diff --git a/docs/architecture/adr-010.md b/docs/architecture/adr-010.md
index 49ef38d7cf..678d3d01e8 100644
--- a/docs/architecture/adr-010.md
+++ b/docs/architecture/adr-010.md
@@ -16,7 +16,7 @@ App-chain specific logics can be embedded to the pre-compiled so that it could b
 ### Fork go-ethereum for stateful precompiled support
 
 One of the major difficulties in supporting pre-compiled is the lack of flexibility in geth for defining custom precompiled and its non-ability to modify the state.
-We made the choice of forking geth and implement additional interfaces and logics so that app-chain can define its own precompiled.
+We made the choice of forking geth and implement additional interfaces so that app-chain can define its own precompiled.
 
 The PR [#7](https://github.com/evmos/go-ethereum/pull/7) implements the ability to set custom precompiled to the EVM.
 while this PR [#10](https://github.com/evmos/go-ethereum/pull/10) allows the precompiled to modify the state (for stateful precompiled)
@@ -26,9 +26,7 @@ In the future, we are planning to maintain the following fork permanently
 
 ### Implement pre-compiled for cosmos native module
 
-We provide pre-compile for cosmos native module such as bank module.
-
-The input and output of methods are mapped with those defined cosmos native transactions
+We provide pre-compiles for cosmos native module such as bank module.
 
 ```solidity
 
@@ -41,10 +39,14 @@ interface IBankModule {
 
 
 ```
+The input and output of methods are mapped with those defined cosmos native transactions.
+Because the precompiled is called at the evm layer, it uses the evm authentication instead of the cosmos authentication for transactions.
+It is important to define for each precompiled module the range of action "authorized" for each request.
+For the bank module, the precompiled is authenticated with `msg.sender` address. The smart contracts or users can only mint/burn cosmos coins denoted by the denom `evm/0x{msg.sender}` or transfer coins from the `0x{msg.sender}` account.
 
-To call a precompiled, create an instance of the module interface with the precompiled address. 
-The methods are ABI encoded, and can be called directly as calling the function through the interface:
 
+To call a precompiled from a smart contract, create an instance of the module interface with the precompiled address. 
+The methods are ABI encoded, and can be called directly as calling the function through the interface:
 
 ```solidity
 
@@ -94,26 +96,33 @@ const (
 -> TODO describe the change in go-relayer
 
 #### ICA
-For ICA, we are following the same standard as for the cosmos module.
-The ICA precompiled interface is defined by:
+
+The ICA precompiled interface is defined by :
 
 ```solidity
 interface IICAModule {
     event SubmitMsgsResult(uint64 seq);
+    
     function registerAccount(string calldata connectionID, string calldata version) external payable returns (bool);
     function queryAccount(string calldata connectionID, address addr) external view returns (string memory);
     function submitMsgs(string calldata connectionID, bytes calldata data, uint256 timeout) external payable returns (uint64);
 }
 ```
+The request is authenticated by `msg.sender` and it can only send request on behalf of this account.
 
-The calldata in `submitMsgs` represents the cosmos proto-encoded msg to be sent to the destination app-chain. Only one msg is supported at the moment.
+The calldata in `submitMsgs` represents the cosmos proto-encoded message to be sent to the destination app-chain. Only one message can be sent at the moment.
 
-For example to call a bank transaction to another app-chain
+For example to call a bank transaction to another app-chain :
 
 ```solidity
-#todo
-```
 
+     function ICACallBank(string memory connectionID, uint256 timeout, params.....) public returns (uint64)  {
+        msg = bankMsgSendProto.encode(params)
+        lastSeq = ica.submitMsgs(connectionID, msg, timeout);
+        return lastSeq;
+    }
+
+```
 
 In case of ICA, it is also important to be able to track the result of the transaction `submitMsgs` so that the user or the smart contract can respond accordingly.
 The function `submitMsgs` returns a sequence number that can be used by the user or smart contract to track the state of the msg using the precompiled `ICACallback`.