This is a preparatory PR to add additional APIs (Pinning Service API) easily
to cluster.
Instead of copy-pasting most of what the REST API does, I have refactored so
that the whole configuration, routing and request-handling utilities can be
re-used.
The worst part has been to divide the test between tests that test core
(common.API) functionality and tests that test specific REST API endpoint
functionality. I could not get away without an additional common/test package
to provide functions that are used from both places. This is a side effect of
testing both http and libp2p endpoints for every request etc.
This commit updates the WaitFor StatusFilterParams to add a Limit field, and
reworks the waiting logic to simplify it.
The Limit parameter causes WaitFor to return successfully when N number of
peers have reached the target status, regardless of what other statuses are
(as long as they are not errors)
Other than that, the function logic should remain the same, blocking until all
statuses are the target, with a special case about target-Pinned, which causes
Remote statuses to be ignored.
This commit adds a new add option: "format".
This option specifies how IPFS Cluster is expected to build the DAG when
adding content. By default, it takes a "unixfs", which chunks and DAG-ifies as
it did before, resulting in a UnixFSv1 DAG.
Alternatively, it can be set to "car". In this case, Cluster will directly
read blocks from the CAR file and add them.
Adding CAR files or doing normal processing is independent from letting
cluster do sharding or not. If sharding is ever enabled, Cluster could
potentially shard a large CAR file among peers.
Currently, importing CAR files is limited to a single CAR file with a single
root (the one that is pinned). Future iterations may support multiple CARs
and/or multiple roots by transparently wrapping them.
Instead they should use noise, and fallback to tls.
This should not break compatibility with previous versions as both old and new
are able to speak tls.
Fixes#1315
GlobalPinInfo objects carried redundant information (Cid, Peer) that takes
space and time to serialize.
This has been addressed by having GlobalPinInfo embed PinInfoShort rather than
PinInfo. This new types ommits redundant fields.
* Libp2p protectors no longer needed, use PSK directly
* Generate cluster 32-byte secret here (helper gone from pnet)
* Switch to go-log/v2 in all places
* DHT bootstrapping not needed. Adjust DHT options for tests.
* Do not rely on dissappeared CidToDsKey and DsKeyToCid functions fro dshelp.
* Disable QUIC (does not support private networks)
* Fix tests: autodiscovery started working properly
* add ipv6 listening addresses to the default config
* ipfsproxy: support multiple listeners. Add default ipv6.
* mm
* restapi: support multiple listen addresses. enable ipv6
* cluster_config: format default listen addresses
* commands: update for multiple listeners. Fix randomports for udp and ipv6.
* ipfs-cluster-service: fix randomports test
* multiple listeners: fix remaining tests
* golint
* Disable ipv6 in defaults
It is not supported by docker by default. It is not supported in travis-CI
build environments. User can enable it now manually.
* proxy: disable ipv6 in test
* ipfshttp: fix test
Co-authored-by: @RubenKelevra <cyrond@gmail.com>
This removes mappintracker and sets stateless tracker as the default (and only) pintracker component.
Because the stateless tracker matches the cluster state with only ongoing operations being kept on memory, and additional information provided by ipfs-pin-ls, syncing operations are not necessary. Therefore the Sync/SyncAll operations are removed cluster-wide.
This adds a new PinOption: ExpireAt.
The StateSync ticker will check and unpin expired pins from the Cluster.
ipfs-cluster-ctl supports an "expire-in" which gives a duration.
- Human-sizes for freespace metrics. Display whether if metric is
expires in something like "expires in 3m".
- When not passing metric name `ipfs-cluster-ctl health metrics` hits
the the metrics endpoint which returns a list of available metrics and
displays to user
- Humanize metrics output
- Sort metrics output
- cluster method, ipfs connector method, rpc and rest apis,
command, etc for repo gc
- Remove extra space from policy generator
- Added special timeout for `/repo/gc` call to IPFS
- Added `RepoGCLocal` cluster rpc method, which will be used to run gc
on local IPFS daemon
- Added peer name to the repo gc struct
- Sorted with peer ids, while formatting(only affects cli
results)
- Special timeout setting where timeout gets checked from last update
- Added `local` argument, which would run gc only on contacted peer
* Improve pin/unpin method signatures:
These changes the following Cluster Go API methods:
* -> Cluster.Pin(ctx, cid, options) (pin, error)
* -> Cluster.Unpin(ctx, cid) (pin, error)
* -> Cluster.PinPath(ctx, path, opts) (pin,error)
Pin and Unpin now return the pinned object.
The signature of the methods now matches that of the API Client, is clearer as
to what options the user can set and is aligned with PinPath, UnpinPath, which
returned pin methods.
The REST API now returns the Pinned/Unpinned object rather than 204-Accepted.
This was necessary for a cleaner pin/update approach, which I'm working on in
another branch.
Most of the changes here are updating tests to the new signatures
* Adapt load-balancing client to new Pin/Unpin signatures
* cluster.go: Fix typo
Co-Authored-By: Kishan Sagathiya <kishansagathiya@gmail.com>
* cluster.go: Fix typo
Co-Authored-By: Kishan Sagathiya <kishansagathiya@gmail.com>
This adds a LoadBalancing rest client implementation which is initialized with a set of client configurations and can use two strategies: failover and roundrobin (more strategies can be added by implementing the LBStrategy interface).
Currently, unless doing Join() (--bootstrap), we do not connect to any peers on startup.
We however loaded up the peerstore file and Raft will automatically connect
older peers to figure out who is the leader etc. DHT bootstrap, after Raft
was working, did the rest.
For CRDTs we need to connect to people on a normal boot as otherwise, unless
bootstrapping, this does not happen, even if the peerstore contains known peers.
This introduces a number of changes:
* Move peerstore file management back inside the Cluster component, which was
already in charge of saving the peerstore file.
* We keep saving all "known addresses" but we load them with a non permanent
TTL, so that there will be clean up of peers we're not connected to for long.
* "Bootstrap" (connect) to a small number of peers during Cluster component creation.
* Bootstrap the DHT asap after this, so that other cluster components can
initialize with a working peer discovery mechanism.
* CRDT Trust() method will now:
* Protect the trusted Peer ID in the conn manager
* Give top priority in the PeerManager to that Peer (see below)
* Mark addresses as permanent in the Peerstore
The PeerManager now attaches priorities to peers when importing them and is
able to order them according to that priority. The result is that peers with
high priority are saved first in the peerstore file. When we load the peerstore
file, the first entries in it are given the highest priority.
This means that during startup we will connect to "trusted peers" first
(because they have been tagged with priority in the previous run and saved at
the top of the list). Once connected to a small number of peers, we let the
DHT bootstrap process in the background do the rest and discover the network.
All this makes the peerstore file a "bootstrap" list for CRDTs and we will attempt
to connect to peers on that list until some of those connections succeed.
This adds a new "crdt" consensus component using go-ds-crdt.
This implies several refactors to fully make cluster consensus-component
independent:
* Delete mapstate and fully adopt dsstate (after people have migrated).
* Return errors from state methods rather than ignoring them.
* Add a new "datastore" modules so that we can configure datastores in the
main configuration like other components.
* Let the consensus components fully define the "state.State". Thus, they do
not receive the state, they receive the storage where we put the state (a
go-datastore).
* Allow to customize how the monitor component obtains Peers() (the current
peerset), including avoiding using the current peerset. At the moment the
crdt consensus uses the monitoring component to define the current peerset.
Therefore the monitor component cannot rely on the consensus component to
produce a peerset.
* Re-factor/re-implementation of "ipfs-cluster-service state"
operations. Includes the dissapearance of the "migrate" one.
The CRDT consensus component defines creates a crdt-datastore (with ipfs-lite)
and uses it to intitialize a dssate. Thus the crdt-store is elegantly
wrapped. Any modifications to the state get automatically replicated to other
peers. We store all the CRDT DAG blocks in the local datastore.
The consensus components only expose a ReadOnly state, as any modifications to
the shared state should happen through them.
DHT and PubSub facilities must now be created outside of Cluster and passed in
so they can be re-used by different components.
