CompTIA PT0-003 Practice Test Questions Answers

OS identification in tools like Nmap relies on fingerprinting techniques, which analyze response characteristics (e.g., TCP/IP stack behavior).

The scan cannot gather one or more fingerprints from the target (Option D):

If the system is configured to block ICMP responses, or if certain ports are closed, fingerprinting fails.

Some modern firewalls and intrusion prevention systems (IPS) interfere with OS fingerprinting by modifying packet responses.

To collect permission details for objects within an Active Directory domain, the PenTest+ workflow most closely aligns with using SharpHound (the BloodHound data collector) followed by BloodHound analysis. SharpHound is executed from a domain-joined or internally reachable system using a valid AD account to enumerate domain relationships, including group membership, sessions, local admin rights, and—most importantly for this question—object control and ACL-based permissions (for example, rights that allow modifying users, resetting passwords, adding group members, or controlling GPOs). BloodHound then imports this collected graph data and allows the tester to run Cypher queries to identify effective privileges, abuse paths, and misconfigurations that enable privilege escalation or lateral movement.

Rubeus is primarily focused on Kerberos ticket operations (TGT/TGS manipulation, roasting, delegation abuse) and is not a Cypher-query permission-mapping platform. CrackMapExec supports network/AD operations, but it is not the standard toolchain for graph-based permission path analysis described in PenTest+. Registry collection is unrelated to enumerating domain object permissions.

The correct answer is C. intext:

The intext: search operator is used to search for specific text within the body content of indexed web pages. Since email addresses typically appear as visible text on web pages, documents, staff directories, contact pages, PDFs, and archived pages, intext: is the best operator for locating exposed email addresses during OSINT.

For example, a tester could search for:

intext: " @example.com "

This would return pages where email addresses or domain-based email strings appear in the page content.

A is incorrect because site: limits results to a specific domain or website. It is useful when narrowing OSINT searches, but by itself it does not specifically search for email addresses.

B is incorrect because intitle: searches only page titles. Email addresses are rarely found in page titles.

D is incorrect because inurl: searches for terms in URLs. Email addresses are typically not located in URLs.

In PenTest+ terms, this falls under Information Gathering and Vulnerability Scanning, specifically OSINT and search engine reconnaissance for phishing preparation.

1: Null session enumeration

Weak SMB file permissions

Fragmentation attack

2: nmap

-sV

-p 1-1023

192.168.2.2

3: #!/usr/bin/python

export $PORTS = 21,22

for $PORT in $PORTS:

try:

s.connect((ip, port))

print(“%s:%s – OPEN” % (ip, port))

except socket.timeout

print(“%:%s – TIMEOUT” % (ip, port))

except socket.error as e:

print(“%:%s – CLOSED” % (ip, port))

finally

s.close()

port_scan(sys.argv[1], ports)

The tester identified an HTTPS downgrade attack (e.g., SSL stripping). The best mitigation is to enforce HSTS (HTTP Strict Transport Security).

HSTS (Option A):

HSTS (Strict-Transport-Security) ensures that the browser always uses HTTPS, preventing downgrade attacks.

Example header:

Strict-Transport-Security: max-age=31536000; includeSubDomains