def main():
# Silence the warning from Interest wire encode.
Interest.setDefaultCanBePrefix(True)
# The default Face will connect using a Unix socket, or to "localhost".
face = Face()
memberName = Name("/first/user")
memberKeyName = Name(memberName).append(Name("/KEY/%0C%87%EB%E6U%27B%D6"))
memberKeyChain = KeyChain("pib-memory:", "tpm-memory:")
memberKeyChain.importSafeBag(SafeBag
(memberKeyName, Blob(MEMBER_PRIVATE_KEY, False),
Blob(MEMBER_PUBLIC_KEY, False)))
# TODO: Use a real Validator.
decryptor = DecryptorV2(
memberKeyChain.getPib().getIdentity(memberName).getDefaultKey(),
ValidatorNull(), memberKeyChain, face)
contentPrefix = Name("/testname/content")
contentNamespace = Namespace(contentPrefix)
contentNamespace.setFace(face)
contentNamespace.setDecryptor(decryptor)
enabled = [True]
def onSegmentedObject(objectNamespace):
dump("Got segmented content", objectNamespace.obj.toRawStr())
enabled[0] = False
SegmentedObjectHandler(contentNamespace, onSegmentedObject).objectNeeded()
while enabled[0]:
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
def benchmarkDecodeDataSeconds(nIterations, useCrypto, keyType, encoding):
"""
Loop to decode a data packet nIterations times.
:param int nIterations: The number of iterations.
:param bool useCrypto: If true, verify the signature. If false, don't
verify.
:param KeyType keyType: KeyType.RSA or EC, used if useCrypto is True.
:param Blob encoding: The wire encoding to decode.
:return: The number of seconds for all iterations.
:rtype: float
"""
# Initialize the KeyChain in case useCrypto is true.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
# This puts the public key in the pibImpl used by the SelfVerifyPolicyManager.
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_EC_PRIVATE_KEY_DER if keyType == KeyType.EC
else DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_EC_PUBLIC_KEY_DER if keyType == KeyType.EC
else DEFAULT_RSA_PUBLIC_KEY_DER, False)))
validator = Validator(ValidationPolicyFromPib(keyChain.getPib()))
start = getNowSeconds()
for i in range(nIterations):
data = Data()
data.wireDecode(encoding)
if useCrypto:
validator.validate(data,onVerifySuccess, onVerifyFailed)
finish = getNowSeconds()
return finish - start
def main():
# Silence the warning from Interest wire encode.
Interest.setDefaultCanBePrefix(True)
if sys.version_info[0] <= 2:
userPrefixUri = raw_input("Enter your user prefix (e.g. /a): ")
else:
userPrefixUri = input("Enter your user prefix (e.g. /a): ")
if userPrefixUri == "":
dump("You must enter a user prefix")
return
syncPrefixUri = "/sync"
nUserPrefixes = 2
maxPublishedSequenceNo = 3
# The default Face will connect using a Unix socket, or to "localhost".
face = Face()
# Set up the KeyChain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
producer = Producer(face, keyChain, Name(syncPrefixUri), userPrefixUri,
nUserPrefixes, maxPublishedSequenceNo)
# The main event loop.
while True:
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
def main():
# Silence the warning from Interest wire encode.
Interest.setDefaultCanBePrefix(True)
interest = Interest()
interest.wireDecode(TlvInterest)
dump("Interest:")
dumpInterest(interest)
# Set the name again to clear the cached encoding so we encode again.
interest.setName(interest.getName())
encoding = interest.wireEncode()
dump("")
dump("Re-encoded interest", encoding.toHex())
reDecodedInterest = Interest()
reDecodedInterest.wireDecode(encoding)
dump("Re-decoded Interest:")
dumpInterest(reDecodedInterest)
freshInterest = (Interest(
Name("/ndn/abc")).setMustBeFresh(False).setMinSuffixComponents(
4).setMaxSuffixComponents(6).setInterestLifetimeMilliseconds(
30000).setChildSelector(1).setMustBeFresh(True))
freshInterest.getKeyLocator().setType(KeyLocatorType.KEY_LOCATOR_DIGEST)
freshInterest.getKeyLocator().setKeyData(
bytearray([
0x00, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09, 0x0A,
0x0B, 0x0C, 0x0D, 0x0E, 0x0F, 0x10, 0x11, 0x12, 0x13, 0x14, 0x15,
0x16, 0x17, 0x18, 0x19, 0x1A, 0x1B, 0x1C, 0x1D, 0x1E, 0x1F
]))
freshInterest.getExclude().appendComponent(Name("abc")[0]).appendAny()
freshInterest.getForwardingHint().add(1, Name("/A"))
dump(freshInterest.toUri())
# Set up the KeyChain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
validator = Validator(ValidationPolicyFromPib(keyChain.getPib()))
# Make a Face just so that we can sign the interest.
face = Face("localhost")
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
face.makeCommandInterest(freshInterest)
reDecodedFreshInterest = Interest()
reDecodedFreshInterest.wireDecode(freshInterest.wireEncode())
dump("")
dump("Re-decoded fresh Interest:")
dumpInterest(reDecodedFreshInterest)
validator.validate(reDecodedFreshInterest,
makeSuccessCallback("Freshly-signed Interest"),
makeFailureCallback("Freshly-signed Interest"))
def main():
# Silence the warning from Interest wire encode.
Interest.setDefaultCanBePrefix(True)
interest = Interest()
interest.wireDecode(TlvInterest)
dump("Interest:")
dumpInterest(interest)
# Set the name again to clear the cached encoding so we encode again.
interest.setName(interest.getName())
encoding = interest.wireEncode()
dump("")
dump("Re-encoded interest", encoding.toHex())
reDecodedInterest = Interest()
reDecodedInterest.wireDecode(encoding)
dump("Re-decoded Interest:")
dumpInterest(reDecodedInterest)
freshInterest = (Interest(Name("/ndn/abc"))
.setMustBeFresh(False)
.setMinSuffixComponents(4)
.setMaxSuffixComponents(6)
.setInterestLifetimeMilliseconds(30000)
.setChildSelector(1)
.setMustBeFresh(True))
freshInterest.getKeyLocator().setType(KeyLocatorType.KEY_LOCATOR_DIGEST)
freshInterest.getKeyLocator().setKeyData(bytearray(
[0x00, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09, 0x0A, 0x0B, 0x0C, 0x0D, 0x0E, 0x0F,
0x10, 0x11, 0x12, 0x13, 0x14, 0x15, 0x16, 0x17, 0x18, 0x19, 0x1A, 0x1B, 0x1C, 0x1D, 0x1E, 0x1F]))
freshInterest.getExclude().appendComponent(Name("abc")[0]).appendAny()
freshInterest.getForwardingHint().add(1, Name("/A"))
dump(freshInterest.toUri())
# Set up the KeyChain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
validator = Validator(ValidationPolicyFromPib(keyChain.getPib()))
# Make a Face just so that we can sign the interest.
face = Face("localhost")
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
face.makeCommandInterest(freshInterest)
reDecodedFreshInterest = Interest()
reDecodedFreshInterest.wireDecode(freshInterest.wireEncode())
dump("")
dump("Re-decoded fresh Interest:")
dumpInterest(reDecodedFreshInterest)
validator.validate(
reDecodedFreshInterest, makeSuccessCallback("Freshly-signed Interest"),
makeFailureCallback("Freshly-signed Interest"))
def main():
interest = Interest()
interest.wireDecode(TlvInterest)
dump("Interest:")
dumpInterest(interest)
# Set the name again to clear the cached encoding so we encode again.
interest.setName(interest.getName())
encoding = interest.wireEncode()
dump("")
dump("Re-encoded interest", encoding.toHex())
reDecodedInterest = Interest()
reDecodedInterest.wireDecode(encoding)
dump("Re-decoded Interest:")
dumpInterest(reDecodedInterest)
freshInterest = (Interest(
Name("/ndn/abc")).setMustBeFresh(False).setMinSuffixComponents(
4).setMaxSuffixComponents(6).setInterestLifetimeMilliseconds(
30000).setChildSelector(1).setMustBeFresh(True))
freshInterest.getKeyLocator().setType(KeyLocatorType.KEY_LOCATOR_DIGEST)
freshInterest.getKeyLocator().setKeyData(
bytearray([
0x00, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09, 0x0A,
0x0B, 0x0C, 0x0D, 0x0E, 0x0F, 0x10, 0x11, 0x12, 0x13, 0x14, 0x15,
0x16, 0x17, 0x18, 0x19, 0x1A, 0x1B, 0x1C, 0x1D, 0x1E, 0x1F
]))
freshInterest.getExclude().appendComponent(Name("abc")[0]).appendAny()
freshInterest.getForwardingHint().add(1, Name("/A"))
dump(freshInterest.toUri())
# Set up the KeyChain.
pibImpl = PibMemory()
keyChain = KeyChain(pibImpl, TpmBackEndMemory(),
SelfVerifyPolicyManager(pibImpl))
# This puts the public key in the pibImpl used by the SelfVerifyPolicyManager.
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
# Make a Face just so that we can sign the interest.
face = Face("localhost")
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
face.makeCommandInterest(freshInterest)
reDecodedFreshInterest = Interest()
reDecodedFreshInterest.wireDecode(freshInterest.wireEncode())
dump("")
dump("Re-decoded fresh Interest:")
dumpInterest(reDecodedFreshInterest)
keyChain.verifyInterest(reDecodedFreshInterest,
makeOnVerified("Freshly-signed Interest"),
makeOnValidationFailed("Freshly-signed Interest"))
def main():
backboneFace = Face()
pibImpl = PibMemory()
keyChain = KeyChain(pibImpl, TpmBackEndMemory(),
SelfVerifyPolicyManager(pibImpl))
# This puts the public key in the pibImpl used by the SelfVerifyPolicyManager.
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
backboneFace.setCommandSigningInfo(keyChain,
keyChain.getDefaultCertificateName())
prefix = Name("/farm1")
backboneFace.registerPrefix(prefix, onInterest, onRegisterFailed)
print("Ready to go...")
while 1:
try:
backboneFace.processEvents()
e.acquire()
frame = ieee.wait_read_frame(0.01)
e.release()
if frame is not None:
if frame['rf_data'][0] == b'\x06' or frame['rf_data'][
0] == b'\x05': #if Data or Interest
buffData[0] = frame['rf_data'][0]
buffData[1] = ord(frame['rf_data'][1]) + lCP
buffData[2] = frame['rf_data'][2]
buffData[3] = ord(frame['rf_data'][3]) + lCP
buffData[4:lCP + 4] = eCP
buffData[lCP + 4:] = frame['rf_data'][4:]
print(str(datetime.now().strftime('%X.%f')))
backboneFace.send(buffData)
else:
print(frame['rf_data'][:])
#time.sleep(0.1)
gc.collect()
except KeyboardInterrupt:
backboneFace.shutdown()
ser.close()
break
def main():
# Uncomment these lines to print StateVectorSync debug messages.
logging.getLogger('').addHandler(logging.StreamHandler(sys.stdout))
logging.getLogger('').setLevel(logging.INFO)
face = Face("localhost")
# Set up the key chain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
screenName = promptAndInput("Enter your user name: ")
hubPrefix = "ndn/edu/ucla/remap"
chatRoom = "ndnchat"
notificationInterestLifetime = 5000.0
sessionNumber = int(round(Common.getNowMilliseconds() / 1000.0))
hmacKey = Blob(bytearray([
0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15,
16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31
]))
memberDataPrefix = Name(hubPrefix).append(screenName).append(chatRoom)
def onInitialized():
stateVectorSync.publishNextSequenceNo()
stateVectorSync = StateVectorSync2018(onReceivedSyncState, onInitialized,
memberDataPrefix, Name("/ndn/broadcast/SvsChat").append(chatRoom), face,
keyChain, SigningInfo(), hmacKey, notificationInterestLifetime,
onRegisterFailed)
while True:
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
def main():
data = Data()
data.wireDecode(TlvData)
dump("Decoded Data:")
dumpData(data)
# Set the content again to clear the cached encoding so we encode again.
data.setContent(data.getContent())
encoding = data.wireEncode()
reDecodedData = Data()
reDecodedData.wireDecode(encoding)
dump("")
dump("Re-decoded Data:")
dumpData(reDecodedData)
# Set up the KeyChain.
pibImpl = PibMemory()
keyChain = KeyChain(
pibImpl, TpmBackEndMemory(), SelfVerifyPolicyManager(pibImpl))
# This puts the public key in the pibImpl used by the SelfVerifyPolicyManager.
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
keyChain.verifyData(reDecodedData, makeOnVerified("Re-decoded Data"),
makeOnValidationFailed("Re-decoded Data"))
freshData = Data(Name("/ndn/abc"))
freshData.setContent("SUCCESS!")
freshData.getMetaInfo().setFreshnessPeriod(5000)
freshData.getMetaInfo().setFinalBlockId(Name("/%00%09")[0])
keyChain.sign(freshData)
dump("")
dump("Freshly-signed Data:")
dumpData(freshData)
keyChain.verifyData(freshData, makeOnVerified("Freshly-signed Data"),
makeOnValidationFailed("Freshly-signed Data"))
def benchmarkDecodeDataSeconds(nIterations, useCrypto, keyType, encoding):
"""
Loop to decode a data packet nIterations times.
:param int nIterations: The number of iterations.
:param bool useCrypto: If true, verify the signature. If false, don't
verify.
:param KeyType keyType: KeyType.RSA or EC, used if useCrypto is True.
:param Blob encoding: The wire encoding to decode.
:return: The number of seconds for all iterations.
:rtype: float
"""
# Initialize the private key storage in case useCrypto is true.
pibImpl = PibMemory()
keyChain = KeyChain(pibImpl, TpmBackEndMemory(),
SelfVerifyPolicyManager(pibImpl))
# This puts the public key in the pibImpl used by the SelfVerifyPolicyManager.
keyChain.importSafeBag(
SafeBag(
Name("/testname/KEY/123"),
Blob(
DEFAULT_EC_PRIVATE_KEY_DER if keyType == KeyType.ECDSA else
DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(
DEFAULT_EC_PUBLIC_KEY_DER if keyType == KeyType.ECDSA else
DEFAULT_RSA_PUBLIC_KEY_DER, False)))
start = getNowSeconds()
for i in range(nIterations):
data = Data()
data.wireDecode(encoding)
if useCrypto:
keyChain.verifyData(data, onVerified, onValidationFailed)
finish = getNowSeconds()
return finish - start
def main():
data = Data()
data.wireDecode(TlvData)
dump("Decoded Data:")
dumpData(data)
# Set the content again to clear the cached encoding so we encode again.
data.setContent(data.getContent())
encoding = data.wireEncode()
reDecodedData = Data()
reDecodedData.wireDecode(encoding)
dump("")
dump("Re-decoded Data:")
dumpData(reDecodedData)
# Set up the KeyChain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
validator = Validator(ValidationPolicyFromPib(keyChain.getPib()))
validator.validate(reDecodedData, makeSuccessCallback("Re-decoded Data"),
makeFailureCallback("Re-decoded Data"))
freshData = Data(Name("/ndn/abc"))
freshData.setContent("SUCCESS!")
freshData.getMetaInfo().setFreshnessPeriod(5000)
freshData.getMetaInfo().setFinalBlockId(Name("/%00%09")[0])
keyChain.sign(freshData)
dump("")
dump("Freshly-signed Data:")
dumpData(freshData)
validator.validate(freshData, makeSuccessCallback("Freshly-signed Data"),
makeFailureCallback("Freshly-signed Data"))
def main():
data = Data()
data.wireDecode(TlvData)
dump("Decoded Data:")
dumpData(data)
# Set the content again to clear the cached encoding so we encode again.
data.setContent(data.getContent())
encoding = data.wireEncode()
reDecodedData = Data()
reDecodedData.wireDecode(encoding)
dump("")
dump("Re-decoded Data:")
dumpData(reDecodedData)
# Set up the KeyChain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
validator = Validator(ValidationPolicyFromPib(keyChain.getPib()))
validator.validate(reDecodedData, makeSuccessCallback("Re-decoded Data"),
makeFailureCallback("Re-decoded Data"))
freshData = Data(Name("/ndn/abc"))
freshData.setContent("SUCCESS!")
freshData.getMetaInfo().setFreshnessPeriod(5000)
freshData.getMetaInfo().setFinalBlockId(Name("/%00%09")[0])
keyChain.sign(freshData)
dump("")
dump("Freshly-signed Data:")
dumpData(freshData)
validator.validate(freshData, makeSuccessCallback("Freshly-signed Data"),
makeFailureCallback("Freshly-signed Data"))
def benchmarkDecodeDataSeconds(nIterations, useCrypto, keyType, encoding):
"""
Loop to decode a data packet nIterations times.
:param int nIterations: The number of iterations.
:param bool useCrypto: If true, verify the signature. If false, don't
verify.
:param KeyType keyType: KeyType.RSA or EC, used if useCrypto is True.
:param Blob encoding: The wire encoding to decode.
:return: The number of seconds for all iterations.
:rtype: float
"""
# Initialize the KeyChain in case useCrypto is true.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
# This puts the public key in the pibImpl used by the SelfVerifyPolicyManager.
keyChain.importSafeBag(
SafeBag(
Name("/testname/KEY/123"),
Blob(
DEFAULT_EC_PRIVATE_KEY_DER if keyType == KeyType.EC else
DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(
DEFAULT_EC_PUBLIC_KEY_DER if keyType == KeyType.EC else
DEFAULT_RSA_PUBLIC_KEY_DER, False)))
validator = Validator(ValidationPolicyFromPib(keyChain.getPib()))
start = getNowSeconds()
for i in range(nIterations):
data = Data()
data.wireDecode(encoding)
if useCrypto:
validator.validate(data, onVerifySuccess, onVerifyFailed)
finish = getNowSeconds()
return finish - start
def main():
# Silence the warning from Interest wire encode.
Interest.setDefaultCanBePrefix(True)
if sys.version_info[0] <= 2:
userPrefixUri = raw_input("Enter your user prefix (e.g. /a): ")
else:
userPrefixUri = input("Enter your user prefix (e.g. /a): ")
if userPrefixUri == "":
dump("You must enter a user prefix")
return
syncPrefixUri = "/sync"
nUserPrefixes = 2
maxPublishedSequenceNo = 3
# The default Face will connect using a Unix socket, or to "localhost".
face = Face()
# Set up the KeyChain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
producer = Producer(
face, keyChain, Name(syncPrefixUri), userPrefixUri, nUserPrefixes,
maxPublishedSequenceNo)
# The main event loop.
while True:
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
def main():
# Uncomment these lines to print ChronoSync debug messages.
# logging.getLogger('').addHandler(logging.StreamHandler(sys.stdout))
# logging.getLogger('').setLevel(logging.INFO)
# Silence the warning from Interest wire encode.
Interest.setDefaultCanBePrefix(True)
screenName = promptAndInput("Enter your chat username: "******"ndn/edu/ucla/remap"
hubPrefix = promptAndInput("Enter your hub prefix [" + defaultHubPrefix + "]: ")
if hubPrefix == "":
hubPrefix = defaultHubPrefix
defaultChatRoom = "ndnchat"
chatRoom = promptAndInput("Enter the chatroom name [" + defaultChatRoom + "]: ")
if chatRoom == "":
chatRoom = defaultChatRoom
host = "localhost"
print("Connecting to " + host + ", Chatroom: " + chatRoom + ", Username: "******"")
face = Face(host)
# Set up the key chain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
chat = Chat(
screenName, chatRoom, Name(hubPrefix), face, keyChain,
keyChain.getDefaultCertificateName())
# The main loop to process Chat while checking stdin to send a message.
print("Enter your chat message. To quit, enter \"leave\" or \"exit\".")
while True:
# Set timeout to 0 for an immediate check.
isReady, _, _ = select.select([sys.stdin], [], [], 0)
if len(isReady) != 0:
input = promptAndInput("")
if input == "leave" or input == "exit":
# We will send the leave message below.
break
chat.sendMessage(input)
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
# The user entered the command to leave.
chat.leave()
# Wait a little bit to allow other applications to fetch the leave message.
startTime = Chat.getNowMilliseconds()
while True:
if Chat.getNowMilliseconds() - startTime >= 1000.0:
break
face.processEvents()
time.sleep(0.01)
def main():
# The default Face will connect using a Unix socket, or to "localhost".
face = Face()
# Create an in-memory key chain with default keys.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
# Enable Interest loopback so that the EncryptorV2 can fetch Data packets
# from the AccessManagerV2.
face.setInterestLoopbackEnabled(True)
contentPrefix = Name("/testname/content")
contentNamespace = Namespace(contentPrefix, keyChain)
# We know the content has two segments.
metaInfo = MetaInfo()
metaInfo.setFinalBlockId(Name().appendSegment(1)[0])
contentNamespace.setNewDataMetaInfo(metaInfo)
ckPrefix = Name("/some/ck/prefix")
encryptor = prepareData(ckPrefix, keyChain, face)
# Make the callback to produce a Data packet for a content segment.
def onObjectNeeded(namespace, neededNamespace, id):
if not (len(neededNamespace.name) == len(contentPrefix) + 1
and contentPrefix.isPrefixOf(neededNamespace.name)
and neededNamespace.name[-1].isSegment()):
# Not a content segment, ignore.
return False
# Get the segment number.
segment = neededNamespace.name[-1].toSegment()
if not (segment >= 0 and segment <= 1):
# An invalid segment was requested.
return False
segmentContent = ("This test message was decrypted"
if segment == 0 else " from segments.")
# Now call serializeObject which will answer the pending incoming Interest.
dump("Producing Data", neededNamespace.name)
neededNamespace.serializeObject(
encryptor.encrypt(Blob(segmentContent)).wireEncodeV2())
return True
contentNamespace.addOnObjectNeeded(onObjectNeeded)
dump("Register prefix", contentNamespace.name)
# Set the face and register to receive Interests.
contentNamespace.setFace(
face,
lambda prefixName: dump("Register failed for prefix", prefixName))
while True:
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
def benchmarkEncodeDataSeconds(nIterations, useComplex, useCrypto, keyType):
"""
Loop to encode a data packet nIterations times.
:param int nIterations: The number of iterations.
:param bool useComplex: If true, use a large name, large content and all
fields. If false, use a small name, small content and only required
fields.
:param bool useCrypto: If true, sign the data packet. If false, use a blank
signature.
:param KeyType keyType: KeyType.RSA or EC, used if useCrypto is True.
:return: A tuple (duration, encoding) where duration is the number of
seconds for all iterations and encoding is the wire encoding.
:rtype: (float, Blob)
"""
if useComplex:
# Use a large name and content.
name = Name(
"/ndn/ucla.edu/apps/lwndn-test/numbers.txt/%FD%05%05%E8%0C%CE%1D/%00"
)
contentString = ""
count = 1
contentString += "%d" % count
count += 1
while len(contentString) < 1115:
contentString += " %d" % count
count += 1
content = Name.fromEscapedString(contentString)
else:
# Use a small name and content.
name = Name("/test")
content = Name.fromEscapedString("abc")
finalBlockId = Name("/%00")[0]
# Initialize the KeyChain in case useCrypto is true.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(
Name("/testname/KEY/123"),
Blob(
DEFAULT_EC_PRIVATE_KEY_DER if keyType == KeyType.EC else
DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(
DEFAULT_EC_PUBLIC_KEY_DER if keyType == KeyType.EC else
DEFAULT_RSA_PUBLIC_KEY_DER, False)))
certificateName = keyChain.getDefaultCertificateName()
# Set up signatureBits in case useCrypto is false.
signatureBits = Blob(bytearray(256))
start = getNowSeconds()
for i in range(nIterations):
data = Data(name)
data.setContent(content)
if useComplex:
data.getMetaInfo().setFreshnessPeriod(1000)
data.getMetaInfo().setFinalBlockId(finalBlockId)
if useCrypto:
# This sets the signature fields.
keyChain.sign(data)
else:
# Imitate IdentityManager.signByCertificate to set up the signature
# fields, but don't sign.
sha256Signature = data.getSignature()
keyLocator = sha256Signature.getKeyLocator()
keyLocator.setType(KeyLocatorType.KEYNAME)
keyLocator.setKeyName(certificateName)
sha256Signature.setSignature(signatureBits)
encoding = data.wireEncode()
finish = getNowSeconds()
return (finish - start, encoding)
def benchmarkEncodeDataSeconds(nIterations, useComplex, useCrypto, keyType):
"""
Loop to encode a data packet nIterations times.
:param int nIterations: The number of iterations.
:param bool useComplex: If true, use a large name, large content and all
fields. If false, use a small name, small content and only required
fields.
:param bool useCrypto: If true, sign the data packet. If false, use a blank
signature.
:param KeyType keyType: KeyType.RSA or EC, used if useCrypto is True.
:return: A tuple (duration, encoding) where duration is the number of
seconds for all iterations and encoding is the wire encoding.
:rtype: (float, Blob)
"""
if useComplex:
# Use a large name and content.
name = Name(
"/ndn/ucla.edu/apps/lwndn-test/numbers.txt/%FD%05%05%E8%0C%CE%1D/%00")
contentString = ""
count = 1
contentString += "%d" % count
count += 1
while len(contentString) < 1115:
contentString += " %d" % count
count += 1
content = Name.fromEscapedString(contentString)
else:
# Use a small name and content.
name = Name("/test")
content = Name.fromEscapedString("abc")
finalBlockId = Name("/%00")[0]
# Initialize the KeyChain in case useCrypto is true.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(SafeBag
(Name("/testname/KEY/123"),
Blob(DEFAULT_EC_PRIVATE_KEY_DER if keyType == KeyType.EC
else DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_EC_PUBLIC_KEY_DER if keyType == KeyType.EC
else DEFAULT_RSA_PUBLIC_KEY_DER, False)))
certificateName = keyChain.getDefaultCertificateName()
# Set up signatureBits in case useCrypto is false.
signatureBits = Blob(bytearray(256))
start = getNowSeconds()
for i in range(nIterations):
data = Data(name)
data.setContent(content)
if useComplex:
data.getMetaInfo().setFreshnessPeriod(1000)
data.getMetaInfo().setFinalBlockId(finalBlockId)
if useCrypto:
# This sets the signature fields.
keyChain.sign(data)
else:
# Imitate IdentityManager.signByCertificate to set up the signature
# fields, but don't sign.
sha256Signature = data.getSignature()
keyLocator = sha256Signature.getKeyLocator()
keyLocator.setType(KeyLocatorType.KEYNAME)
keyLocator.setKeyName(certificateName)
sha256Signature.setSignature(signatureBits)
encoding = data.wireEncode()
finish = getNowSeconds()
return (finish - start, encoding)
def main():
# Uncomment these lines to print ChronoSync debug messages.
# logging.getLogger('').addHandler(logging.StreamHandler(sys.stdout))
# logging.getLogger('').setLevel(logging.INFO)
screenName = promptAndInput("Enter your chat username: "******"ndn/edu/ucla/remap"
hubPrefix = promptAndInput("Enter your hub prefix [" + defaultHubPrefix +
"]: ")
if hubPrefix == "":
hubPrefix = defaultHubPrefix
defaultChatRoom = "ndnchat"
chatRoom = promptAndInput("Enter the chatroom name [" + defaultChatRoom +
"]: ")
if chatRoom == "":
chatRoom = defaultChatRoom
host = "localhost"
print("Connecting to " + host + ", Chatroom: " + chatRoom +
", Username: "******"")
face = Face(host)
# Set up the key chain.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
chat = Chat(screenName, chatRoom, Name(hubPrefix), face, keyChain,
keyChain.getDefaultCertificateName())
# The main loop to process Chat while checking stdin to send a message.
print("Enter your chat message. To quit, enter \"leave\" or \"exit\".")
while True:
# Set timeout to 0 for an immediate check.
isReady, _, _ = select.select([sys.stdin], [], [], 0)
if len(isReady) != 0:
input = promptAndInput("")
if input == "leave" or input == "exit":
# We will send the leave message below.
break
chat.sendMessage(input)
face.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
# The user entered the command to leave.
chat.leave()
# Wait a little bit to allow other applications to fetch the leave message.
startTime = Chat.getNowMilliseconds()
while True:
if Chat.getNowMilliseconds() - startTime >= 1000.0:
break
face.processEvents()
time.sleep(0.01)
def main(index_f, weight_f):
sl = SegmentLabel(index_f, weight_f)
# The default Face will connect using a Unix socket, or to "localhost".
face_producer = Face()
# Create an in-memory key chain with default keys.
keyChain = KeyChain("pib-memory:", "tpm-memory:")
keyChain.importSafeBag(
SafeBag(Name("/testname/KEY/123"),
Blob(DEFAULT_RSA_PRIVATE_KEY_DER, False),
Blob(DEFAULT_RSA_PUBLIC_KEY_DER, False)))
face_producer.setCommandSigningInfo(keyChain,
keyChain.getDefaultCertificateName())
# Use default keys
# keyChain = KeyChain()
# face.setCommandSigningInfo(keyChain, keyChain.getDefaultCertificateName())
publishIntervalMs = 1000.0 / 10
# stream_producer = Namespace("/ndn/eb/stream/run/28/annotation", keyChain)
stream_producer = Namespace("/eb/proto/test/ml_processing/yolo/seglab",
keyChain)
handler = GeneralizedObjectStreamHandler()
stream_producer.setHandler(handler)
dump("Register prefix", stream_producer.name)
# Set the face and register to receive Interests.
stream_producer.setFace(
face_producer,
lambda prefixName: dump("Register failed for prefix", prefixName))
# Loop, producing a new object every previousPublishMs milliseconds (and
# also calling processEvents()).
previousPublishMs = 0
#test with publishing existing jason file by json string input
jsonString = "data/faith.json"
curr = []
for line in open(jsonString, 'r'):
curr.append(json.loads(line))
# curr_list = []
# for ann in curr:
# temp = []
# frameName = ann['frameName']
# # print(frameName)
# for k in ann["annotations"]:
# # temp.append({"label": ''.join([i for i in k["label"] if not i.isdigit()]), "prob": k["prob"]})
# temp.append({"label": ''.join([i for i in k["label"] if not i.isdigit()]), "ytop": k["ytop"],
# "ybottom": k["ybottom"], "xleft": k["xleft"], "xright": k["xright"], "prob": k["prob"],
# "frameName": frameName})
#
# curr_list.append(temp)
cnt = 0
total_cnt = len(curr)
# while True:
while cnt < total_cnt:
now = Common.getNowMilliseconds()
if now >= previousPublishMs + publishIntervalMs:
dump("Preparing data for sequence",
handler.getProducedSequenceNumber() + 1)
seg_result = sl.processAnnotation(curr[cnt])
if seg_result:
print(seg_result)
handler.addObject(Blob(json.dumps(seg_result)), "application/json")
# handler.addObject(
# Blob(json.dumps() + str(handler.getProducedSequenceNumber() + 1)),
# "application/json")
cnt += 1
previousPublishMs = now
face_producer.processEvents()
# We need to sleep for a few milliseconds so we don't use 100% of the CPU.
time.sleep(0.01)
