pezkuwichain/pezkuwi-subxt
1
0
Fork 0
mirror of https://github.com/pezkuwichain/pezkuwi-subxt.git synced 2026-07-18 18:45:41 +00:00
Code Issues Packages Projects Releases Wiki Activity

Markdown linter (#1309) (#2526)

Browse Source 
* Add markdown linting

- add linter default rules
- adapt rules to current code
- fix the code for linting to pass
- add CI check

fix #1243

* Fix markdown for Substrate
* Fix tooling install
* Fix workflow
* Add documentation
* Remove trailing spaces
* Update .github/.markdownlint.yaml

Co-authored-by: Oliver Tale-Yazdi <oliver.tale-yazdi@parity.io>
* Fix mangled markdown/lists
* Fix captalization issues on known words

(cherry picked from commit a30092ab42)

Co-authored-by: Chevdor <chevdor@users.noreply.github.com>
This commit is contained in:
Serban Iorga
2023-09-04 12:40:46 +03:00
committed by Bastian Köcher
parent 2c26640ac3
commit 91e5fc1e6d
7 changed files with 374 additions and 399 deletions
Download Patch File Download Diff File Expand all files Collapse all files
bridges/README.md
+58 -60
View File
@@ -2,11 +2,10 @@
This is a collection of components for building bridges.
These components include Substrate pallets for syncing headers, passing arbitrary messages, as well
as libraries for building relayers to provide cross-chain communication capabilities.
These components include Substrate pallets for syncing headers, passing arbitrary messages, as well as libraries for
building relayers to provide cross-chain communication capabilities.
Three bridge nodes are also available. The nodes can be used to run test networks which bridge other
Substrate chains.
Three bridge nodes are also available. The nodes can be used to run test networks which bridge other Substrate chains.
🚧 The bridges are currently under construction - a hardhat is recommended beyond this point 🚧
@@ -21,8 +20,8 @@ Substrate chains.
## Installation
To get up and running you need both stable and nightly Rust. Rust nightly is used to build the Web
Assembly (WASM) runtime for the node. You can configure the WASM support as so:
To get up and running you need both stable and nightly Rust. Rust nightly is used to build the Web Assembly (WASM)
runtime for the node. You can configure the WASM support as so:
```bash
rustup install nightly
@@ -38,8 +37,8 @@ cargo build --all
cargo test --all
```
Also you can build the repo with
[Parity CI Docker image](https://github.com/paritytech/scripts/tree/master/dockerfiles/bridges-ci):
Also you can build the repo with [Parity CI Docker
image](https://github.com/paritytech/scripts/tree/master/dockerfiles/bridges-ci):
```bash
docker pull paritytech/bridges-ci:production
@@ -57,16 +56,14 @@ docker run --rm -it -w /shellhere/parity-bridges-common \
If you want to reproduce other steps of CI process you can use the following
[guide](https://github.com/paritytech/scripts#reproduce-ci-locally).
If you need more information about setting up your development environment [Substrate's
Installation page](https://docs.substrate.io/main-docs/install/) is a good
resource.
If you need more information about setting up your development environment [Substrate's Installation
page](https://docs.substrate.io/main-docs/install/) is a good resource.
## High-Level Architecture
This repo has support for bridging foreign chains together using a combination of Substrate pallets
and external processes called relayers. A bridge chain is one that is able to follow the consensus
of a foreign chain independently. For example, consider the case below where we want to bridge two
Substrate based chains.
This repo has support for bridging foreign chains together using a combination of Substrate pallets and external
processes called relayers. A bridge chain is one that is able to follow the consensus of a foreign chain independently.
For example, consider the case below where we want to bridge two Substrate based chains.
```
+---------------+ +---------------+
@@ -82,19 +79,19 @@ Substrate based chains.
+---------------+
```
The Millau chain must be able to accept Rialto headers and verify their integrity. It does this by
using a runtime module designed to track GRANDPA finality. Since two blockchains can't interact
directly they need an external service, called a relayer, to communicate. The relayer will subscribe
to new Rialto headers via RPC and submit them to the Millau chain for verification.
The Millau chain must be able to accept Rialto headers and verify their integrity. It does this by using a runtime
module designed to track GRANDPA finality. Since two blockchains can't interact directly they need an external service,
called a relayer, to communicate. The relayer will subscribe to new Rialto headers via RPC and submit them to the Millau
chain for verification.
Take a look at [Bridge High Level Documentation](./docs/high-level-overview.md) for more in-depth
description of the bridge interaction.
Take a look at [Bridge High Level Documentation](./docs/high-level-overview.md) for more in-depth description of the
bridge interaction.
## Project Layout
Here's an overview of how the project is laid out. The main bits are the `bin`, which is the actual
"blockchain", the `modules` which are used to build the blockchain's logic (a.k.a the runtime) and
the `relays` which are used to pass messages between chains.
Here's an overview of how the project is laid out. The main bits are the `bin`, which is the actual "blockchain", the
`modules` which are used to build the blockchain's logic (a.k.a the runtime) and the `relays` which are used to pass
messages between chains.
```
├── bin // Node and Runtime for the various Substrate chains
@@ -117,16 +114,16 @@ the `relays` which are used to pass messages between chains.
## Running the Bridge
To run the Bridge you need to be able to connect the bridge relay node to the RPC interface of nodes
on each side of the bridge (source and target chain).
To run the Bridge you need to be able to connect the bridge relay node to the RPC interface of nodes on each side of the
bridge (source and target chain).
There are 2 ways to run the bridge, described below:
- building & running from source: with this option, you'll be able to run the bridge between two standalone
chains that are running GRANDPA finality gadget to achieve finality;
- building & running from source: with this option, you'll be able to run the bridge between two standalone chains that
are running GRANDPA finality gadget to achieve finality;
- running a Docker Compose setup: this is a recommended option, where you'll see bridges with parachains,
complex relays and more.
- running a Docker Compose setup: this is a recommended option, where you'll see bridges with parachains, complex relays
and more.
### Using the Source
@@ -141,16 +138,15 @@ cargo build -p substrate-relay
### Running a Dev network
We will launch a dev network to demonstrate how to relay a message between two Substrate based
chains (named Rialto and Millau).
We will launch a dev network to demonstrate how to relay a message between two Substrate based chains (named Rialto and
Millau).
To do this we will need two nodes, two relayers which will relay headers, and two relayers which
will relay messages.
To do this we will need two nodes, two relayers which will relay headers, and two relayers which will relay messages.
#### Running from local scripts
To run a simple dev network you can use the scripts located in the
[`deployments/local-scripts` folder](./deployments/local-scripts).
To run a simple dev network you can use the scripts located in the [`deployments/local-scripts`
folder](./deployments/local-scripts).
First, we must run the two Substrate nodes.
@@ -167,8 +163,8 @@ After the nodes are up we can run the header relayers.
./deployments/local-scripts/relay-rialto-to-millau.sh
```
At this point you should see the relayer submitting headers from the Millau Substrate chain to the
Rialto Substrate chain.
At this point you should see the relayer submitting headers from the Millau Substrate chain to the Rialto Substrate
chain.
```
# Header Relayer Logs
@@ -192,20 +188,23 @@ You will also see the message lane relayers listening for new messages.
[Millau_to_Rialto_MessageLane_00000000] [date] DEBUG bridge Asking Millau::ReceivingConfirmationsDelivery about best message nonces
[...] [date] INFO bridge Synced Some(2) of Some(3) nonces in Millau::MessagesDelivery -> Rialto::MessagesDelivery race
[...] [date] DEBUG bridge Asking Millau::MessagesDelivery about message nonces
[...] [date] DEBUG bridge Received best nonces from Millau::ReceivingConfirmationsDelivery: TargetClientNonces { latest_nonce: 0, nonces_data: () }
[...] [date] DEBUG bridge Received best nonces from Millau::ReceivingConfirmationsDelivery: TargetClientNonces {
latest_nonce: 0, nonces_data: () }
[...] [date] DEBUG bridge Asking Millau::ReceivingConfirmationsDelivery about finalized message nonces
[...] [date] DEBUG bridge Received finalized nonces from Millau::ReceivingConfirmationsDelivery: TargetClientNonces { latest_nonce: 0, nonces_data: () }
[...] [date] DEBUG bridge Received finalized nonces from Millau::ReceivingConfirmationsDelivery: TargetClientNonces {
latest_nonce: 0, nonces_data: () }
[...] [date] DEBUG bridge Received nonces from Millau::MessagesDelivery: SourceClientNonces { new_nonces: {}, confirmed_nonce: Some(0) }
[...] [date] DEBUG bridge Asking Millau node about its state
[...] [date] DEBUG bridge Received state from Millau node: ClientState { best_self: HeaderId(1593, 0xacac***), best_finalized_self: HeaderId(1590, 0x0be81d...), best_finalized_peer_at_best_self: HeaderId(0, 0xdcdd89...) }
[...] [date] DEBUG bridge Received state from Millau node: ClientState { best_self: HeaderId(1593, 0xacac***), best_finalized_self:
HeaderId(1590, 0x0be81d...), best_finalized_peer_at_best_self: HeaderId(0, 0xdcdd89...) }
```
To send a message see the ["How to send a message" section](#how-to-send-a-message).
### How to send a message
In this section we'll show you how to quickly send a bridge message. The message is just an encoded XCM
`Trap(43)` message.
In this section we'll show you how to quickly send a bridge message. The message is just an encoded XCM `Trap(43)`
message.
```bash
# In `parity-bridges-common` folder
@@ -222,20 +221,20 @@ TRACE bridge Sent transaction to Millau node: 0x5e68...
And at the Rialto node logs you'll something like this:
```
... runtime::bridge-messages: Received messages: total=1, valid=1. Weight used: Weight(ref_time: 1215065371, proof_size: 48559)/Weight(ref_time: 1215065371, proof_size: 54703).
```
... runtime::bridge-messages: Received messages: total=1, valid=1. Weight used: Weight(ref_time: 1215065371, proof_size:
48559)/Weight(ref_time: 1215065371, proof_size: 54703).
```
It means that the message has been delivered and dispatched. Message may be dispatched with an
error, though - the goal of our test bridge is to ensure that messages are successfully delivered
and all involved components are working.
It means that the message has been delivered and dispatched. Message may be dispatched with an error, though - the goal
of our test bridge is to ensure that messages are successfully delivered and all involved components are working.
## Full Network Docker Compose Setup
For a more sophisticated deployment which includes bidirectional header sync, message passing,
monitoring dashboards, etc. see the [Deployments README](./deployments/README.md).
For a more sophisticated deployment which includes bidirectional header sync, message passing, monitoring dashboards,
etc. see the [Deployments README](./deployments/README.md).
You should note that you can find images for all the bridge components published on
[Docker Hub](https://hub.docker.com/u/paritytech).
You should note that you can find images for all the bridge components published on [Docker
Hub](https://hub.docker.com/u/paritytech).
To run a Rialto node for example, you can use the following command:
@@ -247,13 +246,12 @@ docker run -p 30333:30333 -p 9933:9933 -p 9944:9944 \
## Community
Main hangout for the community is [Element](https://element.io/) (formerly Riot). Element is a chat
server like, for example, Discord. Most discussions around Polkadot and Substrate happen
in various Element "rooms" (channels). So, joining Element might be a good idea, anyway.
Main hangout for the community is [Element](https://element.io/) (formerly Riot). Element is a chat server like, for
example, Discord. Most discussions around Polkadot and Substrate happen in various Element "rooms" (channels). So,
joining Element might be a good idea, anyway.
If you are interested in information exchange and development of Polkadot related bridges please
feel free to join the [Polkadot Bridges](https://app.element.io/#/room/#bridges:web3.foundation)
Element channel.
If you are interested in information exchange and development of Polkadot related bridges please feel free to join the
[Polkadot Bridges](https://app.element.io/#/room/#bridges:web3.foundation) Element channel.
The [Substrate Technical](https://app.element.io/#/room/#substrate-technical:matrix.org) Element
channel is most suited for discussions regarding Substrate itself.
The [Substrate Technical](https://app.element.io/#/room/#substrate-technical:matrix.org) Element channel is most suited
for discussions regarding Substrate itself.