisFirstRunSinceBoot == False):
warnings.warn("Validation failed. Because this is not the first run since boot - will exit.")
safeToRunRefresh = False
else:
warnings.warn("Validation failed. However - because this is the first run since boot - will load queues from last good config")
shapedDevicesFile = 'lastGoodConfig.csv'
networkJSONfile = 'lastGoodConfig.json'
safeToRunRefresh = True
# Load Subscriber Circuits & Devices
subscriberCircuits = []
knownCircuitIDs = []
with open(shapedDevicesFile) as csv_file:
csv_reader = csv.reader(csv_file, delimiter=',')
# Remove comments if any
commentsRemoved = []
for row in csv_reader:
if not row[0].startswith('#'):
commentsRemoved.append(row)
# Remove header
commentsRemoved.pop(0)
for row in commentsRemoved:
circuitID, circuitName, deviceID, deviceName, ParentNode, mac, ipv4_input, ipv6_input, downloadMin, uploadMin, downloadMax, uploadMax, comment = row
ipv4_hosts = []
# Each entry in ShapedDevices.csv can have multiple IPv4s or IPv6s seperated by commas. Split them up and parse each
if ipv4_input != "":
ipv4_input = ipv4_input.replace(' ','')
if "," in ipv4_input:
ipv4_list = ipv4_input.split(',')
else:
ipv4_list = [ipv4_input]
for ipEntry in ipv4_list:
if '/32' in ipEntry:
ipv4_hosts.append(ipEntry.replace('/32',''))
elif '/' in ipEntry:
theseHosts = ipaddress.ip_network(ipEntry).hosts()
for host in theseHosts:
host = str(host)
if '/32' in host:
host = host.replace('/32','')
ipv4_hosts.append(host)
if safeToRunRefresh == True:
# Load Subscriber Circuits & Devices
subscriberCircuits = []
knownCircuitIDs = []
with open(shapedDevicesFile) as csv_file:
csv_reader = csv.reader(csv_file, delimiter=',')
# Remove comments if any
commentsRemoved = []
for row in csv_reader:
if not row[0].startswith('#'):
commentsRemoved.append(row)
# Remove header
commentsRemoved.pop(0)
for row in commentsRemoved:
circuitID, circuitName, deviceID, deviceName, ParentNode, mac, ipv4_input, ipv6_input, downloadMin, uploadMin, downloadMax, uploadMax, comment = row
ipv4_hosts = []
# Each entry in ShapedDevices.csv can have multiple IPv4s or IPv6s seperated by commas. Split them up and parse each
if ipv4_input != "":
ipv4_input = ipv4_input.replace(' ','')
if "," in ipv4_input:
ipv4_list = ipv4_input.split(',')
else:
ipv4_hosts.append(ipEntry)
ipv6_hosts = []
if ipv6_input != "":
ipv6_input = ipv6_input.replace(' ','')
if "," in ipv6_input:
ipv6_list = ipv6_input.split(',')
else:
ipv6_list = [ipv6_input]
for ipEntry in ipv6_list:
if '/128' in ipEntry:
ipv6_hosts.append(ipEntry)
elif '/' in ipEntry:
theseHosts = ipaddress.ip_network(ipEntry).hosts()
for host in theseHosts:
ipv6_hosts.append(str(host))
ipv4_list = [ipv4_input]
for ipEntry in ipv4_list:
if '/32' in ipEntry:
ipv4_hosts.append(ipEntry.replace('/32',''))
elif '/' in ipEntry:
theseHosts = ipaddress.ip_network(ipEntry).hosts()
for host in theseHosts:
host = str(host)
if '/32' in host:
host = host.replace('/32','')
ipv4_hosts.append(host)
else:
ipv4_hosts.append(ipEntry)
ipv6_hosts = []
if ipv6_input != "":
ipv6_input = ipv6_input.replace(' ','')
if "," in ipv6_input:
ipv6_list = ipv6_input.split(',')
else:
ipv6_hosts.append(ipEntry)
# If there is something in the circuit ID field
if circuitID != "":
# Seen circuit before
if circuitID in knownCircuitIDs:
for circuit in subscriberCircuits:
if circuit['circuitID'] == circuitID:
if circuit['ParentNode'] != "none":
if circuit['ParentNode'] != ParentNode:
errorMessageString = "Device " + deviceName + " with deviceID " + deviceID + " had different Parent Node from other devices of circuit ID #" + circuitID
raise ValueError(errorMessageString)
if ((circuit['downloadMin'] != round(int(downloadMin)*tcpOverheadFactor))
or (circuit['uploadMin'] != round(int(uploadMin)*tcpOverheadFactor))
or (circuit['downloadMax'] != round(int(downloadMax)*tcpOverheadFactor))
or (circuit['uploadMax'] != round(int(uploadMax)*tcpOverheadFactor))):
warnings.warn("Device " + deviceName + " with ID " + deviceID + " had different bandwidth parameters than other devices on this circuit. Will instead use the bandwidth parameters defined by the first device added to its circuit.")
devicesListForCircuit = circuit['devices']
thisDevice = {
"deviceID": deviceID,
"deviceName": deviceName,
"mac": mac,
"ipv4s": ipv4_hosts,
"ipv6s": ipv6_hosts,
}
devicesListForCircuit.append(thisDevice)
circuit['devices'] = devicesListForCircuit
# Have not seen circuit before
ipv6_list = [ipv6_input]
for ipEntry in ipv6_list:
if '/128' in ipEntry:
ipv6_hosts.append(ipEntry)
elif '/' in ipEntry:
theseHosts = ipaddress.ip_network(ipEntry).hosts()
for host in theseHosts:
ipv6_hosts.append(str(host))
else:
ipv6_hosts.append(ipEntry)
# If there is something in the circuit ID field
if circuitID != "":
# Seen circuit before
if circuitID in knownCircuitIDs:
for circuit in subscriberCircuits:
if circuit['circuitID'] == circuitID:
if circuit['ParentNode'] != "none":
if circuit['ParentNode'] != ParentNode:
errorMessageString = "Device " + deviceName + " with deviceID " + deviceID + " had different Parent Node from other devices of circuit ID #" + circuitID
raise ValueError(errorMessageString)
if ((circuit['downloadMin'] != round(int(downloadMin)*tcpOverheadFactor))
or (circuit['uploadMin'] != round(int(uploadMin)*tcpOverheadFactor))
or (circuit['downloadMax'] != round(int(downloadMax)*tcpOverheadFactor))
or (circuit['uploadMax'] != round(int(uploadMax)*tcpOverheadFactor))):
warnings.warn("Device " + deviceName + " with ID " + deviceID + " had different bandwidth parameters than other devices on this circuit. Will instead use the bandwidth parameters defined by the first device added to its circuit.")
devicesListForCircuit = circuit['devices']
thisDevice = {
"deviceID": deviceID,
"deviceName": deviceName,
"mac": mac,
"ipv4s": ipv4_hosts,
"ipv6s": ipv6_hosts,
}
devicesListForCircuit.append(thisDevice)
circuit['devices'] = devicesListForCircuit
# Have not seen circuit before
else:
knownCircuitIDs.append(circuitID)
if ParentNode == "":
ParentNode = "none"
ParentNode = ParentNode.strip()
deviceListForCircuit = []
thisDevice = {
"deviceID": deviceID,
"deviceName": deviceName,
"mac": mac,
"ipv4s": ipv4_hosts,
"ipv6s": ipv6_hosts,
}
deviceListForCircuit.append(thisDevice)
thisCircuit = {
"circuitID": circuitID,
"circuitName": circuitName,
"ParentNode": ParentNode,
"devices": deviceListForCircuit,
"downloadMin": round(int(downloadMin)*tcpOverheadFactor),
"uploadMin": round(int(uploadMin)*tcpOverheadFactor),
"downloadMax": round(int(downloadMax)*tcpOverheadFactor),
"uploadMax": round(int(uploadMax)*tcpOverheadFactor),
"qdisc": '',
}
subscriberCircuits.append(thisCircuit)
# If there is nothing in the circuit ID field
else:
knownCircuitIDs.append(circuitID)
# Copy deviceName to circuitName if none defined already
if circuitName == "":
circuitName = deviceName
if ParentNode == "":
ParentNode = "none"
ParentNode = ParentNode.strip()
@ -325,238 +362,209 @@ def refreshShapers():
"qdisc": '',
}
subscriberCircuits.append(thisCircuit)
# If there is nothing in the circuit ID field
else:
# Copy deviceName to circuitName if none defined already
if circuitName == "":
circuitName = deviceName
if ParentNode == "":
ParentNode = "none"
ParentNode = ParentNode.strip()
deviceListForCircuit = []
thisDevice = {
"deviceID": deviceID,
"deviceName": deviceName,
"mac": mac,
"ipv4s": ipv4_hosts,
"ipv6s": ipv6_hosts,
}
deviceListForCircuit.append(thisDevice)
thisCircuit = {
"circuitID": circuitID,
"circuitName": circuitName,
"ParentNode": ParentNode,
"devices": deviceListForCircuit,
"downloadMin": round(int(downloadMin)*tcpOverheadFactor),
"uploadMin": round(int(uploadMin)*tcpOverheadFactor),
"downloadMax": round(int(downloadMax)*tcpOverheadFactor),
"uploadMax": round(int(uploadMax)*tcpOverheadFactor),
"qdisc": '',
}
subscriberCircuits.append(thisCircuit)
# Load network heirarchy
with open(networkJSONfile, 'r') as j:
network = json.loads(j.read())
# Pull rx/tx queues / CPU cores avaialble
queuesAvailable = findQueuesAvailable()
# Load network heirarchy
with open(networkJSONfile, 'r') as j:
network = json.loads(j.read())
# Pull rx/tx queues / CPU cores avaialble
queuesAvailable = findQueuesAvailable()
# Generate Parent Nodes. Spread ShapedDevices.csv which lack defined ParentNode across these (balance across CPUs)
generatedPNs = []
for x in range(queuesAvailable):
genPNname = "Generated_PN_" + str(x+1)
network[genPNname] = {
"downloadBandwidthMbps":generatedPNDownloadMbps,
"uploadBandwidthMbps":generatedPNUploadMbps
}
generatedPNs.append(genPNname)
genPNcounter = 0
for circuit in subscriberCircuits:
if circuit['ParentNode'] == 'none':
circuit['ParentNode'] = generatedPNs[genPNcounter]
genPNcounter += 1
if genPNcounter >= queuesAvailable:
genPNcounter = 0
# Find the bandwidth minimums for each node by combining mimimums of devices lower in that node's heirarchy
def findBandwidthMins(data, depth):
tabs = ' ' * depth
minDownload = 0
minUpload = 0
for elem in data:
for circuit in subscriberCircuits:
if elem == circuit['ParentNode']:
minDownload += circuit['downloadMin']
minUpload += circuit['uploadMin']
if 'children' in data[elem]:
minDL, minUL = findBandwidthMins(data[elem]['children'], depth+1)
minDownload += minDL
minUpload += minUL
data[elem]['downloadBandwidthMbpsMin'] = minDownload
data[elem]['uploadBandwidthMbpsMin'] = minUpload
return minDownload, minUpload
minDownload, minUpload = findBandwidthMins(network, 0)
# Parse network structure. For each tier, create corresponding HTB and leaf classes. Prepare for execution later
linuxTCcommands = []
xdpCPUmapCommands = []
devicesShaped = []
parentNodes = []
def traverseNetwork(data, depth, major, minor, queue, parentClassID, parentMaxDL, parentMaxUL):
tabs = ' ' * depth
for elem in data:
elemClassID = hex(major) + ':' + hex(minor)
# Cap based on this node's max bandwidth, or parent node's max bandwidth, whichever is lower
elemDownloadMax = min(data[elem]['downloadBandwidthMbps'],parentMaxDL)
elemUploadMax = min(data[elem]['uploadBandwidthMbps'],parentMaxUL)
# Calculations are done in findBandwidthMins(), determine optimal HTB rates (mins) and ceils (maxs)
# For some reason that doesn't always yield the expected result, so it's better to play with ceil more than rate
# Here we override the rate as 95% of ceil.
elemDownloadMin = round(elemDownloadMax*.95)
elemUploadMin = round(elemUploadMax*.95)
linuxTCcommands.append('class add dev ' + interfaceA + ' parent ' + parentClassID + ' classid ' + hex(minor) + ' htb rate '+ str(round(elemDownloadMin)) + 'mbit ceil '+ str(round(elemDownloadMax)) + 'mbit prio 3')
linuxTCcommands.append('class add dev ' + interfaceB + ' parent ' + parentClassID + ' classid ' + hex(minor) + ' htb rate '+ str(round(elemUploadMin)) + 'mbit ceil '+ str(round(elemUploadMax)) + 'mbit prio 3')
thisParentNode = {
"parentNodeName": elem,
"classID": elemClassID,
"downloadMax": elemDownloadMax,
"uploadMax": elemUploadMax,
}
parentNodes.append(thisParentNode)
minor += 1
for circuit in subscriberCircuits:
#If a device from ShapedDevices.csv lists this elem as its Parent Node, attach it as a leaf to this elem HTB
if elem == circuit['ParentNode']:
maxDownload = min(circuit['downloadMax'],elemDownloadMax)
maxUpload = min(circuit['uploadMax'],elemUploadMax)
minDownload = min(circuit['downloadMin'],maxDownload)
minUpload = min(circuit['uploadMin'],maxUpload)
linuxTCcommands.append('class add dev ' + interfaceA + ' parent ' + elemClassID + ' classid ' + hex(minor) + ' htb rate '+ str(minDownload) + 'mbit ceil '+ str(maxDownload) + 'mbit prio 3')
linuxTCcommands.append('qdisc add dev ' + interfaceA + ' parent ' + hex(major) + ':' + hex(minor) + ' ' + fqOrCAKE)
linuxTCcommands.append('class add dev ' + interfaceB + ' parent ' + elemClassID + ' classid ' + hex(minor) + ' htb rate '+ str(minUpload) + 'mbit ceil '+ str(maxUpload) + 'mbit prio 3')
linuxTCcommands.append('qdisc add dev ' + interfaceB + ' parent ' + hex(major) + ':' + hex(minor) + ' ' + fqOrCAKE)
parentString = hex(major) + ':'
flowIDstring = hex(major) + ':' + hex(minor)
circuit['qdisc'] = flowIDstring
for device in circuit['devices']:
if device['ipv4s']:
for ipv4 in device['ipv4s']:
xdpCPUmapCommands.append('./xdp-cpumap-tc/src/xdp_iphash_to_cpu_cmdline --add --ip ' + str(ipv4) + ' --cpu ' + hex(queue-1) + ' --classid ' + flowIDstring)
if device['deviceName'] not in devicesShaped:
devicesShaped.append(device['deviceName'])
minor += 1
# Recursive call this function for children nodes attached to this node
if 'children' in data[elem]:
# We need to keep tabs on the minor counter, because we can't have repeating class IDs. Here, we bring back the minor counter from the recursive function
minor = traverseNetwork(data[elem]['children'], depth+1, major, minor+1, queue, elemClassID, elemDownloadMax, elemUploadMax)
# If top level node, increment to next queue / cpu core
if depth == 0:
if queue >= queuesAvailable:
queue = 1
major = queue
else:
queue += 1
major += 1
return minor
# Generate Parent Nodes. Spread ShapedDevices.csv which lack defined ParentNode across these (balance across CPUs)
generatedPNs = []
for x in range(queuesAvailable):
genPNname = "Generated_PN_" + str(x+1)
network[genPNname] = {
"downloadBandwidthMbps":generatedPNDownloadMbps,
"uploadBandwidthMbps":generatedPNUploadMbps
}
generatedPNs.append(genPNname)
genPNcounter = 0
for circuit in subscriberCircuits:
if circuit['ParentNode'] == 'none':
circuit['ParentNode'] = generatedPNs[genPNcounter]
genPNcounter += 1
if genPNcounter >= queuesAvailable:
genPNcounter = 0
# Find the bandwidth minimums for each node by combining mimimums of devices lower in that node's heirarchy
def findBandwidthMins(data, depth):
tabs = ' ' * depth
minDownload = 0
minUpload = 0
for elem in data:
for circuit in subscriberCircuits:
if elem == circuit['ParentNode']:
minDownload += circuit['downloadMin']
minUpload += circuit['uploadMin']
if 'children' in data[elem]:
minDL, minUL = findBandwidthMins(data[elem]['children'], depth+1)
minDownload += minDL
minUpload += minUL
data[elem]['downloadBandwidthMbpsMin'] = minDownload
data[elem]['uploadBandwidthMbpsMin'] = minUpload
return minDownload, minUpload
minDownload, minUpload = findBandwidthMins(network, 0)
# Parse network structure. For each tier, create corresponding HTB and leaf classes. Prepare for execution later
linuxTCcommands = []
xdpCPUmapCommands = []
devicesShaped = []
parentNodes = []
def traverseNetwork(data, depth, major, minor, queue, parentClassID, parentMaxDL, parentMaxUL):
tabs = ' ' * depth
for elem in data:
elemClassID = hex(major) + ':' + hex(minor)
# Cap based on this node's max bandwidth, or parent node's max bandwidth, whichever is lower
elemDownloadMax = min(data[elem]['downloadBandwidthMbps'],parentMaxDL)
elemUploadMax = min(data[elem]['uploadBandwidthMbps'],parentMaxUL)
# Calculations are done in findBandwidthMins(), determine optimal HTB rates (mins) and ceils (maxs)
# For some reason that doesn't always yield the expected result, so it's better to play with ceil more than rate
# Here we override the rate as 95% of ceil.
elemDownloadMin = round(elemDownloadMax*.95)
elemUploadMin = round(elemUploadMax*.95)
linuxTCcommands.append('class add dev ' + interfaceA + ' parent ' + parentClassID + ' classid ' + hex(minor) + ' htb rate '+ str(round(elemDownloadMin)) + 'mbit ceil '+ str(round(elemDownloadMax)) + 'mbit prio 3')
linuxTCcommands.append('class add dev ' + interfaceB + ' parent ' + parentClassID + ' classid ' + hex(minor) + ' htb rate '+ str(round(elemUploadMin)) + 'mbit ceil '+ str(round(elemUploadMax)) + 'mbit prio 3')
thisParentNode = {
"parentNodeName": elem,
"classID": elemClassID,
"downloadMax": elemDownloadMax,
"uploadMax": elemUploadMax,
}
parentNodes.append(thisParentNode)
minor += 1
for circuit in subscriberCircuits:
#If a device from ShapedDevices.csv lists this elem as its Parent Node, attach it as a leaf to this elem HTB
if elem == circuit['ParentNode']:
maxDownload = min(circuit['downloadMax'],elemDownloadMax)
maxUpload = min(circuit['uploadMax'],elemUploadMax)
minDownload = min(circuit['downloadMin'],maxDownload)
minUpload = min(circuit['uploadMin'],maxUpload)
linuxTCcommands.append('class add dev ' + interfaceA + ' parent ' + elemClassID + ' classid ' + hex(minor) + ' htb rate '+ str(minDownload) + 'mbit ceil '+ str(maxDownload) + 'mbit prio 3')
linuxTCcommands.append('qdisc add dev ' + interfaceA + ' parent ' + hex(major) + ':' + hex(minor) + ' ' + fqOrCAKE)
linuxTCcommands.append('class add dev ' + interfaceB + ' parent ' + elemClassID + ' classid ' + hex(minor) + ' htb rate '+ str(minUpload) + 'mbit ceil '+ str(maxUpload) + 'mbit prio 3')
linuxTCcommands.append('qdisc add dev ' + interfaceB + ' parent ' + hex(major) + ':' + hex(minor) + ' ' + fqOrCAKE)
parentString = hex(major) + ':'
flowIDstring = hex(major) + ':' + hex(minor)
circuit['qdisc'] = flowIDstring
for device in circuit['devices']:
if device['ipv4s']:
for ipv4 in device['ipv4s']:
xdpCPUmapCommands.append('./xdp-cpumap-tc/src/xdp_iphash_to_cpu_cmdline --add --ip ' + str(ipv4) + ' --cpu ' + hex(queue-1) + ' --classid ' + flowIDstring)
if device['deviceName'] not in devicesShaped:
devicesShaped.append(device['deviceName'])
minor += 1
# Recursive call this function for children nodes attached to this node
if 'children' in data[elem]:
# We need to keep tabs on the minor counter, because we can't have repeating class IDs. Here, we bring back the minor counter from the recursive function
minor = traverseNetwork(data[elem]['children'], depth+1, major, minor+1, queue, elemClassID, elemDownloadMax, elemUploadMax)
# If top level node, increment to next queue / cpu core
if depth == 0:
if queue >= queuesAvailable:
queue = 1
major = queue
else:
queue += 1
major += 1
return minor
# Print structure of network.json in debug or verbose mode
logging.info(json.dumps(network, indent=4))
# Print structure of network.json in debug or verbose mode
logging.info(json.dumps(network, indent=4))
# Here is the actual call to the recursive traverseNetwork() function. finalMinor is not used.
finalMinor = traverseNetwork(network, 0, major=1, minor=3, queue=1, parentClassID="1:1", parentMaxDL=upstreamBandwidthCapacityDownloadMbps, parentMaxUL=upstreamBandwidthCapacityUploadMbps)
# Record start time of actual filter reload
reloadStartTime = datetime.now()
# Clear Prior Settings
clearPriorSettings(interfaceA, interfaceB)
# If this is the first time LibreQoS.py has run since system boot, load the XDP program and disable XPS
# Otherwise, just clear the existing IP filter rules for xdp
if isThisFirstRunSinceBoot:
# Set up XDP-CPUMAP-TC
shell('./xdp-cpumap-tc/bin/xps_setup.sh -d ' + interfaceA + ' --default --disable')
shell('./xdp-cpumap-tc/bin/xps_setup.sh -d ' + interfaceB + ' --default --disable')
shell('./xdp-cpumap-tc/src/xdp_iphash_to_cpu --dev ' + interfaceA + ' --lan')
shell('./xdp-cpumap-tc/src/xdp_iphash_to_cpu --dev ' + interfaceB + ' --wan')
if enableActualShellCommands:
# Here we use os.system for the command, because otherwise it sometimes gltiches out with Popen in shell()
result = os.system('./xdp-cpumap-tc/src/xdp_iphash_to_cpu_cmdline --clear')
shell('./xdp-cpumap-tc/src/tc_classify --dev-egress ' + interfaceA)
shell('./xdp-cpumap-tc/src/tc_classify --dev-egress ' + interfaceB)
else:
if enableActualShellCommands:
result = os.system('./xdp-cpumap-tc/src/xdp_iphash_to_cpu_cmdline --clear')
# Here is the actual call to the recursive traverseNetwork() function. finalMinor is not used.
finalMinor = traverseNetwork(network, 0, major=1, minor=3, queue=1, parentClassID="1:1", parentMaxDL=upstreamBandwidthCapacityDownloadMbps, parentMaxUL=upstreamBandwidthCapacityUploadMbps)
# Record start time of actual filter reload
reloadStartTime = datetime.now()
# Clear Prior Settings
clearPriorSettings(interfaceA, interfaceB)
# If this is the first time LibreQoS.py has run since system boot, load the XDP program and disable XPS
# Otherwise, just clear the existing IP filter rules for xdp
if isThisFirstRunSinceBoot:
# Set up XDP-CPUMAP-TC
shell('./xdp-cpumap-tc/bin/xps_setup.sh -d ' + interfaceA + ' --default --disable')
shell('./xdp-cpumap-tc/bin/xps_setup.sh -d ' + interfaceB + ' --default --disable')
shell('./xdp-cpumap-tc/src/xdp_iphash_to_cpu --dev ' + interfaceA + ' --lan')
shell('./xdp-cpumap-tc/src/xdp_iphash_to_cpu --dev ' + interfaceB + ' --wan')
if enableActualShellCommands:
# Here we use os.system for the command, because otherwise it sometimes gltiches out with Popen in shell()
result = os.system('./xdp-cpumap-tc/src/xdp_iphash_to_cpu_cmdline --clear')
shell('./xdp-cpumap-tc/src/tc_classify --dev-egress ' + interfaceA)
shell('./xdp-cpumap-tc/src/tc_classify --dev-egress ' + interfaceB)
else:
if enableActualShellCommands:
result = os.system('./xdp-cpumap-tc/src/xdp_iphash_to_cpu_cmdline --clear')
# Create MQ qdisc for each interface
thisInterface = interfaceA
shell('tc qdisc replace dev ' + thisInterface + ' root handle 7FFF: mq')
for queue in range(queuesAvailable):
shell('tc qdisc add dev ' + thisInterface + ' parent 7FFF:' + hex(queue+1) + ' handle ' + hex(queue+1) + ': htb default 2')
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ': classid ' + hex(queue+1) + ':1 htb rate '+ str(upstreamBandwidthCapacityDownloadMbps) + 'mbit ceil ' + str(upstreamBandwidthCapacityDownloadMbps) + 'mbit')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 ' + fqOrCAKE)
# Default class - traffic gets passed through this limiter with lower priority if not otherwise classified by the Shaper.csv
# Only 1/4 of defaultClassCapacity is guarenteed (to prevent hitting ceiling of upstream), for the most part it serves as an "up to" ceiling.
# Default class can use up to defaultClassCapacityDownloadMbps when that bandwidth isn't used by known hosts.
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 classid ' + hex(queue+1) + ':2 htb rate ' + str(defaultClassCapacityDownloadMbps/4) + 'mbit ceil ' + str(defaultClassCapacityDownloadMbps) + 'mbit prio 5')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':2 ' + fqOrCAKE)
thisInterface = interfaceB
shell('tc qdisc replace dev ' + thisInterface + ' root handle 7FFF: mq')
for queue in range(queuesAvailable):
shell('tc qdisc add dev ' + thisInterface + ' parent 7FFF:' + hex(queue+1) + ' handle ' + hex(queue+1) + ': htb default 2')
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ': classid ' + hex(queue+1) + ':1 htb rate '+ str(upstreamBandwidthCapacityUploadMbps) + 'mbit ceil ' + str(upstreamBandwidthCapacityUploadMbps) + 'mbit')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 ' + fqOrCAKE)
# Default class - traffic gets passed through this limiter with lower priority if not otherwise classified by the Shaper.csv.
# Only 1/4 of defaultClassCapacity is guarenteed (to prevent hitting ceiling of upstream), for the most part it serves as an "up to" ceiling.
# Default class can use up to defaultClassCapacityUploadMbps when that bandwidth isn't used by known hosts.
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 classid ' + hex(queue+1) + ':2 htb rate ' + str(defaultClassCapacityUploadMbps/4) + 'mbit ceil ' + str(defaultClassCapacityUploadMbps) + 'mbit prio 5')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':2 ' + fqOrCAKE)
# Execute actual Linux TC and XDP-CPUMAP-TC filter commands
print("Executing linux TC class/qdisc commands")
with open('linux_tc.txt', 'w') as f:
for line in linuxTCcommands:
f.write(f"{line}\n")
logging.info(line)
shell("/sbin/tc -f -b linux_tc.txt")
print("Executed " + str(len(linuxTCcommands)) + " linux TC class/qdisc commands")
print("Executing XDP-CPUMAP-TC IP filter commands")
for command in xdpCPUmapCommands:
logging.info(command)
shell(command)
print("Executed " + str(len(xdpCPUmapCommands)) + " XDP-CPUMAP-TC IP filter commands")
reloadEndTime = datetime.now()
# Recap - warn operator if devices were skipped
devicesSkipped = []
for circuit in subscriberCircuits:
for device in circuit['devices']:
if device['deviceName'] not in devicesShaped:
devicesSkipped.append((device['deviceName'],device['deviceID']))
if len(devicesSkipped) > 0:
warnings.warn('Some devices were not shaped. Please check to ensure they have a valid ParentNode listed in ShapedDevices.csv:', stacklevel=2)
print("Devices not shaped:")
for entry in devicesSkipped:
name, idNum = entry
print('DeviceID: ' + idNum + '\t DeviceName: ' + name)
# Save for stats
with open('statsByCircuit.json', 'w') as infile:
json.dump(subscriberCircuits, infile)
with open('statsByParentNode.json', 'w') as infile:
json.dump(parentNodes, infile)
# Record time this run completed at
# filename = os.path.join(_here, 'lastRun.txt')
with open("lastRun.txt", 'w') as file:
file.write(datetime.now().strftime("%d-%b-%Y (%H:%M:%S.%f)"))
# Report reload time
reloadTimeSeconds = (reloadEndTime - reloadStartTime).seconds
print("Queue and IP filter reload completed in " + str(reloadTimeSeconds) + " seconds")
# Create MQ qdisc for each interface
thisInterface = interfaceA
shell('tc qdisc replace dev ' + thisInterface + ' root handle 7FFF: mq')
for queue in range(queuesAvailable):
shell('tc qdisc add dev ' + thisInterface + ' parent 7FFF:' + hex(queue+1) + ' handle ' + hex(queue+1) + ': htb default 2')
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ': classid ' + hex(queue+1) + ':1 htb rate '+ str(upstreamBandwidthCapacityDownloadMbps) + 'mbit ceil ' + str(upstreamBandwidthCapacityDownloadMbps) + 'mbit')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 ' + fqOrCAKE)
# Default class - traffic gets passed through this limiter with lower priority if not otherwise classified by the Shaper.csv
# Only 1/4 of defaultClassCapacity is guarenteed (to prevent hitting ceiling of upstream), for the most part it serves as an "up to" ceiling.
# Default class can use up to defaultClassCapacityDownloadMbps when that bandwidth isn't used by known hosts.
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 classid ' + hex(queue+1) + ':2 htb rate ' + str(defaultClassCapacityDownloadMbps/4) + 'mbit ceil ' + str(defaultClassCapacityDownloadMbps) + 'mbit prio 5')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':2 ' + fqOrCAKE)
thisInterface = interfaceB
shell('tc qdisc replace dev ' + thisInterface + ' root handle 7FFF: mq')
for queue in range(queuesAvailable):
shell('tc qdisc add dev ' + thisInterface + ' parent 7FFF:' + hex(queue+1) + ' handle ' + hex(queue+1) + ': htb default 2')
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ': classid ' + hex(queue+1) + ':1 htb rate '+ str(upstreamBandwidthCapacityUploadMbps) + 'mbit ceil ' + str(upstreamBandwidthCapacityUploadMbps) + 'mbit')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 ' + fqOrCAKE)
# Default class - traffic gets passed through this limiter with lower priority if not otherwise classified by the Shaper.csv.
# Only 1/4 of defaultClassCapacity is guarenteed (to prevent hitting ceiling of upstream), for the most part it serves as an "up to" ceiling.
# Default class can use up to defaultClassCapacityUploadMbps when that bandwidth isn't used by known hosts.
shell('tc class add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':1 classid ' + hex(queue+1) + ':2 htb rate ' + str(defaultClassCapacityUploadMbps/4) + 'mbit ceil ' + str(defaultClassCapacityUploadMbps) + 'mbit prio 5')
shell('tc qdisc add dev ' + thisInterface + ' parent ' + hex(queue+1) + ':2 ' + fqOrCAKE)
# Execute actual Linux TC and XDP-CPUMAP-TC filter commands
print("Executing linux TC class/qdisc commands")
with open('linux_tc.txt', 'w') as f:
for line in linuxTCcommands:
f.write(f"{line}\n")
logging.info(line)
shell("/sbin/tc -f -b linux_tc.txt")
print("Executed " + str(len(linuxTCcommands)) + " linux TC class/qdisc commands")
print("Executing XDP-CPUMAP-TC IP filter commands")
for command in xdpCPUmapCommands:
logging.info(command)
shell(command)
print("Executed " + str(len(xdpCPUmapCommands)) + " XDP-CPUMAP-TC IP filter commands")
reloadEndTime = datetime.now()
# Recap - warn operator if devices were skipped
devicesSkipped = []
for circuit in subscriberCircuits:
for device in circuit['devices']:
if device['deviceName'] not in devicesShaped:
devicesSkipped.append((device['deviceName'],device['deviceID']))
if len(devicesSkipped) > 0:
warnings.warn('Some devices were not shaped. Please check to ensure they have a valid ParentNode listed in ShapedDevices.csv:', stacklevel=2)
print("Devices not shaped:")
for entry in devicesSkipped:
name, idNum = entry
print('DeviceID: ' + idNum + '\t DeviceName: ' + name)
# Save for stats
with open('statsByCircuit.json', 'w') as infile:
json.dump(subscriberCircuits, infile)
with open('statsByParentNode.json', 'w') as infile:
json.dump(parentNodes, infile)
# Record time this run completed at
# filename = os.path.join(_here, 'lastRun.txt')
with open("lastRun.txt", 'w') as file:
file.write(datetime.now().strftime("%d-%b-%Y (%H:%M:%S.%f)"))
# Report reload time
reloadTimeSeconds = (reloadEndTime - reloadStartTime).seconds
print("Queue and IP filter reload completed in " + str(reloadTimeSeconds) + " seconds")
if __name__ == '__main__':
parser = argparse.ArgumentParser()
@ -571,11 +579,20 @@ if __name__ == '__main__':
help="Be verbose",
action="store_const", dest="loglevel", const=logging.INFO,
)
parser.add_argument(
'--validate',
help="Just validate network.json and ShapedDevices.csv",
action=argparse.BooleanOptionalAction,
)
args = parser.parse_args()
logging.basicConfig(level=args.loglevel)
# Starting
print("refreshShapers starting at " + datetime.now().strftime("%d/%m/%Y %H:%M:%S"))
# Refresh and/or set up queues
refreshShapers()
# Done
print("refreshShapers completed on " + datetime.now().strftime("%d/%m/%Y %H:%M:%S"))
if args.validate:
status = validateNetworkAndDevices()
else:
# Starting
print("refreshShapers starting at " + datetime.now().strftime("%d/%m/%Y %H:%M:%S"))
# Refresh and/or set up queues
refreshShapers()
# Done
print("refreshShapers completed on " + datetime.now().strftime("%d/%m/%Y %H:%M:%S"))