morley-client-0.2.0: src/Morley/Client/Action/Operation.hs
-- SPDX-FileCopyrightText: 2021 Oxhead Alpha
-- SPDX-License-Identifier: LicenseRef-MIT-OA
-- | Implementation of generic operations submission.
module Morley.Client.Action.Operation
( Result
, runOperations
, runOperationsNonEmpty
-- helpers
, dryRunOperationsNonEmpty
) where
import Control.Lens (has, (%=), (&~))
import Data.List (zipWith4)
import Data.List.NonEmpty qualified as NE
import Data.Singletons (Sing, SingI, sing)
import Data.Text qualified as T
import Fmt (blockListF, blockListF', listF, nameF, pretty, (+|), (|+))
import Morley.Client.Action.Common
import Morley.Client.Logging
import Morley.Client.RPC.Class
import Morley.Client.RPC.Error
import Morley.Client.RPC.Getters
import Morley.Client.RPC.Types
import Morley.Client.TezosClient
import Morley.Client.Types
import Morley.Micheline (StringEncode(..), TezosInt64, TezosMutez(..))
import Morley.Tezos.Address
import Morley.Tezos.Address.Alias (AddressOrAlias(..))
import Morley.Tezos.Core
import Morley.Tezos.Crypto
import Morley.Util.ByteString
-- | Designates output of an operation.
data Result
instance OperationInfoDescriptor Result where
type TransferInfo Result = ()
type OriginationInfo Result = Address
type RevealInfo Result = ()
logOperations
:: forall (runMode :: RunMode) env m.
( WithClientLog env m
, HasTezosClient m
, SingI runMode -- We don't ask aliases with 'tezos-client' in 'DryRun' mode
)
=> AddressOrAlias
-> NonEmpty (OperationInfo ClientInput)
-> m ()
logOperations sender ops = do
let runMode = sing @runMode
opName =
if | all (has _OpTransfer) ops -> "transactions"
| all (has _OpOriginate) ops -> "originations"
| all (has _OpReveal) ops -> "reveals"
| otherwise -> "operations"
buildOp = \case
(OpTransfer tx, mbAlias) ->
buildTxDataWithAlias mbAlias tx
(OpOriginate orig, _) ->
odName orig |+ " (temporary alias)"
(OpReveal rv, mbAlias) ->
"Key " +| rdPublicKey rv |+ maybe "" (\a -> " (" +| a |+ ")") mbAlias
sender' <- case sender of
addr@AddressResolved{} -> case runMode of
SRealRun -> AddressAlias <$> getAlias sender
SDryRun -> pure addr
alias -> pure alias
aliases <- case runMode of
SRealRun ->
forM ops $ \case
OpTransfer (TransactionData tx) ->
Just <$> (getAlias . AddressResolved $ tdReceiver tx)
OpOriginate _ ->
pure Nothing
OpReveal r ->
Just <$> (getAlias . AddressResolved . mkKeyAddress $ rdPublicKey r)
SDryRun -> pure $ ops $> Nothing
logInfo $ T.strip $ -- strip trailing newline
"Running " +| opName +| " by " +| sender' |+ ":\n" +|
blockListF' "-" buildOp (ops `NE.zip` aliases)
-- | Perform sequence of operations.
--
-- Returns operation hash (or @Nothing@ in case empty list was provided) and result of
-- each operation (nothing for transactions and an address for originated contracts
runOperations
:: forall m env.
( HasTezosRpc m
, HasTezosClient m
, WithClientLog env m
)
=> AddressOrAlias
-> [OperationInfo ClientInput]
-> m (Maybe OperationHash, [OperationInfo Result])
runOperations sender operations = case operations of
[] -> return (Nothing, [])
op : ops -> do
(opHash, res) <- runOperationsNonEmpty sender $ op :| ops
return $ (Just opHash, toList res)
-- | How many times to retry if an operation fails after injection
injectionRetryCount :: Natural
injectionRetryCount = 2
-- | Perform non-empty sequence of operations.
--
-- Returns operation hash and result of each operation
-- (nothing for transactions and an address for originated contracts).
runOperationsNonEmpty
:: forall m env.
( HasTezosRpc m
, HasTezosClient m
, WithClientLog env m
)
=> AddressOrAlias
-> NonEmpty (OperationInfo ClientInput)
-> m (OperationHash, NonEmpty (OperationInfo Result))
runOperationsNonEmpty sender operations =
runOperationsNonEmptyHelper @'RealRun injectionRetryCount sender operations
-- | Flag that is used to determine @runOperationsNonEmptyHelper@ behaviour.
data RunMode = DryRun | RealRun
isRealRun :: forall (runMode :: RunMode). (SingI runMode) => Bool
isRealRun = case sing @runMode of
SRealRun -> True
SDryRun -> False
-- | Type family which is used to determine the output type of the
-- @runOperationsNonEmptyHelper@.
type family RunResult (a :: RunMode) where
RunResult 'DryRun = NonEmpty (AppliedResult, TezosMutez)
RunResult 'RealRun = (OperationHash, NonEmpty (OperationInfo Result))
data SingRunResult :: RunMode -> Type where
SDryRun :: SingRunResult 'DryRun
SRealRun :: SingRunResult 'RealRun
type instance Sing = SingRunResult
instance SingI 'DryRun where
sing = SDryRun
instance SingI 'RealRun where
sing = SRealRun
-- | Perform dry-run for sequence of operations.
--
-- Returned @AppliedResult@ contains information about estimated limits,
-- storage changes, etc. Additionally, estimated fees are returned.
dryRunOperationsNonEmpty
:: forall m env.
( HasTezosRpc m
, HasTezosClient m
, WithClientLog env m
)
=> AddressOrAlias
-> NonEmpty (OperationInfo ClientInput)
-> m (NonEmpty (AppliedResult, TezosMutez))
dryRunOperationsNonEmpty sender operations =
runOperationsNonEmptyHelper @'DryRun 0 sender operations
-- | Perform non-empty sequence of operations and either dry-run
-- and return estimated limits and fees or perform operation injection.
-- Behaviour is defined via @RunMode@ flag argument.
runOperationsNonEmptyHelper
:: forall (runMode :: RunMode) m env.
( HasTezosRpc m
, HasTezosClient m
, WithClientLog env m
, SingI runMode
)
=> Natural
-> AddressOrAlias
-> NonEmpty (OperationInfo ClientInput)
-> m (RunResult runMode)
runOperationsNonEmptyHelper retryCount sender operations = do
logOperations @runMode sender operations
senderAddress <- resolveAddress sender
prohibitContractSender senderAddress $ head operations
mbPassword <- getKeyPassword senderAddress
when (isRealRun @runMode && mayNeedSenderRevealing (toList operations)) $
revealKeyUnlessRevealed senderAddress mbPassword
pp <- getProtocolParameters
OperationConstants{..} <- preProcessOperation senderAddress
let convertOps i = WithCommonOperationData commonData . \case
OpTransfer (TransactionData TD {..}) ->
OpTransfer TransactionOperation
{ toDestination = tdReceiver
, toAmount = TezosMutez tdAmount
, toParameters = toParametersInternals tdEpName tdParam
}
OpOriginate OriginationData{..} ->
OpOriginate OriginationOperation
{ ooBalance = TezosMutez odBalance
, ooScript = mkOriginationScript odContract odStorage
}
OpReveal RevealData{..} ->
OpReveal RevealOperation
{ roPublicKey = rdPublicKey
}
where
commonData = mkCommonOperationData senderAddress (ocCounter + i) pp
let opsToRun = NE.zipWith convertOps (1 :| [(2 :: TezosInt64)..]) operations
mbFees = operations <&> \case
OpTransfer (TransactionData TD {..}) -> tdMbFee
OpOriginate OriginationData{..} -> odMbFee
OpReveal RevealData{..} -> rdMbFee
-- Perform run_operation with dumb signature in order
-- to estimate gas cost, storage size and paid storage diff
let runOp = RunOperation
{ roOperation = RunOperationInternal
{ roiBranch = ocLastBlockHash
, roiContents = opsToRun
, roiSignature = stubSignature
}
, roChainId = bcChainId ocBlockConstants
}
results <- getAppliedResults (Left runOp)
let -- Learn how to forge given operations
forgeOp :: NonEmpty OperationInput -> m ByteString
forgeOp ops =
fmap unHexJSONByteString . forgeOperation $ ForgeOperation
{ foBranch = ocLastBlockHash
, foContents = ops
}
let -- Attach a signature to forged operation + return the signature itself
signForgedOp :: ByteString -> m (Signature, ByteString)
signForgedOp op = do
signature' <- signBytes sender mbPassword (addOperationPrefix op)
return (signature', prepareOpForInjection op signature')
-- Fill in fees
let
updateOp :: OperationInput -> Maybe Mutez -> AppliedResult -> Bool -> m (OperationInput, Maybe (Signature, ByteString))
updateOp opToRun@(WithCommonOperationData _ internalOp) mbFee ar isFirst = do
let gasSafetyGuard = 100
-- @gasSafetyGuard@ is added to origination operations and transfers to non-implicit
-- accounts, see https://gitlab.com/tezos/tezos/-/blob/v13.0/src/proto_013_PtJakart/lib_client/injection.ml#L750
additionalGas = case internalOp of
OpOriginate _ -> gasSafetyGuard
OpTransfer (TransactionOperation {..}) -> case toDestination of
KeyAddress _ -> 0
ContractAddress _ -> gasSafetyGuard
TransactionRollupAddress _ -> gasSafetyGuard
OpReveal _ -> 0
let storageLimit = computeStorageLimit [ar] pp + 20 -- similarly to tezos-client, we add 20 for safety
let gasLimit = arConsumedGas ar + additionalGas
updateCommonDataForFee fee =
updateCommonData gasLimit storageLimit (TezosMutez fee)
(_fee, op, mReadySignedOp) <- convergingFee
@OperationInput
@(Maybe (Signature, ByteString)) -- ready operation and its signature
(\fee ->
return $ opToRun &~
wcoCommonDataL %= updateCommonDataForFee fee
)
(\op -> do
forgedOp <- forgeOp $ one op
-- In the Tezos implementation the first transaction
-- in the series pays for signature.
-- Signature of hash should be constant in size,
-- so we can pass any signature, not necessarily the final one
(fullForgedOpLength, mExtra) <-
if isFirst
then do
res@(_signature, signedOp) <- signForgedOp forgedOp
return (length signedOp, Just res)
else
-- Forge output automatically includes additional 32-bytes header
-- which should be ommited for all operations in batch except the first one.
pure (length forgedOp - 32, Nothing)
return
( maybe (computeFee ocFeeConstants fullForgedOpLength gasLimit) id mbFee
, mExtra
)
)
return (op, mReadySignedOp)
let
zipWith4NE
:: (a -> b -> c -> d -> e) -> NonEmpty a -> NonEmpty b -> NonEmpty c -> NonEmpty d
-> NonEmpty e
zipWith4NE f (a :| as) (b :| bs) (c :| cs) (d :| ds) =
(f a b c d) :| zipWith4 f as bs cs ds
-- These two lists must have the same length here.
-- @opsToRun@ is constructed directly from @params@.
-- The length of @results@ is checked in @getAppliedResults@.
(updOps, readySignedOps) <- fmap NE.unzip . sequenceA $
zipWith4NE updateOp opsToRun mbFees results (True :| repeat False)
-- Forge operation with given limits and get its hexadecimal representation
(signature', signedOp) <- case readySignedOps of
-- Save one forge + sign call pair in case of one operation
Just readyOp :| [] -> pure readyOp
-- In case of batch we have to reforge the full operation
_ -> forgeOp updOps >>= signForgedOp
-- Operation still can fail due to insufficient gas or storage limit, so it's required
-- to preapply it before injecting
let preApplyOp = PreApplyOperation
{ paoProtocol = bcProtocol ocBlockConstants
, paoBranch = ocLastBlockHash
, paoContents = updOps
, paoSignature = signature'
}
ars2 <- getAppliedResults (Right preApplyOp)
case sing @runMode of
SDryRun -> do
let fees = map (codFee . wcoCommon) updOps
return $ NE.zip ars2 fees
SRealRun -> do
operationHash <- waitForOperation $ injectOperation (HexJSONByteString signedOp)
let contractAddrs = arOriginatedContracts <$> ars2
opsRes <- forM (NE.zip operations contractAddrs) $ \case
(OpTransfer _, []) ->
return $ OpTransfer ()
(OpTransfer _, addrs) -> do
logInfo . T.strip $
"The following contracts were originated during transactions: " +|
listF addrs |+ ""
return $ OpTransfer ()
(OpOriginate _, []) ->
throwM RpcOriginatedNoContracts
(OpOriginate OriginationData{..}, [addr]) -> do
logDebug $ "Saving " +| addr |+ " for " +| odName |+ "\n"
rememberContract odReplaceExisting addr odName
alias <- getAlias $ AddressResolved addr
logInfo $ "Originated contract: " <> pretty alias
return $ OpOriginate addr
(OpOriginate _, addrs@(_ : _ : _)) ->
throwM $ RpcOriginatedMoreContracts addrs
(OpReveal _, _) ->
return $ OpReveal ()
forM_ ars2 logStatistics
return (operationHash, opsRes)
`catch` \case
(UnexpectedRunErrors errs) | retryCount > 0 -> do
logError $ pretty $ nameF "When injecting operations, there were unexpected errors" $
blockListF errs
runOperationsNonEmptyHelper @runMode (retryCount - 1) sender operations
e -> throwM e
where
mayNeedSenderRevealing :: [OperationInfo i] -> Bool
mayNeedSenderRevealing = any \case
OpTransfer{} -> True
OpOriginate{} -> True
OpReveal{} -> False
logStatistics :: AppliedResult -> m ()
logStatistics ar = do
let showTezosInt64 = show . unStringEncode
logInfo $ "Consumed gas: " <> showTezosInt64 (arConsumedGas ar)
logInfo $ "Storage size: " <> showTezosInt64 (arStorageSize ar)
logInfo $ "Paid storage size diff: " <> showTezosInt64 (arPaidStorageDiff ar)
prohibitContractSender :: Address -> OperationInfo ClientInput -> m ()
prohibitContractSender addr op = case (addr, op) of
(KeyAddress _, _) -> pass
(ContractAddress _, op') -> throwM $ ContractSender addr (opName op')
(TransactionRollupAddress _, op') -> throwM $ ContractSender addr (opName op')
opName = \case
OpTransfer _ -> "transfer"
OpOriginate _ -> "origination"
OpReveal _ -> "reveal"