planetmint/tests/assets/test_zenroom_signing.py
Jürgen Eckel ebabd3de7d extended test to pass zenrooom validation, but to fail planetmint validation.
Signed-off-by: Jürgen Eckel <juergen@riddleandcode.com>
2022-06-10 13:09:48 +02:00

297 lines
12 KiB
Python

import pytest
import json
import base58
import sha3
import cryptoconditions as cc
from cryptoconditions.types.ed25519 import Ed25519Sha256
from cryptoconditions.types.zenroom import ZenroomSha256
from cryptoconditions.crypto import Ed25519SigningKey as SigningKey
from nacl.signing import VerifyKey
#from zenroom import zenroom
#from zenroom.zenroom import ZenroomException
import zenroom
import lupa
from lupa import LuaRuntime
from planetmint_driver import Planetmint
#bdb_root_url = 'https://ipdb3.riddleandcode.com'
def test_zenroom_signing():
# bdb_root_url = 'http://localhost:9984/'
# bdb = Planetmint(bdb_root_url)
# generate the keypairs/wallets for biolabs and the hospital
# the pacemaker will only e represented by its public key address
# derived from the attached RFID tag's EPC code
from planetmint_driver.crypto import generate_keypair
biolabs, hospital = generate_keypair(), generate_keypair()
print(biolabs.private_key)
print(biolabs.public_key)
print(hospital.private_key)
print(hospital.public_key)
print('\n\n\n')
# biolabs = CryptoKeypair(private_key='2KF5Qx4ksFWQ7j7DgTj1jYhQ6eoP38WoyFVMjTR5hDgK', public_key='2KF5Qx4ksFWQ7j7DgTj1jYhQ6eoP38WoyFVMjTR5hDgK')
# print(biolabs.private_key)
# hospital = CryptoKeypair(private_key='ASHwLY9zG43rNkCZgRFBV6K9j9oHM1joxYMxHRiNyPja', public_key='A7fpfDpaGkJubquXbj3cssMhx5GQ1599Sxc7MxR9SWa8')
# create a digital asset for biolabs
# for readability we turn the original EPC code into capital hex chars
# rfid_token = {
# 'data': {
# 'token_for': {
# 'UCODE_DNA': {
# 'EPC_serial_number': 'E2003787C9AE8209161AF72F',
# 'amount_issued': 100,
# 'pegged_to' : 'SFR',
# #'pub_key' : elements.public_key,
# }
# },
# #'description': 'Biolab\'s blockchain settlement system for pacemakers.',
# },
# }
HOUSE_ASSETS = {
"data": {
"houses": [
{
"name": "Harry",
"team": "Gryffindor",
},
{
"name": "Draco",
"team": "Slytherin",
}
],
}
}
version = '2.0'
CONDITION_SCRIPT = """Rule input encoding base58
Rule output encoding base58
Scenario 'ecdh': create the signature of an object
Given I have the 'keys'
Given that I have a 'string dictionary' named 'houses' inside 'asset'
When I create the signature of 'houses'
When I rename the 'signature' to 'data.signature'
Then print the 'data.signature'"""
FULFILL_SCRIPT = \
"""Rule input encoding base58
Rule output encoding base58
Scenario 'ecdh': Bob verifies the signature from Alice
Given I have a 'ecdh public key' from 'Alice'
Given that I have a 'string dictionary' named 'houses' inside 'asset'
Given I have a 'signature' named 'data.signature' inside 'result'
When I verify the 'houses' has a signature in 'data.signature' by 'Alice'
Then print the string 'ok'"""
SK_TO_PK = \
"""Rule input encoding base58
Rule output encoding base58
Scenario 'ecdh': Create the keypair
Given that I am known as '{}'
Given I have the 'keys'
When I create the ecdh public key
When I create the testnet address
Then print my 'ecdh public key'
Then print my 'testnet address'"""
GENERATE_KEYPAIR = \
"""Rule input encoding base58
Rule output encoding base58
Scenario 'ecdh': Create the keypair
Given that I am known as 'Pippo'
When I create the ecdh key
When I create the testnet key
Then print data"""
ZENROOM_DATA = {
'also': 'more data'
}
alice = json.loads(ZenroomSha256.run_zenroom(GENERATE_KEYPAIR).output)['keys']
bob = json.loads(ZenroomSha256.run_zenroom(GENERATE_KEYPAIR).output)['keys']
zen_public_keys = json.loads(ZenroomSha256.run_zenroom(SK_TO_PK.format('Alice'),
keys={'keys': alice}).output)
zen_public_keys.update(json.loads(ZenroomSha256.run_zenroom(SK_TO_PK.format('Bob'),
keys={'keys': bob}).output))
zenroomscpt = ZenroomSha256(script=FULFILL_SCRIPT, data=ZENROOM_DATA, keys=zen_public_keys)
print(F'zenroom is: {zenroomscpt.script}')
# CRYPTO-CONDITIONS: generate the condition uri
condition_uri_zen = zenroomscpt.condition.serialize_uri()
print(F'\nzenroom condition URI: {condition_uri_zen}')
#print(F'condition_uri is: {condition_uri}')
# # print(F'condition_uri_zen is: {condition_uri_zen}')
# ZEN-CRYPTO-CONDITION: generate the condition did
#zen_condition_did = 'did:bdb:MIIBMxaCARoKICAgIC0tIGdlbmVyYXRlIGEgc2ltcGxlIGtleXJpbmcKICAgIGtleXJpbmcgPSBFQ0RILm5ldygpCiAgICBrZXlyaW5nOmtleWdlbigpCiAgICAKICAgIC0tIGV4cG9ydCB0aGUga2V5cGFpciB0byBqc29uCiAgICBleHBvcnQgPSBKU09OLmVuY29kZSgKICAgICAgIHsKICAgICAgICAgIHB1YmxpYyAgPSBrZXlyaW5nOiBwdWJsaWMoKTpiYXNlNjQoKSwKICAgICAgICAgIHByaXZhdGUgPSBrZXlyaW5nOnByaXZhdGUoKTpiYXNlNjQoKQogICAgICAgfQogICAgKQogICAgcHJpbnQoZXhwb3J0KQoWBE5vbmUWBE5vbmUWBE5vbmUCAQA='
# CRYPTO-CONDITIONS: construct an unsigned fulfillment dictionary
unsigned_fulfillment_dict_zen = {
'type': zenroomscpt.TYPE_NAME,
'public_key': base58.b58encode(hospital.public_key).decode(),
}
output = {
'amount': '10',
'condition': {
'details': unsigned_fulfillment_dict_zen,
'uri': condition_uri_zen,
#'did': zen_condition_did,
#'script': script,
#'keys': '',
#'data': '',
#'conf': '',zenroomscpt
#'verbosity': '0',
},
'public_keys': [hospital.public_key,],
}
input_ = {
'fulfillment': None,
'fulfills': None,
'owners_before': [biolabs.public_key,]
}
token_creation_tx = {
'operation': 'CREATE',
'asset': HOUSE_ASSETS,#rfid_token,
'metadata': None,
'outputs': (output,),
'inputs': (input_,),
'version': version,
'id': None,
}
# JSON: serialize the transaction-without-id to a json formatted string
message = json.dumps(
token_creation_tx,
sort_keys=True,
skipkeys=False,
separators=(',', ':'),
ensure_ascii=False,
)
# major workflow:
# we store the fulfill script in the transaction/message (zenroom-sha)
# the condition script is used to fulfill the transaction and create the signature
#
# the server should ick the fulfill script and recreate the zenroom-sha and verify the signature
message = zenroomscpt.sign(message, CONDITION_SCRIPT, alice)
assert(zenroomscpt.validate(message=message))
### WORkS until here
# CRYPTO-CONDITIONS: sign the serialized transaction-without-id
#ed25519.sign(message.digest(), base58.b58decode(biolabs.private_key))
## zenroomscpt.sign(message.digest(), base58.b58decode(biolabs.private_key))
# CRYPTO-CONDITIONS: check the zenroom script
#ed25519.zenroom = script
# CRYPTO-CONDITIONS: generate the fulfillment uri
# fulfillment_uri = ed25519.serialize_uri()
fulfillment_uri_zen = zenroomscpt.serialize_uri()
print(f'\nfulfillment_uri_zen is: {fulfillment_uri_zen}')
fulfillment_fromuri_zen = zenroomscpt.from_uri(fulfillment_uri_zen)
# print(F'fulfillment_uri is: {fulfillment_uri}')
print(f'\nfulfillment_fromuri_zen is: {fulfillment_fromuri_zen}\n\n')
print(f"\nfulfillment from uri dict: {fulfillment_fromuri_zen.__dict__}\n")
print(f"\nkey : {hospital.public_key}\n")
print(f"\nfulfillment from uri zenscript : {fulfillment_fromuri_zen.script}\n")
print()
## print(fulfillment_fromuri_zen.signature.hex())
print('\n')
## print(fulfillment_frofulfillment_uri_zenmuri_zen.validate(message=message.digest()))
#vk = VerifyKey(fulfillment_fromuri_zen.public_key)
#vk.verify(fulfillment_fromuri_zen.signature, message.digest())
# pGSAIP5dZUoZ4y219VVzwHUVFWavq9ZiKeUb7CTyWzqGQE6ZgUDK9QIdbA7GjVSq6Mg7i3d6Cp22MyeRkpBY3oqhBz4owCQ7L6YtO9D2CrxPnMpdxdF2McdfL0QxR6gIycZnUPcO
# pWSAIP5dZUoZ4y219VVzwHUVFWavq9ZiKeUb7CTyWzqGQE6ZgUDK9QIdbA7GjVSq6Mg7i3d6Cp22MyeRkpBY3oqhBz4owCQ7L6YtO9D2CrxPnMpdxdF2McdfL0QxR6gIycZnUPcO
# add the fulfillment uri (signature)
token_creation_tx['inputs'][0]['fulfillment'] = fulfillment_uri_zen ## there is the problem with fulfillment uri
#token_creation_tx['inputs'][0]['fulfillment'] = fulfillment_uri ## there is the problem with fulfillment uri
#print(F'token_creation_tx is: {token_creation_tx}')
# JSON: serialize the id-less transaction to a json formatted string
tx = token_creation_tx
tx['id'] = None
json_str_tx = json.dumps(
tx,
sort_keys=True,
skipkeys=False,
separators=(',', ':')
)
# SHA3: hash the serialized id-less transaction to generate the id
shared_creation_txid = sha3.sha3_256(json_str_tx.encode()).hexdigest()
# add the id
token_creation_tx['id'] = shared_creation_txid
#print(F'The TX to be consensed: {token_creation_tx}')
# send CREATE tx into the bdb network
##tx = signed_create_tx.to_dict()
##tx['id'] = None
##payload = json.dumps(tx, skipkeys=False, sort_keys=True,
## separators=(',', ':'))
##assert sha3.sha3_256(payload.encode()).hexdigest() == signed_create_tx.id
#returned_creation_tx = bdb.transactions.send_commit(token_creation_tx)
#tx = request.get_json(force=True)
from planetmint.transactions.types.assets.create import Create
from planetmint.transactions.types.assets.transfer import Transfer
from planetmint.models import Transaction
from planetmint.transactions.common.exceptions import SchemaValidationError, ValidationError
from flask import current_app
from planetmint.transactions.common.transaction_mode_types import BROADCAST_TX_ASYNC
validated = None
try:
tx_obj = Transaction.from_dict(token_creation_tx)
except SchemaValidationError as e:
assert()
except ValidationError as e:
print(e)
assert()
#pool = current_app.config['bigchain_pool']
#with pool() as planet:
#try:
from planetmint.lib import Planetmint
planet = Planetmint()
validated = planet.validate_transaction(tx_obj)
print( f"\n\nVALIDATED =====: {validated}")
#except ValidationError as e:
# assert()
mode = BROADCAST_TX_ASYNC
status_code, message = planet.write_transaction(tx_obj, mode)
print( f"\n\nstatus and result : {status_code} + {message}")
print( f"VALIDATED : {validated}")
assert()
#assert status_code == 202
#returned_creation_tx = bdb.transactions.send_async(token_creation_tx)
#print(f"created TX : {returned_creation_tx}" )
# result, errors = zenroom.zencode_exec(script)
# result, errors = zenroom.zencode_exec(script)
#print(result)
# '''
# Settlement on the Magic Mote chain is a prerequisite to sttlement on the respective settlement chain,
# Liquid, Ethereum, Bitcoin, Hyperledger Fabric or Coreda R3.
# Therefore, policies can become part of the transaction fulfillment logic. Quite exciting.
# This way the Oracle Servce ith built right inro the transaction itself.
# More precisely, it is part of the fulfillment.
# Therefore, interweaving the blockchain transactions with external systems becomes trivial.
# Add to this the capability to multipart each and every transaction thanks to code mobility
# and thanks to transferring code with the state of the VM itself, the power of the system
# becomes comprehensible.
# Then consider that each and evry transaction is enabled to carry around its very own
# interface to visualize transaction and chainstate on DLT enabled machines via the
# Magic Mote UI.
# Smart dust , indeed.
# '''