def run(args):
''' main script after arguments '''
from deployer import Deployer
# This script expects that the following environment vars are set:
#
# AZURE_TENANT_ID: with your Azure Active Directory tenant id or domain
# AZURE_CLIENT_ID: with your Azure Active Directory Application Client ID
# AZURE_CLIENT_SECRET: with your Azure Active Directory Application Secret
msg = "\nInitializing the Deployer class with subscription id: {}, resource group: {}" \
"\nand public key located at: {}...\n\n"
msg = msg.format(args.my_subscription_id, args.my_resource_group,
args.my_pub_ssh_key_path)
logging.info(msg)
# Initialize the deployer class
deploy = Deployer(subscription_id=args.my_subscription_id,
location=args.location)
##
logging.info("Beginning the deployment... \n\n")
# Deploy the template
args.dns_label_prefix = args.vmName.lower(
) ##re ^[a-z][a-z0-9-]{1,61}[a-z0-9]$
deploy.deploy(vars(args))
logging.warn(
"Done deploying!!\n\nYou can connect via: `ssh {}@{}.australiaeast.cloudapp.azure.com`"
.format(args.adminUserName, args.dns_label_prefix))
logging.debug(str(deploy))
def run_example(config):
try:
my_subscription_id = config[
'subscriptionId'] # your Azure Subscription Id
my_resource_group = 'azure-python-deployment-sample' # the resource group for deployment
my_pub_ssh_key_path = os.path.expanduser(
'~/.ssh/id_rsa.pub') # the path to your rsa public key file
msg = "\nInitializing the Deployer class with subscription id: {}, resource group: {}" \
"\nand public key located at: {}...\n\n"
msg = msg.format(my_subscription_id, my_resource_group,
my_pub_ssh_key_path)
print(msg)
# Initialize the deployer class
deployer = Deployer(config, my_resource_group, my_pub_ssh_key_path)
print("Beginning the deployment... \n\n")
# Deploy the template
my_deployment = deployer.deploy()
print("Done deploying!!")
finally:
print("Cleaning up the deployment... \n\n")
#Destroy the resource group which contains the deployment
deployer.destroy()
print("Clean up the deployment sucessfully. \n")
def __init__(self, problem, sample_time=0.01, update_time=0.1):
self.deployer = Deployer(problem, sample_time, update_time)
self.update_time = update_time
self.sample_time = sample_time
self.problem = problem
PlotLayer.simulator = self
self.reset_timing()
def upload_theme(self, reason: str):
d = Deployer(self.sub)
stylesheet = open(self.args.repo +
"/dist/assets/css/screen.css").read()
images = []
for suffix in ('png', 'PNG', 'jpg', 'JPG', 'jpeg', 'JPEG'):
pattern = self.args.repo + "/dist/assets/*/*" + suffix
images += [(Path(p).stem, p) for p in glob(pattern)]
d.put(stylesheet, images, reason)
async def handle(request: Command):
namespace = request.namespace
command = request.command
event = request.event
print(
f"Received namespace: {namespace}, command: {command}, event: {event}")
if not command:
return {
"message":
f":red_circle: No command provided. Try `.{namespace} help`"
}
cmd_parts = command.split()
# slack sends links surrounded by angle brackets (<, >) if it recognizes a URL, so we need to extract the URL
substring = SlackFormattedSubstring(cmd_parts[0])
handler_url = substring.get_content_or_none() if substring.is_url_link(
) else substring.get_raw()
if not validators.url(handler_url):
return {
"message":
(f":red_circle: `{handler_url}` does not seem to be a valid URL; see: "
+
"https://validators.readthedocs.io/en/latest/index.html#module-validators.url"
)
}
deployer = Deployer(handler_url)
if len(cmd_parts) > 1:
if cmd_parts[1] == "to":
if len(cmd_parts) == 3:
deployer.set_environment(cmd_parts[2])
else:
return {
"message":
f":red_circle: I don't understand that command; try: `.{namespace} help`"
}
else:
return {
"message":
f":red_circle: I don't understand that command; try: `.{namespace} help`"
}
elif len(cmd_parts) > 3:
return {
"message":
f":red_circle: I don't understand that command; try: `.{namespace} help`"
}
return {"message": deployer.deploy()}
def deploy(slug, testing_url, production_url, theme_url, production_server, production_dir):
build_dir = os.path.join(SETTINGS.BUILD_DIR, slug)
archive_dir = os.path.join(SETTINGS.ARCHIVE_DIR, slug)
compiler = Compiler(build_dir, testing_url, production_url, theme_url)
compiler.compile()
archiver = Archiver(slug, build_dir, archive_dir)
archive = archiver.archive()
deployer = Deployer(production_server, SETTINGS.SSH_KEY, archive_dir, production_dir)
deployer.deploy(archive)
return True
def __init__(self, problem, sample_time=0.01, update_time=0.1):
self.deployer = Deployer(problem, sample_time, update_time)
self.update_time = update_time
self.sample_time = sample_time
self.problem = problem
PlotLayer.simulator = self
self.reset_timing()
def main():
config = get_config()
name = config.name
img_name = "deploy_data/" + name + ".tif"
data = skimage.io.imread(img_name)
print data.shape
data = np.expand_dims(data, axis=3)
data = (data / 255.).astype(np.float32)
print data.shape
with tf.Session() as sess:
deployer = Deployer(sess, data, config)
deployer.deploy()
def deploy():
deployer = Deployer()
print("\nDeploying contract...")
(contract, tx_hash) = deployer.deploy(
compiled_path,
contract_name,
{
"from": sender_account,
"value": 0,
"nonce": 1642,
"gas": gas,
"gasPrice": gas_price
},
)
print("\nDeployment transaction hash: ", tx_hash.hex(),
"\nCrowdsale address: ", contract.address)
write_to_address_log(contract)
return contract
def main():
parser = argparse.ArgumentParser(description='pyginate - static web site generator')
parser.add_argument('action', help='Action to perform', choices=['build', 'deploy', 'process'])
parser.add_argument('-d', '--dir', help='Web site base directory', default=os.getcwd())
parser.add_argument('-c', '--config_file_name', help='Configuration file name', default='pyginator.json')
parser.add_argument('-s', '--processing_script', help='Procesing script to apply', default='')
parser.add_argument('-dr', '--dry_run', action='store_true', help='Do not apply any changes, just report')
args = parser.parse_args()
conf_file = os.path.join(args.dir, args.config_file_name)
configuration = Configuration(args.dir, json.load(open(conf_file)))
if args.action == 'build':
builder = Builder(configuration)
builder.build()
elif args.action == 'deploy':
deployer = Deployer(configuration)
deployer.deploy()
elif args.action == 'process':
if args.dry_run:
configuration.dry_run = True
processor = Processor(configuration, args.processing_script)
processor.process()
from flask import Flask, Response, request
from flask_jwt import JWT, jwt_required, current_identity
import time, json, hashlib, binascii, os
from pymongo import MongoClient
from werkzeug.security import safe_str_cmp
from deployer import Deployer
from prometheus_client.exposition import CONTENT_TYPE_LATEST, generate_latest
MONGODB_HOSTNAME = os.environ.get("MONGODB_HOSTNAME", "localhost")
MONGODB_PORT = os.environ.get("MONGODB_PORT", "27017")
#log = logging.getLogger('console')
app = Flask(__name__)
deployer = Deployer()
deployer.start()
username_table = {}
userid_table = {}
client = None
class User(object):
def __init__(self, id, username, password):
self.id = id
self.username = username
self.password = password
def __str__(self):
return "User(id='%s')" % self.id
class Simulator:
def __init__(self, problem, sample_time=0.01, update_time=0.1):
self.deployer = Deployer(problem, sample_time, update_time)
self.update_time = update_time
self.sample_time = sample_time
self.problem = problem
PlotLayer.simulator = self
self.reset_timing()
def set_problem(self, problem):
self.deployer.set_problem(problem)
self.problem = problem
def run(self):
self.deployer.reset()
stop = False
while not stop:
stop = self.update()
### adapted ###
if (stop or self.update_time -
float(self.problem.vehicles[0].signals['time'][:, -1] -
self.current_time)) > self.sample_time:
update_time = float(
self.problem.vehicles[0].signals['time'][:, -1] -
self.current_time)
# correcting for first time
# avoid negative update times
self.update_timing(max(0, update_time - self.sample_time))
else:
self.update_timing()
self.problem.final()
# return trajectories and signals
trajectories, signals = {}, {}
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[
0].traj_storage, self.problem.vehicles[0].signals
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.traj_storage
signals[str(vehicle)] = vehicle.signals
return trajectories, signals
def step(self, update_time=0.1):
stop = self.update()
if stop:
update_time = float(self.problem.vehicles[0].signals['time'][:,
-1] -
self.current_time)
self.update_timing(update_time)
self.problem.final()
else:
self.update_timing(update_time)
# return trajectories and signals
trajectories, signals, curr_state = {}, {}, {}
# determine remaining motion time
# depends on problem type, for fixedT motion_time is always = horizon_time
# local import required to avoid circular dependency
from ..problems.point2point import FixedTPoint2point, FreeTPoint2point
if isinstance(self.problem, FixedTPoint2point):
motion_time = self.problem.options['horizon_time']
elif isinstance(self.problem, FreeTPoint2point):
motion_time = self.problem.father.get_variables(self.problem,
'T')[0][0]
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].signals[
'state'][:,
-1], self.current_time, motion_time, stop, self.problem.vehicles[
0].traj_storage, self.problem.vehicles[0].signals
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.traj_storage
signals[str(vehicle)] = vehicle.signals
curr_state[str(vehicle)] = vehicle.signals['state'][:, -1]
return curr_state, self.current_time, motion_time, stop, trajectories, signals
def update(self):
# update deployer
self.deployer.update(self.current_time)
# simulate problem
self.problem.simulate(self.current_time, self.update_time,
self.sample_time)
# check stop condition
stop = self.problem.stop_criterium(self.current_time, self.update_time)
return stop
def reset_timing(self):
self.current_time = 0.
self.time = np.r_[0.]
def update_timing(self, update_time=None):
update_time = self.update_time if not update_time else update_time
self.current_time += update_time
n_samp = int(np.round(update_time / self.sample_time, 6))
# n_samp = max(0, int(np.round(update_time/self.sample_time, 6)))
self.time = np.r_[
self.time,
np.linspace(self.time[-1] + self.sample_time, self.time[-1] +
n_samp * self.sample_time, n_samp)]
def run_once(self, simulate=True, **kwargs):
if 'hard_stop' in kwargs:
hard_stop = kwargs['hard_stop']
else:
hard_stop = None
self.deployer.reset()
self.deployer.update(self.current_time, None, update_time=np.inf)
if not simulate:
return None
if hard_stop:
self.hard_stop(self.current_time, hard_stop['time'],
hard_stop['perturbation'])
else:
self.problem.simulate(self.current_time, np.inf, self.sample_time)
self.problem.final()
# determine timing
update_time = self.problem.vehicles[0].signals[
'time'][:, -1] - self.current_time
self.update_timing(update_time)
# return trajectories
trajectories = {}
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].trajectories
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.trajectories
return trajectories
def hard_stop(self, current_time, stop_time, perturbation):
self.problem.simulate(current_time, stop_time, self.sample_time)
for k, vehicle in enumerate(self.problem.vehicles):
vehicle.overrule_state(vehicle.signals['state'][:, -1] +
np.array(perturbation[k]))
vehicle.overrule_input(np.zeros(len(vehicle.prediction['input'])))
def sleep(self, sleep_time):
self.problem.sleep(self.current_time, sleep_time, self.sample_time)
self.update_timing(sleep_time)
def time2index(self, time):
Ts = self.sample_time
for k, t in enumerate(self.time):
t = np.round(t, 6)
if (t <= time) and (time < (t + Ts)) and ((time - t) <=
(t + Ts - time)):
return k
elif len(args_list) == 1:
dp.test_server()
dp.run_command(args_list[0])
else:
server_list = deal_select_server(args_list[1:])
dp.run_command(args_list[0], server_list)
if __name__=='__main__':
if '-h' in sys.argv or '--help' in sys.argv:
show_help()
sys.exit(0)
print(color_str(Color.YELLOW, "loading profile ing...\n"))
conf_path=os.environ['HOME'] + "/.ssh/auto_password.conf"
dp=Deployer(conf_path)
print('read profile {}\n'.format(color_str(Color.GREEN, "success")))
opts = sys.argv[1:]
if not opts:
loop_manage_server()
elif opts[0] == 'push':
push_file_controller(opts[1:])
elif opts[0] == 'pull':
pull_file_controller(opts[1:])
elif opts[0] == 'run':
run_command_controller(opts[1:])
elif opts[0] == 'info':
dp.test_server()
from deployer import Deployer
import json
import helm
if len(argv) != 3:
print('USAGE: (install|delete) file.json')
exit(1)
if argv[1] == "install":
delete_mode = False
elif argv[1] == "delete":
delete_mode = True
else:
print('USAGE: (install|delete) file.json')
exit(1)
with open(argv[2], 'r') as stream:
doc = json.loads(stream.read())
if 'repositories' in doc:
for name, url in doc['repositories'].items():
helm.repo_add(name, url)
helm.repo_update()
with Deployer() as deployer:
if delete_mode:
deployer.delete(doc['charts'], doc['env'])
else:
deployer.install(doc['charts'], doc['env'])
class Simulator:
def __init__(self, problem, sample_time=0.01, update_time=0.1):
self.deployer = Deployer(problem, sample_time, update_time)
self.update_time = update_time
self.sample_time = sample_time
self.problem = problem
PlotLayer.simulator = self
self.reset_timing()
def set_problem(self, problem):
self.deployer.set_problem(problem)
self.problem = problem
def run(self):
self.deployer.reset()
stop = False
while not stop:
stop = self.update()
### adapted ###
if (stop or self.update_time - float(self.problem.vehicles[0].signals['time'][:, -1] - self.current_time)) > self.sample_time:
update_time = float(self.problem.vehicles[0].signals['time'][:, -1] - self.current_time)
# correcting for first time
# avoid negative update times
self.update_timing(max(0,update_time-self.sample_time))
else:
self.update_timing()
self.problem.final()
# return trajectories and signals
trajectories, signals = {}, {}
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].traj_storage, self.problem.vehicles[0].signals
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.traj_storage
signals[str(vehicle)] = vehicle.signals
return trajectories, signals
def step(self, update_time=0.1):
stop = self.update()
if stop:
update_time = float(self.problem.vehicles[0].signals['time'][:, -1] - self.current_time)
self.update_timing(update_time)
self.problem.final()
else:
self.update_timing(update_time)
# return trajectories and signals
trajectories, signals, curr_state = {}, {}, {}
# determine remaining motion time
# depends on problem type, for fixedT motion_time is always = horizon_time
# local import required to avoid circular dependency
from ..problems.point2point import FixedTPoint2point, FreeTPoint2point
if isinstance(self.problem, FixedTPoint2point):
motion_time = self.problem.options['horizon_time']
elif isinstance(self.problem, FreeTPoint2point):
motion_time = self.problem.father.get_variables(self.problem, 'T')[0][0]
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].signals['state'][:,-1], self.current_time, motion_time, stop, self.problem.vehicles[0].traj_storage, self.problem.vehicles[0].signals
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.traj_storage
signals[str(vehicle)] = vehicle.signals
curr_state[str(vehicle)] = vehicle.signals['state'][:,-1]
return curr_state, self.current_time, motion_time, stop, trajectories, signals
def update(self):
# update deployer
self.deployer.update(self.current_time)
# simulate problem
self.problem.simulate(self.current_time, self.update_time, self.sample_time)
# check stop condition
stop = self.problem.stop_criterium(self.current_time, self.update_time)
return stop
def reset_timing(self):
self.current_time = 0.
self.time = np.r_[0.]
def update_timing(self, update_time=None):
update_time = self.update_time if not update_time else update_time
self.current_time += update_time
n_samp = int(np.round(update_time/self.sample_time, 6))
# n_samp = max(0, int(np.round(update_time/self.sample_time, 6)))
self.time = np.r_[self.time, np.linspace(
self.time[-1]+self.sample_time, self.time[-1]+n_samp*self.sample_time, n_samp)]
def run_once(self, simulate=True, **kwargs):
if 'hard_stop' in kwargs:
hard_stop = kwargs['hard_stop']
else:
hard_stop = None
self.deployer.reset()
self.deployer.update(self.current_time, None, update_time=np.inf)
if not simulate:
return None
if hard_stop:
self.hard_stop(self.current_time, hard_stop['time'], hard_stop['perturbation'])
else:
self.problem.simulate(self.current_time, np.inf, self.sample_time)
self.problem.final()
# determine timing
update_time = self.problem.vehicles[0].signals['time'][:, -1] - self.current_time
self.update_timing(update_time)
# return trajectories
trajectories = {}
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].trajectories
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.trajectories
return trajectories
def hard_stop(self, current_time, stop_time, perturbation):
self.problem.simulate(current_time, stop_time, self.sample_time)
for k, vehicle in enumerate(self.problem.vehicles):
vehicle.overrule_state(vehicle.signals['state'][:, -1] + np.array(perturbation[k]))
vehicle.overrule_input(np.zeros(len(vehicle.prediction['input'])))
def sleep(self, sleep_time):
self.problem.sleep(self.current_time, sleep_time, self.sample_time)
self.update_timing(sleep_time)
def time2index(self, time):
Ts = self.sample_time
for k, t in enumerate(self.time):
t = np.round(t, 6)
if (t <= time) and (time < (t+Ts)) and ((time-t) <= (t+Ts-time)):
return k
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
import deployer
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
web3 = Web3Interface().w3
web3.miner.start(1)
deployer = Deployer()
owner = web3.eth.accounts[0]
new_owner = web3.eth.accounts[1]
gas = 5000000
gas_price = 20000000000
tx = {"from": owner, "value": 0, "gas": gas, "gasPrice": gas_price}
(ownable_contract, tx_hash) = deployer.deploy("./build/", "OwnableMock", tx,)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 1
functions = ownable_contract.functions
def get_owner():
return functions.owner().call()
assert get_owner() == owner
succeeds("Transfer ownership succeeds.", functions.transferOwnership(new_owner).transact(tx))
assert get_owner() == new_owner
web3.miner.stop()
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
from test_config import config_f
web3 = Web3Interface().w3
web3.miner.start(1)
deployer = Deployer()
accounts = web3.eth.accounts
sender = accounts[0]
gas = 50000000
gas_price = 20000000000
tx = {"from": sender, "value": 0, "gas": gas, "gasPrice": gas_price}
config = config_f()
to_mint = 100000
address_zero = web3.toChecksumAddress("0x0000000000000000000000000000000000000000")
(mintable_token_contract, tx_hash) = deployer.deploy("./build/", "MintableTokenMock", tx, config['multisig_supply'], address_zero, True)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 0
(mintable_token_contract, tx_hash) = deployer.deploy("./build/", "MintableTokenMock", tx, 0, config['MW_address'], False)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 0
# Standard_DS3_v2_Promo,Standard_DS4_v2_Promo,Standard_DS5_v2_Promo,Standard_DS11_v2_Promo,Standard_DS12_v2_Promo,Standard_DS13_v2_Promo,Standard_DS14_v2_Promo,Standard_F1s,Standard_F2s
# Standard_F4s,Standard_F8s,Standard_F16s,Standard_D2_v3,Standard_D4_v3,Standard_D8_v3,Standard_D16_v3,Standard_D32_v3,Standard_D2s_v3,Standard_D4s_v3,Standard_D8s_v3,Standard_D16s_v3
# Standard_D32s_v3,Standard_NV6,Standard_NV12,Standard_NV24,Standard_D64_v3,Standard_D64s_v3,Standard_E2_v3,Standard_E4_v3,Standard_E8_v3,Standard_E16_v3,Standard_E32_v3,Standard_E64_v3
# Standard_E2s_v3,Standard_E4s_v3,Standard_E8s_v3,Standard_E16s_v3,Standard_E32s_v3,Standard_E64s_v3,Standard_F2s_v2,Standard_F4s_v2,Standard_F8s_v2,Standard_F16s_v2,Standard_F32s_v2
# Standard_F64s_v2,Standard_F72s_v2,Standard_NC6,Standard_NC12,Standard_NC24,Standard_NC24r,Standard_H8,Standard_H16,Standard_H8m,Standard_H16m,Standard_H16r,Standard_H16mr,Standard_G1
# Standard_G2,Standard_G3,Standard_G4,Standard_G5,Standard_GS1,Standard_GS2,Standard_GS3,Standard_GS4,Standard_GS4-4,Standard_GS4-8,Standard_GS5,Standard_GS5-8,Standard_GS5-16
# Standard_L4s,Standard_L8s,Standard_L16s,Standard_L32s,Standard_M64-16ms,Standard_M64-32ms,Standard_M64ms,Standard_M64s,Standard_M128-32ms,Standard_M128-64ms,Standard_M128ms
# Standard_M128s,Standard_ND6s,Standard_ND12s,Standard_ND24rs,Standard_ND24s,Standard_E32-8s_v3,Standard_E32-16s_v3,Standard_E64-16s_v3,Standard_E64-32s_v3,Standard_NC6s_v2
# Standard_NC12s_v2,Standard_NC24rs_v2,Standard_NC24s_v2,Standard_A8,Standard_A9,Standard_A10,Standard_A11
user = ""
passwd = ""
my_subscription_id = ""
my_resource_group = ''
# Initialize the deployer class
# deployer = Deployer(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print("Deployment set with " + my_subscription_id + " and " +
my_resource_group)
deployer = Deployer(user, passwd, my_subscription_id, my_resource_group)
# Deploy the template
print("Beginning the deployment... \n\n")
my_deployment = deployer.deploy()
print(
"Done deploying !!\n\nYou can connect via: `ssh azureSample@{}.westeuropo.cloudapp.azure.com`"
.format(deployer.dns_label_prefix))
# Destroy the resource group which contains the deployment
# deployer.destroy()
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
from test_config import config_f
import time
web3 = Web3Interface().w3
web3.miner.start(1)
deployer = Deployer()
owner = web3.eth.accounts[0]
gas = 50000000
gas_price = 20000000000
tx = {"from": owner, "value": 0, "gas": gas, "gasPrice": gas_price}
config = config_f()
tokens_sold_example = 34 * 10**23
(token_tranche_pricing_contract, tx_hash) = deployer.deploy(
"./build/",
"TokenTranchePricingMock",
tx,
)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 1
functions = token_tranche_pricing_contract.functions
def get_tranches_length():
# TODO: compare the wished for deployment with the current deployment
# TODO: delete ones not in desired state
# TODO: Update ones that are in current list
# TODO: create new ones if they don't exist
my_location = 'uksouth'
# the path to your rsa public key file
my_pub_ssh_key_path = os.path.expanduser('~/.ssh/id_rsa.pub')
msg = "\nInitializing the Deployer class with subscription id: {}, resource group: {}" \
"\nand public key located at: {}...\n\n"
msg = msg.format(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print(msg)
# Initialize the deployer class
deployer = Deployer(my_subscription_id, my_resource_group,
my_location, my_pub_ssh_key_path)
print("Beginning the deployment... \n\n")
# Deploy the template
# deployer.deploy()
print("Done deploying!!\n\nYou can connect via: `ssh azureSample@{}.westus.cloudapp.azure.com`".format(
deployer.dns_label_prefix))
# Destroy the resource group which contains the deployment
deployer.destroy()
()
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
from test_config import config_f
web3 = Web3Interface().w3
config = config_f()
web3.miner.start(1)
deployer = Deployer()
accounts = web3.eth.accounts
sender = accounts[0]
gas = 50000000
gas_price = 20000000000
tx = {"from": sender, "value": 0, "gas": gas, "gasPrice": gas_price}
(crowdsale_token_contract,
tx_hash) = deployer.deploy("./build/", "CrowdsaleToken", tx,
config["multisig_supply"],
config["token_decimals"], config["MW_address"],
config["token_retriever_account"])
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 1
functions = crowdsale_token_contract.functions
def can_upgrade():
return functions.canUpgrade().call()
class Simulator:
def __init__(self, problem, sample_time=0.01, update_time=0.1):
self.deployer = Deployer(problem, sample_time, update_time)
self.update_time = update_time
self.sample_time = sample_time
self.problem = problem
PlotLayer.simulator = self
self.reset_timing()
def set_problem(self, problem):
self.deployer.set_problem(problem)
self.problem = problem
def run(self):
self.deployer.reset()
stop = False
while not stop:
stop = self.update()
if stop:
update_time = float(self.problem.vehicles[0].signals['time'][:, -1] - self.current_time)
self.update_timing(update_time-self.sample_time) #correcting for first time
else:
self.update_timing()
self.problem.final()
# return trajectories and signals
trajectories, signals = {}, {}
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].traj_storage, self.problem.vehicles[0].signals
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.traj_storage
signals[str(vehicle)] = vehicle.signals
return trajectories, signals
def update(self):
# update deployer
self.deployer.update(self.current_time)
# simulate problem
self.problem.simulate(self.current_time, self.update_time, self.sample_time)
# check stop condition
stop = self.problem.stop_criterium(self.current_time, self.update_time)
return stop
def reset_timing(self):
self.current_time = 0.
self.time = np.r_[0.]
def update_timing(self, update_time=None):
update_time = self.update_time if not update_time else update_time
self.current_time += update_time
n_samp = int(np.round(update_time/self.sample_time, 6))
self.time = np.r_[self.time, np.linspace(
self.time[-1]+self.sample_time, self.time[-1]+n_samp*self.sample_time, n_samp)]
def run_once(self, simulate=True, **kwargs):
if 'hard_stop' in kwargs:
hard_stop = kwargs['hard_stop']
else:
hard_stop = None
self.deployer.reset()
self.deployer.update(self.current_time, None, np.inf)
if not simulate:
return None
if hard_stop:
self.hard_stop(self.current_time, hard_stop['time'], hard_stop['perturbation'])
else:
self.problem.simulate(self.current_time, np.inf, self.sample_time)
self.problem.final()
# determine timing
update_time = self.problem.vehicles[0].signals['time'][:, -1] - self.current_time
self.update_timing(update_time)
# return trajectories
trajectories = {}
if len(self.problem.vehicles) == 1:
return self.problem.vehicles[0].trajectories
else:
for vehicle in self.problem.vehicles:
trajectories[str(vehicle)] = vehicle.trajectories
return trajectories
def hard_stop(self, current_time, stop_time, perturbation):
self.problem.simulate(current_time, stop_time, self.sample_time)
for k, vehicle in enumerate(self.problem.vehicles):
vehicle.overrule_state(vehicle.signals['state'][:, -1] + np.array(perturbation[k]))
vehicle.overrule_input(np.zeros(len(vehicle.prediction['input'])))
def sleep(self, sleep_time):
self.problem.sleep(self.current_time, sleep_time, self.sample_time)
self.update_timing(sleep_time)
def time2index(self, time):
Ts = self.sample_time
for k, t in enumerate(self.time):
t = np.round(t, 6)
if (t <= time) and (time < (t+Ts)) and ((time-t) <= (t+Ts-time)):
return k
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
import time
web3 = Web3Interface().w3
web3.miner.start(1)
deployer = Deployer()
accounts = web3.eth.accounts
sender = accounts[0]
gas = 50000000
gas_price = 20000000000
tx = {"from": sender, "value": 0, "gas": gas, "gasPrice": gas_price}
agent_to_approve = accounts[2]
tokens_to_approve = 100000
(standard_token_mock_contract, tx_hash_standard_token) = deployer.deploy(
"./build/",
"StandardTokenMock",
tx,
)
time.sleep(1.4)
(lost_and_found_token_contract, tx_hash) = deployer.deploy(
"./build/",
"LostAndFoundTokenMock",
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
web3 = Web3Interface().w3
web3.miner.start(1)
deployer = Deployer()
accounts = web3.eth.accounts
sender = accounts[0]
gas = 50000000
gas_price = 20000000000
tx = {"from": sender, "value": 0, "gas": gas, "gasPrice": gas_price}
(standard_token_contract, tx_hash) = deployer.deploy("./build/", "StandardTokenMock", tx,)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 1
functions = standard_token_contract.functions
token_balances = {x : 0 for x in accounts}
allowed = {i : {x : 0 for x in accounts} for i in accounts}
total_supply = 0
value_transfer = 10000
value_mint = 100000
def get_total_supply():
return functions.totalSupply().call()
def balance_of(address):
return functions.balanceOf(address).call()
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
from test_config import config_f
from generic_crowdsale_mock_checker import GenericCrowdsaleChecker
web3 = Web3Interface().w3
config = config_f()
web3.miner.start(1)
deployer = Deployer()
accounts = web3.eth.accounts
sender = accounts[0]
gas = 50000000
gas_price = 20000000000
tx = {"from": sender, "value": 0, "gas": gas, "gasPrice": gas_price}
(generic_crowdsale_mock_contract, tx_hash) = deployer.deploy(
"./build/",
"GenericCrowdsaleMock",
tx,
)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 1
functions = generic_crowdsale_mock_contract.functions
generic_crowdsale_mock_interface = GenericCrowdsaleChecker(
config,
# Create a random password with Haikunator
passwd = funny_generator.haikunate()
# Fix haikunate password for Azure-friendly
passwd_list = list(passwd)
my_user_password = ''.join([passwd_list[i].upper() if i == 0 else \
passwd_list[i] for i in range(len(passwd_list))]).replace('-', '_')
print('Take note of the admin password: '******'/home/usersinfo.csv', download_path='.')
# TODO: create a database of users and passwords
def restore(slug, archive, production_server, production_dir):
archive_dir = os.path.join(SETTINGS.ARCHIVE_DIR, slug)
deployer = Deployer(production_server, SETTINGS.SSH_KEY, archive_dir, production_dir)
deployer.deploy(archive)
def start_experiment(self,
results_dir,
update_and_install=False,
experiment_runtime = 5, # minutes
runtime_buffer = 1, # minutes
stats_frequency ="30s",
num_threads_in_pool = 5,
replication_factor = 1,
memaslap_workload = "smallvalue.cfg",
memaslap_window_size = "10k",
hibernate_at_end = True,
ssh_username = "******",
num_memaslaps = 1,
num_memcacheds = 1,
concurrency = 64,
is_first_run=True
):
experiment_runtime_string = "{}m".format(experiment_runtime)
with fabric.api.settings(warn_only=True):
fabric.api.local("rm -r {}/*".format(results_dir))
fabric.api.local("mkdir -p {}".format(results_dir))
fabric.api.local("mkdir {}/graphs".format(results_dir))
# region ---- Parameters ----
TOTAL_MACHINE_COUNT = 11 # this is fixed by the template
resource_group_name = 'template11vms'
my_pub_ssh_key_path = '~/.ssh/id_rsa_asl.pub'
template_path = "azure-templates/template11vms.json"
pub_ssh_key_path = os.path.expanduser(my_pub_ssh_key_path)
with open(pub_ssh_key_path, 'r') as pub_ssh_file_fd:
pub_ssh_key = pub_ssh_file_fd.read().strip()
parameters = {
"virtualMachines_name": "foraslvms",
"virtualMachines_adminPassword": "******",
"networkInterfaces_name": "MyNetworkInterface",
"virtualNetworks_testeth_vnet_name": "MyVNet",
"key": pub_ssh_key,
"uniquedns": "pungast"
}
# endregion
# Initialize the deployer class
if is_first_run:
self.deployer = Deployer(resource_group_name, template_path, parameters)
self.deployer.deploy_wait()
# region ---- Extract VMs' IPs and other information ----
vms = self.deployer.compute_client.virtual_machines.list(resource_group_name)
vm_names = []
vm_types = []
public_hostnames = []
private_hostnames = []
for vm in vms:
vm_type = vm.hardware_profile.vm_size
vm_types.append(vm_type)
vm_names.append(vm.name)
self.log.info("VM {} [{}]".format(Colors.ok_blue(vm.name), vm_type))
# Get machine's public address that we can use for SSH-ing
public_ip = self.deployer.network_client.public_ip_addresses.get(resource_group_name, vm.name)
public_host_address = public_ip.dns_settings.fqdn
public_hostnames.append(public_host_address)
#self.log.info("Public host name: {}".format(Colors.ok_green(public_host_address)))
# Get machine's private IP address
network_interface_id = vm.network_profile.network_interfaces[0].id
network_interface_name = network_interface_id.split("/")[-1]
network_interface = self.deployer.network_client.network_interfaces.get(resource_group_name, network_interface_name)
private_host_address = network_interface.ip_configurations[0].private_ip_address
private_hostnames.append(private_host_address)
#self.log.info("Private host name: {}".format(Colors.ok_green(private_host_address)))
# endregion
# region ---- Set up all machines ----
index_a4 = vm_types.index("Basic_A4")
indices_smallmachines = list(range(TOTAL_MACHINE_COUNT))
indices_smallmachines.remove(index_a4)
memcached_machines = [vm_names.index("foraslvms" + str(x)) for x in Experiment.default_memcached_machines()]
memcached_machines = memcached_machines[0:num_memcacheds]
memaslap_machines = [vm_names.index("foraslvms" + str(x)) for x in Experiment.default_memaslap_machines()]
memaslap_machines = memaslap_machines[0:num_memaslaps]
self.log.info("A4 machine: " + str(index_a4))
self.log.info("A2 machines: " + str(indices_smallmachines))
self.log.info("Memcached machines: " + str(memcached_machines))
self.log.info("Memaslap machines: " + str(memaslap_machines))
# Wait for all servers to be responsive
if is_first_run:
aslutil.wait_for_servers(ssh_username, public_hostnames, "~/.ssh/id_rsa_asl", self.log, check_every_n_sec=10)
# Set up memcached servers
memcached_port = 11211
mc_servers = []
mc_server_string_list = []
for i in memcached_machines:
self.log.info("Setting up memcached on machine {} ({}).".format(i, vm_names[i]))
mc_server = Memcached(memcached_port, public_hostnames[i], ssh_username=ssh_username,
id_number=int(aslutil.server_name_to_number(vm_names[i])))
mc_servers.append(mc_server)
mc_server_string_list.append("{}:{}".format(private_hostnames[i], memcached_port))
if update_and_install:
mc_server.update_and_install()
for s in mc_servers:
s.start()
sleep_for = 15
self.log.info("Sleeping for {} seconds so memcached servers can start...".format(sleep_for))
time.sleep(sleep_for)
# Set up middleware server
middleware_port = 11212
self.log.info("Setting up middleware on machine {} ({}).".format(index_a4, vm_names[index_a4]))
mw_server = Middleware(public_hostnames[index_a4], private_hostnames[index_a4], middleware_port,
num_threads_in_pool, replication_factor, mc_server_string_list, ssh_username=ssh_username)
if update_and_install:
mw_server.update_and_install()
if is_first_run:
mw_server.upload_jar()
mw_server.clear_logs()
mw_server.start()
# Sleep a bit so middleware has time to start
while not mw_server.is_running():
sleep_for = 5
self.log.info("Sleeping for {} seconds so middleware can start...".format(sleep_for))
time.sleep(sleep_for)
time.sleep(10)
# Set up memaslap servers
ms_servers = []
first_memaslap = True
for i in memaslap_machines:
self.log.info("Setting up memaslap on machine {} ({}).".format(i, vm_names[i]))
ms_server = Memaslap(public_hostnames[i], private_hostnames[index_a4], middleware_port, ssh_username=ssh_username,
id_number=int(aslutil.server_name_to_number(vm_names[i]))) # i is zero-indexed
ms_servers.append(ms_server)
if is_first_run:
ms_server.upload_resources()
if update_and_install:
if not first_memaslap:
ms_server.upload_built_files()
ms_server.update_and_install()
if first_memaslap:
ms_server.download_built_files()
first_memaslap = False
for s in ms_servers:
s.clear_logs()
s.start(runtime=experiment_runtime_string, log_filename="memaslap{}.out".format(s.id_number),
stats_freq=stats_frequency, workload_filename=memaslap_workload, concurrency=concurrency,
window_size=memaslap_window_size)
# endregion
sleep_time = experiment_runtime + runtime_buffer
self.log.info("Waiting for the experiment to finish, sleeping for up to {} minutes.".format(sleep_time))
already_slept = 0
while True:
sleep_interval = 30
time.sleep(sleep_interval)
already_slept += sleep_interval
num_running_memaslaps = sum([s.is_running() for s in ms_servers])
self.log.info("Waiting for the experiment to finish (total {} minutes), {:.0f}/{} minutes elapsed ({:.0f}%), {} memaslaps running."
.format(sleep_time,
already_slept / 60, experiment_runtime,
100 * already_slept / 60.0 / experiment_runtime,
num_running_memaslaps))
if already_slept >= sleep_time * 60:
self.log.info("Stopping because of time limit.")
break
if num_running_memaslaps == 0:
self.log.info("Stopping because no memaslaps are left.")
break
# region ---- Kill everyone ----
# Memaslap
for ms_server in ms_servers:
ms_server.stop()
# Middleware
mw_server.stop()
# Memcached
for mc_server in mc_servers:
mc_server.stop()
# endregion
# region ---- Download logs, extract data, plot ----
mw_server.download_logs(local_path=results_dir)
for ms_server in ms_servers:
ms_server.download_logs(local_path=results_dir)
# endregion
if hibernate_at_end:
self.deployer.hibernate_wait()
self.log.info("Done.")
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
from test_config import config_f
import random
web3 = Web3Interface().w3
eth = web3.eth
web3.miner.start(1)
deployer = Deployer()
gas = 5000000
gas_price = 20000000000
owner = eth.accounts[0]
release_agent = eth.accounts[1]
non_owner = eth.accounts[2]
transfer_agent = eth.accounts[3]
non_transfer_agent = eth.accounts[4]
non_release_agent = eth.accounts[5]
contribution_range = (1, 2**256)
def random_contribution():
return 0
#!/usr/bin/env python3
import sys
sys.path.append("../deployment")
from deployer import Deployer
from web3_interface import Web3Interface
from tx_checker import fails, succeeds
web3 = Web3Interface().w3
web3.miner.start(1)
owner = web3.eth.accounts[0]
new_owner = web3.eth.accounts[1]
tx = {'from': owner, 'gas': 100000000, 'gasPrice': 20000000000}
deployer = Deployer()
(haltable_contract, tx_hash) = deployer.deploy(
"./build/",
"Haltable",
tx,
)
receipt = web3.eth.waitForTransactionReceipt(tx_hash)
assert receipt.status == 1
functions = haltable_contract.functions
def halted():
return functions.halted().call()
def get_owner():
return functions.owner().call()
pub_ssh_key_path = os.path.expanduser(my_pub_ssh_key_path)
with open(pub_ssh_key_path, 'r') as pub_ssh_file_fd:
pub_ssh_key = pub_ssh_file_fd.read().strip()
parameters = {
"virtualMachines_name": "foraslvms",
"virtualMachines_adminPassword": "******",
"networkInterfaces_name": "MyNetworkInterface",
"virtualNetworks_testeth_vnet_name": virtual_network_name,
"key": pub_ssh_key,
"uniquedns": dns_label_prefix
}
# endregion
# Initialize the deployer class
deployer = Deployer(resource_group_name, template_path, parameters)
deployer.deploy_wait()
# region ---- Extract VMs' IPs ----
vms = deployer.compute_client.virtual_machines.list(resource_group_name)
vm_names = []
public_hostnames = []
private_hostnames = []
for vm in vms:
log.info("VM {}".format(Colors.ok_blue(vm.name)))
# Get machine's public address that we can use for SSH-ing
public_ip = deployer.network_client.public_ip_addresses.get(resource_group_name, vm.name)
public_host_address = public_ip.dns_settings.fqdn
public_hostnames.append(public_host_address)
log.info("Public host name: {}".format(Colors.ok_green(public_host_address)))
my_subscription_id = os.environ.get(
'AZURE_SUBSCRIPTION_ID',
'11111111-1111-1111-1111-111111111111') # your Azure Subscription Id
my_resource_group = "rg-scale-{}".format(
scaleNumber) # the resource group for deployment
my_pub_ssh_key_path = os.path.expanduser(
'~/.ssh/id_rsa.pub') # the path to your rsa public key file
msg = "\nInitializing the Deployer class with subscription id: {}, resource group: {}" \
"\nand public key located at: {}...\n\n"
msg = msg.format(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print(msg)
# Initialize the deployer class
deployer = Deployer(my_subscription_id, my_resource_group, my_pub_ssh_key_path,
scaleNumber)
print("Beginning the deployment... \n\n")
## Deploy the template
my_deployment = deployer.deploy()
print(
"Done deploying!!\n\nYou can connect via: `ssh {}@{}.westus2.cloudapp.azure.com`"
.format(deployer.adminUsername, deployer.dns_label_prefix))
## Stop Machines
# deployer.stopMachines()
## Resume Machines
# deployer.resumeMachines()
num_memcacheds=S,
memaslap_workload=workload_filename,
memaslap_window_size=memaslap_window_size,
hibernate_at_end=hibernate_at_end,
concurrency=concurrency,
is_first_run=is_first)
# Extract logs
extractor.summarise_trace_logs(
logs_pattern="{}/memaslap*.out".format(results_dir),
csv_path="{}/{}".format(results_dir,
memaslap_summary_filename))
# Plot graphs
with fabric.api.settings(warn_only=True):
fabric.api.local(
"Rscript scripts/r/trace.r {}".format(results_dir))
is_first = False
#Deployer.hibernate_wait_static("template11vms")
except msrestazure.azure_exceptions.CloudError as e:
print("DEPLOYMENT EXCEPTION " + e.__class__.__name__ + ": " + str(e))
if e.message.find("Unable to edit or replace deployment") == -1:
Deployer.hibernate_wait_static("template11vms")
except Exception as e:
print("UNKNOWN DEPLOYMENT EXCEPTION " + e.__class__.__name__ + ": " +
str(e))
Deployer.hibernate_wait_static("template11vms")
def deploy(is_test):
deployer = Deployer(is_test)
deployer.deploy()
pass
# AZURE_SUBSCRIPTION_ID: your subscription id
# AZURE_RESOURCE_LOCATION: with your azure stack resource location
# this example assumes your ssh public key present here: ~/id_rsa.pub
my_subscription_id = os.environ.get(
'AZURE_SUBSCRIPTION_ID') # your Azure Subscription Id
my_resource_group = 'azure-python-deployment-sample' # the resource group for deployment
my_pub_ssh_key_path = os.path.expanduser(
'~/id_rsa.pub') # the path to your rsa public key file
# Set Azure stack supported API profile as the default profile
KnownProfiles.default.use(KnownProfiles.v2018_03_01_hybrid)
msg = "\nInitializing the Deployer class with subscription id: {}, resource group: {}" \
"\nand public key located at: {}...\n\n"
msg = msg.format(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print(msg)
# Initialize the deployer class
deployer = Deployer(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print("Beginning the deployment... \n\n")
# Deploy the template
my_deployment = deployer.deploy()
print(
"Done deploying!!\n\nYou can connect via: `ssh azureSample@{}.local.cloudapp.azurestack.external`"
.format(deployer.dns_label_prefix))
# Destroy the resource group which contains the deployment
# deployer.destroy()
import os.path
from deployer import Deployer
# This script expects that the following environment vars are set:
#
# AZURE_TENANT_ID: with your Azure Active Directory tenant id or domain
# AZURE_CLIENT_ID: with your Azure Active Directory Application Client ID
# AZURE_CLIENT_SECRET: with your Azure Active Directory Application Secret
my_subscription_id = os.environ.get('AZURE_SUBSCRIPTION_ID', '11111111-1111-1111-1111-111111111111') # your Azure Subscription Id
my_resource_group = 'azure-python-deployment-sample' # the resource group for deployment
my_pub_ssh_key_path = os.path.expanduser('~/.ssh/id_rsa.pub') # the path to your rsa public key file
msg = "\nInitializing the Deployer class with subscription id: {}, resource group: {}" \
"\nand public key located at: {}...\n\n"
msg = msg.format(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print(msg)
# Initialize the deployer class
deployer = Deployer(my_subscription_id, my_resource_group, my_pub_ssh_key_path)
print("Beginning the deployment... \n\n")
# Deploy the template
my_deployment = deployer.deploy()
print("Done deploying!!\n\nYou can connect via: `ssh azureSample@{}.westus.cloudapp.azure.com`".format(deployer.dns_label_prefix))
# Destroy the resource group which contains the deployment
# deployer.destroy()
def build(config: dict, args: argparse.Namespace) -> None:
model = args.model
group = args.group
pipeline = args.pipeline
if group:
models = config['model_groups'].get(group)
if not models:
print(f'Group {group} does not exist or empty')
return
elif model:
models = [model]
else:
print('Please, specify group or model full name')
return
absent_models = set(models) - set(config['models'].keys())
if len(absent_models) > 0:
absent_models = ', '.join(absent_models)
print(f'Unknown model full names: {absent_models}')
return
if pipeline and pipeline not in preset_pipelines.keys():
print(f'Unknown pipeline name: {pipeline}')
return
elif pipeline:
for model in models:
config['models'][model]['pipeline'] = pipeline
else:
absent_pipeline_models = []
for model in models:
if config['models'][model].get(
'pipeline') not in preset_pipelines.keys():
absent_pipeline_models.append(model)
if absent_pipeline_models:
absent_pipeline_models = ', '.join(absent_pipeline_models)
print(
f'Incorrect or absent pipeline names for: {absent_pipeline_models}'
)
return
# Test Docker Hub authentication
dockerhub_password = args.dockerhub_pass
if not dockerhub_password:
prompt_text = 'Docker Hub password was not entered, would you like for proceed without Docker Hub login?'
if not prompt_confirmation(prompt_text):
return
else:
try:
client: DockerClient = DockerClient(
base_url=config['docker_base_url'])
client.login(config['dockerhub_registry'], dockerhub_password)
except APIError as e:
print(e)
prompt_text = 'Docker Hub login error occurred, would you like for proceed without Docker Hub login?'
if not prompt_confirmation(prompt_text):
return
config['dockerhub_password'] = dockerhub_password
deployer = Deployer(config)
deployer.deploy(models)
def deploy(self):
deployer = Deployer(self.project)
deployer.deploy()
return self.project