Add deploy basic contract (new IA)

.ai/categories/basics.md

@@ -256,7 +256,7 @@ First, you'll update the runtime's `Cargo.toml` file to include the Utility pall
 1. Open the `runtime/Cargo.toml` file and locate the `[dependencies]` section. Add pallet-utility as one of the features for the `polkadot-sdk` dependency with the following line:
 
     ```toml hl_lines="4" title="runtime/Cargo.toml"
-    [dependencies]
+
     ...
     polkadot-sdk = { workspace = true, features = [
       "pallet-utility",
@@ -267,7 +267,7 @@ First, you'll update the runtime's `Cargo.toml` file to include the Utility pall
 2. In the same `[dependencies]` section, add the custom pallet that you built from scratch with the following line:
 
     ```toml hl_lines="3" title="Cargo.toml"
-    [dependencies]
+
     ...
     custom-pallet = { path = "../pallets/custom-pallet", default-features = false }
     ```
@@ -3274,23 +3274,7 @@ To create the ERC-20 contract, you can follow the steps below:
 3. Now, paste the following ERC-20 contract code into the editor:
 
     ```solidity title="MyToken.sol"
-    // SPDX-License-Identifier: MIT
-    // Compatible with OpenZeppelin Contracts ^5.0.0
-    pragma solidity ^0.8.22;
-
-    import {ERC20} from "@openzeppelin/contracts/token/ERC20/ERC20.sol";
-    import {Ownable} from "@openzeppelin/contracts/access/Ownable.sol";
-
-    contract MyToken is ERC20, Ownable {
-        constructor(address initialOwner)
-            ERC20("MyToken", "MTK")
-            Ownable(initialOwner)
-        {}
-
-        function mint(address to, uint256 amount) public onlyOwner {
-            _mint(to, amount);
-        }
-    }
+
     ```
 
     The key components of the code above are:
@@ -3608,26 +3592,7 @@ To create the NFT contract, you can follow the steps below:
 3. Now, paste the following NFT contract code into the editor.
 
     ```solidity title="MyNFT.sol"
-    // SPDX-License-Identifier: MIT
-    // Compatible with OpenZeppelin Contracts ^5.0.0
-    pragma solidity ^0.8.22;
-
-    import {ERC721} from "@openzeppelin/contracts/token/ERC721/ERC721.sol";
-    import {Ownable} from "@openzeppelin/contracts/access/Ownable.sol";
-
-    contract MyToken is ERC721, Ownable {
-        uint256 private _nextTokenId;
-
-        constructor(address initialOwner)
-            ERC721("MyToken", "MTK")
-            Ownable(initialOwner)
-        {}
-
-        function safeMint(address to) public onlyOwner {
-            uint256 tokenId = _nextTokenId++;
-            _safeMint(to, tokenId);
-        }
-    }
+
     ```
 
     The key components of the code above are:
@@ -9254,8 +9219,7 @@ The [`XcmRouter`](https://paritytech.github.io/polkadot-sdk/master/pallet_xcm/pa
 For instance, the Kusama network employs the [`ChildParachainRouter`](https://paritytech.github.io/polkadot-sdk/master/polkadot_runtime_common/xcm_sender/struct.ChildParachainRouter.html){target=\_blank}, which restricts routing to [Downward Message Passing (DMP)](https://wiki.polkadot.com/learn/learn-xcm-transport/#dmp-downward-message-passing){target=\_blank} from the relay chain to parachains, ensuring secure and controlled communication.
 
 ```rust
-pub type PriceForChildParachainDelivery =
-	ExponentialPrice<FeeAssetId, BaseDeliveryFee, TransactionByteFee, Dmp>;
+
 ```
 
 For more details about XCM transport protocols, see the [XCM Channels](/develop/interoperability/xcm-channels/){target=\_blank} page.
@@ -10381,27 +10345,7 @@ The `xcm-emulator` provides macros for defining a mocked testing environment. Ch
 - **[`decl_test_relay_chains`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L361){target=\_blank}**: Defines runtime and configuration for the relay chains. Example:
 
     ```rust
-    decl_test_relay_chains! {
-    	#[api_version(13)]
-    	pub struct Westend {
-    		genesis = genesis::genesis(),
-    		on_init = (),
-    		runtime = westend_runtime,
-    		core = {
-    			SovereignAccountOf: westend_runtime::xcm_config::LocationConverter,
-    		},
-    		pallets = {
-    			XcmPallet: westend_runtime::XcmPallet,
-    			Sudo: westend_runtime::Sudo,
-    			Balances: westend_runtime::Balances,
-    			Treasury: westend_runtime::Treasury,
-    			AssetRate: westend_runtime::AssetRate,
-    			Hrmp: westend_runtime::Hrmp,
-    			Identity: westend_runtime::Identity,
-    			IdentityMigrator: westend_runtime::IdentityMigrator,
-    		}
-    	},
-    }
+
     ```
 
 - **[`decl_test_parachains`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L596){target=\_blank}**: Defines runtime and configuration for parachains. Example:
@@ -10438,38 +10382,13 @@ The `xcm-emulator` provides macros for defining a mocked testing environment. Ch
 - **[`decl_test_bridges`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L1221){target=\_blank}**: Creates bridges between chains, specifying the source, target, and message handler. Example:
 
     ```rust
-    decl_test_bridges! {
-    	pub struct RococoWestendMockBridge {
-    		source = BridgeHubRococoPara,
-    		target = BridgeHubWestendPara,
-    		handler = RococoWestendMessageHandler
-    	},
-    	pub struct WestendRococoMockBridge {
-    		source = BridgeHubWestendPara,
-    		target = BridgeHubRococoPara,
-    		handler = WestendRococoMessageHandler
-    	}
-    }
+
     ```
 
 - **[`decl_test_networks`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L958){target=\_blank}**: Defines a testing network with relay chains, parachains, and bridges, implementing message transport and processing logic. Example:
 
     ```rust
-    decl_test_networks! {
-    	pub struct WestendMockNet {
-    		relay_chain = Westend,
-    		parachains = vec![
-    			AssetHubWestend,
-    			BridgeHubWestend,
-    			CollectivesWestend,
-    			CoretimeWestend,
-    			PeopleWestend,
-    			PenpalA,
-    			PenpalB,
-    		],
-    		bridge = ()
-    	},
-    }
+
     ```
 
 By leveraging these macros, developers can customize their testing networks by defining relay chains and parachains tailored to their needs. For guidance on implementing a mock runtime for a Polkadot SDK-based chain, refer to the [Pallet Testing](/parachains/customize-runtime/pallet-development/pallet-testing/){target=\_blank} article. 

.ai/categories/dapps.md

@@ -257,7 +257,7 @@ First, you'll update the runtime's `Cargo.toml` file to include the Utility pall
 1. Open the `runtime/Cargo.toml` file and locate the `[dependencies]` section. Add pallet-utility as one of the features for the `polkadot-sdk` dependency with the following line:
 
     ```toml hl_lines="4" title="runtime/Cargo.toml"
-    [dependencies]
+
     ...
     polkadot-sdk = { workspace = true, features = [
       "pallet-utility",
@@ -268,7 +268,7 @@ First, you'll update the runtime's `Cargo.toml` file to include the Utility pall
 2. In the same `[dependencies]` section, add the custom pallet that you built from scratch with the following line:
 
     ```toml hl_lines="3" title="Cargo.toml"
-    [dependencies]
+
     ...
     custom-pallet = { path = "../pallets/custom-pallet", default-features = false }
     ```
@@ -4497,23 +4497,7 @@ To create the ERC-20 contract, you can follow the steps below:
 3. Now, paste the following ERC-20 contract code into the editor:
 
     ```solidity title="MyToken.sol"
-    // SPDX-License-Identifier: MIT
-    // Compatible with OpenZeppelin Contracts ^5.0.0
-    pragma solidity ^0.8.22;
-
-    import {ERC20} from "@openzeppelin/contracts/token/ERC20/ERC20.sol";
-    import {Ownable} from "@openzeppelin/contracts/access/Ownable.sol";
-
-    contract MyToken is ERC20, Ownable {
-        constructor(address initialOwner)
-            ERC20("MyToken", "MTK")
-            Ownable(initialOwner)
-        {}
-
-        function mint(address to, uint256 amount) public onlyOwner {
-            _mint(to, amount);
-        }
-    }
+
     ```
 
     The key components of the code above are:
@@ -4831,26 +4815,7 @@ To create the NFT contract, you can follow the steps below:
 3. Now, paste the following NFT contract code into the editor.
 
     ```solidity title="MyNFT.sol"
-    // SPDX-License-Identifier: MIT
-    // Compatible with OpenZeppelin Contracts ^5.0.0
-    pragma solidity ^0.8.22;
-
-    import {ERC721} from "@openzeppelin/contracts/token/ERC721/ERC721.sol";
-    import {Ownable} from "@openzeppelin/contracts/access/Ownable.sol";
-
-    contract MyToken is ERC721, Ownable {
-        uint256 private _nextTokenId;
-
-        constructor(address initialOwner)
-            ERC721("MyToken", "MTK")
-            Ownable(initialOwner)
-        {}
-
-        function safeMint(address to) public onlyOwner {
-            uint256 tokenId = _nextTokenId++;
-            _safeMint(to, tokenId);
-        }
-    }
+
     ```
 
     The key components of the code above are:
@@ -15313,8 +15278,7 @@ The [`XcmRouter`](https://paritytech.github.io/polkadot-sdk/master/pallet_xcm/pa
 For instance, the Kusama network employs the [`ChildParachainRouter`](https://paritytech.github.io/polkadot-sdk/master/polkadot_runtime_common/xcm_sender/struct.ChildParachainRouter.html){target=\_blank}, which restricts routing to [Downward Message Passing (DMP)](https://wiki.polkadot.com/learn/learn-xcm-transport/#dmp-downward-message-passing){target=\_blank} from the relay chain to parachains, ensuring secure and controlled communication.
 
 ```rust
-pub type PriceForChildParachainDelivery =
-	ExponentialPrice<FeeAssetId, BaseDeliveryFee, TransactionByteFee, Dmp>;
+
 ```
 
 For more details about XCM transport protocols, see the [XCM Channels](/develop/interoperability/xcm-channels/){target=\_blank} page.
@@ -17176,27 +17140,7 @@ The `xcm-emulator` provides macros for defining a mocked testing environment. Ch
 - **[`decl_test_relay_chains`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L361){target=\_blank}**: Defines runtime and configuration for the relay chains. Example:
 
     ```rust
-    decl_test_relay_chains! {
-    	#[api_version(13)]
-    	pub struct Westend {
-    		genesis = genesis::genesis(),
-    		on_init = (),
-    		runtime = westend_runtime,
-    		core = {
-    			SovereignAccountOf: westend_runtime::xcm_config::LocationConverter,
-    		},
-    		pallets = {
-    			XcmPallet: westend_runtime::XcmPallet,
-    			Sudo: westend_runtime::Sudo,
-    			Balances: westend_runtime::Balances,
-    			Treasury: westend_runtime::Treasury,
-    			AssetRate: westend_runtime::AssetRate,
-    			Hrmp: westend_runtime::Hrmp,
-    			Identity: westend_runtime::Identity,
-    			IdentityMigrator: westend_runtime::IdentityMigrator,
-    		}
-    	},
-    }
+
     ```
 
 - **[`decl_test_parachains`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L596){target=\_blank}**: Defines runtime and configuration for parachains. Example:
@@ -17233,38 +17177,13 @@ The `xcm-emulator` provides macros for defining a mocked testing environment. Ch
 - **[`decl_test_bridges`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L1221){target=\_blank}**: Creates bridges between chains, specifying the source, target, and message handler. Example:
 
     ```rust
-    decl_test_bridges! {
-    	pub struct RococoWestendMockBridge {
-    		source = BridgeHubRococoPara,
-    		target = BridgeHubWestendPara,
-    		handler = RococoWestendMessageHandler
-    	},
-    	pub struct WestendRococoMockBridge {
-    		source = BridgeHubWestendPara,
-    		target = BridgeHubRococoPara,
-    		handler = WestendRococoMessageHandler
-    	}
-    }
+
     ```
 
 - **[`decl_test_networks`](https://github.com/paritytech/polkadot-sdk/blob/polkadot-stable2506-2/cumulus/xcm/xcm-emulator/src/lib.rs#L958){target=\_blank}**: Defines a testing network with relay chains, parachains, and bridges, implementing message transport and processing logic. Example:
 
     ```rust
-    decl_test_networks! {
-    	pub struct WestendMockNet {
-    		relay_chain = Westend,
-    		parachains = vec![
-    			AssetHubWestend,
-    			BridgeHubWestend,
-    			CollectivesWestend,
-    			CoretimeWestend,
-    			PeopleWestend,
-    			PenpalA,
-    			PenpalB,
-    		],
-    		bridge = ()
-    	},
-    }
+
     ```
 
 By leveraging these macros, developers can customize their testing networks by defining relay chains and parachains tailored to their needs. For guidance on implementing a mock runtime for a Polkadot SDK-based chain, refer to the [Pallet Testing](/parachains/customize-runtime/pallet-development/pallet-testing/){target=\_blank} article. 
@@ -19312,7 +19231,7 @@ This API can be used independently for dry-running, double-checking, or testing.
 This API allows a dry-run of any extrinsic and obtaining the outcome if it fails or succeeds, as well as the local xcm and remote xcm messages sent to other chains.
 
 ```rust
-fn dry_run_call(origin: OriginCaller, call: Call, result_xcms_version: XcmVersion) -> Result<CallDryRunEffects<Event>, Error>;
+
 ```
 
 ??? interface "Input parameters"
@@ -19589,7 +19508,7 @@ fn dry_run_call(origin: OriginCaller, call: Call, result_xcms_version: XcmVersio
 This API allows the direct dry-run of an xcm message instead of an extrinsic one, checks if it will execute successfully, and determines what other xcm messages will be forwarded to other chains.
 
 ```rust
-fn dry_run_xcm(origin_location: VersionedLocation, xcm: VersionedXcm<Call>) -> Result<XcmDryRunEffects<Event>, Error>;
+
 ```
 
 ??? interface "Input parameters"
@@ -19820,7 +19739,7 @@ To use the API effectively, the client must already know the XCM program to be e
 Retrieves the list of assets that are acceptable for paying fees when using a specific XCM version
 
 ```rust
-fn query_acceptable_payment_assets(xcm_version: Version) -> Result<Vec<VersionedAssetId>, Error>;
+
 ```
 
 ??? interface "Input parameters"
@@ -19908,7 +19827,7 @@ fn query_acceptable_payment_assets(xcm_version: Version) -> Result<Vec<Versioned
 Calculates the weight required to execute a given XCM message. It is useful for estimating the execution cost of a cross-chain message in the destination chain before sending it.
 
 ```rust
-fn query_xcm_weight(message: VersionedXcm<()>) -> Result<Weight, Error>;
+
 ```
 
 ??? interface "Input parameters"
@@ -20051,7 +19970,7 @@ fn query_xcm_weight(message: VersionedXcm<()>) -> Result<Weight, Error>;
 Converts a given weight into the corresponding fee for a specified `AssetId`. It allows clients to determine the cost of execution in terms of the desired asset.
 
 ```rust
-fn query_weight_to_asset_fee(weight: Weight, asset: VersionedAssetId) -> Result<u128, Error>;
+
 ```
 
 ??? interface "Input parameters"
@@ -20156,7 +20075,7 @@ fn query_weight_to_asset_fee(weight: Weight, asset: VersionedAssetId) -> Result<
 Retrieves the delivery fees for sending a specific XCM message to a designated destination. The fees are always returned in a specific asset defined by the destination chain.
 
 ```rust
-fn query_delivery_fees(destination: VersionedLocation, message: VersionedXcm<()>) -> Result<VersionedAssets, Error>;
+
 ```
 
 ??? interface "Input parameters"