High Severity SQL Injection Vulnerability Code Security Report

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This comprehensive code security report highlights a critical vulnerability discovered during the latest scan of the SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419 project. The report focuses on a high-severity SQL Injection vulnerability identified in the Java code. Understanding and addressing this vulnerability is crucial for maintaining the security and integrity of the application. This report provides detailed information about the vulnerability, its location, potential impact, and resources for remediation.

Scan Metadata

The scan metadata provides a snapshot of the project's security posture. It includes essential information about the scan's timing, findings, and the scope of the analysis. Let's delve deeper into the details provided by the scan metadata.

Latest Scan: 2025-07-07 06:01pm

The latest scan was conducted on July 7th, 2025, at 6:01 PM. This timestamp indicates the freshness of the findings presented in this report. It's essential to consider the scan date when evaluating the current security state of the project, as code changes and updates may introduce new vulnerabilities or resolve existing ones. Regular scans are vital to ensure ongoing security.

Total Findings: 1 | New Findings: 0 | Resolved Findings: 0

The scan identified a total of one finding, which is the high-severity SQL Injection vulnerability. There are no new findings, indicating that no new vulnerabilities were introduced since the previous scan. Additionally, no findings were resolved, meaning the identified SQL Injection vulnerability remains active and requires attention. The presence of even a single high-severity vulnerability warrants immediate action to mitigate potential risks.

Tested Project Files: 1

The scan analyzed one project file, suggesting a focused scope for this particular scan. This could be a specific module, component, or a single file deemed critical for security assessment. Understanding the scope of the scan helps contextualize the findings and prioritize remediation efforts. If the application comprises multiple files or modules, further scans might be necessary to ensure comprehensive coverage.

Detected Programming Languages: 1 (Java*)

The scan detected Java as the primary programming language used in the tested file. This information is crucial for selecting appropriate remediation techniques and security best practices. SQL Injection vulnerabilities are common in applications that use databases, making Java applications with database interactions particularly susceptible. Knowing the programming language allows developers to leverage language-specific security measures and tools.

Manual Scan Trigger

  • [ ] Check this box to manually trigger a scan

This section provides a mechanism to manually trigger a scan. Manual scans are essential for verifying fixes, assessing the impact of code changes, or conducting ad-hoc security assessments. By checking the box, developers can initiate a new scan to obtain the latest security findings.

Finding Details

This section dives into the specifics of the identified SQL Injection vulnerability. It provides a detailed breakdown of the vulnerability's characteristics, location, and potential impact. Understanding these details is crucial for effectively addressing the vulnerability and preventing future occurrences.

Vulnerability Summary

SeverityVulnerability TypeCWEFileData FlowsDetected
HighSQL Injection

CWE-89

0dummy.java:38

12025-07-07 06:01pm
Vulnerable Code

https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L33-L38

1 Data Flow/s detected

https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L27

https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L28

https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L31

https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L33

https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L38

Secure Code Warrior Training Material

● Training

   ▪ Secure Code Warrior SQL Injection Training

● Videos

   ▪ Secure Code Warrior SQL Injection Video

● Further Reading

   ▪ OWASP SQL Injection Prevention Cheat Sheet

   ▪ OWASP SQL Injection

   ▪ OWASP Query Parameterization Cheat Sheet

:black_flag: Suppress Finding
  • [ ] ... as False Alarm
  • [ ] ... as Acceptable Risk

This table summarizes the key details of the identified SQL Injection vulnerability. Let's break down each column to understand the vulnerability thoroughly:

Severity: The severity is marked as High, indicated by the red icon. This signifies that the vulnerability poses a significant risk to the application and its data. High-severity vulnerabilities can lead to severe consequences, such as data breaches, unauthorized access, and system compromise. Prioritizing remediation of high-severity vulnerabilities is crucial to protect the application from potential attacks.

Vulnerability Type: The vulnerability type is identified as SQL Injection. SQL Injection is a common web security vulnerability that occurs when user-supplied input is incorporated into SQL queries without proper sanitization. Attackers can exploit this vulnerability to inject malicious SQL code, potentially gaining unauthorized access to the database, modifying data, or even executing arbitrary commands on the database server. Understanding that the vulnerability is an SQL Injection is the first step in implementing appropriate mitigation strategies.

CWE: The Common Weakness Enumeration (CWE) code is CWE-89. CWE-89 specifically refers to "Improper Neutralization of Special Elements used in an SQL Command ('SQL Injection')." This categorization provides a standardized way to identify and classify the vulnerability. Referencing the CWE code allows developers and security professionals to access detailed information about the vulnerability, including its causes, potential impacts, and recommended mitigation techniques. Clicking the provided link leads to the CWE-89 definition page, offering comprehensive insights into the vulnerability.

File: The vulnerability is located in the file 0dummy.java at line 38. This provides the precise location of the vulnerable code within the project. Knowing the file and line number allows developers to quickly pinpoint the issue and begin the remediation process. The provided link directs to the specific line of code in the GitHub repository, facilitating easy access and analysis of the vulnerable code segment. Examining the code in its context is crucial for understanding the vulnerability's root cause and implementing effective fixes.

Data Flows: The number of data flows detected is 1. Data flow analysis traces the path of data through the application, highlighting how user input reaches the vulnerable code. This information helps understand the vulnerability's attack surface and identify potential entry points for malicious input. Analyzing data flows is crucial for implementing comprehensive security measures that prevent attackers from exploiting the vulnerability. In this case, understanding the single data flow helps streamline the remediation process by focusing on the specific path of data that leads to the SQL Injection.

Detected: The vulnerability was detected on 2025-07-07 at 06:01pm. This timestamp indicates when the vulnerability was identified during the scan. It's consistent with the latest scan time, confirming that this is a current finding. The detection date is important for tracking the vulnerability's lifecycle, from its discovery to its remediation. Knowing the detection date helps prioritize remediation efforts and ensures that the vulnerability is addressed promptly.

Vulnerable Code Details

This section provides direct links to the vulnerable code in the repository, allowing for a detailed examination of the issue. Accessing the code is crucial for understanding the context and implementing effective remediation strategies.

The provided link, https://github.com/SAST-UP-STG/SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419/blob/ea0e495ee19acde9e7f76cdea83cfeac3baf9058/0dummy.java#L33-L38, leads to the specific lines of code (lines 33-38) in the 0dummy.java file where the SQL Injection vulnerability is present. By reviewing the code, developers can identify the exact point where user input is being incorporated into the SQL query without proper sanitization. This direct access facilitates targeted remediation efforts and ensures that the fix addresses the root cause of the vulnerability.

Additionally, the data flow analysis details the path of the data through the application, highlighting how user input reaches the vulnerable code. The provided links trace the flow of data from its origin to the point of the SQL Injection, allowing developers to understand the attack surface and potential entry points for malicious input. Analyzing the data flow helps implement comprehensive security measures that prevent attackers from exploiting the vulnerability.

Secure Code Warrior Training Material

Secure Code Warrior provides valuable training resources to help developers understand and prevent SQL Injection vulnerabilities. These resources include training modules, videos, and further reading materials. Utilizing these resources can significantly improve developers' security awareness and coding practices.

Training

   ▪ Secure Code Warrior SQL Injection Training

This link leads to a comprehensive training module specifically focused on SQL Injection in Java applications. The module provides hands-on exercises and real-world examples to help developers learn how to identify and prevent SQL Injection vulnerabilities. Completing this training can significantly enhance developers' understanding of secure coding practices.

Videos

   ▪ Secure Code Warrior SQL Injection Video

This video offers a visual explanation of SQL Injection vulnerabilities, demonstrating how they occur and the potential impact they can have on applications. Watching the video can provide developers with a clear understanding of the vulnerability's mechanics and the importance of implementing proper security measures. Visual learning aids are often effective in reinforcing key concepts and best practices.

Further Reading

   ▪ OWASP SQL Injection Prevention Cheat Sheet

This cheat sheet from the Open Web Application Security Project (OWASP) provides a concise guide to preventing SQL Injection vulnerabilities. It outlines best practices for input validation, output encoding, and other security measures. The cheat sheet serves as a valuable reference for developers looking to implement effective security controls in their code.

   ▪ OWASP SQL Injection

This OWASP page offers a comprehensive overview of SQL Injection vulnerabilities, including their causes, impact, and prevention techniques. It provides in-depth information about the vulnerability and its various forms. Developers can use this resource to gain a deeper understanding of SQL Injection and its potential risks.

   ▪ OWASP Query Parameterization Cheat Sheet

This cheat sheet focuses specifically on query parameterization, a technique used to prevent SQL Injection vulnerabilities. It explains how to use parameterized queries to safely incorporate user input into SQL queries. Query parameterization is a highly effective defense against SQL Injection attacks.

Suppressing the Finding

This section provides options to suppress the finding, either as a false alarm or as an acceptable risk. It's important to carefully evaluate the vulnerability before suppressing it, as suppressing a genuine vulnerability can lead to significant security risks. Suppression should only be done after thorough analysis and with proper justification.

:black_flag: Suppress Finding
  • [ ] ... as False Alarm

  • [ ] ... as Acceptable Risk

The options to suppress the finding include:

  • False Alarm: This option is used when the identified vulnerability is not a genuine issue. This can occur due to false positives in the scanning tool or when the code's behavior does not align with the vulnerability description. If the vulnerability is deemed a false alarm, it can be suppressed to avoid unnecessary alerts.

  • Acceptable Risk: This option is used when the vulnerability is acknowledged but the risk is deemed acceptable due to mitigating factors. This might be the case if the vulnerable code is not exposed to external users or if other security controls are in place to reduce the risk. Suppressing a vulnerability as an acceptable risk requires careful consideration and documentation of the rationale behind the decision.

Before suppressing the finding, it's crucial to perform a thorough analysis to ensure that the decision is justified. Suppressing a genuine vulnerability can leave the application vulnerable to attacks, potentially leading to severe consequences. The finding ID and scan ID are provided for reference and can be used to track the suppression decision.

In conclusion, this code security report highlights a high-severity SQL Injection vulnerability in the SAST-Test-Repo-61c6ba05-9909-414a-96e1-c3437d7ce419 project. The vulnerability is located in 0dummy.java at line 38 and poses a significant risk to the application. Addressing this vulnerability is critical for maintaining the security and integrity of the system. This report provides the necessary information for developers to understand the vulnerability, its location, and potential impact. Utilizing the provided resources, including Secure Code Warrior training materials and OWASP cheat sheets, will aid in effectively remediating the vulnerability and preventing future occurrences. Prioritizing the remediation of this high-severity SQL Injection vulnerability is essential to protect the application from potential attacks and ensure the confidentiality, integrity, and availability of its data.