RECEH Token Security Audit Report

Report Number: RECEH-2026-07-30-001
Date of Issue: July 30, 2026
Final Risk Classification: LOW
Audited by: CryptoRECEH Dev Team
Document Version: 1.0 Final

1. EXECUTIVE SUMMARY & OVERALL ASSESSMENT

A comprehensive security assessment has been conducted on the RECEH token smart contract operating on the BNB Smart Chain (BSC) network. The contract is a standard, non-upgradeable ERC-20 token implementation built entirely using OpenZeppelin’s battle-tested and extensively audited libraries. The token incorporates no custom logic, transaction taxes, or administrative functions beyond the initial minting of the total supply during deployment.

KEY FINDINGS:
The contract DOES NOT contain any critical, high, or medium severity vulnerabilities. The token is NOT a honeypot, has NO minting functions, NO blacklist mechanisms, and ownership has been EFFECTIVELY RENOUNCED. The primary risk identified is economic and centralization-related, which is a common characteristic for new token launches and is not a technical vulnerability.

FINAL VERDICT: SECURE FOR USE

2. SCOPE & AUDIT METHODOLOGY

2.1. Audit Scope

2.2. Methodology & Tools

The audit was conducted using a multi-layered approach encompassing both static and dynamic analysis:

1. Manual Code Review: In-depth inspection of every line of Solidity code to identify logic errors, security vulnerabilities, and deviations from best practices (such as access controls, integer handling, and state management).
2. Automated Static Analysis: The contract was scanned using industry-standard static analysis tools to automatically detect known vulnerability patterns, including:
   • Reentrancy attacks
   • Integer overflow/underflow (though natively safe in Solidity ^0.8.x)
   • Dangerous usage of tx.origin
   • Unused variables or naming conflicts
3. On-Chain Verification: Verified that the deployed bytecode matches the source code on BscScan and analyzed security metrics from aggregators such as Go+ Security and Honeypot.is to detect any known risk indicators.
4. Dependency Analysis: Evaluated all external libraries imported to ensure no known vulnerabilities exist in the versions used.

3. CONTRACT ARCHITECTURE & FUNCTIONALITY

The RECEH contract is extremely simple and deviates NOTHING from the ERC-20 standard. This design is intentional to minimize the attack surface.

3.1. Workflow

The only operational flow occurs during deployment:

1. The contract constructor is called with one argument: address recipient.
2. The contract sets the token name (“RECEH”) and symbol (“RECEH”).
3. The contract IMMEDIATELY MINTS the entire 100,000,000 token supply and sends it to the recipient.
4. NO OTHER FUNCTIONS exist that can alter the contract state after this step.

3.2. Dependencies

The contract imports the following modules from OpenZeppelin Contracts version 5.5.0:

• IERC20.sol
• IERC20Metadata.sol
• Context.sol
• draft-IERC6093.sol (for custom errors)
• ERC20.sol

All modules are standard, well-audited libraries from the OpenZeppelin team and the broader community.

4. DETAILED TECHNICAL VULNERABILITY ANALYSIS

4.1. Line-by-Line Code Review

Below is a thorough review of the ENTIRE business logic code within the contract:

// Compatible with OpenZeppelin Contracts ^5.5.0
pragma solidity ^0.8.27;

contract RECEH is ERC20 {
    constructor(address recipient) ERC20("RECEH", "RECEH") {
        _mint(recipient, 100000000 * 10 ** decimals());
    }
}

Analysis Per Line:

• pragma solidity ^0.8.27; : Uses compiler version 0.8.27 or newer. Native overflow/underflow checks are ACTIVATED.
• contract RECEH is ERC20 { ... } : The contract inherits ALL functions from the base ERC20 contract.
• constructor(address recipient) ERC20("RECEH", "RECEH") { ... } : The constructor receives the recipient address and calls the parent constructor to set the name and symbol.
• _mint(recipient, 100000000 * 10 ** decimals()); :
  • _mint is a SAFE internal function from OpenZeppelin. It handles total supply updates and recipient balance adjustments correctly.
  • 100000000 * 10 ** decimals() calculates the total supply with 18 decimals. This value is FIXED AND IMMUTABLE.

FINDING: No malicious code or logic flaws detected. The contract performs exactly as intended in the most secure manner possible.

4.2. Scenario Testing

Various standard transaction scenarios were theoretically tested:

4.3. On-Chain Security Analysis

Examination of the deployed contract revealed NO evidence of:

• Malicious fallback functions.
• Dangerous opcodes such as SELFDESTRUCT.
• Code obfuscation patterns.
• Suspicious metadata.

5. FINDINGS & RECOMMENDATIONS (DETAILED)

5.1. Findings Summary by Severity

5.2. Detailed Findings

FINDING L-01: Initial Supply Concentrated in a Single Address (Centralization Risk)

Description: The entire 100,000,000 RECEH token supply is minted and sent to a single wallet address (recipient) upon deployment.

Impact Analysis: This creates a CENTRALIZATION RISK. The recipient address holds 100% control over the entire token supply. This is a common practice but carries risk if the address is NOT a multi-signature (multisig) wallet and if the project team lacks a transparent distribution plan.

Technical Recommendation:

• Short-Term: Publicly disclose the recipient address and clearly explain the token distribution plan (e.g., allocation for DEX liquidity, team, public sale). Consider locking liquidity on platforms like Unicrypt or Pinksale.
• Long-Term: For future projects, consider using a Vesting Contract to gradually release tokens to team members and investors, mitigating the risk of a sudden large sell-off.

Status: Acknowledged

FINDING I-01: Floating Pragma

Description: The directive pragma solidity ^0.8.27; specifies that the contract can be compiled with any Solidity version from 0.8.27 up to (but not including) 0.9.0.

Impact Analysis: The practical impact is LOW because version 0.8.x contains critical security fixes. However, this deviates from the best practice of LOCKING the compiler version to ensure reproducibility and avoid unexpected behavioral changes in future compiler releases.

Recommendation: Replace with pragma solidity 0.8.27; to ensure the code is always compiled with the exact same version as when it was audited.

Status: Acknowledged

6. RISK ASSESSMENT MATRIX

7. FINAL CONCLUSION & VERDICT

Based on the comprehensive technical audit, the RECEH token contract is proven to be SECURE from a code execution perspective. The contract is a VANILLA, STANDARD ERC-20 implementation that is reliable and contains NO exploitable mechanisms.

FINAL VERDICT: SECURE FOR USE

The only concern is the SUPPLY CENTRALIZATION, which is an OPERATIONAL AND GOVERNANCE risk, NOT a code vulnerability. The safety of user funds heavily relies on the trustworthiness of the recipient address holder and their distribution plan.

8. APPENDIX

A. Testing Environment Information

• Solidity Version: 0.8.27
• Test Chain: BSC Mainnet (On-Chain Verification) & Hardhat (Local Simulation)
• Analysis Tools: Slither, MythX, Go+ Security API, Honeypot.is API

B. References & Standards

• EIP-20: ERC-20 Token Standard
• OpenZeppelin Contracts 5.5.0 Documentation
• ConsenSys Smart Contract Best Practices

9. DISCLAIMER

IMPORTANT: This report is prepared based on the source code and information available on the date stated. This report is NOT an investment recommendation, endorsement of the project, or an absolute guarantee of security. Smart contract security is a rapidly evolving field, and NO audit can provide a 100% guarantee against all vulnerabilities. Users are STRONGLY ADVISED to conduct their own independent research (DYOR) before interacting with this contract. The auditor assumes NO LIABILITY for financial losses or other damages arising from the use of this contract.

END OF REPORT