The SecOps Group CAP Dumps - Pass Certified AppSec Practitioner Exam in 2026

The request is a GET to /userProfile.php with a sessionId parameter matching the JSESSIONID cookie, and the response is a 200 OK with an HTML page. Let's evaluate the statements:

Option A ('The application uses an insecure channel (non-TLS)'): The request uses http:// (inferred from the absence of https:// in the Host and GET line), indicating a non-TLS channel. However, the question asks about the 'application' (likely the server-side behavior), and the response does not explicitly confirm the channel used for the response. Modern browsers might enforce TLS, but the request suggests an insecure channel. This could be true, but it depends on the server's configuration, making it less certain without further context.

Option B ('The application uses an insecure HTTP method (GET) to send sensitive information'): Correct. The sessionId parameter in the URL (/userProfile.php?sessionId=7576572ce164646de967c759643d53031) is sensitive data, as it could be used to hijack the user's session. Using GET exposes this data in browser history, server logs, and referral headers, which is insecure. Best practice is to use POST for sensitive data to avoid such exposure. The JSESSIONID cookie is marked HttpOnly, mitigating some risks, but the sessionId in the URL remains a vulnerability.

Option C ('The application is vulnerable to Cross-Site Scripting attacks'): The response includes an HTML page with no visible user input or script execution. There's no evidence of unsanitized input or script injection (e.g., no dynamic content like <script> tags with user data). The X-Xss-Protection: 1; mode=block header (though not shown) would mitigate XSS if present, but the response alone does not indicate vulnerability, so this is incorrect.

Option D ('All of the above'): Incorrect, as only B is definitively true; A is uncertain without confirming the response channel, and C lacks evidence.

The correct answer is B, aligning with the CAP syllabus under 'HTTP Methods Security' and 'Session Management.'

The xmlrpc.php endpoint is a file commonly associated with WordPress, a popular Content Management System (CMS). XML-RPC (XML Remote Procedure Call) is a protocol used for remote communication, and in WordPress, xmlrpc.php enables features like remote publishing, pingbacks, and trackbacks. However, it is also a frequent target for attacks (e.g., brute-force attacks, DDoS) if not properly secured or disabled when unnecessary. While other CMS platforms like Drupal may support XML-RPC, they typically do not use a file named xmlrpc.php by default; Drupal's XML-RPC functionality is often integrated into its core or modules (e.g., via xmlrpc.module) and uses different endpoints.

Option A ('WordPress'): Correct, as xmlrpc.php is a hallmark of WordPress installations.

Option B ('Drupal'): Incorrect, as Drupal does not use xmlrpc.php by default; its XML-RPC endpoints are different.

Option C ('Both A and B'): Incorrect, as xmlrpc.php is specific to WordPress.

Option D ('None of the above'): Incorrect, as WordPress is the correct match.

The correct answer is A, aligning with the CAP syllabus under 'CMS Security' and 'WordPress Vulnerabilities.'

Caching HTTP responses can pose security risks, especially for sensitive data, as cached responses might be accessed by unauthorized users (e.g., on a shared device). The goal is to identify the HTTP response header that prevents caching in the most secure way. Let's evaluate the options:

Option A ('Cache-Control: no-cache, no-store'): Correct. The Cache-Control header with no-cache instructs clients to revalidate with the server before using a cached copy, and no-store prohibits caching entirely (no storage in any cache, including browser, proxy, or CDN). This combination ensures the response is not cached, providing the most secure prevention of caching for sensitive data.

Option B ('Secure-Cache: Enabled'): There is no standard HTTP header called Secure-Cache. This appears to be a made-up option and is not a valid mechanism for controlling caching.

Option C ('Cache-Control: Private'): The Cache-Control: Private directive allows caching but restricts it to the user's private cache (e.g., browser cache), preventing shared caches (e.g., proxies) from storing the response. However, it still permits caching in the browser, which is less secure than preventing all caching, especially for sensitive data.

Option D ('Content-Security-Policy: no-cache, no-store'): The Content-Security-Policy (CSP) header is used to mitigate XSS and other attacks by controlling which resources can be loaded (e.g., scripts, images). It does not control caching, and no-cache, no-store are not valid CSP directives. This is incorrect.

The correct answer is A, as Cache-Control: no-cache, no-store is the most secure way to prevent caching, aligning with the CAP syllabus under 'HTTP Headers Security' and 'Sensitive Data Protection.'

SSL (Secure Sockets Layer) and TLS (Transport Layer Security) are cryptographic protocols used to secure communication over a network. The security of these protocols has evolved over time, with older versions being deprecated due to identified vulnerabilities. SSLv2 and SSLv3 are considered insecure because they are vulnerable to attacks such as POODLE (Padding Oracle On Downgraded Legacy Encryption), which exploits weaknesses in their padding schemes. Similarly, TLSv1.0 and TLSv1.1 are also deemed insecure due to vulnerabilities like BEAST (Browser Exploit Against SSL/TLS) and weak cipher support, and they have been deprecated by modern standards (e.g., PCI DSS). TLSv1.2 and TLSv1.3 are considered secure when properly configured with strong ciphers.

Option A correctly identifies SSLv2 and SSLv3 as insecure, but it omits TLSv1.0 and TLSv1.1. Option B correctly identifies TLSv1.0 and TLSv1.1 as insecure but omits SSLv2 and SSLv3. Option C ('Both A and B') encompasses all insecure protocols (SSLv2, SSLv3, TLSv1.0, and TLSv1.1), making it the most comprehensive and correct answer. Option D is incorrect because it includes TLSv1.2 and TLSv1.3, which are secure when used with modern configurations. This aligns with the CAP syllabus focus on secure communication protocols and vulnerability management.

SAML (Security Assertion Markup Language) is an open standard for exchanging authentication and authorization data between parties, particularly in the context of single sign-on (SSO). It is based on XML and is widely used to enable secure web-based authentication and authorization across different domains. The correct full form is Security Assertion Markup Language, where 'Assertion' refers to statements about a subject (e.g., identity, attributes), 'Markup' indicates the XML-based structure, and 'Language' denotes the defined syntax.

Option A ('Security Assertion Markup Language'): This is the correct and official full form of SAML as defined by OASIS (Organization for the Advancement of Structured Information Standards).

Option B ('Security Authorization Markup Language'): Incorrect, as 'Authorization' is not part of the acronym; SAML focuses on both authentication and authorization assertions.

Option C ('Security Assertion Management Language'): Incorrect, as 'Management' is not part of the acronym; SAML is about markup, not management.

Option D ('Secure Authentication Markup Language'): Incorrect, as 'Secure' is not part of the acronym, and SAML covers more than just authentication.

The correct answer is A, aligning with the CAP syllabus under 'Authentication and Authorization' and 'Single Sign-On (SSO) Standards.'