Free The SecOps Group CAP Exam Dumps June 2026

A Dependency Confusion Attack occurs when an attacker uploads a malicious package with the same name as a private package to a public package repository (e.g., npm, PyPI), causing a package manager to prioritize the malicious public package over the intended private one due to misconfiguration or version precedence. To identify potential private packages for such an attack, attackers analyze dependency configuration files that list the application's dependencies.

Option A ('package.json'): This file is used by npm (Node.js package manager) to define dependencies for JavaScript projects. It lists package names and versions, making it a prime target for identifying private packages that might be targeted in a dependency confusion attack.

Option B ('requirements.txt'): This file is used by pip (Python package manager) to define dependencies for Python projects. It similarly lists package names and versions, making it another target for identifying private packages.

Option C ('Both A and B'): Correct, as both package.json (JavaScript/Node.js) and requirements.txt (Python) are dependency configuration files that can reveal private package names, which an attacker might exploit in a dependency confusion attack.

Option D ('None of the above'): Incorrect, as both files are relevant.

The correct answer is C, aligning with the CAP syllabus under 'Supply Chain Attacks' and 'Dependency Management.'

The scenario describes a password reset mechanism where a user receives an email with a reset link: http://example.com/reset_password?userId=5298. Let's evaluate each option:

Option A ('The reset link uses an insecure channel'): The reset link uses http:// instead of https://, indicating an insecure channel (HTTP instead of HTTPS). Transmitting sensitive data (e.g., a reset link) over HTTP allows an attacker to intercept the request, potentially stealing the reset token or user ID. This makes the reset mechanism insecure, so this statement is true.

Option B ('The application is vulnerable to username enumeration'): The message 'If the email exists, we will email you a link to reset the password' is generic and does not reveal whether the email exists, which is a best practice to prevent username enumeration. Username enumeration would occur if the application responded differently for existing vs. non-existing users (e.g., 'Email not found'). Here, there's no indication of enumeration vulnerability, so this statement is false.

Option C ('The application will allow the user to reset an arbitrary user's password'): The reset link includes a userId=5298 parameter, which appears to directly reference a user's ID. If an attacker can manipulate this parameter (e.g., to userId=5299), they might be able to reset another user's password, especially if the application does not validate that the reset request is tied to the user's session or email. The link also lacks a one-time token or other verification mechanism to ensure the request is legitimate. This suggests an Insecure Direct Object Reference (IDOR) vulnerability, making this statement true.

Option D ('Both A and C'): Since both A (insecure channel) and C (arbitrary password reset) are true, this is the correct answer.

The correct answer is D, aligning with the CAP syllabus under 'Password Reset Security' and 'Insecure Direct Object Reference (IDOR).'

The request is a GET to /dashboard.php with a purl parameter (http://attacker.com). The response is a 302 Found redirect with a Location: http://attacker.com header, indicating the server redirects the client to the URL specified in the purl parameter. Let's evaluate the statements:

Option A ('Application is likely to be vulnerable to Open Redirection vulnerability'): Correct. Open Redirection occurs when an application redirects to a user-supplied URL without validation. Here, the purl parameter (http://attacker.com) is directly used in the Location header, allowing an attacker to redirect users to a malicious site (e.g., for phishing). This is a classic Open Redirection vulnerability if the application does not restrict redirects to trusted domains.

Option B ('Application is vulnerable to Cross-Site Request Forgery vulnerability'): Incorrect. CSRF involves tricking a user into making an unintended request (e.g., via a malicious form). This response does not indicate a CSRF issue; there's no evidence of state-changing actions or lack of CSRF tokens.

Option C ('Application uses an insecure protocol'): Incorrect. The request is made over HTTP, and the redirect is to an HTTP URL (http://attacker.com), which is insecure, but the response itself does not indicate the protocol used for the initial request. The server could be using HTTPS for the initial response; the insecure protocol is in the redirect destination, which relates to the Open Redirection issue, not the application's protocol usage broadly.

Option D ('All of the above'): Incorrect, as only A is true.

The correct answer is A, aligning with the CAP syllabus under 'Open Redirection Vulnerabilities' and 'URL Redirection Attacks.'