code display

docs/tutorial/earlyWin.md

@@ -7,7 +7,8 @@ displayed_sidebar: tutorialSidebar
 
 In this short guide we’ll encrypt plaintext to ciphertext using FHE, demonstrating how simple it is to enable confidentiality in your smart contracts with Fhenix.
 
-    ```solidity
+- **Contract Example:**
+    ```Javascript
     pragma solidity ^0.8.17;
 
     import "@fhenixprotocol/contracts/FHE.sol";
@@ -41,19 +42,8 @@ In this short guide we’ll encrypt plaintext to ciphertext using FHE, demonstra
 
 First, FHE is imported directly into your contract with a single line of code. Next we establish two numbers or unsigned integers, withhowever the _cipherText number beingwill be encrypted. This means that it will not be publicly accessible from anyone other than the intended viewer. The standard _plaintext unit8 represents a number that is public for all to view. On line 11 we have a setter function that allows us to pass in a new encrypted number that will stay private. On line 21 we have a decrypt function that allows us to view the number that was written to state in the setCipherText function. As you can see there is no requirement for off-chain proof generation or storage. 
 
-    ```solidity
-    import "@fhenixprotocol/contracts/FHE.sol";
-    ```
-We are able to import the FHE precompiles directly into the smart contract with a single line of code. The power of FHE in one single line of copy pasta. 
-
-    ```solidity
-    function getSensitiveData(Permission calldata perm) public view onlySender(perm) returns (string memory) {
-        // Logic to return sensitive data
-    }
+    ```Javascript
+        import "@fhenixprotocol/contracts/FHE.sol";
+
     ```
 
-    ```solidity
-    function getSensitiveData(Permission calldata perm) public view onlySender(perm) returns (string memory) {
-        // Logic to return sensitive data
-    }
-    ```