Ethereum is using the EVM to drive updates over the world state. Actual execution of the EVM is defined in the EVM file.
requires "evm.k"
requires "asm.k"
requires "state-loader.k"
module ETHEREUM-SIMULATION
imports EVM
imports EVM-ASSEMBLY
imports STATE-LOADER
An Ethereum simulation is a list of Ethereum commands. Some Ethereum commands take an Ethereum specification (eg. for an account or transaction).
syntax EthereumSimulation ::= ".EthereumSimulation"
| EthereumCommand EthereumSimulation
// ----------------------------------------------------------------
rule <k> .EthereumSimulation => . ... </k>
rule <k> ETC .EthereumSimulation => ETC ... </k>
rule <k> ETC ETS:EthereumSimulation => ETC ~> ETS ... </k> requires ETS =/=K .EthereumSimulation
rule <k> #halt ~> ETC ETS:EthereumSimulation => #halt ~> ETC ~> ETS ... </k>
syntax EthereumSimulation ::= JSON
// ----------------------------------
rule <k> JSONINPUT:JSON => run JSONINPUT success .EthereumSimulation </k>
For verification purposes, it's much easier to specify a program in terms of its op-codes and not the hex-encoding that the tests use.
To do so, we'll extend sort JSON
with some EVM specific syntax, and provide a "pretti-fication" to the nicer input form.
syntax JSON ::= ByteArray | OpCodes | Map | Call | SubstateLogEntry | Account
// -----------------------------------------------------------------------------
syntax JSONs ::= #sortJSONs ( JSONs ) [function]
| #sortJSONs ( JSONs , JSONs ) [function, klabel(#sortJSONsAux)]
// -------------------------------------------------------------------------------
rule #sortJSONs(JS) => #sortJSONs(JS, .JSONs)
rule #sortJSONs(.JSONs, LS) => LS
rule #sortJSONs(((KEY : VAL) , REST), LS) => #insertJSONKey((KEY : VAL), #sortJSONs(REST, LS))
syntax JSONs ::= #insertJSONKey ( JSON , JSONs ) [function]
// -----------------------------------------------------------
rule #insertJSONKey( JS , .JSONs ) => JS , .JSONs
rule #insertJSONKey( (KEY : VAL) , ((KEY' : VAL') , REST) ) => (KEY : VAL) , (KEY' : VAL') , REST requires KEY <String KEY'
rule #insertJSONKey( (KEY : VAL) , ((KEY' : VAL') , REST) ) => (KEY' : VAL') , #insertJSONKey((KEY : VAL) , REST) requires KEY >=String KEY'
syntax Bool ::= #isSorted ( JSONs ) [function]
// ----------------------------------------------
rule #isSorted( .JSONs ) => true
rule #isSorted( KEY : _ ) => true
rule #isSorted( (KEY : _) , (KEY' : VAL) , REST ) => KEY <=String KEY' andThenBool #isSorted((KEY' : VAL) , REST)
start
places#next
on the<k>
cell so that execution of the loaded state begin.flush
places#finalize
on the<k>
cell.
syntax EthereumCommand ::= "start"
// ----------------------------------
rule <mode> NORMAL </mode> <k> start => #execute ... </k>
rule <mode> VMTESTS </mode> <k> start => #execute ... </k>
syntax EthereumCommand ::= "flush"
// ----------------------------------
rule <mode> EXECMODE </mode> <statusCode> EVMC_SUCCESS </statusCode> <k> #halt ~> flush => #finalizeTx(EXECMODE ==K VMTESTS) ... </k>
rule <mode> EXECMODE </mode> <statusCode> _:ExceptionalStatusCode </statusCode> <k> #halt ~> flush => #finalizeTx(EXECMODE ==K VMTESTS) ~> #halt ... </k>
startTx
computes the sender of the transaction, and places loadTx on thek
cell.loadTx(_)
loads the next transaction to be executed into the current state.finishTx
is a place-holder for performing necessary cleanup after a transaction.
TODO: loadTx(_) => loadTx_
syntax EthereumCommand ::= "startTx"
// ------------------------------------
rule <k> startTx => #finalizeBlock ... </k>
<txPending> .List </txPending>
rule <k> startTx => loadTx(#sender(TN, TP, TG, TT, TV, #unparseByteStack(DATA), TW, TR, TS)) ... </k>
<txPending> ListItem(TXID:Int) ... </txPending>
<message>
<msgID> TXID </msgID>
<txNonce> TN </txNonce>
<txGasPrice> TP </txGasPrice>
<txGasLimit> TG </txGasLimit>
<to> TT </to>
<value> TV </value>
<sigV> TW </sigV>
<sigR> TR </sigR>
<sigS> TS </sigS>
<data> DATA </data>
</message>
syntax EthereumCommand ::= loadTx ( Account )
// ---------------------------------------------
rule <k> loadTx(ACCTFROM)
=> #loadAccount #newAddr(ACCTFROM, NONCE)
~> #create ACCTFROM #newAddr(ACCTFROM, NONCE) VALUE CODE
~> #finishTx ~> #finalizeTx(false) ~> startTx
...
</k>
<schedule> SCHED </schedule>
<gasPrice> _ => GPRICE </gasPrice>
<callGas> _ => GLIMIT -Int G0(SCHED, CODE, true) </callGas>
<origin> _ => ACCTFROM </origin>
<callDepth> _ => -1 </callDepth>
<txPending> ListItem(TXID:Int) ... </txPending>
<coinbase> MINER </coinbase>
<message>
<msgID> TXID </msgID>
<txGasPrice> GPRICE </txGasPrice>
<txGasLimit> GLIMIT </txGasLimit>
<to> .Account </to>
<value> VALUE </value>
<data> CODE </data>
...
</message>
<account>
<acctID> ACCTFROM </acctID>
<balance> BAL => BAL -Int (GLIMIT *Int GPRICE) </balance>
<nonce> NONCE </nonce>
...
</account>
<touchedAccounts> _ => SetItem(MINER) </touchedAccounts>
rule <k> loadTx(ACCTFROM)
=> #loadAccount ACCTTO
~> #lookupCode ACCTTO
~> #call ACCTFROM ACCTTO ACCTTO VALUE VALUE DATA false
~> #finishTx ~> #finalizeTx(false) ~> startTx
...
</k>
<schedule> SCHED </schedule>
<gasPrice> _ => GPRICE </gasPrice>
<callGas> _ => GLIMIT -Int G0(SCHED, DATA, false) </callGas>
<origin> _ => ACCTFROM </origin>
<callDepth> _ => -1 </callDepth>
<txPending> ListItem(TXID:Int) ... </txPending>
<coinbase> MINER </coinbase>
<message>
<msgID> TXID </msgID>
<txGasPrice> GPRICE </txGasPrice>
<txGasLimit> GLIMIT </txGasLimit>
<to> ACCTTO </to>
<value> VALUE </value>
<data> DATA </data>
...
</message>
<account>
<acctID> ACCTFROM </acctID>
<balance> BAL => BAL -Int (GLIMIT *Int GPRICE) </balance>
<nonce> NONCE => NONCE +Int 1 </nonce>
...
</account>
<touchedAccounts> _ => SetItem(MINER) </touchedAccounts>
requires ACCTTO =/=K .Account
syntax EthereumCommand ::= "#finishTx"
// --------------------------------------
rule <statusCode> _:ExceptionalStatusCode </statusCode> <k> #halt ~> #finishTx => #popCallStack ~> #popWorldState ... </k>
rule <statusCode> EVMC_REVERT </statusCode> <k> #halt ~> #finishTx => #popCallStack ~> #popWorldState ~> #refund GAVAIL ... </k> <gas> GAVAIL </gas>
rule <statusCode> EVMC_SUCCESS </statusCode>
<k> #halt ~> #finishTx => #mkCodeDeposit ACCT ... </k>
<id> ACCT </id>
<txPending> ListItem(TXID:Int) ... </txPending>
<message>
<msgID> TXID </msgID>
<to> .Account </to>
...
</message>
rule <statusCode> EVMC_SUCCESS </statusCode>
<k> #halt ~> #finishTx => #popCallStack ~> #dropWorldState ~> #refund GAVAIL ... </k>
<id> ACCT </id>
<gas> GAVAIL </gas>
<txPending> ListItem(TXID:Int) ... </txPending>
<message>
<msgID> TXID </msgID>
<to> TT </to>
...
</message>
requires TT =/=K .Account
exception
only clears from the<k>
cell if there is an exception preceding it.failure_
holds the name of a test that failed if a test does fail.success
sets the<exit-code>
to0
and the<mode>
toSUCCESS
.
syntax Mode ::= "SUCCESS"
// -------------------------
syntax EthereumCommand ::= "exception" | "status" StatusCode
// ------------------------------------------------------------
rule <statusCode> _:ExceptionalStatusCode </statusCode>
<k> #halt ~> exception => . ... </k>
rule <k> status SC => . ... </k> <statusCode> SC </statusCode>
syntax EthereumCommand ::= "failure" String | "success"
// -------------------------------------------------------
rule <k> success => . ... </k> <exit-code> _ => 0 </exit-code> <mode> _ => SUCCESS </mode>
rule <k> failure _ => . ... </k>
rule <k> #halt ~> failure _ => . ... </k>
run
runs a given set of Ethereum tests (from the test-set).
Note that TEST
is sorted here so that key "network"
comes before key "pre"
.
syntax EthereumCommand ::= "run" JSON
// -------------------------------------
rule <k> run { .JSONs } => . ... </k>
rule <k> run { TESTID : { TEST:JSONs } , TESTS }
=> run ( TESTID : { #sortJSONs(TEST) } )
~> #if #hasPost?( { TEST } ) #then .K #else exception #fi
~> clear
~> run { TESTS }
...
</k>
syntax Bool ::= "#hasPost?" "(" JSON ")" [function]
// ---------------------------------------------------
rule #hasPost? ({ .JSONs }) => false
rule #hasPost? ({ (KEY:String) : _ , REST }) => (KEY in #postKeys) orBool #hasPost? ({ REST })
#loadKeys
are all the JSON nodes which should be considered as loads before execution.
syntax Set ::= "#loadKeys" [function]
// -------------------------------------
rule #loadKeys => ( SetItem("env") SetItem("pre") SetItem("rlp") SetItem("network") SetItem("genesisRLP") )
rule <k> run TESTID : { KEY : (VAL:JSON) , REST } => load KEY : VAL ~> run TESTID : { REST } ... </k>
requires KEY in #loadKeys
rule <k> run TESTID : { "blocks" : [ { KEY : VAL , REST1 => REST1 }, .JSONs ] , ( REST2 => KEY : VAL , REST2 ) } ... </k>
rule <k> run TESTID : { "blocks" : [ { .JSONs }, .JSONs ] , REST } => run TESTID : { REST } ... </k>
#execKeys
are all the JSON nodes which should be considered for execution (between loading and checking).
syntax Set ::= "#execKeys" [function]
// -------------------------------------
rule #execKeys => ( SetItem("exec") SetItem("lastblockhash") )
rule <k> run TESTID : { KEY : (VAL:JSON) , NEXT , REST } => run TESTID : { NEXT , KEY : VAL , REST } ... </k>
requires KEY in #execKeys
rule <k> run TESTID : { "exec" : (EXEC:JSON) } => loadCallState EXEC ~> start ~> flush ... </k>
rule <k> run TESTID : { "lastblockhash" : (HASH:String) } => #startBlock ~> startTx ... </k>
rule <k> load "exec" : J => loadCallState J ... </k>
rule <k> loadCallState { "caller" : (ACCTFROM:Int), REST => REST } ... </k> <caller> _ => ACCTFROM </caller>
rule <k> loadCallState { "origin" : (ORIG:Int), REST => REST } ... </k> <origin> _ => ORIG </origin>
rule <k> loadCallState { "address" : (ACCTTO:Int), REST => REST } ... </k> <id> _ => ACCTTO </id>
rule <k> loadCallState { "code" : (CODE:OpCodes), REST => REST} ... </k>
<program> _ => #asmOpCodes(CODE) </program>
<jumpDests> _ => #computeValidJumpDests(#asmOpCodes(CODE)) </jumpDests>
rule <k> loadCallState { KEY : ((VAL:String) => #parseWord(VAL)), _ } ... </k>
requires KEY in (SetItem("gas") SetItem("gasPrice") SetItem("value"))
rule <k> loadCallState { KEY : ((VAL:String) => #parseHexWord(VAL)), _ } ... </k>
requires KEY in (SetItem("address") SetItem("caller") SetItem("origin"))
rule <k> loadCallState { "code" : ((CODE:String) => #parseByteStack(CODE)), _ } ... </k>
#postKeys
are a subset of#checkKeys
which correspond to post-state account checks.#checkKeys
are all the JSON nodes which should be considered as checks after execution.
syntax Set ::= "#postKeys" [function] | "#allPostKeys" [function] | "#checkKeys" [function]
// -------------------------------------------------------------------------------------------
rule #postKeys => ( SetItem("post") SetItem("postState") SetItem("postStateHash") )
rule #allPostKeys => ( #postKeys SetItem("expect") SetItem("export") SetItem("expet") )
rule #checkKeys => ( #allPostKeys SetItem("logs") SetItem("out") SetItem("gas")
SetItem("blockHeader") SetItem("transactions") SetItem("uncleHeaders") SetItem("genesisBlockHeader")
)
rule <k> run TESTID : { KEY : (VAL:JSON) , REST } => run TESTID : { REST } ~> check TESTID : { "post" : VAL } ... </k> requires KEY in #allPostKeys
rule <k> run TESTID : { KEY : (VAL:JSON) , REST } => run TESTID : { REST } ~> check TESTID : { KEY : VAL } ... </k> requires KEY in #checkKeys andBool notBool KEY in #allPostKeys
#discardKeys
are all the JSON nodes in the tests which should just be ignored.
syntax Set ::= "#discardKeys" [function]
// ----------------------------------------
rule #discardKeys => ( SetItem("//") SetItem("_info") SetItem("callcreates") SetItem("sealEngine") )
rule <k> run TESTID : { KEY : _ , REST } => run TESTID : { REST } ... </k> requires KEY in #discardKeys
driver.md
specific handling of state-loader commands
rule <k> load "account" : { ACCTID : ACCT } => loadAccount ACCTID ACCT ... </k>
rule <k> loadAccount _ { "balance" : ((VAL:String) => #parseWord(VAL)), _ } ... </k>
rule <k> loadAccount _ { "nonce" : ((VAL:String) => #parseWord(VAL)), _ } ... </k>
rule <k> loadAccount _ { "code" : ((CODE:String) => #parseByteStack(CODE)), _ } ... </k>
rule <k> loadAccount _ { "storage" : ({ STORAGE:JSONs } => #parseMap({ STORAGE })), _ } ... </k>
rule <k> loadTransaction _ { "gasLimit" : (TG:String => #asWord(#parseByteStackRaw(TG))), _ } ... </k>
rule <k> loadTransaction _ { "gasPrice" : (TP:String => #asWord(#parseByteStackRaw(TP))), _ } ... </k>
rule <k> loadTransaction _ { "nonce" : (TN:String => #asWord(#parseByteStackRaw(TN))), _ } ... </k>
rule <k> loadTransaction _ { "v" : (TW:String => #asWord(#parseByteStackRaw(TW))), _ } ... </k>
rule <k> loadTransaction _ { "value" : (TV:String => #asWord(#parseByteStackRaw(TV))), _ } ... </k>
rule <k> loadTransaction _ { "to" : (TT:String => #asAccount(#parseByteStackRaw(TT))), _ } ... </k>
rule <k> loadTransaction _ { "data" : (TI:String => #parseByteStackRaw(TI)), _ } ... </k>
rule <k> loadTransaction _ { "r" : (TR:String => #padToWidth(32, #parseByteStackRaw(TR))), _ } ... </k>
rule <k> loadTransaction _ { "s" : (TS:String => #padToWidth(32, #parseByteStackRaw(TS))), _ } ... </k>
check_
checks if an account/transaction appears in the world-state as stated.
syntax EthereumCommand ::= "check" JSON
// ---------------------------------------
rule <k> #halt ~> check J:JSON => check J ~> #halt ... </k>
rule <k> check DATA : { .JSONs } => . ... </k> requires DATA =/=String "transactions"
rule <k> check DATA : [ .JSONs ] => . ... </k> requires DATA =/=String "ommerHeaders"
rule <k> check DATA : { (KEY:String) : VALUE , REST } => check DATA : { KEY : VALUE } ~> check DATA : { REST } ... </k>
requires REST =/=K .JSONs andBool notBool DATA in (SetItem("callcreates") SetItem("transactions"))
rule <k> check DATA : [ { TEST } , REST ] => check DATA : { TEST } ~> check DATA : [ REST ] ... </k>
requires DATA =/=String "transactions"
rule <k> check (KEY:String) : { JS:JSONs => #sortJSONs(JS) } ... </k>
requires KEY in (SetItem("callcreates")) andBool notBool #isSorted(JS)
rule <k> check TESTID : { "post" : POST } => check "account" : POST ~> failure TESTID ... </k>
rule <k> check "account" : { ACCTID:Int : { KEY : VALUE , REST } } => check "account" : { ACCTID : { KEY : VALUE } } ~> check "account" : { ACCTID : { REST } } ... </k>
requires REST =/=K .JSONs
rule <k> check "account" : { ((ACCTID:String) => #parseAddr(ACCTID)) : ACCT } ... </k>
rule <k> check "account" : { (ACCT:Int) : { "balance" : ((VAL:String) => #parseWord(VAL)) } } ... </k>
rule <k> check "account" : { (ACCT:Int) : { "nonce" : ((VAL:String) => #parseWord(VAL)) } } ... </k>
rule <k> check "account" : { (ACCT:Int) : { "code" : ((CODE:String) => #parseByteStack(CODE)) } } ... </k>
rule <k> check "account" : { (ACCT:Int) : { "storage" : ({ STORAGE:JSONs } => #parseMap({ STORAGE })) } } ... </k>
rule <mode> EXECMODE </mode>
<k> check "account" : { ACCT : { "balance" : (BAL:Int) } } => . ... </k>
<account>
<acctID> ACCT </acctID>
<balance> BAL </balance>
...
</account>
requires EXECMODE =/=K VMTESTS
rule <mode> VMTESTS </mode>
<k> check "account" : { ACCT : { "balance" : (BAL:Int) } } => . ... </k>
rule <k> check "account" : { ACCT : { "nonce" : (NONCE:Int) } } => . ... </k>
<account>
<acctID> ACCT </acctID>
<nonce> NONCE </nonce>
...
</account>
rule <k> check "account" : { ACCT : { "storage" : (STORAGE:Map) } } => . ... </k>
<account>
<acctID> ACCT </acctID>
<storage> ACCTSTORAGE </storage>
...
</account>
requires #removeZeros(ACCTSTORAGE) ==K STORAGE
rule <k> check "account" : { ACCT : { "code" : (CODE:ByteArray) } } => . ... </k>
<account>
<acctID> ACCT </acctID>
<code> CODE </code>
...
</account>
#removeZeros
removes any entries in a map with zero values.
syntax Map ::= #removeZeros ( Map ) [function]
| #removeZeros ( List , Map ) [function, klabel(#removeZerosAux)]
// ------------------------------------------------------------------------------
rule #removeZeros( M ) => #removeZeros(Set2List(keys(M)), M)
rule #removeZeros( .List, .Map ) => .Map
rule #removeZeros( ListItem(KEY) L, KEY |-> 0 REST ) => #removeZeros(L, REST)
rule #removeZeros( ListItem(KEY) L, KEY |-> VALUE REST ) => KEY |-> VALUE #removeZeros(L, REST) requires VALUE =/=K 0
Here we check the other post-conditions associated with an EVM test.
rule <k> check TESTID : { "out" : OUT } => check "out" : OUT ~> failure TESTID ... </k>
// ---------------------------------------------------------------------------------------
rule <k> check "out" : ((OUT:String) => #parseByteStack(OUT)) ... </k>
rule <k> check "out" : OUT => . ... </k> <output> OUT </output>
rule <k> check TESTID : { "logs" : LOGS } => check "logs" : LOGS ~> failure TESTID ... </k>
// -------------------------------------------------------------------------------------------
rule <k> check "logs" : HASH:String => . ... </k> <log> SL </log> requires #parseHexBytes(Keccak256(#rlpEncodeLogs(SL))) ==K #parseByteStack(HASH)
rule <k> check TESTID : { "gas" : GLEFT } => check "gas" : GLEFT ~> failure TESTID ... </k>
// -------------------------------------------------------------------------------------------
rule <k> check "gas" : ((GLEFT:String) => #parseWord(GLEFT)) ... </k>
rule <k> check "gas" : GLEFT => . ... </k> <gas> GLEFT </gas>
rule check TESTID : { "blockHeader" : BLOCKHEADER } => check "blockHeader" : BLOCKHEADER ~> failure TESTID
// ----------------------------------------------------------------------------------------------------------
rule <k> check "blockHeader" : { KEY : VALUE , REST } => check "blockHeader" : { KEY : VALUE } ~> check "blockHeader" : { REST } ... </k>
requires REST =/=K .JSONs
rule <k> check "blockHeader" : { KEY : (VALUE:String => #parseByteStack(VALUE)) } ... </k>
rule <k> check "blockHeader" : { KEY : (VALUE:ByteArray => #asWord(VALUE)) } ... </k>
requires KEY in ( SetItem("coinbase") SetItem("difficulty") SetItem("gasLimit") SetItem("gasUsed")
SetItem("mixHash") SetItem("nonce") SetItem("number") SetItem("parentHash")
SetItem("receiptTrie") SetItem("stateRoot") SetItem("timestamp")
SetItem("transactionsTrie") SetItem("uncleHash")
)
rule <k> check "blockHeader" : { "bloom" : VALUE } => . ... </k> <logsBloom> VALUE </logsBloom>
rule <k> check "blockHeader" : { "coinbase" : VALUE } => . ... </k> <coinbase> VALUE </coinbase>
rule <k> check "blockHeader" : { "difficulty" : VALUE } => . ... </k> <difficulty> VALUE </difficulty>
rule <k> check "blockHeader" : { "extraData" : VALUE } => . ... </k> <extraData> VALUE </extraData>
rule <k> check "blockHeader" : { "gasLimit" : VALUE } => . ... </k> <gasLimit> VALUE </gasLimit>
rule <k> check "blockHeader" : { "gasUsed" : VALUE } => . ... </k> <gasUsed> VALUE </gasUsed>
rule <k> check "blockHeader" : { "mixHash" : VALUE } => . ... </k> <mixHash> VALUE </mixHash>
rule <k> check "blockHeader" : { "nonce" : VALUE } => . ... </k> <blockNonce> VALUE </blockNonce>
rule <k> check "blockHeader" : { "number" : VALUE } => . ... </k> <number> VALUE </number>
rule <k> check "blockHeader" : { "parentHash" : VALUE } => . ... </k> <previousHash> VALUE </previousHash>
rule <k> check "blockHeader" : { "receiptTrie" : VALUE } => . ... </k> <receiptsRoot> VALUE </receiptsRoot>
rule <k> check "blockHeader" : { "stateRoot" : VALUE } => . ... </k> <stateRoot> VALUE </stateRoot>
rule <k> check "blockHeader" : { "timestamp" : VALUE } => . ... </k> <timestamp> VALUE </timestamp>
rule <k> check "blockHeader" : { "transactionsTrie" : VALUE } => . ... </k> <transactionsRoot> VALUE </transactionsRoot>
rule <k> check "blockHeader" : { "uncleHash" : VALUE } => . ... </k> <ommersHash> VALUE </ommersHash>
rule <k> check "blockHeader" : { "hash": HASH:ByteArray } => . ...</k>
<previousHash> HP </previousHash>
<ommersHash> HO </ommersHash>
<coinbase> HC </coinbase>
<stateRoot> HR </stateRoot>
<transactionsRoot> HT </transactionsRoot>
<receiptsRoot> HE </receiptsRoot>
<logsBloom> HB </logsBloom>
<difficulty> HD </difficulty>
<number> HI </number>
<gasLimit> HL </gasLimit>
<gasUsed> HG </gasUsed>
<timestamp> HS </timestamp>
<extraData> HX </extraData>
<mixHash> HM </mixHash>
<blockNonce> HN </blockNonce>
requires #blockHeaderHash(HP, HO, HC, HR, HT, HE, HB, HD, HI, HL, HG, HS, HX, HM, HN) ==Int #asWord(HASH)
rule check TESTID : { "genesisBlockHeader" : BLOCKHEADER } => check "genesisBlockHeader" : BLOCKHEADER ~> failure TESTID
// ------------------------------------------------------------------------------------------------------------------------
rule <k> check "genesisBlockHeader" : { KEY : VALUE , REST } => check "genesisBlockHeader" : { KEY : VALUE } ~> check "genesisBlockHeader" : { REST } ... </k>
requires REST =/=K .JSONs
rule <k> check "genesisBlockHeader" : { KEY : VALUE } => .K ... </k> requires KEY =/=String "hash"
rule <k> check "genesisBlockHeader" : { "hash": (HASH:String => #asWord(#parseByteStack(HASH))) } ... </k>
rule <k> check "genesisBlockHeader" : { "hash": HASH } => . ... </k>
<blockhashes> ... ListItem(HASH) ListItem(_) </blockhashes>
rule <k> check TESTID : { "transactions" : TRANSACTIONS } => check "transactions" : TRANSACTIONS ~> failure TESTID ... </k>
// ---------------------------------------------------------------------------------------------------------------------------
rule <k> check "transactions" : [ .JSONs ] => . ... </k> <txOrder> .List </txOrder>
rule <k> check "transactions" : { .JSONs } => . ... </k> <txOrder> ListItem(_) => .List ... </txOrder>
rule <k> check "transactions" : [ TRANSACTION , REST ] => check "transactions" : TRANSACTION ~> check "transactions" : [ REST ] ... </k>
rule <k> check "transactions" : { KEY : VALUE , REST } => check "transactions" : (KEY : VALUE) ~> check "transactions" : { REST } ... </k>
rule <k> check "transactions" : (KEY : (VALUE:String => #parseByteStack(VALUE))) ... </k>
rule <k> check "transactions" : ("to" : (VALUE:ByteArray => #asAccount(VALUE))) ... </k>
rule <k> check "transactions" : (KEY : (VALUE:ByteArray => #padToWidth(32, VALUE))) ... </k> requires KEY in (SetItem("r") SetItem("s")) andBool #sizeByteArray(VALUE) <Int 32
rule <k> check "transactions" : (KEY : (VALUE:ByteArray => #asWord(VALUE))) ... </k> requires KEY in (SetItem("gasLimit") SetItem("gasPrice") SetItem("nonce") SetItem("v") SetItem("value"))
rule <k> check "transactions" : ("data" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <data> VALUE </data> ... </message>
rule <k> check "transactions" : ("gasLimit" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <txGasLimit> VALUE </txGasLimit> ... </message>
rule <k> check "transactions" : ("gasPrice" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <txGasPrice> VALUE </txGasPrice> ... </message>
rule <k> check "transactions" : ("nonce" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <txNonce> VALUE </txNonce> ... </message>
rule <k> check "transactions" : ("r" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <sigR> VALUE </sigR> ... </message>
rule <k> check "transactions" : ("s" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <sigS> VALUE </sigS> ... </message>
rule <k> check "transactions" : ("to" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <to> VALUE </to> ... </message>
rule <k> check "transactions" : ("v" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <sigV> VALUE </sigV> ... </message>
rule <k> check "transactions" : ("value" : VALUE) => . ... </k> <txOrder> ListItem(TXID) ... </txOrder> <message> <msgID> TXID </msgID> <value> VALUE </value> ... </message>
TODO: case with nonzero ommers.
rule <k> check TESTID : { "uncleHeaders" : OMMERS } => check "ommerHeaders" : OMMERS ~> failure TESTID ... </k>
// ---------------------------------------------------------------------------------------------------------------
rule <k> check "ommerHeaders" : [ .JSONs ] => . ... </k> <ommerBlockHeaders> [ .JSONs ] </ommerBlockHeaders>
endmodule