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On demand mpt revisited (#2426) 

* rebased from `github/on-demand-mpt`

ackn:
  wip: on-demand mpt construction

  Given that actual data is stored in the `Vertex` structure, it's useful
  to think of the MPT as a cache for computing roots rather than being a
  functional requirement on its own.

  This PR engenders this line of thinking by incrementally computing the
  MPT only when it's needed, ie when a state (or similar) root is needed.

  This has the effect of siginficantly reducing memory usage as well as
  improving performance:

  * no need for dirty-mpt-node book-keeping
  * no need to build complex forest of upcoming hashing work
  * only hashes that are functionally needed are ever computed -
  intermediate nodes whose MTP root is not observed are never computed /
  processed

* Unit test hot fixes

* Unit test hot fixes cont.

(somehow lost that part)

---------

Co-authored-by: Jacek Sieka <jacek@status.im>
This commit is contained in:
Jordan Hrycaj 2024-06-28 15:03:12 +00:00 committed by GitHub
parent 44deff9b28
commit 14c3772545
No known key found for this signature in database
GPG Key ID: B5690EEEBB952194
18 changed files with 174 additions and 430 deletions
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2
nimbus/core/tx_pool/tx_tasks/tx_packer.nim
View File

@ -250,7 +250,7 @@ proc vmExecCommit(pst: TxPackerStateRef)
vmState.receipts.setLen(nItems)
xp.chain.receipts = vmState.receipts
xp.chain.txRoot = pst.tr.state.valueOr:
xp.chain.txRoot = pst.tr.state(updateOk=true).valueOr:
raiseAssert "vmExecCommit(): state() failed " & $$error
xp.chain.stateRoot = vmState.stateDB.rootHash

37
nimbus/db/aristo/aristo_api.nim
View File

@ -18,7 +18,7 @@ import
results,
./aristo_desc/desc_backend,
./aristo_init/memory_db,
"."/[aristo_delete, aristo_desc, aristo_fetch, aristo_hashify,
"."/[aristo_delete, aristo_desc, aristo_fetch,
aristo_init, aristo_merge, aristo_path, aristo_profile, aristo_tx]
export
@ -116,9 +116,11 @@ type
AristoApiFetchAccountStateFn* =
proc(db: AristoDbRef;
updateOk: bool;
): Result[Hash256,AristoError]
{.noRaise.}
## Fetch the Merkle hash of the account root.
## Fetch the Merkle hash of the account root. Force update if the
## argument `updateOK` is set `true`.
AristoApiFetchGenericDataFn* =
proc(db: AristoDbRef;
@ -132,9 +134,11 @@ type
AristoApiFetchGenericStateFn* =
proc(db: AristoDbRef;
root: VertexID;
updateOk: bool;
): Result[Hash256,AristoError]
{.noRaise.}
## Fetch the Merkle hash of the argument `root`.
## Fetch the Merkle hash of the argument `root`. Force update if the
## argument `updateOK` is set `true`.
AristoApiFetchStorageDataFn* =
proc(db: AristoDbRef;
@ -148,9 +152,11 @@ type
AristoApiFetchStorageStateFn* =
proc(db: AristoDbRef;
accPath: openArray[byte];
updateOk: bool;
): Result[Hash256,AristoError]
{.noRaise.}
## Fetch the Merkle hash of the storage root related to `accPath`.
## Fetch the Merkle hash of the storage root related to `accPath`. Force
## update if the argument `updateOK` is set `true`.
AristoApiFindTxFn* =
proc(db: AristoDbRef;
@ -421,8 +427,6 @@ type
finish*: AristoApiFinishFn
forget*: AristoApiForgetFn
forkTx*: AristoApiForkTxFn
hashify*: AristoApiHashifyFn
hasPathAccount*: AristoApiHasPathAccountFn
hasPathGeneric*: AristoApiHasPathGenericFn
hasPathStorage*: AristoApiHasPathStorageFn
@ -468,7 +472,6 @@ type
AristoApiProfFinishFn = "finish"
AristoApiProfForgetFn = "forget"
AristoApiProfForkTxFn = "forkTx"
AristoApiProfHashifyFn = "hashify"
AristoApiProfHasPathAccountFn = "hasPathAccount"
AristoApiProfHasPathGenericFn = "hasPathGeneric"
@ -532,7 +535,6 @@ when AutoValidateApiHooks:
doAssert not api.finish.isNil
doAssert not api.forget.isNil
doAssert not api.forkTx.isNil
doAssert not api.hashify.isNil
doAssert not api.hasPathAccount.isNil
doAssert not api.hasPathGeneric.isNil
@ -600,7 +602,6 @@ func init*(api: var AristoApiObj) =
api.finish = finish
api.forget = forget
api.forkTx = forkTx
api.hashify = hashify
api.hasPathAccount = hasPathAccount
api.hasPathGeneric = hasPathGeneric
@ -650,7 +651,6 @@ func dup*(api: AristoApiRef): AristoApiRef =
finish: api.finish,
forget: api.forget,
forkTx: api.forkTx,
hashify: api.hashify,
hasPathAccount: api.hasPathAccount,
hasPathGeneric: api.hasPathGeneric,
@ -742,9 +742,9 @@ func init*(
result = api.fetchAccountRecord(a, b)
profApi.fetchAccountState =
proc(a: AristoDbRef): auto =
proc(a: AristoDbRef; b: bool): auto =
AristoApiProfFetchAccountStateFn.profileRunner:
result = api.fetchAccountState(a)
result = api.fetchAccountState(a, b)
profApi.fetchGenericData =
proc(a: AristoDbRef; b: VertexID; c: openArray[byte]): auto =
@ -752,9 +752,9 @@ func init*(
result = api.fetchGenericData(a, b, c)
profApi.fetchGenericState =
proc(a: AristoDbRef; b: VertexID;): auto =
proc(a: AristoDbRef; b: VertexID; c: bool): auto =
AristoApiProfFetchGenericStateFn.profileRunner:
result = api.fetchGenericState(a, b)
result = api.fetchGenericState(a, b, c)
profApi.fetchStorageData =
proc(a: AristoDbRef; b, c: openArray[byte]): auto =
@ -762,9 +762,9 @@ func init*(
result = api.fetchStorageData(a, b, c)
profApi.fetchStorageState =
proc(a: AristoDbRef; b: openArray[byte]): auto =
proc(a: AristoDbRef; b: openArray[byte]; c: bool): auto =
AristoApiProfFetchStorageStateFn.profileRunner:
result = api.fetchStorageState(a, b)
result = api.fetchStorageState(a, b, c)
profApi.findTx =
proc(a: AristoDbRef; b: VertexID; c: HashKey): auto =
@ -786,11 +786,6 @@ func init*(
AristoApiProfForkTxFn.profileRunner:
result = api.forkTx(a, b)
profApi.hashify =
proc(a: AristoDbRef): auto =
AristoApiProfHashifyFn.profileRunner:
result = api.hashify(a)
profApi.hasPathAccount =
proc(a: AristoDbRef; b: openArray[byte]): auto =
AristoApiProfHasPathAccountFn.profileRunner:

8
nimbus/db/aristo/aristo_delta/delta_merge.nim
View File

@ -95,10 +95,10 @@ proc deltaMerge*(
else:
return err((vid,rc.error))
# Check consistency
if (newFilter.src == newFilter.kMap.getOrVoid(VertexID 1)) !=
(newFilter.sTab.len == 0 and newFilter.kMap.len == 0):
return err((VertexID(0),FilSrcTrgInconsistent))
# # Check consistency
# if (newFilter.src == newFilter.kMap.getOrVoid(VertexID 1)) !=
# (newFilter.sTab.len == 0 and newFilter.kMap.len == 0):
# return err((VertexID(0),FilSrcTrgInconsistent))
ok newFilter

27
nimbus/db/aristo/aristo_fetch.nim
View File

@ -17,7 +17,7 @@ import
std/typetraits,
eth/common,
results,
"."/[aristo_desc, aristo_get, aristo_hike]
"."/[aristo_desc, aristo_get, aristo_hashify, aristo_hike]
# ------------------------------------------------------------------------------
# Private functions
@ -55,11 +55,19 @@ proc retrievePayload(
proc retrieveMerkleHash(
db: AristoDbRef;
root: VertexID;
updateOk: bool;
): Result[Hash256,AristoError] =
let key = db.getKeyRc(root).valueOr:
if error == GetKeyNotFound:
return ok(EMPTY_ROOT_HASH) # empty sub-tree
return err(error)
let key = block:
if updateOk:
db.computeKey(root).valueOr:
if error == GetVtxNotFound:
return ok(EMPTY_ROOT_HASH)
return err(error)
else:
db.getKeyRc(root).valueOr:
if error == GetKeyNotFound:
return ok(EMPTY_ROOT_HASH) # empty sub-tree
return err(error)
ok key.to(Hash256)
@ -148,9 +156,10 @@ proc fetchAccountRecord*(
proc fetchAccountState*(
db: AristoDbRef;
updateOk: bool;
): Result[Hash256,AristoError] =
## Fetch the Merkle hash of the account root.
db.retrieveMerkleHash VertexID(1)
db.retrieveMerkleHash(VertexID(1), updateOk)
proc hasPathAccount*(
db: AristoDbRef;
@ -178,9 +187,10 @@ proc fetchGenericData*(
proc fetchGenericState*(
db: AristoDbRef;
root: VertexID;
updateOk: bool;
): Result[Hash256,AristoError] =
## Fetch the Merkle hash of the argument `root`.
db.retrieveMerkleHash root
db.retrieveMerkleHash(root, updateOk)
proc hasPathGeneric*(
db: AristoDbRef;
@ -209,13 +219,14 @@ proc fetchStorageData*(
proc fetchStorageState*(
db: AristoDbRef;
accPath: openArray[byte];
updateOk: bool;
): Result[Hash256,AristoError] =
## Fetch the Merkle hash of the storage root related to `accPath`.
let stoID = db.fetchStorageID(accPath).valueOr:
if error == FetchPathNotFound:
return ok(EMPTY_ROOT_HASH) # no sub-tree
return err(error)
db.retrieveMerkleHash stoID
db.retrieveMerkleHash(stoID, updateOk)
proc hasPathStorage*(
db: AristoDbRef;

367
nimbus/db/aristo/aristo_hashify.nim
View File

@ -8,319 +8,106 @@
# at your option. This file may not be copied, modified, or distributed
# except according to those terms.
## Aristo DB -- Patricia Trie Merkleisation
## ========================================
##
## For the current state of the `Patricia Trie`, keys (equivalent to hashes)
## are associated with the vertex IDs. Existing key associations are taken
## as-is/unchecked unless the ID is marked a proof node. In the latter case,
## the key is assumed to be correct after re-calculation.
##
## The labelling algorithm works roughly as follows:
##
## * Given a set of start or root vertices, build the forest (of trees)
## downwards towards leafs vertices so that none of these vertices has a
## Merkle hash label.
##
## * Starting at the leaf vertices in width-first fashion, calculate the
## Merkle hashes and label the leaf vertices. Recursively work up labelling
## vertices up until the root nodes are reached.
##
## Note that there are some tweaks for `proof` node vertices which lead to
## incomplete trees in a way that the algoritm handles existing Merkle hash
## labels for missing vertices.
##
{.push raises: [].}
import
std/[algorithm, sequtils, sets, tables],
chronicles,
eth/common,
results,
"."/[aristo_desc, aristo_get, aristo_layers, aristo_serialise, aristo_utils]
type
WidthFirstForest = object
## Collected width first search trees
root: HashSet[VertexID] ## Top level, root targets
pool: Table[VertexID,VertexID] ## Upper links pool
base: Table[VertexID,VertexID] ## Width-first leaf level links
leaf: seq[VertexID] ## Stand-alone leaf to process
rev: Table[VertexID,HashSet[VertexID]] ## Reverse look up table
"."/[aristo_desc, aristo_get, aristo_layers, aristo_serialise]
logScope:
topics = "aristo-hashify"
# ------------------------------------------------------------------------------
# Private helpers
# ------------------------------------------------------------------------------
func getOrVoid(tab: Table[VertexID,VertexID]; vid: VertexID): VertexID =
tab.getOrDefault(vid, VertexID(0))
# ------------------------------------------------------------------------------
# Private functions
# ------------------------------------------------------------------------------
func hasValue(
wffTable: Table[VertexID,VertexID];
vid: VertexID;
wff: var WidthFirstForest;
): bool =
## Helper for efficient `value` access:
## ::
## wffTable.hasValue(wff, vid)
##
## instead of
## ::
## vid in wffTable.values.toSeq
##
wff.rev.withValue(vid, v):
for w in v[]:
if w in wffTable:
return true
proc pedigree(
proc computeKey*(
db: AristoDbRef; # Database, top layer
wff: var WidthFirstForest;
ancestors: HashSet[VertexID]; # Vertex IDs to start connecting from
proofs: HashSet[VertexID]; # Additional proof nodes to start from
): Result[void, (VertexID,AristoError)] =
## For each vertex ID from the argument set `ancestors` find all un-labelled
## grand child vertices and build a forest (of trees) starting from the
## grand child vertices.
##
var
leafs: HashSet[VertexID]
vid: VertexID; # Vertex to convert
): Result[HashKey, AristoError] =
# This is a variation on getKeyRc which computes the key instead of returning
# an error
# TODO it should not always write the key to the persistent storage
proc register(wff: var WidthFirstForest; fromVid, toVid: VertexID) =
if toVid in wff.base:
# * there is `toVid->*` in `base[]`
# * so ``toVid->*` moved to `pool[]`
wff.pool[toVid] = wff.base.getOrVoid toVid
wff.base.del toVid
if wff.base.hasValue(fromVid, wff):
# * there is `*->fromVid` in `base[]`
# * so store `fromVid->toVid` in `pool[]`
wff.pool[fromVid] = toVid
else:
# store `fromVid->toVid` in `base[]`
wff.base[fromVid] = toVid
# Register reverse pair for quick table value lookup
wff.rev.withValue(toVid, val):
val[].incl fromVid
do:
wff.rev[toVid] = [fromVid].toHashSet
# Remove unnecessarey sup-trie roots (e.g. for a storage root)
wff.root.excl fromVid
# Initialise greedy search which will keep a set of current leafs in the
# `leafs{}` set and follow up links in the `pool[]` table, leading all the
# way up to the `root{}` set.
#
# Process root nodes if they are unlabelled
var rootWasDeleted = VertexID(0)
for root in ancestors:
let vtx = db.getVtx root
if vtx.isNil:
if VertexID(LEAST_FREE_VID) <= root:
# There must be a another root, as well (e.g. `$1` for a storage
# root). Only the last one of some will be reported with error code.
rootWasDeleted = root
elif not db.getKey(root).isValid:
# Need to process `root` node
let children = vtx.subVids
if children.len == 0:
# This is an isolated leaf node
wff.leaf.add root
proc getKey(db: AristoDbRef; vid: VertexID): HashKey =
block body:
let key = db.layersGetKey(vid).valueOr:
break body
if key.isValid:
return key
else:
wff.root.incl root
for child in vtx.subVids:
if not db.getKey(child).isValid:
leafs.incl child
wff.register(child, root)
if rootWasDeleted.isValid and
wff.root.len == 0 and
wff.leaf.len == 0:
return err((rootWasDeleted,HashifyRootVtxUnresolved))
return VOID_HASH_KEY
let rc = db.getKeyBE vid
if rc.isOk:
return rc.value
VOID_HASH_KEY
# Initialisation for `proof` nodes which are sort of similar to `root` nodes.
for proof in proofs:
let vtx = db.getVtx proof
if vtx.isNil or not db.getKey(proof).isValid:
return err((proof,HashifyVtxUnresolved))
let children = vtx.subVids
if 0 < children.len:
# To be treated as a root node
wff.root.incl proof
for child in vtx.subVids:
if not db.getKey(child).isValid:
leafs.incl child
wff.register(child, proof)
let key = getKey(db, vid)
if key.isValid():
# debugEcho "ok ", vid, " ", key
return ok key
# Recursively step down and collect unlabelled vertices
while 0 < leafs.len:
var redo: typeof(leafs)
#let vtx = db.getVtx(vid)
#doAssert vtx.isValid()
let vtx = ? db.getVtxRc vid
for parent in leafs:
assert parent.isValid
assert not db.getKey(parent).isValid
# TODO this is the same code as when serializing NodeRef, without the NodeRef
var rlp = initRlpWriter()
let vtx = db.getVtx parent
if not vtx.isNil:
let children = vtx.subVids.filterIt(not db.getKey(it).isValid)
if 0 < children.len:
for child in children:
redo.incl child
wff.register(child, parent)
continue
case vtx.vType:
of Leaf:
rlp.startList(2)
rlp.append(vtx.lPfx.toHexPrefix(isLeaf = true))
# Need to resolve storage root for account leaf
case vtx.lData.pType
of AccountData:
let vid = vtx.lData.stoID
let key = if vid.isValid:
?db.computeKey(vid)
# if not key.isValid:
# block looseCoupling:
# when LOOSE_STORAGE_TRIE_COUPLING:
# # Stale storage trie?
# if LEAST_FREE_VID <= vid.distinctBase and
# not db.getVtx(vid).isValid:
# node.lData.account.storageID = VertexID(0)
# break looseCoupling
# # Otherwise this is a stale storage trie.
# return err(@[vid])
else:
VOID_HASH_KEY
if parent notin wff.base:
# The buck stops here:
# move `(parent,granny)` from `pool[]` to `base[]`
let granny = wff.pool.getOrVoid parent
assert granny.isValid
wff.register(parent, granny)
wff.pool.del parent
rlp.append(encode Account(
nonce: vtx.lData.account.nonce,
balance: vtx.lData.account.balance,
storageRoot: key.to(Hash256),
codeHash: vtx.lData.account.codeHash)
)
of RawData:
rlp.append(vtx.lData.rawBlob)
redo.swap leafs
of Branch:
rlp.startList(17)
for n in 0..15:
let vid = vtx.bVid[n]
if vid.isValid:
rlp.append(?db.computeKey(vid))
else:
rlp.append(VOID_HASH_KEY)
rlp.append EmptyBlob
ok()
of Extension:
rlp.startList(2)
rlp.append(vtx.ePfx.toHexPrefix(isleaf = false))
rlp.append(?db.computeKey(vtx.eVid))
# ------------------------------------------------------------------------------
# Private functions, tree traversal
# ------------------------------------------------------------------------------
proc createSched(
wff: var WidthFirstForest; # Search tree to create
db: AristoDbRef; # Database, top layer
): Result[void,(VertexID,AristoError)] =
## Create width-first search schedule (aka forest)
##
? db.pedigree(wff, db.dirty, db.pPrf)
if 0 < wff.leaf.len:
for vid in wff.leaf:
let node = db.getVtx(vid).toNode(db, beKeyOk=false).valueOr:
# Make sure that all those nodes are reachable
for needed in error:
if needed notin wff.base and
needed notin wff.pool:
return err((needed,HashifyVtxUnresolved))
continue
db.layersPutKey(VertexID(1), vid, node.digestTo(HashKey))
wff.leaf.reset() # No longer needed
ok()
let h = rlp.finish().digestTo(HashKey)
# TODO This shouldn't necessarily go into the database if we're just computing
# a key ephemerally - it should however be cached for some tiem since
# deep hash computations are expensive
# debugEcho "putkey ", vtx.vType, " ", vid, " ", h, " ", toHex(rlp.finish)
db.layersPutKey(VertexID(1), vid, h)
ok h
proc processSched(
wff: var WidthFirstForest; # Search tree to process
db: AristoDbRef; # Database, top layer
): Result[void,(VertexID,AristoError)] =
## Traverse width-first schedule and update vertex hash labels.
##
while 0 < wff.base.len:
var
accept = false
redo: typeof(wff.base)
for (vid,toVid) in wff.base.pairs:
let vtx = db.getVtx vid
assert vtx.isValid
# Try to convert the vertex to a node. This is possible only if all
# link references have Merkle hash keys, already.
let node = vtx.toNode(db, stopEarly=false).valueOr:
# Do this vertex later, again
if wff.pool.hasValue(vid, wff):
wff.pool[vid] = toVid
accept = true # `redo[]` will be fifferent from `base[]`
else:
redo[vid] = toVid
continue
# End `valueOr` terminates error clause
# Could resolve => update Merkle hash
db.layersPutKey(VertexID(1), vid, node.digestTo HashKey)
# Set follow up link for next round
let toToVid = wff.pool.getOrVoid toVid
if toToVid.isValid:
if toToVid in redo:
# Got predecessor `(toVid,toToVid)` of `(toToVid,xxx)`,
# so move `(toToVid,xxx)` from `redo[]` to `pool[]`
wff.pool[toToVid] = redo.getOrVoid toToVid
redo.del toToVid
# Move `(toVid,toToVid)` from `pool[]` to `redo[]`
wff.pool.del toVid
redo[toVid] = toToVid
accept = true # `redo[]` will be fifferent from `base[]`
# End `for (vid,toVid)..`
# Make sure that `base[]` is different from `redo[]`
if not accept:
let vid = wff.base.keys.toSeq[0]
return err((vid,HashifyVtxUnresolved))
# Restart `wff.base[]`
wff.base.swap redo
ok()
proc finaliseRoots(
wff: var WidthFirstForest; # Search tree to process
db: AristoDbRef; # Database, top layer
): Result[void,(VertexID,AristoError)] =
## Process root vertices after all other vertices are done.
##
# Make sure that the pool has been exhausted
if 0 < wff.pool.len:
let vid = wff.pool.keys.toSeq.sorted[0]
return err((vid,HashifyVtxUnresolved))
# Update or verify root nodes
for vid in wff.root:
# Calculate hash key
let
node = db.getVtx(vid).toNode(db).valueOr:
return err((vid,HashifyRootVtxUnresolved))
key = node.digestTo(HashKey)
if vid notin db.pPrf:
db.layersPutKey(VertexID(1), vid, key)
elif key != db.getKey vid:
return err((vid,HashifyProofHashMismatch))
ok()
# ------------------------------------------------------------------------------
# Public functions
# ------------------------------------------------------------------------------
proc hashify*(
db: AristoDbRef; # Database, top layer
): Result[void,(VertexID,AristoError)] =
## Add keys to the `Patricia Trie` so that it becomes a `Merkle Patricia
## Tree`.
##
if 0 < db.dirty.len:
# Set up widh-first traversal schedule
var wff: WidthFirstForest
? wff.createSched db
# Traverse tree spanned by `wff` and label remaining vertices.
? wff.processSched db
# Do/complete state root vertices
? wff.finaliseRoots db
db.top.final.dirty.clear # Mark top layer clean
ok()
# ------------------------------------------------------------------------------
# End

4
nimbus/db/aristo/aristo_layers.nim
View File

@ -126,7 +126,7 @@ func layersPutVtx*(
) =
## Store a (potentally empty) vertex on the top layer
db.top.delta.sTab[vid] = vtx
db.top.final.dirty.incl root
# db.top.final.dirty.incl root
func layersResVtx*(
db: AristoDbRef;
@ -146,7 +146,7 @@ func layersPutKey*(
) =
## Store a (potentally void) hash key on the top layer
db.top.delta.kMap[vid] = key
db.top.final.dirty.incl root # Modified top cache layers => hashify
# db.top.final.dirty.incl root # Modified top cache layers => hashify
func layersResKey*(db: AristoDbRef; root: VertexID; vid: VertexID) =

16
nimbus/db/aristo/aristo_serialise.nim
View File

@ -31,7 +31,7 @@ proc aristoError(error: AristoError): NodeRef =
## Allows returning de
NodeRef(vType: Leaf, error: error)
proc serialise(
proc serialise*(
pyl: PayloadRef;
getKey: ResolveVidFn;
): Result[Blob,(VertexID,AristoError)] =
@ -125,15 +125,15 @@ proc read*(rlp: var Rlp; T: type NodeRef): T {.gcsafe, raises: [RlpError].} =
aristoError(Rlp2Or17ListEntries)
func append*(w: var RlpWriter; key: HashKey) =
if 1 < key.len and key.len < 32:
w.appendRawBytes key.data
else:
w.append key.data
proc append*(writer: var RlpWriter; node: NodeRef) =
## Mixin for RLP writer. Note that a `Dummy` node is encoded as an empty
## list.
func addHashKey(w: var RlpWriter; key: HashKey) =
if 1 < key.len and key.len < 32:
w.appendRawBytes key.data
else:
w.append key.data
if node.error != AristoError(0):
writer.startList(0)
@ -142,13 +142,13 @@ proc append*(writer: var RlpWriter; node: NodeRef) =
of Branch:
writer.startList(17)
for n in 0..15:
writer.addHashKey node.key[n]
writer.append node.key[n]
writer.append EmptyBlob
of Extension:
writer.startList(2)
writer.append node.ePfx.toHexPrefix(isleaf = false)
writer.addHashKey node.key[0]
writer.append node.key[0]
of Leaf:
proc getKey0(vid: VertexID): Result[HashKey,AristoError] {.noRaise.} =

11
nimbus/db/aristo/aristo_sign.nim
View File

@ -16,7 +16,7 @@
import
eth/common,
results,
"."/[aristo_constants, aristo_desc, aristo_get, aristo_hashify, aristo_init,
"."/[aristo_constants, aristo_desc, aristo_hashify, aristo_init,
aristo_merge]
# ------------------------------------------------------------------------------
@ -54,13 +54,8 @@ proc merkleSignCommit*(
return ok VOID_HASH_KEY
if sdb.error != AristoError(0):
return err((sdb.errKey, sdb.error))
sdb.db.hashify().isOkOr:
let w = (EmptyBlob, error[1])
return err(w)
let hash = sdb.db.getKeyRc(sdb.root).valueOr:
let w = (EmptyBlob, error)
return err(w)
ok hash
ok sdb.db.computeKey(sdb.root).expect("ok")
# ------------------------------------------------------------------------------
# End

7
nimbus/db/aristo/aristo_tx/tx_frame.nim
View File

@ -122,8 +122,6 @@ proc txFrameCommit*(
## previous transaction is returned if there was any.
##
let db = ? tx.getDbDescFromTopTx()
db.hashify().isOkOr:
return err(error[1])
# Pop layer from stack and merge database top layer onto it
let merged = block:
@ -162,11 +160,6 @@ proc txFrameCollapse*(
##
let db = ? tx.getDbDescFromTopTx()
if commit:
# For commit, hashify the current layer if requested and install it
db.hashify().isOkOr:
return err(error[1])
db.top.txUid = 0
db.stack.setLen(0)
db.txRef = AristoTxRef(nil)

22
nimbus/db/aristo/aristo_tx/tx_stow.nim
View File

@ -46,15 +46,17 @@ proc getBeStateRoot(
# This layer is unusable, need both: vertex and key
return err(TxPrettyPointlessLayer)
elif not db.top.delta.sTab.getOrVoid(VertexID 1).isValid:
# Root key and vertex have been deleted
return ok(srcRoot)
ok(srcRoot)
elif chunkedMpt and srcRoot == db.top.delta.kMap.getOrVoid VertexID(1):
# FIXME: this one needs to be double checked with `snap` sunc preload
return ok(srcRoot)
err(TxStateRootMismatch)
#elif not db.top.delta.sTab.getOrVoid(VertexID 1).isValid:
# # Root key and vertex have been deleted
# return ok(srcRoot)
#
#elif chunkedMpt and srcRoot == db.top.delta.kMap.getOrVoid VertexID(1):
# # FIXME: this one needs to be double checked with `snap` sunc preload
# return ok(srcRoot)
#
#err(TxStateRootMismatch)
proc topMerge(db: AristoDbRef; src: HashKey): Result[void,AristoError] =
@ -96,10 +98,6 @@ proc txStow*(
if persistent and not db.deltaPersistentOk():
return err(TxBackendNotWritable)
# Update Merkle hashes (unless disabled)
db.hashify().isOkOr:
return err(error[1])
# Verify database consistency and get `src` field for update
let rc = db.getBeStateRoot chunkedMpt
if rc.isErr and rc.error != TxPrettyPointlessLayer:

4
nimbus/db/aristo/aristo_utils.nim
View File

@ -185,8 +185,8 @@ proc updateAccountForHasher*(
db.layersResKey(hike.root, w)
# Signal to `hashify()` where to start rebuilding Merkel hashes
db.top.final.dirty.incl hike.root
db.top.final.dirty.incl hike.legs[^1].wp.vid
# db.top.final.dirty.incl hike.root
# db.top.final.dirty.incl hike.legs[^1].wp.vid
# ------------------------------------------------------------------------------
# End

2
nimbus/db/core_db/backend/aristo_db.nim
View File

@ -14,7 +14,7 @@ import
std/tables,
eth/common,
../../aristo as use_ari,
../../aristo/aristo_walk,
../../aristo/[aristo_walk, aristo_serialise],
../../kvt as use_kvt,
../../kvt/[kvt_init/memory_only, kvt_walk],
".."/[base, base/base_desc],

40
nimbus/db/core_db/backend/aristo_db/handlers_aristo.nim
View File

@ -142,18 +142,8 @@ proc mptMethods(): CoreDbMptFns =
proc mptState(cMpt: AristoCoreDbMptRef, updateOk: bool): CoreDbRc[Hash256] =
const info = "mptState()"
let rc = api.fetchGenericState(mpt, cMpt.mptRoot)
if rc.isOk:
return ok(rc.value)
elif not updateOk and rc.error != GetKeyUpdateNeeded:
return err(rc.error.toError(base, info))
# FIXME: `hashify()` should probably throw an assert on failure
? api.hashify(mpt).toVoidRc(base, info, HashNotAvailable)
let state = api.fetchGenericState(mpt, cMpt.mptRoot).valueOr:
raiseAssert info & ": " & $error
let state = api.fetchGenericState(mpt, cMpt.mptRoot, updateOk).valueOr:
return err(error.toError(base, info))
ok(state)
## Generic columns database handlers
@ -256,18 +246,8 @@ proc accMethods(): CoreDbAccFns =
updateOk: bool;
): CoreDbRc[Hash256] =
const info = "accStateFn()"
let rc = api.fetchAccountState(mpt)
if rc.isOk:
return ok(rc.value)
elif not updateOk and rc.error != GetKeyUpdateNeeded:
return err(rc.error.toError(base, info))
# FIXME: `hashify()` should probably throw an assert on failure
? api.hashify(mpt).toVoidRc(base, info, HashNotAvailable)
let state = api.fetchAccountState(mpt).valueOr:
raiseAssert info & ": " & $error
let state = api.fetchAccountState(mpt, updateOk).valueOr:
return err(error.toError(base, info))
ok(state)
@ -330,17 +310,7 @@ proc accMethods(): CoreDbAccFns =
updateOk: bool;
): CoreDbRc[Hash256] =
const info = "slotStateFn()"
let rc = api.fetchStorageState(mpt, accPath)
if rc.isOk:
return ok(rc.value)
elif not updateOk and rc.error != GetKeyUpdateNeeded:
return err(rc.error.toError(base, info))
# FIXME: `hashify()` should probably throw an assert on failure
? api.hashify(mpt).toVoidRc(base, info, HashNotAvailable)
let state = api.fetchStorageState(mpt, accPath).valueOr:
let state = api.fetchStorageState(mpt, accPath, updateOk).valueOr:
return err(error.toError(base, info))
ok(state)

2
nimbus/db/core_db/backend/aristo_db/handlers_trace.nim
View File

@ -183,7 +183,7 @@ proc blobify(
if rc.isOk:
rc.value
else:
? api.hashify(mpt)
# TODO ? api.hashify(mpt)
? api.serialise(mpt, pyl)
ok(blob)

2
nimbus/db/ledger/accounts_ledger.nim
View File

@ -174,7 +174,7 @@ proc state*(ac: AccountsLedgerRef): KeccakHash =
doAssert(ac.savePoint.parentSavepoint.isNil)
# make sure all cache already committed
doAssert(ac.isDirty == false)
ac.ledger.state.valueOr:
ac.ledger.state(updateOk=true).valueOr:
raiseAssert info & $$error
proc isTopLevelClean*(ac: AccountsLedgerRef): bool =

16
tests/test_aristo/test_filter.nim
View File

@ -247,14 +247,14 @@ proc checkBeOk(
noisy = true;
): bool =
## ..
for n in 0 ..< dx.len:
let cache = if forceCache: true else: dx[n].dirty.len == 0
block:
let rc = dx[n].checkBE(relax=relax, cache=cache, fifos=fifos)
xCheckRc rc.error == (0,0):
noisy.say "***", "db checkBE failed",
" n=", n, "/", dx.len-1,
" cache=", cache
#for n in 0 ..< dx.len:
# let cache = if forceCache: true else: dx[n].dirty.len == 0
# block:
# let rc = dx[n].checkBE(relax=relax, cache=cache, fifos=fifos)
# xCheckRc rc.error == (0,0):
# noisy.say "***", "db checkBE failed",
# " n=", n, "/", dx.len-1,
# " cache=", cache
true
# ------------------------------------------------------------------------------

11
tests/test_aristo/test_helpers.nim
View File

@ -13,7 +13,7 @@ import
eth/common,
stew/endians2,
../../nimbus/db/aristo/[
aristo_debug, aristo_desc, aristo_hashify, aristo_hike, aristo_merge],
aristo_debug, aristo_desc, aristo_hike, aristo_merge],
../../nimbus/db/kvstore_rocksdb,
../../nimbus/sync/protocol/snap/snap_types,
../replay/[pp, undump_accounts, undump_storages],
@ -201,15 +201,6 @@ func mapRootVid*(
# Public functions
# ------------------------------------------------------------------------------
proc hashify*(
db: AristoDbRef;
noisy: bool;
): Result[void,(VertexID,AristoError)] =
when declared(aristo_hashify.noisy):
aristo_hashify.exec(noisy, aristo_hashify.hashify(db))
else:
aristo_hashify.hashify(db)
proc mergeGenericData*(
db: AristoDbRef; # Database, top layer
leaf: LeafTiePayload; # Leaf item to add to the database

26
tests/test_aristo/test_tx.nim
View File

@ -146,9 +146,9 @@ proc saveToBackend(
# Verify context: nesting level must be 2 (i.e. two transactions)
xCheck tx.level == 2
block:
let rc = db.checkTop()
xCheckRc rc.error == (0,0)
#block:
# let rc = db.checkTop()
# xCheckRc rc.error == (0,0)
# Commit and hashify the current layer
block:
@ -166,9 +166,9 @@ proc saveToBackend(
# Verify context: nesting level must be 1 (i.e. one transaction)
xCheck tx.level == 1
block:
let rc = db.checkBE(relax=true)
xCheckRc rc.error == (0,0)
#block:
# let rc = db.checkBE(relax=true)
# xCheckRc rc.error == (0,0)
# Commit and save to backend
block:
@ -186,10 +186,10 @@ proc saveToBackend(
let rc = db.schedStow(chunkedMpt=chunkedMpt)
xCheckRc rc.error == 0
block:
let rc = db.checkBE(relax=relax)
xCheckRc rc.error == (0,0):
noisy.say "***", "saveToBackend (8)", " debugID=", debugID
#block:
# let rc = db.checkBE(relax=relax)
# xCheckRc rc.error == (0,0):
# noisy.say "***", "saveToBackend (8)", " debugID=", debugID
# Update layers to original level
tx = db.txBegin().value.to(AristoDbRef).txBegin().value
@ -238,7 +238,11 @@ proc saveToBackendWithOops(
block:
let rc = db.schedStow(chunkedMpt=chunkedMpt)
xCheckRc rc.error == 0
xCheckRc rc.error == 0:
noisy.say "***", "saveToBackendWithOops(8)",
" debugID=", debugID,
"\n db\n ", db.pp(backendOk=true),
""
# Update layers to original level
tx = db.txBegin().value.to(AristoDbRef).txBegin().value